Christian’s PDF files

Last modified: 2026-04-04 13:43


• A.N. (1918): Seltene Erden. – Kohle und Erz, 15(1/2):7–10.
• A.Sch. (1889): Alte Bergwerksreste in Tirol. – Österr. Z. f. Berg- u. Hüttenwesen, 37:23.
• Aalto, J.-M., Kankkunen, J. & Vepsäläinen, J. (2017): Sulfate Removal from Water Streams Down to ppm Level by Using Recyclable Biopolymer. Paper presented at the IMWA 2017 – Mine Water & Circular Economy, Lappeenranta. – p. 1356–1361; (Lappeenranta University of Technology).
• Aarnes, I., Svensen, H., Polteau, S. & Planke, S. (2011): Contact metamorphic devolatilization of shales in the Karoo Basin, South Africa, and the effects of multiple sill intrusions. – Chem. Geol., 281(3-4):181–194, doi:10.1016/j.chemgeo.2010.12.007.
• Abaci, S., Edwards, J. S. & Whittaker, B. N. (1992): Relative Permeability Measurements for two Phase Flow in unconsolidated Sands. – Mine Water Environ., 11(2):11–26, 8 Abb.; doi:10.1007/BF02919583.
• Abad, C. (1993): Industrial Air Pollution and Available Air Pollution Control Technology in Zambia. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 492–497; Chililabombwe (Konkola Division).
• Abanades, J. C. (2002): The maximum capture efficiency of CO₂ using a carbonation/calcination cycle of CaO/CaCO₃. – Chem. Eng. J., 90(3):303–306.
• Abanades, J. C. & Alvarez, D. (2003): Conversion limits in the reaction of CO₂ with lime. – Energy Fuels, 17(2):308–315.
• Abanades, J. C., Anthony, E. J., Lu, D. Y., Salvador, C. & Alvarez, D. (2004): Capture of CO₂ from combustion gases in a fluidized bed of CaO. – AIChE Journal, 50(7):1614–1622, 9 Abb.; doi:10.1002/aic.10132.
• Abanades, J. C., Anthony, E. J., Wang, J. S. & Oakey, J. E. (2005): Fluidized bed combustion systems integrating CO₂ capture with CaO. – Environ. Sci. Technol., 39(8):2861–2866.
• Abbassi, R., Khan, F. & Hawboldt, K. (2009): Prediction of Minerals Producing Acid Mine Drainage Using a Computer-Assisted Thermodynamic Chemical Equilibrium Model. – Mine Water Environ., 28(1):74–78, 2 Abb., 3 Tab.; doi:10.1007/s10230-008-0062-4.
• Abbiw, E. & Kruse Daniels, N. A. (2024): Sorption of metals from low-iron acid mine drainage using agricultural waste materials. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 1–2; Morgantown (International Mine Water Association).
• Abdallah, W., Buckley, J. S., Carnegie, A., Edwards, J., Herold, B., Fordham, E., Graue, A., Habashy, T., Seleznev, N., Signer, C., Hussain, H., Montaron, B. & Ziauddin, M. (2007): Fundamentals of Wettability. – Oilfield Review:44–61, 24 Abb.
• Abdel Wahed, M. S. M., Mohamed, E. A., Wolkersdorfer, Ch., El-Sayed, M. I., M’nif, A. & Sillanpää, M. (2014): Water Quality of Fayoum Surface Water, Fayoum Province, Egypt. Paper presented at the Deltas in Times of Climate Change II, Rotterdam, 24–26 Sept. 2014. –.
• Abdel Wahed, M. S. M., Mohamed, E. A., Wolkersdorfer, Ch., El-Sayed, M. I., M’nif, A. & Sillanpää, M. (2015): Assessment of water quality in surface waters of the Fayoum watershed, Egypt. – Environ. Earth Sci., 74(2):1765–1783, 9 Abb., 3 Tab.; doi:10.1007/s12665-015-4186-0.
• Abdelaziz, R., Pearson, A. J. & Merkel, B. J. (2013): Lattice Boltzmann modeling for tracer test analysis in a fractured Gneiss aquifer. – Nat. Sci., 5(3):368–374, doi:10.4236/ns.2013.53050.
• Abdo, G. N. (1994): Baseline ground-water monitoring for documenting impact of abandoned mine flooding; Berkeley Pit, Butte, Montana. – Abstracts with Programs – Geological Society of America, 26(7):412–413.
• Abed, A. M., Sadaqah, R. & Kuisi, M. A. (2008): Uranium and Potentially Toxic Metals During the Mining, Beneficiation, and Processing of Phosphorite and their Effects on Ground Water in Jordan. – Mine Water Environ., 27(3):171–182, 5 Abb., 5 Tab.; doi:10.1007/s10230-008-0039-3.
• Abegunde, O. A. (2015): Geologic and geological assessment of Acid Mine Drainage and heavy metals contamination in the West Rand, Witwatersrand Basin, South Africa. – 182 p., University of the Western Cape, 39 Abb., 15 Tab., 6 Anl.
• Abel, A., Werner, F. & Luckner, L. (1998): Tailing Erosion as Water Quality Forming Factor in Lake Systems arising from abandoned Open Cast Lignite Mines: Mine Water and Environmental Impacts 2. – 311–322 p., 7 Abb., 7 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Abele, G. (1964): Die Bergsturzlandschaft am Fernpaß. – Jb. Dtsch. Alpenver., 89:40–49, 2 Abb., 2 Taf.
• Abele, G. (1964): Die Fernpaßtalung und ihre morphologischen Probleme. – Tübinger Geograph. Stud., 12:1–123, 7 Abb., 4 Bilder, 3 Tab., 1 Faltkarte.
• Abele, G. (1969): Vom Eis geformte Bergsturzlandschaften – Zur Frage der glazialen Umgestaltung der Bergstürze von Sierre, Flims, Ems und vom Fernpaß. – Z. Geomorph. N.F. Suppl., 8:119–147, 11 Abb.
• Abele, G. (1991): Der Fernpaßbergsturz – Eine differentielle Felsgleitung. – Jber. Österr. Geograph. Ges. Zweigver. Innsbruck, 1989/1990:22–32, 2 Abb.
• Abele, G. (1994): Large Rockslides – Their Causes and Movement on Internal Sliding Planes. – Mt. Res. Dev., 14(4):315–320, 6 Abb.
• Abele, G. (1997): Rockslide movement supported by the mobilization of groundwater-saturated valley floor sediments. – Z. Geomorph., 41(1):1–20.
• Abele, G., Berger, K. & Salger, M. (1962): Die Uranvorkommen im Burgsandstein Mittelfrankens. – Geol. Bavarica, 49:3–90, 33 Abb., 6 Tab., 6 Diagr., 1 Beil.
• Abele, G. & Maier, J. (1975): Fernpass – Garmisch Partenkirchen. – lnnsbrucker Geograph. Stud., 2:145–165, 3 Abb., 1 Tab.
• Abelin, H., Birgersson, L., Gidlund, J. & Neretnieks, I. (1991): A large-scale flow and tracer experiment in granite (1) experimental-design and flow distribution. – Water Resour. Res., 27(12):3107–3117, doi:10.1029/91WR01405.
• Abelin, H., Birgersson, L., Moreno, L., Widen, H., Agren, T. & Neretnieks, I. (1991): A large-scale flow and tracer experiment in granite (2) Results and interpretation. – Water Resour. Res., 27(12):3119–3135, doi:10.1029/91WR01404.
• Abella Lopes, F., dos Santos Menezes, J. C. S. & Schneider, I. A. H. (2011): Acid mine drainage as source of iron for the treatment of sewage by coagulation and Fenton’s Reaction: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 237–240 p., Aachen (RWTH Aachen University).
• Åberg, S. C., Åberg, A. K., Korkka-Niemi, K. & Salonen, V.-P. (2017): Hydrostratigraphy and 3D Modelling of a Bank Storage Affected Aquifer in a Mineral Exploration Area in Sodankylä, Northern Finland. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 237–243, Lappeenranta (Lappeenranta University of Technology).
• Åberg, S. C., Korkka-Niemi, K. & Salonen, V.-P. (2016): Bank storage affected aquifer along the river Kitinen in Sodankylä, Northern Finland (Abstract). Paper presented at the 32nd Nordic Geological Winter Meeting, Helsinki, 13th–15th January 2016. – p. 81; (Geological Society of Finland).
• Abeywickrama, J., Karimi, K., Grimmer, M., Hoth, N. & Drebenstedt, C. (2024): Resource Recovery from Abandoned Mine Drainage Galleries via Ion Exchange: A Case Study from Freiberg Mining Area, Germany. – Recycling, 9(6):105, doi:10.3390/recycling9060105.
• Abeywickrama, J. T. & Hoth, N. (2025): Zinc Recovery from Abandoned Mine Drainage: Insights from the Freiberg Mining Region, Germany. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 956–962; Braga (International Mine Water Association).
• Abfertiawan, M. S., Hasan, F., Handajani, M., Syafila, M., Gunawan, F. & Djali, F. (2023): High Total Suspended Solid (TSS) Removal for Coal Mining Water Using Electrocoagulation. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 1–5; (International Mine Water Association).
• Abfertiawan, M. S., Hasan, F., Meutia, R. R. & Al Fadhli, R. (2025): Settling Characteristics and Treatment Strategies for Open-Cast Coal Mine Water in South Sumatra, Indonesia. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 426–432; Braga (International Mine Water Association).
• Abfertiawan, M. S., Jati, W. S., Syafila, M. & Handajani, M. (2025): Physicochemical Characterization of Nickel Mine Wastewater in South Sulawesi, Indonesia: Seasonal Variations and Treatment Potential. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 125–131; Braga (International Mine Water Association).
• Abfertiawan, M. S., Syafila, M., Handajani, M., Hasan, F., Oktaviani, H., Gunawan, F. & Djali, D. F. (2024): Batch Electrocoagulation Process for the Removal of High Colloidal Clay from Open-Cast Coal Mine Water Using Al and Fe Electrodes. – Mine Water Environ., 43(3):516–528, doi:10.1007/s10230-024-01004-1.
• Abfertiawan, S. & Gautama, R. S. (2011): Development of Catchment Area Approach in Management of Acid Mine Drainage: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 241–246 p., Aachen (RWTH Aachen University).
• Abis, K. L. & Mara, D. D. (2004): The Performance of pilot-scale primary-facultative Waste-Stabilisation Ponds in the UK. – Water Environ. J., 18(2):107–111, 3 Abb., 6 Tab.
• Abiye, T. (2013): The Use of Isotope Hydrology to Characterize and Assess Water Resources in South(ern) Africa. – (Report Nr. WRC TT 570/13). – 211 p., Pretoria (Water Research Commission).
• Abiye, T. A., Mengistu, H., Masindi, K. & Demlie, M. (2015): Reply to the Comments on the “Discussion Of : Surface Water and Groundwater Interaction in the Upper Crocodile River Basin, Johannesburg, South Africa, by Abiye et al. (2015)” by P. Hobbs (2015). – S. Afr. J. Geol., 118(4):517–518, doi:10.2113/gssajg.118.4.517.
• Abiye, T. A., Mengistu, H., Masindi, K. & Demlie, M. (2015): Surface Water and Groundwater Interaction in the Upper Crocodile River Basin, Johannesburg, South Africa: Environmental Isotope Approach. – S. Afr. J. Geol., 118(2):109–118, doi:10.2113/gssajg.118.2.109.
• Abraham, A., Baraniak, L. & Bernhard, G. (2004): Bog ground aquifer system as a natural analogue for future redox conditions in flooded underground mines. – J. Radioanal. Nucl. Chem., 261(3):597–604, doi:10.1023/b:jrnc.0000037101.94952.59.
• Abraham, D. A., Jin, F., Okeme, I. & Sapsford, D. (2022): Detection And Measurement Of Dissolved Metals In Mine Water Using Cation-Binding Resins And Field Portable XRF. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 1–6; (International Mine Water Association).
• Abrahams, J.-L. R. & Carranza, E. J. M. (2024): Geochemical Characterization of an AMD-Affected Stream: Detection of Associated Trace Metal Contamination Using Element ‘Dilution Factors’. – Mine Water Environ., 43(2):368–381, doi:10.1007/s10230-024-00982-6.
• Abrahams, J.-L. R. & Carranza, E. J. M. (2025): Prediction and mapping of Pb content in overbank sediments affected by coal-mining using airborne hyperspectral imaging. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 260–265; Braga (International Mine Water Association).
• Abrahams, J.-L. R., Okujeni, C. D., Abegunde, O. A., Wu, C. & Williams, A. S. (2025): Geochemical controls of potentially toxic element (PTE) release from the Gold One Tailings Dam Complex into the Randfontein area, Witwatersrand, South Africa. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 182–188; Braga (International Mine Water Association).
• Abrajano, T. A. J. & Lollar, B. S. (1999): Compound-specific isotope analysis: tracing organic contaminant sources and processes in geochemical systems (Introductory Note). – Org. Geochem., 30(8A):v–vii, doi:10.1016/S0146-6380(99)00055-8.
• Abramowicz, D. A. (1990): Aerobic and Anaerobic Biodegradation of PCBs: A Review. – Crit. Rev. Biotechnol., 10(3):241–251, doi:10.3109/07388559009038210.
• Abreu, C. B., Fleming, P. M., Ciminelli, V. S. T., Lopez, D. L., Branco, O. E. A. & Rodrigues, P. C. H. (2011): Soil gas compositions as a tool for understanding acid mine drainage formation and air flow in a uranium waste rock pil: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 247–252 p., Aachen (RWTH Aachen University).
• Abreu, C. B. d., Werle, M., Mortatti, B., Marteleto, T. d. P., Albuquerque, R., Santos, P. V. S., Machado, D. A., Costa, E. & Lange, L. (2025): Tailings Management in Iron Ore Mining: A Comprehensive Hydrogeochemical Modeling Protocol for Dry Stacking. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 403–408; Braga (International Mine Water Association).
• Abreu, C. d., Fleming, P., López, D., Ciminelli, V. & Mansur, M. (2015): Environmental Assessment for the Decommissioning of a Uranium Waste Rock Pile. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–8 [electronic document], Santiago/Chile (Gecamin).
• Abril Gómez, H. (1985): Preventative Measures against Flooding in two Underground Mines. – Proceedings, 2nd International Mine Water Association Congress, 1:241–253, 7 Abb.
• Abu Qdais, H., Begday, I. V., Katorgin, I. Y., Shkarlet, K. Y., Kharin, K. V., Bluzhina, A. S. & Likhovid, A. A. (2018): Assessment of Metals Pollution from Tailing Sites in the North Caucuses Region, Russia. – Mine Water Environ., 37(4):815–824, doi:10.1007/s10230-018-0545-x.
• Abulencia, J. P. & Theodore, L. (2009): Fluid flow for the practicing chemical engineer. – 580 p., Hoboken (Wiley).
• Abu-Qubu, J., Merkel, B. J., Dunger, V. & Rimawi, O. (2018): Variation of the Chemistry of the Dead Sea Brine as Consequence of the Decreasing Water Level. – Aquat. Geochem., 24(2):121–135, doi:10.1007/s10498-018-9336-z.
• Accornero, M. & Marini, L. (2007): A Water-Rock Interaction Study in kinetic Mode for the Arenarie di San Vito Formation (Sardinia, Italy): Water in Mining Environments. – 363–367 p., 4 Abb.; Cagliari (Mako Edizioni).
• Acero, P., Ayora, C., Cama, J. & Carrera, J. (2007): Weathering of pyritic Tailings in unsaturated Columns: experimental and reactive Transport Modeling: Water in Mining Environments. – 369–372 p., 3 Abb.; Cagliari (Mako Edizioni).
• Acero, P., Torrentó, C. & Ayora, C. (2005): Effect of schwertmannite ageing on Acid Rock Drainage geochemistry: Mine Water 2005 – Mine Closure. – 67–73 p., 4 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Acheampong, M. A., Meulepas, R. J. W. & Lens, P. N. L. (2010): Removal of heavy metals and cyanide from gold mine wastewater. – J. Chem. Technol. Biotechnol., 85(5):590–613, doi:10.1002/jctb.2358.
• Achleitner, A. & Ubl, E. (1894): Tirol und Vorarlberg – Neue Schilderung von Land und Leuten. – 400 p., Leipzig (Payne).
• Achtziger-Zupančič, P., Loew, S., Hiller, A. & Mariethoz, G. (2016): 3D fluid flow in fault zones of crystalline basement rocks (Poehla-Tellerhaeuser Ore Field, Ore Mountains, Germany). – Geofluids, 16(4):688–710, doi:10.1111/gfl.12192.
• Achyuthan, H. (1996): Geomorphic evolution and genesis of laterites around the east coast of Madras, Tamil Nadu, India. – Geomorphology, 16(1):71–76, 2 Abb., 2 Tab.
• Ackerman, G., Blinde, A., Fabian, E. & Hötzl, H. (1982): Anwendung der Markierungstechnik zur Untersuchung der Entwässerungsfunktion eines Erzganges. – Beitr. Geol. Schweiz – Hydrol., 28(II):423–434, 3 Abb.
• Ackerman, M., van der Waldt, G. & Botha, D. (2018): Mitigating the socio-economic consequences of mine closure. – J. S. Afr. Inst. Min. Metall., 118(4):439–447, doi:10.17159/2411-9717/2018/v118n4a14.
• Ackman, T. & Dilmore, R. (2002): Identifying and Sealing Water Loss Zones in the Anthracite Coal Region. Paper presented at the West Virginia Surface Mine Drainage Task Force Symposium. – p. 1–15, 11 Abb.
• Ackman, T. E. (2000): Feasibility of Lime Treatment at the Leviathan Mine Using the In-Line System. – Mine Water Environ., 19(1):56–75, 14 Abb.; doi:10.1007/BF02687264.
• Ackman, T. E. (2003): An Introduction to the Use of Airborne Technologies for Watershed Characterization in Mined Areas. – Mine Water Environ., 22(2):62–68, 5 Abb.; doi:10.1007/s10230-003-0002-2.
• Ackman, T. E. (2024): Harvesting the Energy of Mine Water. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 3–9; Morgantown (International Mine Water Association).
• Ackman, T. E. & Jones, J. R. (1988): Stream sealing to reduce surface water infiltration into underground mines. – Bur. Mines Inf. Circ., IC-9183:232–239, 6 Abb., 3 Tab.; doi:10.21000/JASMR88010232.
• Ackman, T. E. & Jones, J. R. (1991): Methods to identify and reduce potential surface stream water losses into abandoned underground mines. – Environ. Geol. Water Sci., 17(3):227–232, 6 Abb., 2 Tab.; doi:10.1007/BF01701703.
• Ackman, T. E. & Kleinmann, R. L. P. (1993): An In-Line System for Treatment of Mine Water. – Intern. Mine Waste Manag. News, 1(3):1–4.
• Ackman, T. E. & Place, J. M. (1987): Acid Mine Water Aeration and Treatment System. US Patent US4695378A.
• Ackman, T. E., Veloski, G. A., Dotson, R. A., Hammack, R. W., Sams Iii, J. I. & Kleinmann, R. L. P. (2000): A preliminary evaluation of remote-sensing technologies for watershed assessment. – Proceedings, 7th International Mine Water Association Congress:16–26, 1 Abb.
• Adam, C., Vidal, V. & Escartin, J. (2007): 80-Myr history of buoyancy and volcanic fluxes along the trails of the Walvis and St. Helena hotspots (South Atlantic). – Earth Planet. Sci. Lett., 261(3-4):432–442, doi:10.1016/j.epsl.2007.07.005.
• Adam, M. (2017): Durchführung von Bodenuntersuchungen im Umfeld des historischen Bergbaugebiets sowie im Auenbrereich der Bieber in 63599 Biebergemünd – Untersuchungsbericht. – Unpubl. Report for Regierungspräsidium Darmstadt (Report Nr. 2017132). – 11 p., 5 Tab., 9 Anl.; Oberursel (HydroData GmbH).
• Adam, M. (2020): Alterzbergbau in Hessen – Bergbaufolgelandschaften und Stoffausträge. Paper presented at the Altlasten – annual 2019, Wiesbaden, 2018. – p. 11–15; Wiesbaden (Hessisches Landesamt für Naturschutz, Umwelt und Geologie).
• Adamczyk, A. F., Haladus, A., Szczepanski, A. & Zdechlik, R. (2000): Conceptual dewatering project for closed hard-coal mines of the Sosnowiec sub-system. – Proceedings, 7th International Mine Water Association Congress:206–217, 2 Abb., 2 Tab.
• Adamczyk, A. F., Lesniak, T. C. & Motyka, J. (1987): Origin of Nitrogen Compounds in Water Infiltrating into Porphyry Quarry, Zalas, Southern Poland. – Int. J. Mine Water, 6(2):27–36, 3 Abb.; doi:10.1007/BF02498212.
• Adamczyk, Z. & Komraus, J. L. (2008): The origin of copiapite from chlorite pyritic schist (Wieściszowice, Lower Silesia, Poland) in the light of Mossbauer analysis. – Hyperfine Interact., 181(1-3):161–168, doi:10.1007/s10751-008-9604-1.
• Adamczyk, Z., Motyka, J. & Witkowski, A. J. (2000): Impact of Zn-Pb ore mining on groundwater quality in the Olkusz region. – Proceedings, 7th International Mine Water Association Congress:27–37, 6 Abb.
• Adamiec, E. & Helios-Rybicka, E. (2003): Heavy Metals in Water – suspended matter System in the Odra River. – Wiss. Mitt. Inst. Geol., 24:9–14, 2 Abb., 2 Tab.
• Adamo, A. (2018): A Cursed and Fragmented Island: History and Conflict Analysis in Bougainville, Papua New Guinea. – Small War Insur., 29(1):164–186, doi:10.1080/09592318.2018.1404765.
• Adams, D. J. & Peoples, M. (2010): New Electrobiochemical Reactor and Water Gas Mixing Technology for Removal of Metals, Nitrate, and BOD. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 99–103, Sydney, NS (Cape Breton University Press).
• Adams, D. J., Peoples, M. & Opara, A. (2012): A New Electro-Biochemical Reactor for Treatment of Wastewater. – In: Drelich, J., Hwang, J.-Y., Adams, J., Nagaraj, D. R., Sun, X. & Xu, Z. (eds): Water in Mineral Processing. – p. 143–154, 6 Abb.; Littleton (SME).
• Adams, G. B., Hollandsworth, R. P. & Bennion, D. N. (1975): Electrochemical Oxidation of Ferrous Iron in Very Dilute Solutions. – J. Electrochem. Soc., 122(8):1043–1048, doi:10.1149/1.2134392.
• Adams, J. (2000): Risk, 5th edn. – 228 p., London (Taylor & Francis).
• Adams, J. & Roberts, R. (2012): Advances in hydrogeologic testing of mineral exploration boreholes: International Mine Water Association Symposium. – 357–364 p., Bunbury (Edith Cowan University).
• Adams, M. C. (2000): The Stability of the Vapor-Phase Tracer R-134a: Federal Geothermal Research Program Update – Fiscal Year 1999 DOE/ID-10743. – 3_137–3_141 p., 1 Abb., 1 Tab.; Washington (U.S. Dep. Energy).
• Adams, M. C. (2001): Tracing Geothermal Fluids: Two-Phase Tracer Development: Geothermal Technologies Program Geoscience and Supporting Technologies – 2001 University Research Summaries DOE/ID-11004. – 94–100 p., 11 Abb., 1 Tab.; Washington (U.S. DOE Office of Wind and Geothermal Technologies).
• Adams, N., Carroll, D., Madalinski, K., Rock, S., Wilson, T., Pivetz, B., Anderson, T., Chappell, J., Huling, S., Palmiotti, J. & Sayre, P. (2000): Introduction to Phytoremediation: EPA-600/R-99/107. – 72 p., 13 Abb., 17 Tab.; Cincinnati (U.S. Environmental Protection Agency).
• Adams, R. (2014): A Review of Mine Water Rebound Predictions from the VSS–NET Model. – Mine Water Environ., 33(4):384–388, doi:10.1007/s10230-014-0312-6.
• Adams, R., Ahlfeld, D. & Sengupta, A. (2007): Investigating the Potential for Ongoing Pollution from an Abandoned Pyrite Mine. – Mine Water Environ., 26(1):2–13, 4 Abb., 6 Tab.; doi:10.1007/s10230-007-0144-8.
• Adams, R. & Younger, P. L. (1997): Simulation of Groundwater Rebound in Abandoned Mines Using a Physically based Modelling Approach. Paper presented at the Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia. – p. 353–362, 4 Abb.
• Adams, R. & Younger, P. L. (2000): Simulating groundwater rebound in a recently-closed tin min. – Proceedings, 7th International Mine Water Association Congress:218–228, 4 Abb., 2 Tab.
• Adams, R. & Younger, P. L. (2001): A Strategy for Modeling Ground Water Rebound in Abandoned Deep Mine Systems. – Ground Water, 39(2):249–261, 10 Abb.; doi:10.1111/j.1745-6584.2001.tb02306.x.
• Adams, R. & Younger, P. L. (2002): A physically based model of rebound in South Crofty tin mine, Cornwall. – Spec. Publ. – Geol. Soc. London, 198:89–97, 6 Abb., 2 Tab.; doi:10.1144/GSL.SP.2002.198.01.06.
• Adamson, P., Cao, S. V., Coelho, J. A. B., Davies, G. S., Evans, J. J., Guzowski, P., Habig, A., Holin, A., Huang, J., Kreymer, A., Kordosky, M., Lang, K., Marshak, M. L., Mehdiyev, R., Meier, J., Miller, W., Naples, D., Nelson, J. K., Nichol, R. J., Paolone, V., Patterson, R. B., Pawloski, G., Perch, A., Pfutzner, M., Proga, M., Radovic, A., Sanchez, M. C., Schreiner, S., Soldner-Rembold, S., Sousa, A., Thomas, J., Vahle, P., Wendt, C., Whitehead, L. H. & Wojcicki, S. (2013): CHerenkov detectors In mine PitS (CHIPS) Letter of Intent to FNAL. – arXiv.org, 28 Abb., 7 Tab.; doi:10.2172/1342789.
• Adeniyi, A., Maree, J., Mbaya, R. & Popoola, P. (2013): HybridICE™ filter design in freeze desalination of mine water. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 507–512, 8 Abb.; Golden (International Mine Water Association).
• Adeniyi, A., Mbaya, R., Onyango, M. S., Popoola, P., Brooms, T. & Olubiyi, O. (2017): Performance Evaluation of Membrane Technology for Removal of Micropollutants in Hartbeespoort Dam South Africa. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1048–1054, Lappeenranta (Lappeenranta University of Technology).
• Adeniyi, A., Mbaya, R. K. K., Onyango, M. S., Popoola, A. P. I. & Maree, J. P. (2016): Efficient suspension freeze desalination of mine wastewaters to separate clean water and salts. – Environmental Chemistry Letters, 14(4):449–454, doi:10.1007/s10311-016-0562-6.
• Adeyinka, G. C., Moodley, B., Birungi, G. & Ndungu, P. (2018): Quantitative analyses of selected polychlorinated biphenyl (PCB) congeners in water, soil, and sediment during winter and spring seasons from Msunduzi River, South Africa. – Environ. Monit. Assess., 190(10) doi:10.1007/s10661-018-6993-8.
• Adkins, J. E. & Henry, N. W. (1993): Industrial hygiene. – Anal. Chem., 65(12):133R–155R, doi:10.1021/ac00060a009.
• Adlem, C. J. I., Maree, J. P. & du Plessis, P. (1991): Treatment of Sulphate-rich Mining Effluents with the Barium Hydroxide Process and Recovery of Valuable By-products. – Proceedings, 4th International Mine Water Association Congress, 2:211–222, 4 Abb., 4 Tab.
• Adlem, C. J. L., Maree, J. P. & McCrindle, R. I. (1994): Water Softening in the Barium Sulphide Process for Sulphate Removal. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:601–611, 9 Abb., 2 Tab.
• Adler, R. A., Claassen, M., Godfrey, L. & Turton, A. R. (2007): Water, mining, and waste: An historical and economic perspective on conflict management in South Africa. – Econ. Peace Secur. J., 2(2):32–41, 4 Abb.; doi:10.15355/epsj.2.2.33.
• Adler, R. A. & Rascher, J. (2008): A Strategy for the Management of Acid Mine Drainage from Gold Mines in Gauteng, CSIR/NRE/PW/ER/2007/0053/C. – 58 p., 1 Abb., 4 Anl.; Pretoria (CSIR).
• Adria, D. A. M., Ghahramani, N., Rana, N. M., Martin, V., McDougall, S., Evans, S. G. & Take, W. A. (2023): Insights from the Compilation and Critical Assessment of Breach and Runout Characteristics from Historical Tailings Dam Failures: Implications for Numerical Modelling. – Mine Water Environ., 42(4):650–669, doi:10.1007/s10230-023-00964-0.
• Adrian, R., Adia, G. & Sgem (2012): Biological Treatment of Mine Waters by Water Hyacinth. 12h International Multidisciplinary Scientific Geoconference (SGEM), Albena, BULGARIA, Jun 17–23 2012. International Multidisciplinary Scientific GeoConference-SGEM. 117–124 S.
• Aduvire, H., López Jimeno, C. & Aduvire, O. (1999): Inventory and Risk Assessment Using a PC during Closure Procedure of abandoned Mines. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 821–824, 6 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Aduvire, O., Montesinos, M. & Loza, N. (2021): Efficient Methodologies in the Treatment of Acid Water from Mines with Recovery of Byproducts. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 1–7; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Aerden, D. G. A. M. (1993): Formation of Massive Sulfide Lenses by Replacement of Folds: The Hercules Pb-Zn Mine, Tasmania. – Econ. Geol., 88(2):377–396, 16 Abb.; doi:10.2113/gsecongeo.88.2.377.
• Aeschbach-Hertig, W., Kipfer, R., Hofer, M., Imboden, D. M., Wieler, R. & Signer, P. (1996): Quantification of gas fluxes from the subcontinental mantle: The example of Laacher See, a maar lake in Germany. – Geochim. Cosmochim. Acta, 60(1):31–41, 6 Abb., 3 Tab.
• Afsin, M. (2000): Determination of the origin of the Helvadere drinking springs by means of hydrochemical and isotopic techniques, Aksaray, Central Analolia, Turkey. – Environ. Geol., 39(10):1190–1196, 6 Abb., 4 Tab.
• Afzal, N. (1983): Mixed convection in an axisymmetric buoyant plume. – Int. J. Heat Mass Transfer, 26(3):381–388, 6 Abb., 3 Tab.; doi:10.1016/0017-9310(83)90042-X.
• AG „PCB-Monitoring“ (2018): Bericht der AG „PCB-Monitoring“ nach Beendigung des Sondermessprogramms 2016–2017 – Ergebnisse der chemischen und ökotoxikologischen Analytik von Grubenwässern und von Grubenwasser beaufschlagten kleineren Bächen rechts der Saar. – (Report Nr. PCB-2018-01). – 89 p., Saarbrücken (Saarländisches Landesamt für Umwelt- und Arbeitsschutz).
• Agartan, E. & Yazicigil, H. (2012): Assessment of Water Supply Impacts for a Mine Site in Western Turkey. – Mine Water Environ., 31(2):112–128, 14 Abb., 3 Tab.; doi:10.1007/s10230-011-0167-z.
• Agbalajobi, S. A. & Bello, W. A. (2014): Slope Stability Analysis of Bench in Complete Construction Solid Concentrate (Quarry) Limited, Ilorin, Nigeria. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 235–243, Xuzhou (International Mine Water Association).
• Agboola, O., Mokrani, T., Sadiku, E. R., Kolesnikov, A., Olukunle, O. I. & Maree, J. P. (2017): Characterization of Two Nanofiltration Membranes for the Separation of Ions from Acid Mine Water. – Mine Water Environ., 36(3):401–408, doi:10.1007/s10230-016-0427-z.
• Agency for Toxic Substances and Disease Registry (2000): Toxicological Profile for Polychlorinated Biphenyls (PCBs). – 765 p., Atlanta (U. S. Department of Health & Human Services).
• Agency for Toxic Substances and Disease Registry (2001): Toxicological Profile for Asbestos. – 327 p., Atlanta (U. S. Department of Health & Human Services).
• Agency for Toxic Substances and Disease Registry (2011): Addendum to the Toxicological Profile for Polychlorinated Biphenyls (PCBs). – 765 p., Atlanta (U. S. Department of Health & Human Services).
• Agency for Toxic Substances and Disease Registry (2017): Toxicological Profile for Polybrominated Biphenyls and Polybrominated Diphenyl Ethers. – (Report Nr. 205-1999-00024). – 490 p., Atlanta (U. S. Department of Health & Human Services).
• Aggarwal, P. K., Gat, J. & Froehlich, K. F. O. (2005): Isotopes in the water cycle – Past, present and future of a developing science. – 381 p., Dordrecht (Springer); doi:10.1007/1-4020-3023-1.
• Aghamirzadeh, S., Baniasadi, A., Sharafinejad, F., Salajegheh, A. & Akbari, S. (2011): Study of Cadmium Element Concentration in Different Horizons of Soil in Mineralization Range of Sarcheshmeh Copper Mine and its Subsequent Damages from its Propagation in Environment: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 651–654 p., Aachen (RWTH Aachen University).
• Agnew, A. F. & Corbett, D. M. (1969): Hydrology and Chemistry of Coal-Mine Drainage in Indiana. – Am. Chem. Soc., Div. Fuel Chem., Prepr., 13(2):137–149, 3 Abb., 2 Tab.
• Agricola, G. (1530): Bermannus, sive de re metallica. – 135 p., Basileae doi:10.3931/e-rara-14847.
• Agricola, G. (1556): De re metallica libri XII. – 273 Holzschnitte; Basel.
• Agricola, G. (1558): De ortu et causis, subterraneorum lib. V. – 512 p., Basel doi:10.3931/e-rara-9796.
• Agricola, G. (1928 [1557]): Zwölf Bücher vom Berg- und Hüttenwesen (Neuübersetzung). – 564 p., 273 Holzschnitte; Berlin (VDI-Verlag).
• Agricola, G., Hoover, H. C. & Hoover, L. H. (1912): De re metallica – Translated from the First Latin Edition of 1556. – 640 p., London (The Mining Magazine).
• Agrinier, P., Deutsch, A., Schärer, U. & Martinez, I. (2001): Fast back-reactions of shock-released CO₂ from carbonates: An experimental approach. – Geochim. Cosmochim. Acta, 65(15):2615–2632, 11 Abb., 3 Tab.
• Aguiar, A., Andrade, L., Pires, W. & Amaral, M. (2015): Effect of Feed pH in the Nanofiltration of Gold Acid Mine Drainage. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Aguiar, A., Andrade, L., Pires, W. & Amaral, M. (2015): Evaluation of Nanofiltration and Reverse Osmosis in the Treatment of Gold Acid Mine Drainage. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Ahern, J. & Gibbs, M. (2012): Climate science in mine water system design: International Mine Water Association Symposium. – 439–444 p., Bunbury (Edith Cowan University).
• Ahlawat, R., Srivastava, V. C., Mall, I. D. & Sinha, S. (2008): Investigation of the Electrocoagulation Treatment of Cotton Blue Dye Solution using Aluminium Electrodes. – Acta Hydrochim. Hydrobiol., 36(10):863–869, doi:10.1002/clen.200800019.
• Åhlgren, K. & Bäckström, M. (2016): Identification of major point sources in the severely contaminated alum shale area in Kvarntorp, Sweden. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 377–382, Freiberg (TU Bergakademie Freiberg).
• Åhlgren, K., Sjöberg, V. & Bäckström, M. (2018): Leaching of U, V, Ni and Mo from Alum Shale Waste as a Function of Redox and pH – Suggestion for a Leaching method. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 782–787; (Tshwane University of Technology).
• Ahlgren, K., Sjoberg, V., Grawunder, A., Allard, B. & Bäckström, M. (2020): Chemistry of Acidic and Neutralized Alum Shale Pit Lakes 50 Years After Mine Closure, Kvarntorp, Sweden. – Mine Water Environ., 39(3):481–497, doi:10.1007/s10230-020-00665-y.
• Åhlgren, K. M., Sjöberg, V., Sartz, L. & Bäckström, M. (2017): Understanding Groundwater Composition at Kvarntorp, Sweden, from Leaching Tests and Multivariate Statistics. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 770–776, Lappeenranta (Lappeenranta University of Technology).
• Ahling, B. & Jensen, S. (1970): Reversed liquid-liquid partition in determination of polychlorinated biphenyl (PCB) and chlorinated pesticides in water. – Anal. Chem., 42(13):1483–1486, doi:10.1021/ac60295a041.
• Ahmad, A. & Azam, T. (2019): Water Purification Technologies. – In: Grumezescu, A. M. & Holban, A. M. (eds): The Science of Beverages 4. – p. 83–120, Cambridge (Woodhead); doi:10.1016/B978-0-12-815272-0.00004-0.
• Ahmed Basha, C., Bhadrinarayana, N. S., Anantharaman, N. & Meera Sheriffa Begum, K. M. (2008): Heavy metal removal from copper smelting effluent using electrochemical cylindrical flow reactor. – J. Hazard. Mater., 152(1):71–78, doi:10.1016/j.jhazmat.2007.06.069.
• Ahmed, M. & Focht, D. D. (1973): Degradation of polychlorinated biphenyls by two species of Achromobacter. – Can. J. Microbiol., 19(1):47–52, doi:10.1139/m73-007.
• Ahokpossi, D. P., Atangana, A. & Vermeulen, P. D. (2018): Hydro-geochemical characterizations of a platinum group element groundwater system in Africa. – J. Afr. Earth Sci., 138:348–366, doi:10.1016/j.jafrearsci.2017.11.032.
• Ahonen, L. & Tuovinen, O. H. (1995): Bacterial Leaching of Complex Sulfide Ore Samples in Bench-Scale Column Reactors. – Hydrometallurgy, 37(1):1–21, 9 Abb., 2 Tab.
• ahu AG Wasser Boden Geomatik (2017): Gutachten zur Prüfung möglicher Umweltauswirkungen des Einsatzes von Abfall- und Reststoffen zur Bruch-Hohlraumverfüllung in Steinkohlenbergwerken in Nordrhein-Westfalen. – (Report Nr. Endbericht 2017). – 216 p., Aachen (Ministerium für Klimaschutz, Umwelt, Landwirtschaft, Natur- und Verbraucherschutz des Landes Nordrhein-Westfalen & Ministerium für Wirtschaft, Energie, Industrie, Mittelstand und Handwerk des Landes Nordrhein-Westfalen).
• Ahuja, P., Gupta, R. & Saxena, R. K. (1997): Oscillatoria anguistissima: A promising Cu²⁺ biosorbent. – Curr. Microbiol., 35(3):151–154.
• Ahumada-Vargas, B., Fernandez-Rojo, L., Guedes, A., Vilanova, E., Echevarría, C., Martínez-Santos, T. & Sevilla, M. (2025): Innovative Circular Economy Approach for Recovering Valuable Metals from Acid Mine Drainage and Sulphuric Acid from Mining Waste. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 314–318; Braga (International Mine Water Association).
• Aichinger, E. (1971): Geologische Zeiger. – Carinthia II, SH 28:331–344.
• Aigner, D. (2008): Überfälle. – Dresdner Wasserbauliche Mitteilungen, 36:162–176.
• Aigner, D., Carstensen, D., Glazik, G., Kraatz, W., Kranawettreiser, J., Martin, H. & Wagner, H. (2015): Dichteströmungen: Technische Hydromechanik 2. – 221–251 p., 13 Abb., 1 Tab.; Berlin (Beuth).
• Aigner, D., Carstensen, D., Glazik, G., Kraatz, W., Kranawettreiser, J., Martin, H. & Wagner, H. (2015): Technische Hydromechanik: 2. – 490 p., Berlin (Beuth).
• Ai-qin, S., Suo-zhong, C. & Li-li, F. (2009): Study on mechanisms of treating mine wastewater by goaf and the methods of recycling mine wastewater in Jining No.2 coal mine. – Procedia Earth Planet. Sci., 1(1):1242–1246, doi:10.1016/j.proeps.2009.09.191.
• Airey, P. L., Calf, G. E., Davison, A., Easey, J. F. & Morley, A. W. (1984): An evaluation of tracer dilution techniques for gauging of rivers in flood. – J. Hydrol., 74(1):105–118, doi:10.1016/0022-1694(84)90143-4.
• Akabzaa, T. M., Jamieson, H. E., Jorgenson, N. & Nyame, K. (2009): The Combined Impact of Mine Drainage in the Ankobra River Basin, SW Ghana. – Mine Water Environ., 28(1):50–64, 4 Abb., 8 Tab.; doi:10.1007/s10230-008-0057-1.
• Akawwi, E. (2014): Radon-222 Concentrations in the Groundwater along Eastern Jordan Rift. – J. Appl. Sci., 14(4):309–316, doi:10.3923/jas.2014.309.316.
• Akbari Dehkharghani, A. (2019): Exfoliated Graphitic Carbon Nitride for the Fast Adsorption of Metal Ions from Acid Mine Drainage: A Case Study from the Sungun Copper Mine. – Mine Water Environ., 38(2):335–341, doi:10.1007/s10230-018-0561-x.
• Akbulut, A. & Kadir, S. (2003): Huntite deposits in the Neogene lacustrine sediments of the Cameli Basin, Denizli, SW Turkey. – Carbonate Evaporite, 18(1):1–9.
• Akca, L. & Samsunlu, A. (2000): Performance evaluation of small treatment systems in Turkey. – Water Sci. Technol., 41(1):49–52.
• Akçay, M. & Moon, C. J. (2004): The environmental impact of mining in the Pontides, Turkey: reconnaissance sampling and GIS-based analysis. – Geochem.-Explor. Environ. Anal., 4:317–328, 16 Abb., 2 Tab.; doi:10.1144/1467-7873/03-052.
• Akcay, M., Mustafa, O. H., Moon, C. J. & Scott, B. C. (1996): Secondary dispersion from gold deposits in West Turkey. – J. Geochem. Explor., 56(3):197–218, Refs: 41; illus.
• Akcil, A. & Koldas, S. (2006): Acid Mine Drainage (AMD): causes, treatment and case studies. – J. Clean. Prod., 14(12–13):1139–1145, doi:10.1016/j.jclepro.2004.09.006.
• Akeret, B. (2019): Rechnen im Labor – mit zahlreichen Aufgaben und Lösungswegen aus dem biologisch-technischen Alltag. – 582 p., Berlin (Springer Spektrum); doi:10.1007/978-3-662-58662-4.
• Akesson, J.-A. (1983): A Study of Geohydrological and Rock Engineering Environment at Lappvattnet Experimental Mine. – Int. J. Mine Water, 2(3):25–38, 7 Abb., 1 Tab.; doi:10.1007/BF02504570.
• Akhbarizadeh, R., Dobaradaran, S., Schmidt, T. C., Nabipour, I. & Spitz, J. (2020): Worldwide bottled water occurrence of emerging contaminants: A review of the recent scientific literature. – J. Hazard. Mater., 392:122271, doi:10.1016/j.jhazmat.2020.122271.
• Akhbarizadeh, R., Shayestefar, M. R. & Darezereshki, E. (2014): Competitive Removal of Metals from Wastewater by Maghemite Nanoparticles: A Comparison Between Simulated Wastewater and AMD. – Mine Water Environ., 33(1):89–96, 7 Abb., 1 Tab.; doi:10.1007/s10230-013-0255-3.
• Akin, H. & Siemens, H. (1988): Praktische Geostatistik – Eine Einführung für den Bergbau und die Geowissenschaften. – 304 p., 98 Abb.; Berlin (Springer).
• Akinwekomi, V., Maree, J. P. & Wolkersdorfer, Ch. (2017): Using Calcium Carbonate/Hydroxide and Barium Carbonate to Remove Sulphate from Mine Water. – Mine Water Environ., 36(2):264–272, 12 Abb., 3 Tab.; doi:10.1007/s10230-017-0451-7.
• Akoachere, R. A., II & van Tonder, G. J. (2010): Thermal dilution test: a new method for the determination of fracture positions, flow zones and ground water velocities in aquifers, using temperature as a tracer in single wells. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 27–31, Sydney, NS (Cape Breton University Press).
• Akoachere, R. A., II & van Tonder, G. J. (2011): The trigger-tube: A new apparatus and method for mixing solutes for injection tests in boreholes: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 141–146 p., Aachen (RWTH Aachen University).
• Akroyd, T. J. & Nguyen, Q. D. (2003): Continuous on-line rheological measurements for rapid settling slurries. – Miner. Eng., 16:731–738, 10 Abb., 1 Tab.; doi:10.1016/S0892-6875(03)00167-5.
• Al, T. A. & Blowes, D. W. (1996): Storm-water hydrograph separation of run off from a mine-tailings impoundment formed by thickened tailings discharge at Kidd Creek, Timmins, Ontario. – J. Hydrol., 180(1-4):55–78, 15 Abb., 2 Tab.; doi:10.1016/0022-1694(95)02898-6.
• Al, T. A. & Blowes, D. W. (1999): The hydrogeology of a tailings impoundment formed by central discharge of thickened tailings; implications for tailings management. – J. Contam. Hydrol., 38(4):489–505, Refs: 24; illus.
• Al-Aboodi, A. H., Al-Tai, M. A. & Al-Khadhimi, A. M. (2008): Hydrochemical Classification of Groundwater in Safwan - Al-Zubair Area, South of Iraq. – Marsh Bull., 3(1):45–56, 5 Abb., 5 Tab.
• Alakangas, L., Azzie, B., Jarvis, A. P., Lindahl, L.-A., Loredo, J., Madai, F., Walder, I. & Wolkersdorfer, Ch. (2011): Padre-Partnership for Acid Drainage Remediation in Europe: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 675–676 p., Aachen (RWTH Aachen University).
• Alakangas, L., Lundberg, A. & Öhlander, B. (2008): Pilot-scale Studies of Different Covers on Unoxidised Sulphide-rich tailings, Northern Sweden: Oxygen Diffusion. – Proceedings, 10th International Mine Water Association Congress:347–350.
• Alakangas, L. & Nason, P. (2010): Declining element concentrations in groundwater after remediation in sulphide-rich tailings at Kristineberg, northern Sweden. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 323–327, Sydney, NS (Cape Breton University Press).
• Alakangas, L. & Öhlander, B. (2006): Pilot-scale Studies of Different Covers on Unoxidised Sulphide-rich Tailings in Northern Sweden: the Geochemistry of Leachate Waters. – Mine Water Environ., 25(3):171–183, 2 Abb., 6 Tab.; doi:10.1007/s10230-006-0129-z.
• Alam, M. S., Barbour, S. L., Huang, M. & Li, Y. (2020): Using Statistical and Dynamical Downscaling to Assess Climate Change Impacts on Mine Reclamation Cover Water Balances. – Mine Water Environ., 39(4):699–715, doi:10.1007/s10230-020-00695-6.
• Alam, M. S., Wu, Y. & Cheng, T. (2014): Silicate Minerals as a Source of Arsenic Contamination in Groundwater. – Water, Air, & Soil Pollution, 225(11) doi:10.1007/s11270-014-2201-9.
• Alarcon, N., Garcia, X., Centeno, M. A., Ruiz, P. & Gordon, A. (2004): New Effects During Steam Gasification of Naphthalene: the Synergy Between CaO and MgO during the Catalytic Reaction. – Appl. Catal. A-Gen., 267(1-2):251–265.
• Albarede, F. & Semhi, K. (1995): Patterns of elemental transport in the bedload of the Meurthe River (NE France). – Chem. Geol., 122(1-4):129–145, Refs: 31; illus. incl. 3 tables, geol. sketch map.
• Al-Bassam, A. M., Awad, H. S. & Al-Alawi, J. A. (1997): Durov Plot: A Computer Program for Processing and Plotting Hydrochemical Data. – Groundwater, 35(2):362–367, doi:10.1111/j.1745-6584.1997.tb00094.x.
• Albecht, A. & Brookins, D. G. (1989): Mid-Tertiary siliceous igneous activity above cratonic and accreted basement in northern Mexico; comparison of two type localities. – Bulletin – New Mexico Bureau of Mines and Mineral Resources, 131:2, doi:10.22201/igeof.00167169p.1989.28.5.1288.
• Albers, G. & Garbe, W. (1985): Bestimmung von PCB’s in Ölproben. – Berichte – Deutsche Gesellschaft für Mineralölwissenschaft und Kohlechemie 387:41, 5 Abb., 6 Tab.
• Albright, J., Dreesen, D., Anderson, D., Blacic, J., Thomson, J. & Fairbanks, T. (2003): Road Map for a 5000-ft Microborehole. – 38 p., 14 Abb., 13 Tab.; Los Alamos (unpublished Report National Energy Technology Laboratory [http://www.fossil.energy.gov/programs/oilgas/microhole/microholeroadmap.pdf).
• Albuquerque, T., Antunes, M., Dinis, M. d. L., Futuro, A., Góis, J., Leite, A., Vila, C. & António, F. (2017): Improving Resource Efficiency and Minimize Environmental Footprint – a case study preliminary results. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1244–1249, Lappeenranta (Lappeenranta University of Technology).
• Alcalde, J., Edraki, M., Jerez, O., Kelm, U. & Rubinos, D. A. (2020): Assessment of Mineralogical, Textural, and Water Chemistry Changes During Long-Distance Tailings-Slurry Transport. – Mine Water Environ., 39(1):135–149, doi:10.1007/s10230-020-00658-x.
• Alcock, R. E., Johnston, A. E., McGrath, S. P., Berrow, M. L. & Jones, K. C. (1993): Long-Term Changes in the Polychlorinated Biphenyl Content of United Kingdom Soils. – Environ. Sci. Technol., 27:1918–1923, doi:10.1021/es00046a022.
• Alcolea, A., Vázquez, M., Caparros, A., Ibarra, I., García, C., Linares, R. & Rodríguez, R. (2012): Heavy metal removal of intermittent acid mine drainage with an open limestone channel. – Miner. Eng., 26:86–98, 8 Abb., 4 Tab.; doi:10.1016/j.mineng.2011.11.006.
• Aldabbagh, R. H. & Aldabbagh, M. A. M. S. (1991): The Environmental-effects of Waste-water Emanation from Sulfur Mining on Water-resources. – Water Sci. Technol., 24(11):181–187, doi:10.2166/wst.1991.0350.
• Al-Dabbagh, S. M., Othman, S. M. & Dhannoun, H. Y. (2011): The Relationship Between Chemical Index of Alteration and Some Major and Trace Elements Content in Rocks of Injana Formation of Northern Iraq. – Irq. Nat. J. Chem., 11(1):1–22, 4 Abb., 2 Tab.
• Alderton, D. H. M., Serafimovski, T., Mullen, B., Fairall, K. & James, S. (2005): The Chemistry of Waters Associated with Metal Mining in Macedonia. – Mine Water Environ., 24(3):139–149, 4 Abb., 2 Tab.; doi:10.1007/s10230-005-0085-z.
• Aldous, P. J. (1987): The groundwater hydrology of an abandoned coal mined aquifer – A case study from the Forest of Dean Coalfield. – 271 p., PhD, Univ. of Bristol; Bristol.
• Aldous, P. J. & Smart, P. L. (1988): Tracing Ground-Water Movement in Abandoned Coal Mined Aquifers Using Fluorescent Dyes. – Ground Water, 26(2):172–178, 8 Abb., 2 Tab.; doi:10.1111/j.1745-6584.1988.tb00380.x.
• Aldous, P. J., Smart, P. L. & Black, J. A. (1986): Groundwater management problems in abandoned coal-mined aquifers; a case study in the Forest of Dean, England. – Q. J. Eng. Geol., 19(4):375–388, 8 Abb., 3 Tab.; doi:10.1144/GSL.QJEG.1986.019.04.04.
• Alefs, J. & Muller, J. (1999): Differences in the eutrophication dynamics of Ammersee and Starnberger See (Southern Germany), reflected by the diatom succession in varve-dated sediments. – J. Paleolimnol., 21(4):395–407.
• Aleksandrovskii, A. L., Gol, E. A. A. & Gunova, V. S. (1997): Reconstruction of paleolandscape conditions of the early Scythian soils in the Stavropol region. – Pochvovedine, 30(5):461–471, 3 Abb., 2 Tab.
• Aleshin, Y. & Torgoev, I. (2005): Long-term aspects of waste rock piles and tailing in Kyrgyzstan. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 553–562, Heidelberg (Springer).
• Alexander, W. R., Reijonen, H. M. & McKinley, I. G. (2015): Natural analogues: studies of geological processes relevant to radioactive waste disposal in deep geological repositories. – Swiss J. Geosci., 108(1):75–100, doi:10.1007/s00015-015-0187-y.
• Alexandrova, L., Nedialkova, T. & Nishkov, I. (1994): Electroflotation of metal ions in waste water. – Int. J. Miner. Process., 41(3-4):285–294, 6 Abb., 1 Tab.; doi:10.1016/0301-7516(94)90034-5.
• Aley, T. (1984): Groundwater Tracing in Water Pollution Studies. – Natl. Speleol. Soc. Bull., 46(2):17–20.
• Aley, T. (2011): Procedures and Criteria Analysis of Fluorescein, Eosine, Rhodamine WT, Sulforhodamine B, and Pyranine Dyes in Water and Charcoal Samplers. – 20 p., 2 Abb., 3 Tab.; Protem (Ozark Underground Laboratory).
• Aley, T. (2019): Groundwater Tracing Handbook. – 41 p., 6 Abb., 13 Tab.; Protem (Ozark Underground Laboratory).
• Aley, T. & Fletcher, M. W. (1976): The water tracer’s cookbook. – Missouri Speleol., 16:1–32, 2 Abb., 1 Tab.
• Aley, T., Osorno, T., Devlin, J. F. & Goers, A. (2025): Practical Groundwater Tracing with Fluorescent Dyes. – 228 p., 29 Abb., 16 Tab.; Guelph (The Groundwater Project); doi:10.62592/mfwe5297.
• Al-Fouzan, F., Harbert, W., Dilmore, R., Hammack, R. W., Sams, J., Veloski, G. A. & Ackman, T. E. (2004): Methods for Removing Signal Noise from Helicopter Electromagnetic Survey Data. – Mine Water Environ., 23(1):28–33, 7 Abb.; doi:10.1007/s10230-004-0033-3.
• Al-Habaibeh, A., Shakmak, B., Athresh, A., Parker, K. & Hamza, O. (2022): Extracting Energy from Flooded Coal Mines for Heating and Air-Conditioning of Buildings – Opportunities and Challenges. – In: Bienvenido-Huertas, D. & Moyano-Campos, J. (eds): New Technologies in Building and Construction: Towards Sustainable Development. – p. 353–365, Singapore (Springer Nature Singapore); doi:10.1007/978-981-19-1894-0_20.
• Alhamed, M. & Wohnlich, S. (2014): Environmental impact of the abandoned coal mines on the surface water and the groundwater quality in the south of Bochum, Germany. – Environ Earth Sci, 72(9):3251–3267, doi:10.1007/s12665-014-3230-9.
• Ali, A., Quist-Jensen, C. A., Jørgensen, M. K., Siekierka, Anna, Christensen, M. L., Bryjak, M., Hélix-Nielsen, C. & Drioli, E. (2021): A review of membrane crystallization, forward osmosis and membrane capacitive deionization for liquid mining. – Resour. Conserv. Recycl., 168:33, doi:10.1016/j.resconrec.2020.105273.
• Ali, I., Asim, M. & Khan, T. A. (2013): Arsenite removal from water by electro-coagulation on zinc–zinc and copper–copper electrodes. – Int. J. Environ. Sci. Technol., 10(2):377–384, 6 Abb.; doi:10.1007/s13762-012-0113-z.
• Ali, M. S. (2011): Remediation of acid mine waters: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 253–258 p., Aachen (RWTH Aachen University).
• Ali, M. S. & Addo, W. (2011): Assessment of the quality of Block 4 pit water at Iduapriem Gold Mine, Tarkwa, Ghana: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 3–6 p., Aachen (RWTH Aachen University).
• Ali, N. S., Mo, K. & Kim, M. (2012): A case study on the relationship between conductivity and dissolved solids to evaluate the potential for reuse of reclaimed industrial wastewater. – KSCE J. Civ. Eng., 16(5):708–713, doi:10.1007/s12205-012-1581-x.
• Ali, R. & Turner, J. (2004): A Study of the Suitability of Saline Surface Water for Recharging the Hypersaline Palaeochannel Aquifers of the Eastern Goldfields of Western Australia. – Mine Water Environ., 23(3):110–118, 11 Abb., 1 Tab.; doi:10.1007/s10230-004-0051-1.
• Alizadeh, A. & Naseri, P. (2015): An Investigation on the Influence of EAF Slag Particle Size on AMD Neutralization Behavior in Static and Dynamic Slag Leaching Systems. – Mine Water Environ., 34(2):204–212, doi:10.1007/s10230-014-0302-8.
• Aljoe, W. W. (1994): Hydrologic and Water Quality Characteristics of a Partially-Flooded, Abandoned Underground Coal Mine. Paper presented at the International Land Reclamation and Mine Drainage Conference and the Third International Conference on the Abatement of Acidic Drainage, Pittsburgh. – p. 178–187, 6 Abb., 3 Tab.; (Bureau of Mines).
• Aljoe, W. W. (1995): Using Mass Balances to Estimate Flow Rates from Mine Drainage Sources: Water resources at risk. – IMWA.1–10 p., 5 Abb., 2 Tab.; Denver (American Institute of Hydrology).
• Aljoe, W. W. & Hawkins, J. W. (1991): Hydrologic Characterization and In-Situ Neutralization of Acidic Mine Pools in Abandoned Underground Coal Mines. – Proceedings Second International Conference on the Abatement of Acidic Drainage:69–90, doi:10.21000/JASMR91010241.
• Aljoe, W. W. & Hawkins, J. W. (1992): Application of aquifer testing in surface and underground coal mines. – Ground Water Management, 13:541–555, 8 Abb., 1 Tab.
• Aljoe, W. W. & Hawkins, J. W. (1993): Neutralization of Acidic Discharges from Abandoned Underground Coal Mines by Alkaline Injection. – Bur. Mines Rep. Invest., 9468:1–37, 40 Abb., 3 Tab.
• Aljoe, W. W. & Hawkins, J. W. (1994): Application of Aquifer Testing in Surface and Underground Coal Mines. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:3–21, 8 Abb., 1 Tab.
• Aljoe, W. W. & Linberg, N. A. (1996): Hydrologic Investigation and Remediation of a Post-Remining Acidic Seep. – 296–307 p., 10 Abb., 5 Tab.; Knoxville (Proceedings National Meeting of the American Society for Surface Mining and Reclamation).
• Alkire, C., Kolb, D. M., Lipkowski, J. & Ross, P. N. (2009): Chemically Modified Electrodes: Advances in Electrochemical Science and Engineering 11. – 267 p., Weinheim (Wiley-VCH).
• Allan, R. J. (1995): Impact of Mining Activities on the Terrestrial and Aquatic Environment with Emphasis on Mitigation and Remedial Measures. – In: Salomons, W., Förstner, U. & Mader, P. (eds): Heavy metals – Problems and Solutions 8. – p. 119–140, 5 Abb., 3 Tab.; Berlin (Springer).
• Allard, B., Andrusikiewicz, W., Bäckström, M., Bilstad, T., Cała, M., Cholewa, M., Drielsma, J., Galos, K., Gehor, S., Karu, V., Kotarska, I., Koch, L., Kreisel, S., Kujala, K., Kulczycka, J., Ostręga, A., Repo, H., Sädbom, S., Szczęch, A., Szlugaj, J., Szmigielski, P., Świerczyński, W., Uberman, R., Valgma, I. & Wrzosek, K. (2013): Mining Waste Management in the Baltic Sea Region. MIN-NOVATION project. – 264 p., 120 Abb., 24 Tab.; Kraków (Wzdawnictwa AGH).
• Allard, B., Bäckström, M., Häller, S., Karlsson, S., Panova, E. & Grawunder, A. (2011): Water chemistry and trace metal concentrations in an acidic alum shale pit lake – effects of liming: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 503–508 p., Aachen (RWTH Aachen University).
• Allard, B., Banwart, S. A., Bruno, J., Ephraim, J. H., Grauer, R., Grenthe, I., Hadermann, J., Hummel, W., Jakob, A., Karapiperis, T., Plyasunov, A. V., Puigdomenech, I., Rard, J. A., Saxena, S. & Spahiu, K. (1997): Modelling in Aquatic Chemistry: OECD Publications. – 724 p., Paris (OECD Nuclear Energy Agency).
• Allard, P., Jean, B. P., D’Alessandro, W., Parello, F., Parisi, B. & Flehoc, C. (1997): Mantle-derived helium and carbon in groundwaters and gases of Mount Etna, Italy. – Earth Planet. Sci. Lett., 148(3-4):501–516, Refs: 51; illus. incl. 2 tables, sketch maps.
• Allègre, C. J. (2008): Isotope Geology. – 512 p., Cambridge (Cambridge University Press); doi:10.1017/CBO9780511809323.
• Allen, C. M. & Taylor, E. A. (1923): The salt velocity method of water measurements. – Trans. Am. Soc. Mech. Eng., 45:285–341.
• Allen, D. M., Grasby, S. E. & Voormeij, D. A. (2006): Determining the circulation depth of thermal springs in the southern Rocky Mountain Trench, south-eastern British Columbia, Canada using geothermometry and borehole temperature logs. – Hydrogeol. J., 14(1-2):159–172, 7 Abb., 5 Tab.
• Allen, D. M. & Lepitre, M. E. (2004): Use of Pb, 18O, and 2H Isotopes in Mining-related Environmental Studies. – Mine Water Environ., 23(3):119–132, 7 Abb., 2 Tab.; doi:10.1007/s10230-004-0052-0.
• Allen, D. M. & Voormeij, D. A. (2002): Oxygen-18 and Deuterium Fingerprinting of Tailings Seepage at the Sullivan Mine. – Mine Water Environ., 21(4):168–182, 5 Abb., 2 Tab.; doi:10.1007/s102300200041.
• Allen, E., Popugaeva, D., Munoz-Cupa, C., Bassi, A., Kreyman, K. & Ray, A. K. (2024): Cryopurification and a Microbial Fuel Cell Process as a Combined Approach to Treat Mine-Impacted Water (Faro Mine, Yukon, Canada). – Mine Water Environ., 43(3):463–473, doi:10.1007/s10230-024-00997-z.
• Allen, M. G. (2013): Melanesia’s violent environments: Towards a political ecology of conflict in the western Pacific. – Geoforum, 44:152–161, doi:10.1016/j.geoforum.2012.09.015.
• Allen, M. G. (2017): Islands, extraction and violence: Mining and the politics of scale in Island Melanesia. – Polit. Geogr., 57:81–90, doi:10.1016/j.polgeo.2016.12.004.
• Allesch, R. M. (1959): Arsenik – seine Geschichte in Österreich: Archiv für vaterländische Geschichte und Topographie 54. – 302 p., Klagenfurt (Kleinmayr).
• Alley, R. B. (2000): The Younger Dryas cold interval as viewed from central Greenland. – Quat. Sci. Rev., 19(1-5):213–226, 3 Abb.
• Allgemeiner Deutscher Bergmannstag (1913): Der Bergbau im Osten des Königreichs Preußen – Festschrift zum XII. Allgemeinen Deutschen Bergmannstag in Breslau. – Kattowitz (Selbstverl. des Oberschlesischen Berg- und Hüttenmännischen Vereins).
• Alliander, E. (1982): Experience and Ideas of Development on the Control of Mining under Karstic Water Hazard. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:7–17, 2 Abb.
• Allison, G. B., Gee, G. W. & Tyler, S. W. (1994): Vadose-zone techniques for estimating groundwater recharge in arid and semiarid regions. – Soil Sci. Soc. Am. J., 58:6–14.
• Allison, G. B. & Hughes, M. W. (1978): The use of environmental chloride and tritium to estimate total recharge to an unconfined aquifer. – Aust. J. Soil Res., 16:181–195, 3 Abb., 4 Tab.; doi:10.1071/SR9780181.
• Almond, J. E. (2010): Falcon Oil & Gas Ltd Exploration Right – southern Main Karoo Basin, Western, Northern and Eastern Cape Provinces, RSA – Specialist Palaeontology Baseline Study. – 52 p., (Natura Viva cc, SRK Consulting).
• Almukdad, A., Hawari, A. H. & Hafiz, M. (2021): An Enhanced Electrocoagulation Process for the Removal of Fe and Mn from Municipal Wastewater Using Dielectrophoresis (DEP). – Water, 13(4):485, doi:10.3390/w13040485.
• Alonso Alvarez, E., Callejon Mochon, M., Jimenez Sanchez, J. C. & Moreno Lopez, L. (2000): Application of the electrochemical speciation of heavy metals in tracking groundwater pollution. – Toxicol. Environ. Chem., 76(1-2):55–63.
• Alonso, E. E. (2021): The Failure of the Aznalcollar Tailings Dam in SW Spain. – Mine Water Environ., 40(1):209–224, doi:10.1007/s10230-021-00751-9.
• alp S. Zentrum für Naturgefahren Management (2005): Geschäftsbericht 2003, 2004. – Nn, 46 Abb., 2 Tab.
• alp S. Zentrum für Naturgefahren Management (2006): Geschäftsbericht 2004, 2005. – Nn, 57 Abb., 1 Tab.
• Alpers, C., Nordstrom, D., Verosub, K. & Helm-Clark, C. (2007): Paleomagnetic Determination of Pre-Mining Metal Flux Rates at the Iron Mountain Superfund Site, Northern California (Abstract). Paper presented at the American Geophysical Union, Spring Meeting, Acapulco, Guerrero, Mexico. – p. Session GP41B–04.
• Alpers, C. N. & Blowes, D. W. (1994): Environmental geochemistry of Sulfide Oxidation: ACS Symp. Ser. 550. – 681 p., New York (American Chemical Society); doi:10.1021/bk-1994-0550.
• Alpers, C. N., Blowes, D. W., Nordstrom, D. K. & Jambor, J. L. (1994): Secondary minerals and acid mine-water chemistry. – In: Jambor, J. L. & Blowes, D. W. (eds): Short Course Handbook on Environmental geochemistry of Sulfide Mine-Wastes 22. – p. 247–270, 4 Abb., 12 Tab.; Waterloo, Ontario (Mineralogical Association of Canada).
• Alpers, C. N., Hunerlach, M. P., Hamlin, S. N. & Zierenberg, R. A. (2003): Reconnaissance of Acid Drainage Sources and Preliminary Evaluation of Remedial Alternatives at the Copper Bluff Mine, Hoopa Valley Reservation, California Sacramento, California. – Water Resour. Investig. Rep., 02-4253:1–53, 10 Abb., 4 Tab., 3 Anl.
• Alpers, C. N., Jambor, J. L. & Nordstrom, D. K. (2000): Sulfate minerals – crystallography, geochemistry, and environmental significance. – Rev. Mineral. Geochem., 40:602, doi:10.2138/rmg.2000.40.0.
• Alpers, C. N. & Nordstrom, D. K. (1991): Geochemical evolution of extremely acid mine waters at Iron Mountain, California: Are there any lower limits to pH? Paper presented at the Second International Conference on the Abatement of Acidic Drainage (MEND), Montreal. – p. 321–341.
• Alpers, C. N. & Nordstrom, D. K. (1999): Geochemical Modelling of Water-Rock Interactions in Mining Environments. – In: Plumlee, G. S. & Logsdon, M. J. (eds): The Environmental Geochemistry of Mineral Deposits 6A. – p. 289–323, 8 Abb., 5 Tab.; Littleton (Society of Economic Geologists).
• Alpers, C. N. & Nordstrom, D. K. (2000): Estimation of pre-mining conditions for trace metal mobility in mineralized areas – An overview. ICARD 2000 I. – p. 463–472, 1 Tab.; Littleton (Society for Mining Metallurgy and Exploration).
• Alpers, C. N., Nordstrom, D. K. & Ball, J. W. (1989): Solubility of Jarosite Solid Solutions Precipitated from Acid Mine Waters, Iron Mountain, California, U.S.A. – Sci. Geol., Bull., 42(4):281–298, 8 Abb., 3 Tab.; doi:10.3406/sgeol.1989.1829.
• Alpers, C. N., Nordstrom, D. K. & Burchard, J. M. (1992): Compilation and interpretation of water-quality and discharge data for acidic mine waters at Iron Mountain, Shasta County, California, 1940–91. – Water Resour. Investig. Rep., c 91-4160:1–173, 9 Abb., 5 Tab., 1 Anl.
• Alpers, C. N., Nordstrom, D. K. & Spitzley, J. (2003): Extreme acid mine drainage from a pyritic massive sulfide deposit: The Iron Mountain end-member. – In: Jambor, J. L., Blowes, D. W. & Ritchie, A. I. M. (eds): Environmental Aspects of Mine Wastes 31. – p. 407–430, 3 Abb., 3 Tab.; Waterloo, Ontario (Mineralogical Association of Canada).
• Alpers, C. N., Nordstrom, D. K. & Thompson, J. M. (1994): Seasonal Variations of Zn/Cu Ratios in Acid Mine Water from Iron Mountain, California. – In: Alpers, C. N. & Blowes, D. W. (eds): Environmental geochemistry of Sulfide Oxidation 550. – p. 324–344, 6 Abb., 5 Tab.; New York (American Chemical Society); doi:10.1021/bk-1994-0550.ch022.
• Al-Qallaf, M. & Alali, W. Q. (2022): Bromate concentrations and pH values in bottled drinking water in Kuwait. – Environ. Monit. Assess., 194(3):144, doi:10.1007/s10661-022-09783-2.
• Al-Rawahi, M., Prigent, S., Headley, T., Breuer, R. & Paetzelt, R. (2014): Constructing wetlands in the desert: An example of sustainable produced water management in Oman. Paper presented at the 30th Abu Dhabi International Petroleum Exhibition and Conference, ADIPEC 2014: Challenges and Opportunities for the Next 30 Years, Abu Dhabi. – p. 4816–4823; (Society of Petroleum Engineers).
• Al-Shannag, M., Al-Qodah, Z., Bani-Melhem, K., Qtaishat, M. R. & Alkasrawi, M. (2015): Heavy metal ions removal from metal plating wastewater using electrocoagulation: Kinetic study and process performance. – Chem. Eng. J., 260:749–756, doi:10.1016/j.cej.2014.09.035.
• Altermann, W., Heckl, W. M., Stark, R. W., Strobel, J. & Wolkersdorfer, Ch. (2008): Nano-structure and Wetting Porperties of Sedimentary Grains and Pore-Space Surface (NanoPorO). – Geotechnologien – Science Report, 12:58–69.
• Altermann, W., Heckl, W. M., Stark, R. W. & Wolkersdorfer, Ch. (2009): Investigations of nanoproperties of pore-space in sedimentary rocks. Paper presented at the 3rd Internat. Conf. on Geo-resources in the Middle East and North Africa (GRMENA III), Cairo. – p. 18–19.
• Althaus, P. (2018): Regeln zur Mikrotypographie. – 56 p., Zürich (Schule für Gestaltung Zürich).
• Altınok, Y., Ersoy, S., Yalçıner, A. C., Alpar, B. & Kuran, U. (2001): Historical tsunamis in the Sea of Marmara. – 527–534 p., 1 Abb.; (ITS Proceedings).
• Alvarado, E. J., Raymond, J., Comeau, F. A., Therrien, R. & Carreau, M. (2022): Geothermal Energy Potential of Active Northern Underground Mines: Designing a System Relying on Mine Water. – Mine Water Environ., 41(4):1055–1081, doi:10.1007/s10230-022-00900-8.
• Alvarez, D. & Abanades, J. C. (2005): Determination of the critical product layer thickness in the reaction of CaO with CO₂. – Ind. Eng. Chem. Res., 44(15):5608–5615.
• Alvarez, D. & Abanades, J. C. (2005): Pore-size and shape effects on the recarbonation performance of calcium oxide submitted to repeated calcination/recarbonation cycles. – Energy Fuels, 19(1):270–278.
• Alvarez Fernandez, C., Fernandez Uria, A. & Boned Niell, M. (1985): Prevention of water pollution and plan for the exploitation of the ash tip of the la Robla conventional power station. – Proceedings, 2nd International Mine Water Association Congress, 2:605–613.
• Álvarez, H., Domínguez, G., Ordóñez, A., Menéndez, J., Álvarez, R. & Loredo, J. (2021): Mine Water for the Generation and Storage of Renewable Energy: A Hybrid Hydro–Wind System. – Int. J. Environ. Res. Public Heal., 18(13):6758, doi:10.3390/ijerph18136758.
• Alvarez, I. & Brown, M. (2023): Uncertainty Analysis In Groundwater Flow Models As A Tool To Support Decision Making: Assessing The Influence Of Infiltrations From A TSF Over An Open Pit. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 6–12; (International Mine Water Association).
• Alvarez, R., Domínguez, J. M., Ordóñez, A., Jorge, L. & Isidro, D. (2025): As, Sb and sulphate immobilization from flotation tailings of an intrusion-related gold mineralization. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 862–867; Braga (International Mine Water Association).
• Álvarez, R., Ordóñez, A., García, R. & Loredo, J. (2018): An estimation of water resources in flooded, connected underground mines. – Eng. Geol., 232:114–122, 4 Abb., 3 Tab.; doi:10.1016/j.enggeo.2017.11.016.
• Álvarez, R., Ordóñez, A., Loredo, J. & Pendás, F. (2005): State of the art of passive treatment technologies for the abatement of cyanides from the mining industry: Experiences in Asturias (Spain): Mine Water 2005 – Mine Closure. – 177–183 p., 3 Tab.; Oviedo (University of Oviedo).
• Álvarez, R., Ordóñez, A., Martínez, T., Loredo, J., Pendás, F. & Younger, P. (2004): Passive Treatment for the Removal of Residual Cyanide in Drainage from closed Gold Mine Tailing Ponds. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 35–41, 2 Abb.; Newcastle upon Tyne (University of Newcastle).
• Alvarez-Alvarez, L. & Fernandez-Alvarez, J. P. (2021): Regional Groundwater Flow Modelling of the Asturian Central Coal Basin (Spain). – Mine Water Environ., 40(4):919–930, doi:10.1007/s10230-021-00831-w.
• Alvord, H. H. & Kadlec, R. H. (1996): Atrazine fate and Transport in the des Plaines Wetlands. – Ecol. Model., 90(1):97–107.
• Al-Zoubi, H., Rieger, A., Steinberger, P., Pelz, W., Haseneder, R. & Härtel, G. (2010): Optimization Study for Treatment of Acid Mine Drainage Using Membrane Technology. – Sep. Sci. Technol., 45(14):2004–2016, 11 Abb., 3 Tab.; doi:10.1080/01496395.2010.480963.
• Al-Zoubi, H. S. & Al-Thyabat, S. S. (2012): Treatment of a Jordanian Phosphate Mine Wastewater by Hybrid Dissolved Air Flotation and Nanofiltration. – Mine Water Environ., 31(3):214–224, 9 Abb., 4 Tab.; doi:10.1007/s10230-012-0197-1.
• Am, J., Zhiwei, Z., Kang Kug, L., Chong, H. A. & Paul, L. B. (2011): State-of-the-art lab chip sensors for environmental water monitoring. – Meas. Sci. Technol., 22(3):032001, 16 Abb., 2 Tab.; doi:10.1088/0957-0233/22/3/032001.
• Amacher, M. C., Brown, R. W., Kotuby-Anmacher, J. & Willis, A. (1993): Adding Sodium Hydroxide To Study Metal Removal in a Stream Affected by Acid Mine Drainage. – USDA Forest Service Research Paper, 465:1–17, 11 Abb., 2 Tab.
• Amado, Á., Marqués, A. L., Fernandez, B., Ayala, J. & Centeno, T. A. (2025): Exploring the Potential of Hydrochar for the Removal of Toxic Metals from Mining-Influenced Waters: A Case Study on Arsenic. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1060–1060; Braga (International Mine Water Association).
• Amantini, E., Cabon, F. & Moretto, A. (2005): Groundwater management during the construction of underground hydrocarbon storage in rock caverns: Mine Water 2005 – Mine Closure. – 311–315 p., 4 Abb.; Oviedo (University of Oviedo).
• Amaral Filho, J., Azevedo, A., Etchepare, R. & Rubio, J. (2016): Removal of sulfate ions by dissolved air flotation (DAF) following precipitation and flocculation. – Int. J. Miner. Process., 149:1–8, doi:10.1016/j.minpro.2016.01.012.
• Amaral Filho, J., Weiler, J., Schneider, I. & Broadhurst, J. (2013): Using Humidity Cells Tests to Evaluate an ARD Minimization Approach in Santa Catarina Coal Field, Brazil. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 245–250, 3 Abb., 2 Tab.; Golden (International Mine Water Association).
• Amaral Filho, J. R. d., Schneider, I. A. H., Tubino, R. M. C., Brum, I. A. S. d., Miltzarek, G., Sampaio, C. H. & Schneider, C. H. (2010): Characterization of a Coal Tailing Deposit for Zero Waste Mine in the Brazilian Coal Field of Santa Catarina. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 639–643, Sydney, NS (Cape Breton University Press).
• Ambade, B., Sethi, S. S., Kurwadkar, S., Kumar, A. & Sankar, T. K. (2021): Toxicity and health risk assessment of polycyclic aromatic hydrocarbons in surface water, sediments and groundwater vulnerability in Damodar River Basin. – Groundwater for Sustainable Development, 13 doi:10.1016/j.gsd.2021.100553.
• Ambani, A.-E. (2013): Long-Term Assessment of the Surface Water Quality in the Blesbokspruit Ramsar Wetland. – 136 p., University of Johannesburg, 62 Abb., 29 Tab., 5 Anl.; Johannesburg.
• Ambani, A.-E. & Annegarn, H. (2016): A reduction in mining and industrial effluents in the Blesbokspruit Ramsar wetland, South Africa: Has the quality of the surface water in the wetland improved? – Water SA, 41(5) doi:10.4314/wsa.v41i5.08.
• Ambashtaa, R. D. & Sillanpää, M. (2010): Water purification using magnetic assistance – A review. – J. Hazard. Mater., 180:38–49, 2 Abb., 4 Tab.; doi:10.1016/j.jhazmat.2010.04.105.
• Ambassa, E. D., Ndibewu, P., Wolkersdorfer, Ch. & Nkoungou, G. (2022): Remote sensing and 1D geoelectric surveys for the characterization of basement aquifers in a Pan-African orogenic belt, Akak/Cameroon. – Research Square, doi:10.21203/rs.3.rs-1436434/v1.
• Amboni, M. M., Zanuz, M., Campos, J. J. & Gomes, C. J. B. (2010): Qualitative and Quantitative Representation of the Coal Mining Impact in the Rivers of Santa Catarina State, Brazil. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 413–417, Sydney, NS (Cape Breton University Press).
• Ambrosone, M., Giuliani, G., Chatenoux, B., Rodila, D. & Lacroix, P. (2019): Definition of candidate Essential Variables for the monitoring of mineral resource exploitation. – Geo-spatial Inf. Sci., 22(4):265–278, 4 Abb., 1 Tab.; doi:10.1080/10095020.2019.1635318.
• Amdany, R., Chimuka, L., Cukrowska, E., Kohoutek, J. & Vrana, B. (2014): Investigating the temporal trends in PAH, PCB and OCP concentrations in Hartbeespoort Dam, South Africa, using semipermeable membrane devices (SPMDs). – Water SA, 40(3):425–436, doi:10.4314/wsa.v40i3.5.
• Amec, E. & Limited, C. S. (2002): Britannia Mine Water Treatment Plant Sludge Disposal Alternatives. – 20 p., 2 Tab., 6 Anl.; Victoria (Province of British Columbia – Ministry of Water Land and Air Protection).
• Amec, E. & Limited, C. S. (2002): Britannia Mine Water Treatment Plant Sludge Disposal Options Study. – 74 p., Victoria (Province of British Columbia – Ministry of Water Land and Air Protection).
• Amec Foster Wheeler Environment & Infrastructure, Dalton Olmsted & Fuglevand & Floyd|Snider (2016): Corrective Measure Implementation Report – Duwamish Sediment Other Area and Southwest Bank Corrective Measure Boeing Plant 2 Seattle/Tukwila, Washington. – (Report Nr. 0131320100). – 68 p., Seattle (The Boeing Company).
• American Medical Association, Christiansen, S. L., Iverson, C., Flanagin, A., Livingston, E. H., Fischer, L., Manno, C., Gregoline, B., Frey, T., Fontanarosa, P. B. & Young, R. K. (2020): AMA manual of style – A guide for authors and editors, 11th edn. – 1227 p., New York (Oxford University Press).
• American Public Health Association, American Water Works Association & Water Environment Federation (2017): Standard Methods for the Examination of Water and Wastewater, 23 edn. – 1545 p., Washington (American Public Health Association).
• Amerom, H. W. J. v., Angerer, H. & Mostler, H. (1982): Über eine Autuno-Stephanische Flora aus den Kristbergschichten im Montafon, Vorarlberg (Österreich). – Jb. Geol. B.-A., 124(2):283–323, 13 Abb., 4 Tab., 7 Taf.
• Ameur, W. B., Trabelsi, S., El Megdiche, Y., Ben Hassine, S., Barhoumi, B., Hammami, B., Eljarrat, E., Barceló, D. & Driss, M. R. (2013): Concentration of polychlorinated biphenyls and organochlorine pesticides in mullet (Mugil cephalus) and sea bass (Dicentrarchus labrax) from Bizerte Lagoon (Northern Tunisia). – Chemosphere, 90(9):2372–2380, doi:10.1016/j.chemosphere.2012.10.028.
• Amezaga, J., Balvin, D., Abanto, C., Younger, P. L. & Rötting, T. S. (2007): ERMISA and CAMINAR Projects: Research on environmental Regulation, Catchment Management and Mining Impacts in South America: Water in Mining Environments. – 307–311 p., Cagliari (Mako Edizioni).
• Amezaga, J., Rötting, T., Younger, P., Jo, A., Lorini, J., Pelaez, C., Señoret, M. & Oyarzún, R. (2008): Mining- and Water-related Legislation in Peru, Bolivia and Chile – Results from the CAMINAR Project. – Proceedings, 10th International Mine Water Association Congress:501–504.
• Amezaga, J. M., Kroll, A., Jarvis, A. P., Rees, B., Puura, E., Miseré, W. M. H., Wings, R. W. M. G., Bajtoš, P., Weber, L., Sárváryné-Szentkatolnay, B., Garzonio, C. A., Wolkersdorfer, Ch., Younger, P. L. & Bowell, R. J. (2004): Contemporary Reviews of Mine Water Studies in Europe, Part 1. – Mine Water Environ., 23(4):163–183, 16 Abb., 3 Tab.; doi:10.1007/s10230-004-0060-0.
• Amezaga, J. M. & Younger, P. L. (2004): ERMITE: Supporting European Policy making on Mine Waste and Waters. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 41–46, 1 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Amezaga, J. M. & Younger, P. L. (2004): Mine Water Policy in the UK and the proposed Directive on Mine Waste. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 11–16, 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Amin, N., Schneider, D. & Hoppert, M. (2018): Bioleaching potential of bacterial communities in historic mine waste areas. – Environ. Earth Sci., 77(14):542, doi:10.1007/s12665-018-7714-x.
• Amirault, J. A., Herteis, B., Levesque, R., Fanning, D., Hamilton, S. & MacFarlane, D. (1993): Cape Breton Development Corporation Colliery Water Study Sydney Coal Fields, Cape Breton Nova Scotia. – Unpubl. Report for Cape Breton Development Corporation (Report Nr. 8728). – 60 p., 4 Anl.; Dartmouth (Jacques Whitford and Associates Limited).
• Amis, J., Duthe-Taussig, D., Morton, K. L. & Sibilski, U. (2001): A Strategic Plan for the Efficient Monitoring of Trends in Ground Water Quality Affected by Gold Mining in South Africa. – Proc. Conf. on Environmentally Responsible Mining in Southern Africa, 2:4A–1–4A–5, 4 Abb.
• Ammar, M., Russello, G. & Crispo, B. (2018): Internet of Things: A survey on the security of IoT frameworks. – J. Inf. Secur. Appl., 38(2):8–27, doi:10.1016/j.jisa.2017.11.002.
• Ammon, K., Dunai, T. J., Stuart, F. M., Meriaux, A. S. & Gayer, E. (2009): Cosmogenic He-3 exposure ages and geochemistry of basalts from Ascension Island, Atlantic Ocean. – Quat. Geochronol., 4(6):525–532, doi:10.1016/j.quageo.2009.09.003.
• Ammon, L. v. (1894): Geognostische Besschreibungen aus den Alpen – B. Das Cementsteinbergwerk Marienstein. – Geogn. Jh., 7:99–102.
• Ammon, L. v. (1909): Die Oberbayerische Pechkohle. – Geogn. Jh., 22:289–302.
• Ammon, L. v. (1910): Über radioaktive Substanzen in Bayern. – Geogn. Jh., 23:191–209, 1 Abb., 1 Kart.
• Amoako, F. Y., Poellmann, H. & Gossel, W. (2011): Immobilisation of Hazardous Substances from Mine Tailings using Mineral Reservoir Technology: Case of Mineral Processing Tailings from Ghana. – In: Rüde, T. R., Freund, A. & Wolkersdorfer, Ch. (eds): Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – p. 259–264, Aachen (RWTH Aachen University).
• Amon, R. M. W., Budéus, G. & Meon, B. (2003): Dissolved organic carbon distribution and origin in the Nordic Seas: Exchanges with the Arctic Ocean and the North Atlantic. – J. Geophys. Res., 108(C7):3221, doi:10.1029/2002JC001594.
• Amos, P. W. & Younger, P. L. (2003): Substrate characterisation for a subsurface reactive barrier to treat colliery spoil leachate. – Water Res., 37:108–120, doi:10.1016/S0043-1354(02)00159-8.
• Amos, R. T., Blowes, D. W., Bailey, B. L., Sego, D. C., Smith, L. & Ritchie, A. I. M. (2015): Waste-rock hydrogeology and geochemistry. – Appl. Geochem., 57:140–156, doi:10.1016/j.apgeochem.2014.06.020.
• Ampferer, O. (1902): Grundzüge der Geologie des Mieminger Gebirges. – Verh. k.-k. geol. R.-A.:170–180, 4 Abb.
• Ampferer, O. (1904): Die Bergstürze am Eingang des Ötztales und am Fernpaß. – Verh. k.-k. geol. R.-A., 1904(3):73–87.
• Ampferer, O. (1904): Studien über die Inntalterrassen. – Jb. k.-k. geol. R.-A., 54:91–160, 17 Abb., 1 Taf.
• Ampferer, O. (1905): Einige allgemeine Ergebnisse der Hochgebirgsaufnahme zwischen Achensee und Fernpaß. – Verh. d. k. k. geol. Reichsanst:118–125.
• Ampferer, O. (1905): Geologische Beschreibung des Seefelder, Mieminger und Südlichen Wettersteingebirges. – Jb. k.-k. geol. R.-A., 55:451–562, 16 Abb.
• Ampferer, O. (1906): Über das Bewegungsbild von Faltengebirgen. – Jb. Geol. R.-A., 56:539–622.
• Ampferer, O. (1912): Gedanken über die Tektonik des Wettersteingebirges. – Verh. Geol. R.-A., 7:197–212, 4 Abb.
• Ampferer, O. (1931): Zur neuen Umgrenzung der Inntaldecke. – Jb. Geol. R.-A., 81:25–48, 10 Abb.
• Ampferer, O. (1934): Geologische Bauformen und Baufragen des Rätikon Gebirges. – Jb. Geol. B.-A., 84(1-4):13–40, 20 Abb.
• Ampferer, O. (1936): Beiträge zur Geologie der Hungerburgterasse bei Innsbruck. – Jb. Geol. B.-A., 86:353–358, 6 Abb., 1 Taf.
• Ampferer, O. (1936): Rätikon und Montafon in der Schlußvereisung. – Jb. Geol. B.-A., 86(1-2):151–175, 17 Abb., 1 Taf.
• Ampferer, O. (1937): Wert der Geologie fürs Leben. – Verh. Geol. B.-A.:89–98.
• Ampferer, O. (1941): Bergzerreißungen im Inntalraume. – Sitzungsber. Akad. Wiss. Wien Mathem.-naturw. Kl., 150(3-6):97–114, 15 Abb.
• Ampferer, O. (1942): Über den Rückzug der Würmvergletscherung im obersten Montafon. – Sitzungsber. Akad. Wiss. Wien Mathem.-naturw. Kl. Abt. I, 151(1-6):27–40, 12 Abb.
• Ampferer, O. & Ohnesorge, T. (1924): Erläuterungen zur Geologische Spezial-Karte der Republik Österreich Blatt Zirl-Nassereith (5046) (M 1:75.000). – 68 p., 1 Karte; Wien (Geol. R.-A.).
• Amponsah-Dacosta, F. (2015): A Field-Scale Performance Evaluation of Erosion Control Measures for Slopes of Mine Tailings Dams. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Amponsah-Dacosta, F. & Mathada, H. (2017): Study of Sand Mining and Related Environmental Problems along the Nzhelele River in Limpopo Province of South Africa. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1263–1270, Lappeenranta (Lappeenranta University of Technology).
• Amponsah-Dacosta, M. & Reid, D. L. (2014): Mineralogical Characterization of Selected South African Mine Tailings for the Purpose of Mineral Carbonation. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 686–692, 1 Abb., 1 Tab.; Xuzhou (International Mine Water Association).
• Amra, O., Indira, Š. & Sabina, B. (2019): Biosensors for Determination of Heavy Metals in Waters. – In: Toonika, R. & Kairi, K. (eds): Biosensors for Environmental Monitoring. – p. 1–18, Rijeka (IntechOpen); doi:10.5772/intechopen.84139.
• Amrhein, A. (1896): Der Bergbau im Spessart unter der Regierung der Kurfürsten von Mainz. – Würzburg (Stahel’sche Buchhandlung).
• Amrhein, V., Greenland, S. & McShane, B. (2019): Retire statistical significance. – Nature, 567(7748):305–307, doi:10.1038/d41586-019-00857-9.
• Amstutz, G. C. (1972): Observational Criteria for the Classification of Mississippi Valley-BIeiberg-SiIesia Type of Deposits (An attempt at a brief summary). – Geologija, 15:207–215.
• Amt der Vorarlberger, L. & Abteilung, W. (2007): Oberflächenentwässerung – Leitfaden zum Umgang mit Niederschlagswässern aus Gewerbe-, Industrie- und Verkehrsflächen. – 30 p., 55 Abb., 3 Tab.; Bregenz (Amt der Vorarlberger Landesregierung).
• An, D., Bernard, S., Brinkley, M., Campbell, P., Glenny, R., Luchtel, D., Powers, K., Prinzen, F., Robertson, H. T., Shade, E., Schimmel, C., Taylor, J. & van Oosterhout, M. F. M. (1999): Manual for Using Fluorescent Microspheres to Measure Regional Organ Perfusion. – 22 Abb., 9 Tab.; Seattle (University of Washington).
• An, D., Bernard, S., Brinkley, M., Campbell, P., Glenny, R., Luchtel, D., Powers, K., Prinzen, F., Robertson, H. T., Shade, E., Schimmel, C., Taylor, J. & van Oosterhout, M. F. M. (2015): Manual for Using Fluorescent Microspheres to Measure Regional Organ Perfusion. – 107 p., 22 Abb., 9 Tab.; Seattle (University of Washington).
• An, Y. H. & Friedman, R. J. (2000): Handbook of Bacterial Adhesion – Principles, Methods, and Applications. – Totowa (Humana Press); doi:10.1007/978-1-59259-224-1.
• Anandan, K. S., Sahay, S. N. & Karthikeyan, S. (2010): Delineation of Recharge Area and Artificial Recharge Studies in the Neyveli Hydrogeological Basin. – Mine Water Environ., 29(1):14–22, doi:10.1007/s10230-009-0090-8.
• Anandan, K. S., Sahay, S. N., Ramabadran, T. K. & Prasad, S. S. (2010): Ground Water Control Techniques for Safe Exploitation of the Neyveli Lignite Deposit, Cuddalore District, Tamil Nadu, India. – Mine Water Environ., 29(1):3–13, 8 Abb., 2 Tab.; doi:10.1007/s10230-009-0089-1.
• Anastasi, F. S. & Williams, R. E. (1984): Aquifer Restoration at Uranium in situ Leach Sites. – Int. J. Mine Water, 3(4):29–37, 3 Abb., 2 Tab.; doi:10.1007/BF02504593.
• Anastasova, Y., Yanev, N. & Vecherkov, I. (2017): Possible Applications of Business Intelligence in the Mining Industry. Paper presented at the BALKANMINE 2017 – 7th Balkan Mining Congress, Prijedor, October 11–13, 2017. – p. 213–218, 3 Abb.
• Anawar, H. M. (2012): Role of private sector and national policy for rehabilitation of abandoned mines in Portugal: International Mine Water Association Symposium. – 295–300 p., Bunbury (Edith Cowan University).
• Anckorn, J. F. & del Olmo, A. G. (1999): The implications of current European directives and the future of mining in Europe. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 791–803, 3 Abb., 2 Tab.; Sevilla (International Mine Water Association).
• Andac, M. (1971): Mineralogische Beschreibung der radioaktiven Strandseifen in der Biga-Halbinsel südlich von der historischen Stadt Troja und deren Ursprungsgesteine (West-Türkei). – Bulletin of the Mineral Research and Exploration Institute of Turkey, 76:68–71, 3 Abb., 5 Taf., 2 Tab.
• Andac, M. & Mücke, A. (1975): Die Paragenese der Schwermineralseifen südlich von Troja (Westtürkei). – Bulletin of the Mineral Research and Exploration Institute of Turkey, 85:150–152, 1 Tab., 8 Fotos.
• Anden, B. (1985): Main dewatering of mines – New cost saving techniques. – Proceedings, 2nd International Mine Water Association Congress, 2:891–895.
• Ander, E. L. (1998): Geochemistry of mine and spoil drainage in the Durham Coalfield. – 294 p., PhD, Imperial College, 69 Abb., 22 Tab., 11 Taf.; London.
• Anderko, A. M. (2000): Simulation of FeCO₃/FeS Scale Formation Using Thermodynamic and Electrochemical Models. Paper presented at the CORROSION 2000, Orlando, 2000/1/1/. – p. 1–18; NACE (NACE International).
• Anderle, N. (1951): Bericht über lagerstättenkundliche Erhebungen im Gebiet von Panzendorf, Villgraten, Tessenberg und Mitterberg. – Verh. Geol. B.-A., 1950/51.
• Andermann, C., Longuevergne, L., Bonnet, S., Crave, A., Davy, P. & Gloaguen, R. (2012): Impact of transient groundwater storage on the discharge of Himalayan rivers. – Nature Geoscience, 5(2):127–132, doi:10.1038/ngeo1356.
• Anders, D. (2004): Grubenwasser bringt den Tod. – Mitteldeutsche Zeitung, 16.4.2004, 1 Abb.
• Andersen, A. (1993): Umweltgeschichte – Forschungsstand und Perspektiven. – Archiv für Sozialgeschichte, 33:672–701.
• Andersen, C. B. (2002): Understanding Carbonate Equilibria by Measuring Alkalinity in Experimental and Natural Systems. – J. Geosci. Educ., 50(4):389–403, doi:10.5408/1089-9995-50.4.389.
• Andersen, M. S., Larsen, F. & Postma, D. (2001): Pyrite Oxidation in Unsaturated Aquifer Sediments – Reaction Stoichiometry and Rate of Oxidation. – Environ. Sci. Technol., 35(20):4074–4079, doi:10.1021/es0105919.
• Andersen, R. (2008): Modern methods for robust regression: Quantitative applications in the social sciences. – 107 p., Los Angeles (Sage).
• Anderson, D. L. (1978): Hot water in underground mining. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1111–1123; Maracena (Asociación Nacional de lngenieros de Minas).
• Anderson, M. & Goode, T. (2017): Appropriate Catchment Management can Improve the Profitability of a Mine: A Case Study from Dallol, Ethiopia. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 633–641, Lappeenranta (Lappeenranta University of Technology).
• Anderson, M. P. (2005): Heat as a ground water tracer. – Ground Water, 43(6):951–68, doi:10.1111/j.1745-6584.2005.00052.x.
• Anderson, M. P., Woessner, W. W. & Hunt, R. J. (2015): Applied Groundwater Modeling. – (Academic Press); doi:10.1016/c2009-0-21563-7.
• Anderson, O. J. (1981): Abandoned or inactive Uranium Mines in New Mexico. – New Mex. Bureau Mines Miner. Resour. Open File Rep., 148:1–778.
• Anderson, R. D., Kleiman, D. B. & Wolscki, W. (1982): Special Dewatering Methods for Soil Stabilization. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:235–353, 9 Abb.
• Anderson, S. G. & Tinkler, T. (2021): Developing Integrated Water Management Models To Address Water Related Risks And Provide Resilience In The Mining Industry. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 8–13; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Andersson, A. (2021): Mechanisms for log normal concentration distributions in the environment. – Sci. Rep., 11(1):16418, doi:10.1038/s41598-021-96010-6.
• Andersson, E. & Hansson, H. (2001): Precipitation of reactive aluminium hydroxide from an acidic aluminium sulphate solution by addition of sodium hydroxide. – 2 Abb., 3 Tab.; Lund (unpublished Master Thesis University of Lund).
• Andersson, M., Ottesen, R. T., Jartun, M., Eggen, O. & Enqvist, A.-C. (2012): PCB contamination from sampling equipment and packaging. – Appl. Geochem., 27(1):146–150, doi:10.1016/j.apgeochem.2011.09.026.
• Andrade, C. & Mountjoy, K. (2015): Minewall Stations and Mass Loadings at an Epithermal High Sulphidation Deposit – What, No Scaling? – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–17 [electronic document], Santiago/Chile (Gecamin).
• Andrady, A. L. (2011): Microplastics in the marine environment. – Mar. Pollut. Bull., 62:1596–1605, doi:10.1016/j.marpolbul.2011.05.030.
• Andráš, P., Križáni, I. & Šlesárová, A. (2007): Impacts of environmental Contaminants at Mining Dumps on small Mammals (Lúky Pod Tanádom and Lintich, Central Slovakia): Water in Mining Environments. – 373–377 p., 2 Abb., 2 Tab.; Cagliari (Mako Edizioni).
• Andreichuk, V., Eraso, A. & Domínguez, M. C. (2000): A Large Sinkhole in the Verchnekamsky Potash Basin in the Urals. – Mine Water Environ., 19(1):2–18, 9 Abb.; doi:10.1007/BF02687261.
• Andrejchuk, V. & Rózkowski, J. (2000): Hydrogeological conditions and environmental hazard of salt dumps with special reference to potassium salt deposits in Vierchniekamsk, the Middle Ural Mountain, Russia. – Proceedings, 7th International Mine Water Association Congress:38–48, 2 Abb., 5 Fot.
• Andres, C., Ordóñez, A. & Álvarez, R. (2017): Hydraulic and Thermal Modelling of an Underground Mining Reservoir. – Mine Water Environ., 36(1):24–33, doi:10.1007/s10230-015-0365-1.
• Andres, N. F. & Francisco, M. S. (2008): Effects of sewage sludge application on heavy metal leaching from mine tailings impoundments. – Bioresour. Technol., 99(16):7521–30, doi:10.1016/j.biortech.2008.02.022.
• Andries, R. G., Júnior, R. S. & de Melo, G. A. (2025): Water Management in Iron Ore Mining: Regression Models for Optimizing Water Use in Mining Complexes. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 132–138; Braga (International Mine Water Association).
• Aneck-Hahn, N. H., Van Zijl, M. C., Swart, P., Truebody, B., Genthe, B., Charmier, J. & De Jager, C. (2018): Estrogenic activity, selected plasticizers and potential health risks associated with bottled water in South Africa. – J. Water Health, 16(2):253–262, doi:10.2166/wh.2018.043.
• Anezaki, K. & Nakano, T. (2014): Concentration levels and congener profiles of polychlorinated biphenyls, pentachlorobenzene, and hexachlorobenzene in commercial pigments. – Environ. Sci. Pollut. Res. Int., 21(2):998–1009, doi:10.1007/s11356-013-1977-2.
• Angelov, A., Bratkova, S. & Loukanov, A. (2013): Microbial fuel cell based on electroactive sulfate-reducing biofilm. – Energy Convers. Manage., 67:283–286, doi:10.1016/j.enconman.2012.11.024.
• Angerer, H., Haditsch, J.-G., Laskovic, F., Leichtfried, W. & Mostler, H. (1980): Ein Beitrag zur Kenntnis der Gipslagerstätten des Montafons (Vorarlberg). – Geol. Paläont. Mitt. Innsbruck, 9(7-8):263–320, 11 Abb., 5 Tab., 5 Taf., 14 Fototaf.
• Angerer, H., Haditsch, J.-G., Leichtfried, W. & Mostler, H. (1976): Disseminierte Kupfererze im Perm des Montafon (Vorarlberg). – Geol. Paläont. Mitt. Innsbruck, 6:1–57, 9 Abb., 6 Tab., 14 Taf.
• Angerer, J. & Lechleitner, H. (1893): Bergbau und Hüttenwesen, Gewerbe, Industrie und Handel in Tirol und Vorarlberg: Die österreichisch-ungarische Monarchie in Wort und Bild – Tirol und Vorarlberg. – 585–600 p., 4 Abb.; Wien (K.K. Hof- u. Staatsdr.).
• Anghel, I., Turin, H. J. & Reimus, P. W. (2002): Lithium Sorption to Yucca Mountain Tuffs. – Appl. Geochem., 17(6):819–824.
• Anh, H. Q., Watanabe, I., Minh, T. B. & Takahashi, S. (2021): Unintentionally produced polychlorinated biphenyls in pigments: An updated review on their formation, emission sources, contamination status, and toxic effects. – Sci. Total Environ., 755:142504, doi:10.1016/j.scitotenv.2020.142504.
• Anhaeusser, C. R. (1976): Archean metallogeny in southern Africa. – Econ. Geol., 71(1):16–43, doi:10.2113/gsecongeo.71.1.16.
• Anhaeusser, C. R. (1976): The nature of chrysotile asbestos occurrences in southern Africa – A review. – Econ. Geol., 71(1):96–116, doi:10.2113/gsecongeo.71.1.96.
• Anhaeusser, C. R. (2012): The History of Mining in the Barberton Greenstone Belt, South Africa, with an Emphasis On Gold (1868 – 2012). Paper presented at the International Mining History Congress, Johannesburg, 2012–04–17. –.
• Anibas, C., Verbeiren, B., Buis, K., Chormanski, J., De Doncker, L., Okruszko, T., Meire, P. & Batelaan, O. (2012): A hierarchical approach on groundwater-surface water interaction in wetlands along the upper Biebrza River, Poland. – Hydrol. Earth Syst. Sci., 16(7):2329–2346, 10 Abb., 2 Tab.; doi:10.5194/hess-16-2329-2012.
• Anklin, M., Apple, C., Arant, J. B., Baan, T. J., Boyes, W. H., Boyes Jr., W. H., Crabtree, G. M., Dinapoli, L. D., Drahm, W., Eren, H., Foundos, A. P., Gibson, I. H., Hashemian, H. M., Houghen, J., Howe, W. H., Kayser, D. S., Kopp, J. G., Kozák, J., Lipták, B. G., Lomas, D. J., Mair, D. C., Pawlowski, A. V., Plach, K. O., Ptácnák, M., Rudbäch, S., Sanders, G. G., Siev, R., Stoddard, J. B., Szonntagh, E. L., Yoder, J. & Yoder, J. (2003): Flow Measurement. – In: Lipták, B. G. (ed) Instrument Engineers’ Handbook – Process Measurement and Analysis I, 4th edn. – p. 151–400, Boca Raton (CRC).
• Annandale, J., du Plessis, M., Tanner, P., Heuer, S. & Madiseng, L. (2023): Irrigation Should be Explored as a Sustainable Management Solution to the Acid Mine Drainage Legacy of the Witwatersrand Goldfields. – Mine Water Environ., 42(4):639–649, doi:10.1007/s10230-023-00961-3.
• Annandale, J. G. (1998): Irrigating with gypsiferous mine water. – S. Afr. J. Sci., 94(7):359–360.
• Annandale, J. G., Beletse, Y. G., Stirzaker, R. J., Bristow, K. L. & Aken, M. E. (2009): Is Irrigation with Coal-Mine Water Sustainable? – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 337–342, 1 Tab; Pretoria (Document Transformation Technologies).
• Annandale, J. G., du Plessis, H. M., Tanner, P. D. & Burgess, J. (2018): Suitability of mine water for irrigation: a risk based, site-specific DSS. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 239–244; (Tshwane University of Technology).
• Annandale, J. G., du Plessis, M., Tanner, P. & Heuer, S. (2021): Should Irrigation With Mine-Affected Water Be Considered Part Of The Long-Term Strategy To Manage Acid Mine Drainage In The Witwatersrand Goldfields? Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 14–19; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Annandale, J. G., Jovanovic, N. Z., Benade, N. & Tanner, P. D. (1999): Modelling the long-term effect of irrigation with gypsiferous water on soil and water resources. – Agric. Ecosyst. Environ., 76(2-3):109–119, 8 Abb., 1 Tab.; doi:10.1016/S0167-8809(99)00079-1.
• Annandale, J. G., Jovanovic, N. Z., Hodgson, F. D. I., Usher, B., Aken, M. E., Van Der Westhuizen, A. M., Bristow, K. L. & Steyn, J. M. (2003): Prediction of the environmental impact and sustainability of large scale irrigation with gypsiferous mine water on groundwater resources. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 453–463, 2 Abb., 1 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Annandale, J. G., Jovanovic, N. Z., Pretorius, J. J. B., Lorentz, S. A., Rethman, N. F. G. & Tanner, P. D. (2001): Gypsiferous mine water use in irrigation on rehabilitated open-cast mine land: Crop Production, soil water and salt balance. – Ecol. Eng., 17(2-3):153–164, 3 Abb., 4 Tab.; doi:10.1016/S0925-8574(00)00155-5.
• Annandale, J. G., Jovanovic, N. Z., Tanner, P. D., Benadé, N. & du Plessis, H. M. (2002): The Sustainability of Irrigation with Gypsiferous Mine Water and Implications for the Mining Industry in South Africa. – Mine Water Environ., 21(2):81–90, 5 Abb., 2 Tab.; doi:10.1007/s102300200023.
• Annandale, J. G., Patoussias, P. & Tanner, P. D. (2025): Guidelines for mine water irrigation of rehabilitated opencast mine land. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 610–614; Braga (International Mine Water Association).
• Annandale, J. G., Tanner, P. D. & Burgess, J. (2017): Where there’s muck there’s brass: Irrigated agriculture with mine impacted waters. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 915–922, Lappeenranta (Lappeenranta University of Technology).
• Annandale, J. G., Tanner, P. D., du Plessis, H. M., Burgess, J., Ronquest, Z. D. & Heuer, S. (2019): Irrigation With Mine Affected Waters: A Demonstration With Untreated Colliery Water In South Africa. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 71–76; Perm, Russia (Perm State University).
• Annandale, J. G., Tanner, P. D., Heuer, S. N., van der Walt, G., Deane, K. & du Plessis, H. M. (2023): Facilitating Sustainable Mine Water Irrigation. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 13–18; (International Mine Water Association).
• Anonymous (1821): Allgemeiner National-Kalender für Tirol und Vorarlberg auf das gemeine Jahr 1821. – Innsbruck (Wagner).
• Anonymous (1846): Bericht über die dritte allgemeine österreichische Gewerbe-Ausstellung in Wien 1845. – Wien (k. k. Hof- und Staali-Druckerei).
• Anonymous (1885): Landeshut. – Chemiker Zeitung, 9(76):1363.
• Anonymous (1926): Die Seebensee-Bahn. – Die Zugspitze, 4:77, 2 Abb.
• Anonymous (1939): A Great Asbestos Enterprise. – S. Afr. Mining and Eng. J., 50(1):289–294, 4 Abb.
• Anonymous (1939): The Havelock asbestos mine, Swaziland. – Bull. Imp. Inst., 37(3):469–471.
• Anonymous (1948 – 1967): Betriebsplan für den Schwerspatbergbau Grosskogl. – (Report Nr. BergH Innsbruck Z 215/48). – 112 p.
• Anonymous (1954): Operations at the Havelock Asbestos Mine, Swaziland. – The Mining Journal, 243(6212):288–289.
• Anonymous (1966): Report of a New Chemical Hazard. – New Scientist, 32:612.
• Anonymous (1967): Höhlenverzeichnis des Landes Tirol. – Höhle – Z. Karst- und Höhlenkd., 18:41–49.
• Anonymous (1970): Inert Atmosphere in Mines Could Abate Acid Drainage. – Chem. Eng. News, 48(21):33–35, 3 Abb.
• Anonymous (1970): Monsanto Statement on PCB. – Environ. Sci. Policy Sustain. Dev., 12(1):26–27, doi:10.1080/00139157.1970.9932354.
• Anonymous (1978): Havelock Asbestos Mine. – Swaziland Today, September 1978:35–36.
• Anonymous (2005): Research Seeks Answers for Century-Old Problem. – The Water Wheel, 4(3):16–21.
• Anonymous (2005): Verfahren zur Durchflussmessung. – 27 p., 61 Abb., 2 Tab.; Nn (Pegelvorschrift).
• anonymous (2008): Bergbau in St. Gallenkirch. – Tramosa-Post, 15(2):1–3.
• Anonymus (1837): Erster Bericht über die zwischen dem Inn und der Salzach in Betrieb gesetzten Schurfarbeiten auf Stein- und Braunkohlen. – Kunst- und Gewerbeblatt, 23:83–105; 151–178; 375–391.
• Anonymus (1840): Statistische Mitteilungen über den Bergbau Österreichs. – Der Bergwerksfreund, 3(2):17–24.
• Anonymus (1858): Auflösung des tirolischen montanistischen Werner-Vereines. – Österr. Z. f. Berg- u. Hüttenwesen, 6:135.
• Anonymus (1858): Ueber Steinkohlen in Bayern. – 16 p., Nürnberg (Sebald).
• Anonymus (1863): Ueber Steinkohlen in Bayern. – 24 p., Bayreuth (Höreth).
• Anonymus (1890): Ueber den Fernpaß in’s Innthal. – Das Buch für alle, 16:380, 383, 1 Abb.
• Anonymus (1892): Selbstreinigung der Flüsse. – Centralblatt der Bauverwaltung, 10(A):111–112.
• Anonymus (1910): Die Gewerkschaft Silberleithen bei Biberwier. – Der Sammler – Blätter für tirolische Heimatkunde und Heimatschutz, 4(5):119–120.
• Anonymus (1932): Aus Vorarlberg – Man muss sich nur zu helfen wissen. – Liechtensteiner Nachrichten, 15.9.1932, 19(105):2.
• Anonymus (1935): Wallsend – At their Rising Sun pit the Wallsend & Hebburn Coal Co. Ltd. have erected what is probably the most complete coal preparation plant in the world. – Colliery Eng., 15 Abb.
• Anonymus (1936): Mine-Sealing Program to Reduce Acid Pollution in Streams. – Eng. News Rec., 2:42–43, 3 Abb.
• Anonymus (1969): Der Bergbau in Tirol. – Universum Österreich – Monatszeitschrift für Natur, Technik und Wirtschaft, 24(6):246–248, 3 Abb.
• Anonymus (1969): Sulphur Bacteria – Pollution by mine water. – Nature, 222(5188):12, doi:10.1038/222012a0.
• Anonymus (1981): Die geschichtliche Entwicklung des Kalk & Zementwerkes und des Kohlenbergwerkes in Marienstein – Betriebschronik. – 17 p., Marienstein (Maschinegeschriebenes Manuskript).
• Anonymus (1995): Urteil des Bundesverwaltungsgerichts vom 9. November 1995 (4 C 25.94) – Unternehmerverantwortung bei der teilweisen Betriebseinstellung eines Bergwerks für die Abwehr gemeinschädlicher Einwirkungen – Beseitigung von Sauerwasser im Erzbergwerk Rammelsberg/Harz. – Z. f. Bergrecht, 136:290–301.
• Anonymus (1998): Arbeitseinsatz von Kindern begrenzt. – ÄP Pädiatrie, 11(11):6.
• Anonymus (1999): Scottish Environment Protection Agency to take Action on Mine Water Pollution. – Coal International, 247(4):139, 1 Abb.
• Anonymus (2000): Constructing a solution to a mercurial problem. – Environ. Sci. Technol., 34:251 A, 1 Abb.
• Anonymus (2000): Detoxifying mine water. – Filtr. Sep., 37(7):21–21, doi:10.1016/S0015-1882(00)80127-5.
• Anonymus (2000): Investigation into CKD as an alternative to slaked lime. – Coal International, 248(4):132.
• Anonymus (2000): On January 11, Jiangsu Province’s Dahuangshan coal mine at Xuzhou was hit by an inrush. – Eng. Min. J., 2001(3):w10.
• Anonymus (2001): Sanierung des Flusses Pelenna: ein System zur Wasserbehandlung in Pflanzenkläranlagen, gebaut für die Sanierung von durch Grubenwasser kontaminierten Gebieten: LIFE – Umwelt in Aktion – 56 neue Erfolgsgeschichten für Europas Umwelt. – 2 Abb.; Luxemburg (Europäische Kommission).
• Anonymus (2002): Archäologie – Falscher Büffel. – Der Spiegel, 56(35).
• Anonymus (2002): CGS Lands NASA Grant. – Colorado Geological Survey ROCKTALK, 5(4):12–14, 3 Abb., 1 Tab.
• Anonymus (2002): A Constructed Wetland to Treat Acid Mine Drainage from Colliery Spoils at Quaking Houses, County Durham. – CL:AIRE case study bulletin, 2:1–4, 5 Abb., 2 Tab.
• Anonymus (2004): Mine Water Treatment at Wheal Jane Tin Mine, Cornwall. – CL:AIRE case study bulletin, 4:1–4, 7 Abb., 1 Tab.
• Anonymus (2006): ‘Heavy Metal’ Does Not Necessarily Mean ‘Toxic’. – Nickel, 21(4):6, 1 Abb.
• Anonymus (2006): IMWA Field Trip 2006 – Field Guide. – St. Louis (International Mine Water Association).
• Anonymus (2009): Effective Mine Closure – Planning for the Future. – International Mining:50–54.
• Anschutz, P. & Blanc, G. (1995): Chemical mass balances in metalliferous deposits from the Atlantis II Deep, Red Sea. – Geochim. Cosmochim. Acta, 59(20):4205–4218, 6 Abb., 4 Tab.
• Anschutz, P. & Blanc, G. (1996): Heat and salt fluxes in the Atlantis II Deep (Red Sea). – Earth Planet. Sci. Lett., 142:147–159, 6 Abb., 2 Tab.
• Anschutz, P., Blanc, G., Chatin, F., Geiller, M. & Pierret, M.-C. (1999): Hydrographic changes during 20 years in the brine-filled basins of the Red Sea. – Deep-Sea Research I, 46:1779–1792, 4 Abb., 2 Tab.
• Ansolabehere, S. & Konisky, D. M. (2009): Public Attitudes Toward Construction of New Power Plants. – Public Opin. Q., 73(3):566–577, doi:10.1093/poq/nfp041.
• Ansuini, F. J. & Dimond, J. R. (1994 (2017)): Factors Affecting the Accuracy of Reference Electrodes. – Mater. Performance, 33(11):14–17.
• Antelo, J., Fiol, S., Carabante, I., Filardi, I., Barroso, A. & Valente, T. (2025): Arsenate and chromate attenuation in acid mine drainage systems. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 886–890; Braga (International Mine Water Association).
• Antenucci, J. P. (2009): Currents in Stratified Water Bodies 3: Effects of Rotation. – In: Likens, G. E. (ed) Encyclopedia of Inland Waters. – p. 559–567, Oxford (Academic Press); doi:10.1016/B978-012370626-3.00082-X.
• Anthony, E. J., Iribarne, A. P., Iribarne, J. V. & Jia, L. (1997): Reuse of landfilled FBC residues. – Fuel, 76(7):603–606.
• Anthony, E. J., Jia, L., Woods, J., Roque, W. & Burwell, S. (2000): Pacification of high calcic residues using carbon dioxide. – Waste Manage., 20(1):1–13, 8 Abb., 12 Tab.
• Anthony, J. W., Bideaux, R. A., Bladh, K. W. & Nichols, M. C. (2003): Handbook of Mineralogy – Borates, Carbonates, Sulfates: V. – 791 p., Chantilly (Mineralogical Society of America).
• Antivachis, D. N., Chatzitheodoridis, E., Skarpelis, N. & Komnitsas, K. (2017): Secondary Sulphate Minerals in a Cyprus-Type Ore Deposit, Apliki, Cyprus: Mineralogy and Its Implications Regarding the Chemistry of Pit Lake Waters. – Mine Water Environ., 36(2):226–238, doi:10.1007/s10230-016-0398-0.
• Antonijevic, B., Jankovic, S., Curcic, M., Durgo, K., Stokic, E., Srdic, B. & Tomic-Naglic, D. (2011): Risk characterization for mercury, dichlorodiphenyltrichloroethane and polychlorinated biphenyls associated with fish consumption in Serbia. – Food and Chemical Toxicology, 49(10):2586–2593, doi:10.1016/j.fct.2011.06.078.
• Antonovics, J., Bradshaw, A. D. & Turner, R. G. (1971): Heavy Metal Tolerance in Plants. – In: Cragg, J. B. (ed) Advances in Ecological Research 7. – p. 1–85, (Academic Press); doi:10.1016/S0065-2504(08)60202-0.
• Antunes, I. M., Neiva, A. & Silva, M. (2008): Environmental Contamination Associated with Some Abandoned Mines in Central Portugal. – Proceedings, 10th International Mine Water Association Congress:351–354.
• Antunes, M., Abdelkarim, B., Valente, T. & Tavares, A. (2024): Post-mining water-sediment interaction on U-mine area – a contribution to water management. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 10–14; Morgantown (International Mine Water Association).
• Antunes, M., Fernandes, R., Pinheiro, A., Valente, T. M. & Nascimento, S. (2010): Potential of reuse and environmental behaviour of ochre-precipitates from passive mine treatment. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 205–209, 1 Abb., 3 Tab.; Sydney, NS (Cape Breton University Press).
• Antunes, M., Teixeira, R., Neiva, A. M., Albuquerque, T., Valente, T. & Santos, A. (2019): Spatial Water Interaction In Radium/Uranium Mines – A Portuguese Case Study. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 334–338; Perm, Russia (Perm State University).
• Antunes, M. H., Carvalho, P., Albuquerque, T. & Santos, A. (2021): Mobility of Uranium in Groundwater-surface Water Systems in a Post-mining Context (Central Portugal). Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 20–25; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Antunes, M. H., Valente, T., Gomes, P., Costa, R., Fonseca, R. & Filipa, M. (2019): Spatial Distribution Of Acid Mine Drainage Indexes In Different Water Environments. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 329–333; Perm, Russia (Perm State University).
• Antwerpen, F. J. V. (2002): Strategic Raw Materials. – Ind. Eng. Chem., 31(5):520–530, doi:10.1021/ie50353a007.
• APEC Mining Task Force (2018): Mine Closure – Checklist for Governments. – 96 p., Singapore (Asia-Pacific Economic Cooperation).
• Apeiranthitis, N., Finlay, A., Greenwell, H. C. & Merrick, E. (2023): Passive Leached Water Mine (P.L.W.M.) - A sustainable approach to mine water remediation and metals extraction. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 19–24; (International Mine Water Association).
• Apel, M. & Böhme, M. (2006): Data integration and 3d mineral and hazard potential modelling. – Wiss. Mitt. Inst. Geol., 31:325–330, 2 Abb.
• Appel, M. (1985): Geologie des Gebietes Hexenagger – Tettenwang Südlich Riedenburg (Altmühlalb). – Weltenburger Akademie – Gruppe Geschichte, 1985:1–14, 9 Abb., 1 Kart.
• Appel, M. (1985): Meteoritisches Eisen auf der Altmühlalb. – Z. dt. geol. Ges., 136(1):157–166, doi:10.1127/zdgg/136/1985/157.
• Appelo, C. A. J. (2015): Specific Conductance: how to calculate, to use, and the pitfalls. http://www.hydrochemistry.eu/exmpls/sc.html Accessed 2015-04-03.
• Appelo, C. A. J., Groen, M. M. A., Heidweiller, V. M. L. & Smit, P. M. H. (1983): Hydrochemistry of springs in an alpine carbonate/serpentinite terrain. Paper presented at the Int. Conf. Water-Rock Interaction, Misasa, Japan. – p. 26–31.
• Appelo, C. A. J. & Postma, D. (2005): Geochemistry, groundwater and pollution, 2nd edn. – Rotterdam (Balkema); doi:10.1201/9781439833544.
• Appelo, C. A. J., Van Loon, L. R. & Wersin, P. (2010): Multicomponent diffusion of a suite of tracers (HTO, Cl, Br, I, Na, Sr, Cs) in a single sample of Opalinus Clay. – Geochim. Cosmochim. Acta, 74(4):1201–1219, doi:10.1016/j.gca.2009.11.013.
• Appelo, C. A. J., Verweij, E. & Schäfer, H. (1998): A hydrogeochemical transport model for an oxidation experiment with pyrite/calcite/exchangers/organic matter containing sand. – Appl. Geochem., 13(2):257–268, doi:10.1016/S0883-2927(97)00070-X.
• Appels, W. M., Wall, S. N., Barbour, S. L., Hendry, M. J., Nichol, C. F. & Chowdhury, S. R. (2017): Pyrite Weathering in Reclaimed Shale Overburden at an Oil Sands Mine near Fort McMurray, Canada. – Mine Water Environ., 36(4):479–494, doi:10.1007/s10230-017-0454-4.
• Aptroot, A. (2008): Lichens of St Helena and Ascension Island. – Bot. J. Linnean Soc., 158(1):147–171, doi:10.1111/j.1095-8339.2008.00797.x.
• Aquilina, L., de Dreuzy, J.-R., Bour, O. & Davy, P. (2004): Porosity and fluid velocities in the upper continental crust (2 to 4 km) inferred from injection tests at the Soultz-sous-Forêts geothermal site. – Geochim. Cosmochim. Acta, 68(11):2405–2415, 5 Abb., 4 Tab.
• Aquilina, L., Rose, P., Vaute, L., Brach, M., Gentier, S., Jeannot, R., Jacquot, E., Audigane, P., Tran-Viet, T., Jung, R., Baumgärtner, J., Baria, R. & Gérard, A. (1998): A Tracer Test at the Soultz-Sous-Forêts Hot Dry Rock Geothermal Site. – Proceedings, 23rd Workshop on Geothermal Reservoir Engenieering, SGP-TR-158:1–8, 3 Abb.
• Aquino, N. J., Butar Butar, D., Papadopoulou, K., Cwirzen, A. & Alakangas, L. (2025): Preliminary Leaching Performance of Slag-Blended Cement for the Stabilization of Pyrite-Bearing Waste Rock. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 790–795; Braga (International Mine Water Association).
• Arab, A., Bertau, M., Mischo, H. & Merkel, B. J. (2014): Enhanced in Situ Leaching (EISLEACH) Mining by Means of Supercritical Carbon Dioxide – TOUGHREACT Modeling. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 190–194, Xuzhou (International Mine Water Association).
• Arab, A. & Merkel, B. (2019): Heat and Mineral Mining by adding CO₂ to Deep Groundwater. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 403–408; Perm, Russia (Perm State University).
• Aracil, E., Faz, A. M.-P. P., Martínez-Martínez, S., Acosta, J. A., Fisher, T. & Maruri, U. (2005): Geochemical composition and geophysical characterization of “Brunita” mining silt pond, Cartagena, SE Spain: Mine Water 2005 – Mine Closure. – 303–309 p., 11 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Arad, V. & Hirand, C. (1999): The Impact of Coal Opencast Mining on the Environment in Romania. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 59–61, 3 Tab.; Sevilla (International Mine Water Association).
• Arambarri, P., Cabrera, F. & Gonzalez Quesada, R. (1996): Quality evaluation of the surface waters entering the Donana National Park (SW Spain). – Sci. Total Environ., 191(3):185–196.
• Arancibia, E. & Flores, G. (2004): Transición de Chuqui a mina subterránea. – Mineria Chilena, 280(10):25, 1 Abb.
• Araujo, D. M., Yoshida, M. I., Takahashi, J. A., Carvalho, C. F. & Stapelfeldt, F. (2010): Biodegradation studies on fatty amines used for reverse flotation of iron ore. – Int. Biodeterior. Biodegrad., 64(2):151–155, doi:10.1016/j.ibiod.2010.01.004.
• Araújo, J. F., Cravotta III, C. A., Fonseca, R., da Silva, R. P., Prats A., S. & Valente, T. (2025): Acid Mine Drainage Remediation with Waste Products: Laboratory Findings and Field Model Applications. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 765–771; Braga (International Mine Water Association).
• Arbeitsausschuss Markscheidewesen im Normenausschuss Bergbau (FABERG) im DIN (2003): Hydrologie – Ergebnisdarstellungen unter Tage: Empfehlung des Arbeitsausschusses Markscheidewesen. – 3 p., Herne (FABERG Normenausschuss Bergbau im DIN e.V.).
• Arbeitskreis 4.6 „Altbergbau” der Fachsektion Ingenieurgeologie in der DGGT (2013): Empfehlung „Geotechnisch-markscheiderische Bewertung und Sanierung von altbergbaulich beeinflussten Gebieten hinsichtlich ihrer baulichen Nachnutzung“. – In: Meier, G. (ed) 13. Altbergbau-Kolloquium 7. bis 9.11.2013 in Freiberg. – p. 1–15 (Anhang), Freiberg (Wagner).
• Arbeitskreis „Human- und ökotoxikologische Bewertung von Markierungsmitteln in Gewässern“ (1997): Human- und ökotoxikologische Bewertung von Markierungsmitteln in Gewässern. – Grundwasser, 2(2):61–64, 2 Tab.; doi:10.1007/s767-1997-8521-7.
• Arbeitskreis KLIWA, Bergdold, U., Fischer, F. & Fischer, J. (2016): Ableitung von Temperaturpräferenzen des Makrozoobenthos für die Entwicklung eines Verfahrens zur Indikation biozönotischer Wirkungen des Klimawandels in Fließgewässern. – KLIWA-Berichte, 20:145, 32 Abb., 58 Tab.
• Arbogast, B. F., Knepper, D. H. J. & Langer, W. H. (2000): The Human Factor in Mining Reclamation. – U. S. Geol. Surv. Circular, 1191:28, 28 Abb., 4 Tab.
• Archer, N. F. (1979): Mine Dewatering – A Package Approach: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 591–593 p., San Francisco (Freeman).
• Arcila, E. J. A., Moreira, C. A., Camarero, P. L. & Casagrande, M. F. S. (2021): Identification of Flow Zones Inside and at the Base of a Uranium Mine Tailings Dam Using Geophysics. – Mine Water Environ., 40(1):308–319, doi:10.1007/s10230-020-00746-y.
• Arcos, D., Guimerà, J., Jordana, S., Ruiz, E. & Molinero, J. (2015): Predicting Pit Lake Formation and Water Quality. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Arcos, D., Quesada, P., Huamán, A., Coene, E. & Demirer, E. (2025): Geochemical monitoring to use waste rock in mine component construction. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 283–288; Braga (International Mine Water Association).
• Ardau, C., Blowes, D. W. & Ptacek, C. J. (2007): Testing a Standard Test Method for laboratory Weathering on Sulphide containing Mine Tailings: Water in Mining Environments. – 379–384 p., 5 Abb.; Cagliari (Mako Edizioni).
• Ardau, C., Cidu, R., Da Pelo, S., Dadea, C., Fanfani, L., Frau, F., Musu, E. & Lattanzi, P. (2008): Arsenic in Mining Environments: Evidences from Sardinia (Italy). – Proceedings, 10th International Mine Water Association Congress:231–234.
• Ardau, C., Frau, F., Nieddu, G. & Fanfani, L. (2007): Field Evidences on release/removal of Arsenic by Hydrotalcite-like Compounds in Mining Waters – The Example of Baccu Locci Mine (Sardinia, Italy): Water in Mining Environments. – 385–389 p., 2 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Ardau, C., Frau, F., Ricci, P. C., Cannas, C., Dore, E. & Lattanzi, P. (2011): Synthetic and natural Zn-Al sulphate LDHs for removal of As(V) from NAMD: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 559–562 p., Aachen (RWTH Aachen University).
• Aréchaga, R. F., Gil, B. A., Menéndez, L. J. A., Rivas, R. F. & Ibañez, G. J. F. (2005): Environmental solution to “Puentes de García Rodriguez mine: Mine Water 2005 – Mine Closure. – 265 p., Oviedo (University of Oviedo).
• Aréchaga Rodríguez, F. & Gil Bueno, A. (1999): Considerations upon Mine Voids based on Dump Recovering Experience. Puentes Mine Case. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 55–58, 5 Abb.; Sevilla (International Mine Water Association).
• Argunhan-Atalay, C. & Yazicigil, H. (2018): Modeling and Performance Assessment of Alternative Cover Systems on a Waste Rock Storage Area. – Mine Water Environ., 37(1):106–118, doi:10.1007/s10230-017-0476-y.
• Arias Arias, M. A. & Fernández, J. L. D. (2008): Water Quality Models in Limeisa Mining Lake. – Proceedings, 10th International Mine Water Association Congress:547–549.
• Arienzo, M., Chiarenzelli, J., Scrudato, R., Pagano, J., Falanga, L. & Connor, B. (2001): Iron-mediated reactions of polychlorinated biphenyls in electrochemical peroxidation process (ECP). – Chemosphere, 44(6):1339–1346, doi:10.1016/S0045-6535(00)00361-1.
• Ariew, R. (1988): Leibniz on the Unicorn and Various Other Curiosities. – Early Sci. Med., 3(4):267–288, 4 Abb.
• Arioglu, E. & Yüksel, A. (1985): Properties of hydraulic stowing material with particular reference to drainage requirements. – Proceedings, 2nd International Mine Water Association Congress, 2:897–906.
• Ariturk, S. & Parlaktuna, M. (2001): Estimation of Silica Scaling Temperatures of Kizildere Geothermal Field Effluent, Turkey. – Energy Sources, 23(6):529–539, 7 Abb., 4 Tab.
• Ariza, L. M. (1998): River of vitriol. – Sci. Amer., 279(3):26–27, 2 Abb.; doi:10.1038/scientificamerican0998-26b.
• Arkay, K. (1993): 1st Springhill Geothermal Energy Conference Springhill, Nova Scotia 28-29 October 1992 – Summary Report. – Geological Survey of Canada Open File, 2773:60, 3 Anh.
• Arkay, K. E. (2000): Geothermal Energy from Abandoned Mines: a Methodology for an Inventory, and Inventory Data for Abandoned Mines in Quebec and Nova Scotia. – 45 p., Calgary (Open File – Geological Survey of Canada).
• Arlt, T. & Diamond, L. W. (1998): Composition of tetrahedrite-tennantite and “schwazite” in the Schwaz silver mines, North Tyrol, Austria. – Mineral. Mag., 62(6):801–820, 8 Abb., 5 Tab.
• Armi, L., Hebert, D., Oakey, N., Price, J., Richardson, P. L., Rossby, T. & Ruddick, B. (1988): The history and decay of a Mediterranean salt lens. – Nature, 333:649–651.
• Armijo, R., Meyer, B., Hubert, A. & Barka, A. (1999): Westward propagation of the North Anatolian Fault into the northern Aegean: Timing and Kinematics. – Geology, 27(3):267–270, 4 Abb.
• Armstrong, B. J., Blackwood, A. F., Penzo-Kajewski, P., Menter, C. G. & Herries, A. I. R. (2018): Terrestrial laser scanning and photogrammetry techniques for documenting fossil-bearing palaeokarst with an example from the Drimolen Palaeocave System, South Africa. – Archaeological Prospection, 25(1):45–58, 8 Abb., 2 Tab.; doi:10.1002/arp.1580.
• Armstrong, D. (1982): Problems associated with the rapid dewatering of a multilayered aquifer and mining of a trial coal pit at Bowmans, South Australia. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:354–372, 10 Abb.
• Armstrong, D. (1987): Consolidation Drainage of Fine Grained Materials. – Int. J. Mine Water, 6(4):1–14, 7 Abb., 4 Tab.; doi:10.1007/BF02498186.
• Armstrong, D. (1988): Investigation Techniques – General Report. – Proceedings, 3rd International Mine Water Congress, Melbourne:203–210, 1 Abb.
• Armstrong, D. (1991): Burra Copper Mine – A Comparsion of Historic and Modern Dewatering. – Proceedings, 4th International Mine Water Association Congress, 2:1–7, 2 Abb.
• Armstrong, D. (1997): The Century Zinc Project, Queensland (Australia) Legal and Environmental Considerations. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:463–469, 3 Abb.
• Armstrong, D. & Cox, R. (2005): The Brukunga Pyrite Mine – South Australia A Review of Developments since Closure in 1972: Mine Water 2005 – Mine Closure. – 201–207 p., 8 Abb.; Oviedo (University of Oviedo).
• Armstrong, D. & Fanning, M. (1994): Acid Mine Drainage – Community Perceptions. – Mine Water Environ., 13(1):41–50, 5 Abb.; doi:10.1007/BF02919607.
• Armstrong, D. & Jeuken, B. (2009): Management of In-Situ Recovery (ISR) Mining Fluids in a Closed Aquifer System. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 703–712, 13 Abb, 1 Tab; Pretoria (Document Transformation Technologies).
• Arndt, N., Kesler, S. & Ganino, C. (2015): Metals and Society – An Introduction to Economic Geology: Springer Mineralogy, 2nd edn. – 205 p., Cham (Springer); doi:10.1007/978-3-319-17232-3.
• Arndt, O., Junghans, U., Kaden, S., Schätzl, P. & Thilo, F. (2008): Grid-based Optimization in Groundwater Management. – Proceedings, 10th International Mine Water Association Congress:413–416.
• Arnold, M., Gericke, M. & Muhlbauer, R. (2016): Technologies for sulphate removal with valorisation options. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1343–1345, Freiberg (TU Bergakademie Freiberg).
• Arnold, M., Kangas, P., Mäkinen, A., Lakay, E., Isomäki, N., Lavén, G., Gericke, M., Pajuniemi, P., Kaartinen, T. & Wendling, L. (2019): Mine Water as a Resource: Selective Removal and Recovery of Trace Antimony from Mine-Impacted Water. – Mine Water Environ., 38(2):431–446, doi:10.1007/s10230-019-00597-2.
• Arnold, M., Mäkinen, J., Salo, M. & Bomberg, M. (2016): Microbiology and Chemistry Interactions in a Biological Sulphate-Reducing Process. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1034–1041, Freiberg (TU Bergakademie Freiberg).
• Arola, T., Eskola, L., Hellen, J. & Korkka-Niemi, K. (2014): Mapping the low enthalpy geothermal potential of shallow Quaternary aquifers in Finland. – Geotherm. Energy, 2(1) doi:10.1186/s40517-014-0009-x.
• Arola, T. & Korkka-Niemi, K. (2014): The effect of urban heat islands on geothermal potential: examples from Quaternary aquifers in Finland. – Hydrogeol. J., 22(8):1953–1967, doi:10.1007/s10040-014-1174-5.
• Arous, O., Amara, M. & Kerdjoudj, H. (2010): Selective Transport of Metal Ions Using Polymer Inclusion Membranes Containing Crown Ethers and Cryptands. – Arabian J. Sci. Eng. – A, 35(2A):79–93, 10 Abb., 3 Tab.
• Arpalahti, A. & Lundstrom, M. (2020): Water Balance of a Boreal Black Schist Heap Leach Operation. – Mine Water Environ., 39(4):758–768, doi:10.1007/s10230-020-00694-7.
• Arriagada, C. A. & Herrera, M. A. (1999): Restoration of Mine Soils contaminated by Heavy Metals through improved Forest Species. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 119–123, 3 Abb., 2 Tab.; Sevilla (International Mine Water Association).
• Arriagada, I. & Delgado, J. L. (2025): Integrated Hydrogeological Fieldwork Campaign Design to Identify Infiltrations from Tailings. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 903–908; Braga (International Mine Water Association).
• Arrieta-Fernandez, G. & Mieza-Ramos, J. L. (1985): Geofluidologia del valle Salado y su incidencia en la exploitation Potasica. – Proceedings, 2nd International Mine Water Association Congress, 1:907–917, 3 Abb., 2 Tab.
• Arrowsmith, E. J. & Rankilor, P. R. (1981): Dalton By-pass – site investigation in an area of abandoned haematite mine workings. – Q. J. Eng. Geol., 14(3):207–218, 10 Abb., 1 Tab.
• Artemieva, E. & Stroganova, E. (1993): Interpretation of Sealing Pressure as a Method of Determining the Parameters of Sealing Cover. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 543–552, 2 Abb., 4 Tab.; Chililabombwe (Konkola Division).
• Artemieva, E. L. & Stroganova, E. (1994): Interpretation of Sealing Pressure as a Method of Determining the Parameters of Sealing Cover around the “MIR” Diamond Pie in Yakutia. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:333–337.
• Arthur, E., Moldrup, P., Holmstrup, M., Schjonning, P., Winding, A., Mayer, P. & de Jonge, L. W. (2012): Soil microbial and physical properties and their relations along a steep copper gradient. – Agr Ecosyst Environ, 159:9–18, doi:10.1016/j.agee.2012.06.021.
• Artner, R. (2002): Gefährdungspotentiale von Quell-Schutzgebieten infolge Touristischer Nutzung – Dargestellt am Beispiel Rax. – 153 p., Universität Wien, 57 Abb., 6 Tab., 3 Kart.; Wien.
• Arts, R., Chadwick, A. & Eiken, O. (2004): Recent Time-Lapse Seismic Data show no indication of Leakage at the Sleipner CO₂-Injection Site. – 1–8 p., 8 Abb.; Vancouver (Proceedings 7th International Conference on Greenhouse Gas Control Technologies).
• Arvanitidis, N., Kaklamanis, N. & Platias, S. (1999): Conversion of Quartz-Mine Waste Material to exploitable Resources and industrial Products. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 703–709, 3 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Arway, J. A. (1988): The Environmental Significance of Toxic Metals Found in Fish Collected Throughout the Coalfields of Pennsylvania. – Bur. Mines Inf. Circ., 9184:154–160, 3 Abb., 3 Tab.; doi:10.21000/JASMR88020154.
• Aryafar, A., Ardejani, F. D., Singh, R. & Shokri, B. J. (2007): Prediction of Groundwater Inflow and Height of the Seepage Face in a deep open Pit Mine using numerical Finite Element Model and analytical Solutions: Water in Mining Environments. – 313–317 p., 4 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Aryafar, A., Doulati Ardejani, F., Baafi, E. & Singh, R. (2008): Hydrogeological Investigations in Sangan Iron Mine, Iran, to Control Groundwater Problems: Mathematical Modelling and Field Study. – Proceedings, 10th International Mine Water Association Congress:421–424.
• Aryafar, A., Doulati Ardejani, F., Singh, R. & Baafid, E. (2008): Numerical Finite-element Modelling of Pumping Data in a Confined Aquifer at the Sangan Iron Mine to Design a Mine Dewatering system. – Proceedings, 10th International Mine Water Association Congress:417–420.
• Arzola-Peralta, S., Mendoza-Flores, J., Duran-Romero, R. & Genesca, J. (2006): Cathodic kinetics of API X70 pipeline steel corrosion in H₂S containing solutions under turbulent flow conditions. – Corrosion Engineering, Science and Technology, 41(4):321–327, 8 Abb., 1 Tab.; doi:10.1179/174327806X139117.
• Asagi, N. & Ueno, H. (2008): Determination of application effects of sewage sludge on growth, soil properties, and n uptake in komatsuna by using the indirect (15)N isotope method. – Commun Soil Sci Plan, 39(13-14):1928–1942, doi:10.1080/00103620802134685.
• Asapo, E. S. & Coles, C. A. (2010): Batch and Kinetic Studies of Ni and Co on Highly Humified Newfoundland Peat. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 103–107, Sydney, NS (Cape Breton University Press).
• Aschenbrenner, F. (1996): Die Auswertung von Kornverteilungskurven zur Ermittlung der Durchlässigkeit. – Gießener Geol. Schr., 56:33–48, 4 Abb., 10 Tab.
• Ash, S. H., Eaton, W. L., Hughes, K., Romischer, W. M. & Westfield, J. (1949): Water Pools in Pennsylvania Anthracite Mines. – Bur. Mines Tech. Paper, 727:1–78, 50 Abb., 6 Tab.
• Ash, S. H., Felegy, E. W., Kennedy, D. O. & Miller, P. S. (1951): Acid-Mine-Drainage Problems – Anthracite Region of Pennsylvania. – Bur. Mines Bull., 508:1–72, 12 Abb., 20 Tab.
• Ash, S. H., Kynor, H. D., Fatzinger, R. W., Davies, B. S. & Gilbert, J. C. (1950): Inundated Anthracite Reserves – Eastern Middle Field of Pennsylvania. – Bur. Mines Bull., 491:1–28.
• Ash, S. H. & Murphy, T. (1933): Unwatering flooded coal mines in Washington. – Bur. Mines Tech. Paper, 549:18.
• Ashby, J. C. (2001): Injecting Alkaline Lime Sludge and FGD Material into Underground Mines for Acid Abatement. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 22:1–8, 4 Abb., 2 Tab.
• Ashley, P. M., Craw, D., Graham, B. P. & Chappell, D. A. (2003): Environmental mobility of antimony around mesothermal stibnite deposits, New South Wales, Australia and southern New Zealand. – J. Geochem. Explor., 77(1):1–14, 7 Abb., 2 Tab.
• Ashley, R. P. & Lloyd, J. W. (1978): An example of the use of factor analysis and cluster analysis in groundwater chemistry interpretation. – J. Hydrol., 39(3):355–364, doi:10.1016/0022-1694(78)90011-2.
• Ashmead, D. (1956): Discussion – Acid Coal Mine Drainage – Truth and Fallacy About a Serious Problem. – Min. Eng.:928–929, 1 Tab.
• Ashraf, M., Konrad, R. & Sixten, B. (2010): Gypsum in desert soils, subsurface crusts and host sediments (Western Desert of Egypt). African Palaeoenvironments and Geomorphic Landscape Evolution. – p. 151–163, Boca Raton (CRC Press); doi:10.1201/b10542-9.
• Askham, T. M. & Van der Poll, H. M. (2017): Water Sustainability of Selected Mining Companies in South Africa. – Sustainability-Basel, 9(6) doi:10.3390/su9060957.
• Aslibekian, O., Gray, N. & Moles, R. (1999): Metal Contamination of Surface Water related to Past Mining Activity in Ireland. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 535–541, 6 Abb., 6 Tab.; Sevilla (International Mine Water Association).
• Aslibekian, O. & Moles, R. (2000): Environmental contamination related to mine drainage distribution from old mine sites by waterways. – Proceedings, 7th International Mine Water Association Congress:49–58, 6 Abb., 2 Tab.
• Aslibekian, O. & Moles, R. (2001): An Investigation of Environmental Contamination at the Silvermines Abandoned Mines Site in Ireland based on the Preliminary Delimitation of Pollution Hot Spots. – Mine Water Environ., 20(2):73–80, 5 Abb., 5 Tab.; doi:10.1007/s10230-001-8085-0.
• Aslibekian, O. & Moles, R. (2003): Environmental risk Assessment of Metals Contaminated Soils at Silvermines Abandoned mine Site, co Tipperary, Ireland. – Environ. Geochem. Health, 25(2):247–266.
• Asmund, G. & Johansen, P. (1999): Short and Long Term Environmental Effects of Marine Tailings and Waste Rock Disposals from a Lead/Zinc Mine in Greenland. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 177–181, Sevilla (International Mine Water Association).
• Asociación Nacional de Ingenieros de Minas & Consejo Superior de Colegios de Ingenieros de Minas de España El agua en la mineria y obras subterraneas = Water in mining and underground works = L’eau dans les mines et travaux souterrains : SIAMOS 1978, Granada (España). In: Fernández-Rubio, R. (ed), Granada, 1979 1978. Asociación Nacional de Ingenieros de Minas, Maracena, 1539 S.
• Assadi, A. B., Ardejani, F. D., Karami, G. H., Azma, B. D., Reza, A. D. & Mahmood, A. (2008): Heavy Metal Pollution Problems in the Vicinity of Heap Leaching No. 3 of Sarcheshmeh Porphyry Copper Mine. – Proceedings, 10th International Mine Water Association Congress:355–358.
• Assari, A. & Mohammadi, Z. (2017): Combined Use of Geostatistics and Multi-Criteria Decision Analysis to Determine New Pumping Well Locations in the Gol-Gohar Open Pit Mine, Iran. – Mine Water Environ., 36(2):283–298, doi:10.1007/s10230-017-0442-8.
• Assawincharoenkij, T., Hauzenberger, C. & Sutthirat, C. (2017): Mineralogical and Geochemical Characteristics of Tailings and Waste Rocks from a Gold Mine in Northeastern Thailand. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1281–1282, Lappeenranta (Lappeenranta University of Technology).
• Asselin, M., Drogui, P., Benmoussa, H. & Blais, J.-F. (2008): Effectiveness of electrocoagulation process in removing organic compounds from slaughterhouse wastewater using monopolar and bipolar electrolytic cells. – Chemosphere, 72(11):1727–1734.
• Aßmuth, T., Aulinger, A., Barion, D., Behrendt, H., Becker, A., Bohle, H.-W., Büchele, B., Dirksen, M., Einax, J. W., Furrer, R., Haberlandt, U., Kairies, E., Kofalk, S., Kowalik, C., Kraft, J., Krönert, R., Kunkel, R., Lochovský, P., Naumann, S., Niedergesäß, R., Prange, A., Pusch, M., Reincke, H., Sauer, W., Schindler, J., Schmolke, S., Schwarze, R., Simon, M., Steidl, J., Thiel, R., Wendland, F. & Zimmermann-Timm, H. (2000): Die Elbe und ihre Nebenflüsse – Belastung, Trends, Bewertung, Perspektiven. – 168 + XXX p., Hennef (ATV-DVWK Deutsche Vereinigung für Wasserwirtschaft).
• Assress, H. A. (2020): Occurrence of Azole Antifungal Drugs and Azole Antifungal Drug Resistant Fungi in Waste(Water) Treatment Plants, South Africa. – 296 p., PhD, University of South Africa (UNISA); Pretoria.
• Asta, M. P., Cama, J., Gault, A. G., Charnock, J. M. & Queralt, I. (2007): Characterization of AMD Sediments in the Discharge of the Tinto Santa Rosa Mine (Iberian Pyritic Belt, SW Spain): Water in Mining Environments. – 391–395 p., 3 Abb., 3 Tab.; Cagliari (Mako Edizioni).
• Aster, R. C., Borchers, B. & Thurber, C. H. (2013): Parameter estimation and inverse problems, 3rd edn. – 392 p., Amsterdam (Elsevier).
• ASTM D1125 (2014): Standard Test Methods for Electrical Conductivity and Resistivity of Water. In: ASTM International (ed). West Conshohocken.
• ASTM D5907 (2013): Standard Test Methods for Filterable Matter (Total Dissolved Solids) and Nonfilterable Matter (Total Suspended Solids) in Water. In: ASTM International (ed). West Conshohocken.
• Aston, T. R. C. (1985): Tritium Dating of Water Inflow at the Donkin-Morien Project, Nova Scotia. – Int. J. Mine Water, 4(2):41–52, 3 Abb., 2 Tab.; doi:10.1007/BF02504835.
• Aston, T. R. C. & MacLeod-LaFosse, H. (1985): Analyses of Water Inflows in the Donkin-Morien No. 3 Tunnel, Sydney Coalfield, Nova Scotia. – Int. J. Mine Water, 4(3):11–23, 7 Abb., 1 Tab.; doi:10.1007/BF02551566.
• Aston, T. R. C. & Singh, R. N. (1982): A new approach for determining permeability characteristics of rock using slug testing techniques. – Int. J. Mine Water, 1(3):33–42, 2 Abb., 4 Tab.; doi:10.1007/BF02504830.
• Aston, T. R. C. & Singh, R. N. (1983): A Reappraisal of Investigations into Strata Permeability Changes Associated with Longwall Mining. – Int. J. Mine Water, 2(1):1–14, 11 Abb.; doi:10.1007/BF02504616.
• Aston, T. R. C., Singh, R. N. & Whittaker, B. N. (1983): The Effect of Test Cavity Geology on the In Situ Permeability of Coal Measures Strata Associated with Longwall Mining. – Int. J. Mine Water, 2(4):19–34, 3 Abb., 3 Tab.; doi:10.1007/BF02504609.
• Aston, T. R. C. & Smith, S. F. (1982): Hydrogeological Aspects Associated with British Ironstone Mining. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:9–26, 7 Abb.
• Astrup, J. & Tsikos, H. (1998): Manganese. – In: Wilson, M. G. C. & Anhaeusser, C. R. (eds): The Mineral Resources of South Africa. – p. 450–460, 4 Abb., 1 Tab.; Silverton (Council for Geoscience).
• Asuero, A. G. & Michałowski, T. (2011): Comprehensive Formulation of Titration Curves for Complex Acid-Base Systems and Its Analytical Implications. – Crit. Rev. Anal. Chem., 41(2):151–187, 3 Abb., 8 Tab.; doi:10.1080/10408347.2011.559440.
• Atanacković, N., Dragišić, V., Živanović, V., Štrbački, J. & Ninković, S. (2016): Risk-based Regional Scale Screening of Groundwater Contamination from Abandoned Mining Sites in Serbia – Initial Results. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 600–607, Freiberg (TU Bergakademie Freiberg).
• Atanackovic, N., Strbacki, J., Zivanovic, V., Davidovic, J., Gardijan, S. & Stojadinovic, S. (2024): Hydrochemistry-Based Statistical Model for Sourcing Groundwater Inrush into Underground Mining Works: A Case Study in Eastern Serbia. – Mine Water Environ., 43(2):313–325, doi:10.1007/s10230-024-00986-2.
• Atasoy, A. D., Babar, B. & Şahinkaya, E. (2013): Artificial Neural Network Prediction of the Performance of Upflow and Downflow Fluidized Bed Reactors Treating Acidic Mine Drainage Water. – Mine Water Environ., 32(3):222–228, 4 Abb., 3 Tab.; doi:10.1007/s10230-013-0232-x.
• Atasoy, A. D. & Bilgic, B. (2018): Adsorption of Copper and Zinc Ions from Aqueous Solutions Using Montmorillonite and Bauxite as Low-Cost Adsorbents. – Mine Water Environ., 37(1):205–210, doi:10.1007/s10230-017-0464-2.
• Atay, G. & Tunoglu, C. (2002): Kilitbahir sondaj örneklerinin (Eceabat/Çanakkale) Ostrakod faunasi ve biyoprovensi [Ostracoda fauna and their bioprovince of the Kilitbahir drilling samples (Eceabat/Çanakkale)]. – Hacettepe Üniversitesi Yerbilimleri Uygulama ve Arastirma Merkezi Bülteni [Bulletin of Earth Sciences Application and Research Centre of Hacettepe University], 26:119–144, 3 Abb., 3 Taf.
• Atekwana, E. A., Atekwana, E. A., Rowe, R. S., Werkema Jr, D. D. & Legall, F. D. (2004): The relationship of total dissolved solids measurements to bulk electrical conductivity in an aquifer contaminated with hydrocarbon. – J. Appl. Geophys., 56(4):281–294, doi:10.1016/j.jappgeo.2004.08.003.
• Ateya, B. G., Al-Kharafi, F. M., Abdallah, R. M. & Al-Azab, A. S. (2005): Electrochemical removal of hydrogen sulfide from polluted brines using porous flow through electrodes. – J. Appl. Electrochem., 35(3):297–303, doi:10.1007/s10800-004-7273-6.
• Atiba-Oyewoa, O., Onyango, M. S. & Wolkersdorfer, Ch. (2016): Application of banana peels nanosorbent for the removal of radioactive minerals from real mine water. – J. Environ. Radioact., 164:369–376, 11 Abb., 5 Tab.; doi:10.1016/j.jenvrad.2016.08.014.
• Atiba-Oyewoa, O., Onyango, M. S. & Wolkersdorfer, Ch. (2017): Adsorptive Performance of Surface-modified Montmorillonite in Vanadium Removal from Mine Water. – Mine Water Environ., 36(4):628–637, 8 Abb., 4 Tab., 3 Anl.; doi:10.1007/s10230-017-0475-z.
• Atiba-Oyewoa, O., Onyango, M. S. & Wolkersdorfer, Ch. (2018): Lanthanides removal from mine water using banana peels nanosorbent. – Int. J. Environ. Sci. Technol., 15(6):1265–1274, 10 Abb., 5 Tab.; doi:10.1007/s13762-017-1494-9.
• Atkins, A. S. & Pooley, F. D. (1982): The Effects of Bio-Mechanisms on Acidic Mine Drainage in Coal Mining. – Int. J. Mine Water, 1(1):31–44, 7 Abb., 2 Tab.
• Atkins, A. S. & Singh, R. N. (1982): A Study of Acid and Ferruginous Mine Water in Coal Mining Operations. – Int. J. Mine Water, 1(2):37–57, 10 Abb., 2 Tab.
• Atkins, P. W., de Paula, J. & Keeler, J. (2018): Physical Chemistry, 11 edn. – 908 p., Oxford (Oxford University Press).
• Atkinson, L. C. & Gale, Y. E. (1985): Minimizing Well losses in Dewatering Wells in fractured Roc. – Proceedings, 2nd International Mine Water Association Congress, 1:69–81, 8 Abb.
• Atkinson, L. C., Keeping, P. G. & Wright, J. C. (2009): The Economic Challenges of Dewatering at the Victor Diamond Mine in Northern Ontario, Canada. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 240–247, 9 Abb; Pretoria (Document Transformation Technologies).
• Atkinson, L. C., Keeping, P. G., Wright, J. C. & Liu, H. (2010): The Challenges of Dewatering at the Victor Diamond Mine in Northern Ontario, Canada. – Mine Water Environ., 29(2):99–107, 12 Abb.; doi:10.1007/s10230-010-0109-1.
• Atkinson, S. C. & Stihin, V. (2011): Installation of a Low-Cost Mine Water Discharge Monitoring System at the Charaat Gold Prospect, Kyrgyzstan and its Application to a 3-D Numerical Groundwater Flow Model: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 93–96 p., Aachen (RWTH Aachen University).
• Atkinson, T. (1988): Water – one of Mankind’s most valuable Commodities. – Int. J. Mine Water, 7(1):1–7.
• Atkinson, T. & Dow, R. (1982): Surface Mine Drainage Using Large Diameter Pumpwells. – Int. J. Mine Water, 1(4):1–26, 5 Abb.
• Atkinson, T., Dow, R. & Brom, R. W. C. (1984): A Review of Hydrogeological Investigations for Deep Coal Mines, with special Reference to Petrophysical Methods. – Int. J. Mine Water, 3(3):19–34.
• Atlantic Canada Social Studies, C. (1998): Atlantic Canada in the Global Community. – 115 p., Halifax (Nova Scotia Department of Education and Culture).
• ATLAS Collaboration (2011): Measurement of the differential cross-sections of inclusive, prompt and non-prompt J/ψ production in proton–proton collisions at √s = 7 TeV. – Nuclear Physics B, 850(3):387–444, doi:10.1016/j.nuclphysb.2011.05.015.
• Attri, P., Arora, B., Bhatia, R., Venkatesu, P. & Choi, E. H. (2014): Plasma Technology: A New Remediation for Water Purification with or without Nanoparticles. – In: Mishra, A. K. (ed) Application of nanotechnology in water research. – p. 63–77, Salem (Scrivener); doi:10.1002/9781118939314.ch4.
• Aubé, B., Lamares, M. & Lone Sang, S. (2018): A Pilot Comparison of Sulphate Removal Technologies at Neves-Corvo. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 983–990; (Tshwane University of Technology).
• Aubé, B., Lamares, M. & Lone Sang, S. (2018): Pilot Optimisation of Sulphate Precipitation in the High-Density Sludge process. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 971–976; (Tshwane University of Technology).
• Aubé, B. C. (2004): The Science of Treating Acid Mine Drainage and Smelter Effluents. – 1–21 p., 14 Abb.; Ste-Anne-de-Bellevue (unpublished report).
• Aubé, B. C., Clyburn, B. & Zinck, J. M. (2005): Sludge Disposal in Mine Workings at Cape Breton Development Corporation. Paper presented at the Securing the Future 2005, Skellefteå. – 6 Abb., 3 Tab.
• Aubé, B. C. & Lee, D. (2015): The High Density Sludge (HDS) Process and Sulphate Control. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Aubé, B. C. & Zinck, J. M. (2003): Lime Treatment of Acid Mine Drainage in Canada: Proceedings, Brazil-Canada Seminar on Mine Rehabilitation – technological innovations. – 89–105 p., 8 Abb.; Florianópolis (Desktop Publishing).
• Aubé, B. C. & Zinck, J. M. M. (1999): Comparison of AMD Treatment Processes and their Impact on Sludge Characteristics. Paper presented at the Sudbury ’99 – Mining and the environment II, Sudbury. – p. 261–270, 4 Abb., 6 Tab.; (Sudbury Environmental).
• Aubel, T., Janneck, E. & Kalanchey, R. (2017): Process Development For Complex Mine Water Treatment. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1147–1153, Lappeenranta (Lappeenranta University of Technology).
• Aubel, T., Kober, E., Janneck, E. & Rolle, J. (2018): Use Of Ceramic Nanofiltration Membranes With High Specific Surfaces For The Processing Of Bio-Leachate And The Treatment Of Saline Mine Water. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 83; (Tshwane University of Technology).
• Aubel, T., Thürigen, F., Mayer, R. & Hertzsch, A. (2021): Refurbishment Of Water Treatment Plant Borna-West – From Lab Over Pilot Scale To Operation Plant Modification. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 26–30; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Audra, P., Bini, A., Gabrovšek, F., Häuselmann, P., Hobléa, F., Jeannin, P.-Y., Kunaver, J., Monbaron, M., Šušteršič, F., Tognini, P., Trimmel, H. & Wildberger, A. (2007): Cave and Karst Evolution in the Alps and their Relation to Paleoclimate and Paleotopography [Razvoj Jam in Krasa v Alpah v Luči Paleoklime in Paleotopografije]. – Acta Carsologica, 36(1):53–68, 6 Abb., 1 Tab.
• Auer, I., Böhm, R., Jurkovic, A., Lipa, W., Orlik, A., Potzmann, R., Schöner, W., Ungersböck, M., Matulla, C., Briffa, K., Jones, P., Efthymiadis, D., Brunetti, M., Nanni, T., Maugeri, M., Mercalli, L., Mestre, O., Moisselin, J.-M., Begert, M., Müller-Westermeier, G., Kveton, V., Bochnicek, O., Stastny, P., Lapin, M., Szalai, S., Szentimrey, T., Cegnar, T., Dolinar, M., Gajic-Capka, M., Zaninovic, K., Majstorovic, Z. & Nieplova, E. (2007): HISTALP—historical instrumental climatological surface time series of the Greater Alpine Region. – International Journal of Climatology, 27(1):17–46, doi:10.1002/joc.1377.
• Aunola, K., Aho, A., Vidqvist, M. & Pieskä, V. (2017): Reverse Osmosis Technology to Reduce Fresh Water Consumption – Case Study, AEF Kittilä Mine, Finland. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1258–1262, Lappeenranta (Lappeenranta University of Technology).
• Aurada, K. D. (1970): Berechnung des Wiederanstiegsprozesses im Grubengebäude des Kupferschieferbergbaus in der Mansfelder Mulde mit Hilfe der Monte-Carlo-Methode. – Wasserwirtschaft-Wassertechnik, 20(8):264–270, 6 Abb., 3 Tab.
• Aurada, K. D. & Rödel, R. (2005): Widerspiegelung von Natur-, Technik- und Kulturgeschichte im Landschaftsbild des mitteldeutschen Raumes – Wissenschaftliche Grundlagen einer Exkursion. – Greifswalder Geogr. Arb., 37:1–135, doi:10.23689/fidgeo-1967.
• Auräth, T. (2004): Beitrag Stand des „geoGovernment“ in der Sächsischen Landesverwaltung. – Wiss. Mitt. Inst. Geol., 25:13.
• Aurelian, F., Georgescu, D. P., Popescu, M. & Florescu, M. S. (2007): Environmental Impact Assessment of the Uranium Mining Activity in the Bihor District (Bucharest, Romania): Water in Mining Environments. – 19–23 p., 3 Abb., 2 Tab.; Cagliari (Mako Edizioni).
• Ausschusses für Wirtschaft Energie und Landesplanung & Unterausschusses für Bergbausicherheit des Landtags Nordrhein-Westfalen (2018): Ergebnisse gutachterlicher Untersuchungen zum Thema PCB im Rahmen der Abschlussbetriebsplanung für das Bergwerk Auguste Victoria. In: Ministerium für Wirtschaft Innovation Digitalisierung und Energie des Landes Nordrhein-Westfalen (ed). vol Vorlage 17/1032, Düsseldorf, 11.
• Austin, E., Yungwirth, G., Dobr, M. & Nazaruk, S. (2021): Looking Deeper: Key Considerations for Planning Mining Hydrogeology Investigations using Deep Boreholes. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 31–36; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Avataneo, C., Belluso, E., Capella, S., Cocca, D., Lasagna, M., Pigozzi, G. & De Luca, D. A. (2021): Groundwater asbestos pollution from naturally occurring asbestos (NOA) – A preliminary study on the Lazio valleys and Balangero plain area, NW Italy. – Ital. J. Eng. Geol. Environ., Special Issue (VII National Congress of AIGA):5–19, doi:10.4408/IJEGE.2021-01.S-01.
• Avataneo, C., Capella, S., Luiso, M., Marangoni, G., Lasagna, M., De Luca, D. A., Bergamini, M., Belluso, E. & Turci, F. (2023): Waterborne asbestos: Good practices for surface waters analyses. – Front. Chem., 11:1104569, doi:10.3389/fchem.2023.1104569.
• Avataneo, C., Petriglieri, J. R., Capella, S., Tomatis, M., Luiso, M., Marangoni, G., Lazzari, E., Tinazzi, S., Lasagna, M., De Luca, D. A., Bergamini, M., Belluso, E. & Turci, F. (2022): Chrysotile asbestos migration in air from contaminated water: An experimental simulation. – J. Hazard. Mater., 424:127528, doi:10.1016/j.jhazmat.2021.127528.
• Ávila, P. F., Ferreira da Silva, E. & Farinha, J. A. (2007): Geochemical Signature of Mining Industry in the surrounding Environment of Panasqueira Mine (Portugal): Water in Mining Environments. – 25–29 p., 2 Abb., 2 Tab.; Cagliari (Mako Edizioni).
• Ávila, P. F., Ferreira da Silva, E., Salgueiro, A. R. & Farinha, J. A. (2008): Geochemistry and Mineralogy of Mill Tailings Impoundments from the Panasqueira Mine (Portugal): Implications for the Surrounding Environment. – Mine Water Environ., 27(4):210–224, 5 Abb., 6 Tab.; doi:10.1007/s10230-008-0046-4.
• Avilés González, C. & Sánchez Conejo, A. (1999): Control and Improvement of the Exploitation and Restoration Conditions in Opencast Mining of the autonomic Community of the Basque Country. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 691–695, 3 Abb., 4 Tab.; Sevilla (International Mine Water Association).
• Awange, J. L., Lewis, R. H., Paláncz, B. l. & Völgyesi, L. (2018): Mathematical Geosciences : Hybrid Symbolic-Numeric Methods doi:10.1007/978-3-319-67371-4.
• Awbery, H. G. (1988): The Protection of the Nottinghamshire Coalfield by the Bentinck Colliery Minewater Concentration Scheme. – Int. J. Mine Water, 7(1):9–24, 15 Abb.
• Awoh, A. S., Mbonimpa, M. & Bussière, B. (2013): Field Study of the Chemical and Physical Stability of Highly Sulphide-Rich Tailings Stored Under a Shallow Water Cover. – Mine Water Environ., 32(1):42–55, 11 Abb., 3 Tab.; doi:10.1007/s10230-012-0213-5.
• Awoh, A. S., Mbonimpa, M., Bussière, B., Plante, B. & Bouzahzah, H. (2014): Laboratory Study of Highly Pyritic Tailings Submerged Beneath a Water Cover Under Various Hydrodynamic Conditions. – Mine Water Environ., 33(3):241–255, 12 Abb., 2 Tab.; doi:10.1007/s10230-014-0264-x.
• Awwad, N. S., El-Zahhar, A. A., Fouda, A. M. & Ibrahium, H. A. (2013): Removal of heavy metal ions from ground and surface water samples using carbons derived from date pits. – J. Environm. Chem. Eng., 1:416–423, 10 Abb., 10 Tab.; doi:10.1016/j.jece.2013.06.006.
• Axelman, J. & Broman, D. (2001): Budget calculations for polychlorinated biphenyls (PCBs) in the Northern Hemisphere – a single-box approach. – Tellus Ser. B, 53(3):235–259, doi:10.3402/tellusb.v53i3.16594.
• Axelsson, C. L., Karlovist, L. & Olsson, T. (1985): Hydrogeological conditions for leachate production control in a sulfide mine tailing. – Proceedings, 2nd International Mine Water Association Congress, 2:615–622.
• Axler, R., Yokom, S., Tikkanen, C., McDonald, M., Runke, H., Wilcox, D. & Cady, B. (1998): Restoration of a Mine Pit Lake from Aquacultural Nutrient Enrichment. – Restoration Ecology, 6(1):1–19, 11 Abb., 5 Tab.; doi:10.1046/j.1526-100x.1998.00612.x.
• Ayala, J. & Fernández, B. (2005): Adsorption of copper cyanide species from tailings pond on flying ash: Mine Water 2005 – Mine Closure. – 649–654 p., 4 Abb., 6 Tab.; Oviedo (University of Oviedo).
• Aydin, M. E., Sari, S., Ozcan, S., Wichmann, H. & Bahadir, M. (2004): Polychlorinated biphenyls in wastewater of Konya-Turkey. – Fresenius Envir. Bull., 13:1090–1093.
• Aygün, O., Jackson, S., Fraser, C. & Stockwell, J. (2025): Evaluating Climate Change Effects on Water Availability for a Proposed Mine in Eastern Canada. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 520–524; Braga (International Mine Water Association).
• Aykol, A., Budakoglu, M., Kumral, M., Gultekin, A. H., Turhan, M., Esenli, V., Yavuz, F. & Orgun, Y. (2003): Heavy metal pollution and acid drainage from the abandoned Balya Pb-Zn sulfide Mine, NW Anatolia, Turkey. – Environ. Geol., 45(2):198–208.
• Ayora, C., Carrero, S., Bellés, J., Basallote, M. D., Cánovas, C. R. & Macías, F. (2022): Partition of Rare Earth Elements Between Sulfate Salts Formed by the Evaporation of Acid Mine Drainage. – Mine Water Environ., 41(1):42–57, doi:10.1007/s10230-021-00803-0.
• Ayora, C., Taberner, C., Pierre, C. & Pueyo, J. J. (1995): Modeling the sulfur and oxygen isotopic composition of sulfates through a halite-potash sequence: Implications for the hydrological evolution of the Upper Eocene Southpyrenean Basin. – Geochim. Cosmochim. Acta, 59(9):1799–1808.
• Ayres, B., Landine, P., Adrian, L., Christensen, D. & O’Kane, M. (2005): Cover and final landform design for the B-zone waste rock pile at Rabbit Lake Mine. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 739–750, Heidelberg (Springer).
• Ayyildiz, T., Tekin, E. & Satır, M. (2004): Water circulation near the mixed-water and microbiologic activity of the Mesozoic dolomite sequence, an example from the central Taurus, Turkey. – Carbonate Evaporite, 19(2):107–117.
• Ayyyldyz, T., Tekin, E. & Friedman, G. M. (2001): Microtextural properties of ooids in the Middle Jurassic-Lower Cretaceous, central Taurus carbonate platform, Antalya, Turkey. – Carbonate Evaporite, 16(1):1–7.
• Azcue, J. M. (1999): Environmental impacts of mining activities – Emphasis on mitigation and remedial measures: Environmental science. – 300 p., Berlin (Springer).
• Azcue, J. M., Mudroch, A., Rosa, F. & Hall, G. E. M. (1994): Effects of abandoned gold mine tailings on the arsenic concentrations in water and sediments of Jack of Clubs Lake, B.C. – Environ. Technol., 15(7):669–678, Refs: 26; illus. incl. 2 tables, sketch map.
• Azcue, J. M., Mudroch, A., Rosa, F., Hall, G. E. M., Jackson, T. A. & Reynoldson, T. (1995): Trace elements in water, sediments, porewater, and biota polluted by tailings from an abandoned gold mine in British Columbia, Canada. – J. Geochem. Explor., 52(1-2):25–34, 2 Abb., 3 Tab.
• Azcue, J. M. & Nriagu, J. O. (1993): Arsenic forms in mine-polluted sediments of Moira Lake, Ontario. – Environ. Intern., 19(4):405–415, Refs: 22; illus. incl. 2 tables, sketch maps; doi:10.1016/0160-4120(93)90131-Z.
• Azcue, J. M. & Nriagu, J. O. (1995): Impact of abandoned mine tailings on the arsenic concentrations in Moira Lake, Ontario. – J. Geochem. Explor., 52(1-2):81–89, 4 Abb., 1 Tab.
• Aziza, A. E., Iwegbue, C. M. A., Tesi, G. O., Nwajei, G. E. & Martincigh, B. S. (2021): Concentrations, sources, and exposure risk of polychlorinated biphenyls in soil profiles of the floodplain of the lower reaches of the River Niger, Nigeria. – Environ. Monit. Assess., 193(9) doi:10.1007/s10661-021-09310-9.
• Azrag, E. A., Ugorets, V. I. & Atkinson, L. C. (1998): Use of a Finite Element Code to Model Complex Mine Water Problems: Mine Water and Environmental Impacts 1. – 31–41 p., 4 Abb.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Azzie, B. (2008): Geochemical Characterization of Tailings, Kylylahti Cu-Co Project, Finland. – Proceedings, 10th International Mine Water Association Congress:359–362.
• Azzuni, A. (2014): Design, Implementation, and Evaluation of an Online Water Quality Monitoring System in Lake Saimaa, Finland. – 117 p., Lappeenranta University of Technology, 68 Abb., 3 Tab., 3 Anl.; Mikkeli.
• B. Gagné, E., Rouleau, A., Chesnaux, R., W. Roy, D., Cloutier, V. & Daigneault, R. (2013): Underground Mine Site Investigations for Estimating Hydrogeological Properties of Regional Fractured Rock Aquifers. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 91–96, 2 Abb., 1 Tab.; Golden (International Mine Water Association).
• Baacke, D. (2000): Geochemisches Verhalten umweltrelevanter Elemente in stillgelegten Polysulfiderzgruben am Beispiel der Grube „Himmelfahrt“ in Freiberg/Sachsen. – Freiberger Dissertationen On-line, 35:139, 72 Abb., 62 Tab., 7 Anl.
• Baacke, D. & Degner, T. (2000): Hydrogeochemie, Wärmehaushalt und Strömung des Flutungswassers einer untertägigen Erzgrube. – In: Wippermann, T. (ed) Bergbau und Umwelt – Langfristige geochemische Einflüsse. – p. 163–174, 6 Abb., 2 Tab.; Berlin (Springer); doi:10.1007/978-3-642-57228-9_11.
• Baacke, D., Snagowski, S. & Jahn, S. (2015): Entwicklung der Grundwasserbeschaffenheit im Flutungsraum des Grubengebäudes Ronneburg. – In: Paul, M. (ed) Sanierte Bergbaustandorte im Spannungsfeld zwischen Nachsorge und Nachnutzung – WISSYM 2015. – p. 117–123, 2 Abb.; Chemnitz (Wismut GmbH).
• Baas Becking, L. G. M., Kaplan, I. R. & Moore, D. (1960): Limits of the Natural Environment in Terms of pH and Oxidation-Reduction Potentials. – J. Geol., 68(3):243–284, 34 Abb., 3 Tab.; doi:10.1086/626659.
• Baba, A., Demir, M. M., Koç, G. A. & Tuğcu, C. (2015): Hydrogeological properties of hyper-saline geothermal brine and application of inhibiting siliceous scale via pH modification. – Geothermics, 53:406–412, doi:https://doi.org/10.1016/j.geothermics.2014.08.007.
• Baba, A., Ereeş, F. S., Hıçsönmez, Ü., Çam, S. & Özdılek, H. G. (2007): An assessment of the quality of various bottled mineral water marketed in Turkey. – Environ. Monit. Assess., 139(1):277, 3 Abb., 2 Tab.; doi:10.1007/s10661-007-9833-9.
• Baba, A. & Ertekın, C. (2007): Determination of the source and age of the geothermal fluid and its effects on groundwater resources in Kestanbol (Çanakkale-Turkey). Groundwater quality – securing groundwater quality in urban and industrial environments – IAHS Publ. 324. – p. 148–155, 6 Abb., 2 Tab.; Wallingford (IAHS Press).
• Baba, A., Perinçek, D., Sanliyüksel, D. & Kizil, H. (2007): Hydrogeochemistry and Structural Control of the Area around the Ancient City of Troia, Northwestern Anatolia. – proceedings IAH 2007:1–12, 10 Abb., 2 Tab.
• Babak, M. I., Shukow, W. A. & Puchalskij, W. N. (2000): Minimierung der schädlichen Auswirkung von urangewinnenden und -verarbeitenden Objekten des Kombinates WostGok (Ukraine) auf die Umwelt. Paper presented at the Proceedings Wismut 2000 – Bergbausanierung Internationale Konferenz, Schlema. – p. 8, 1 Abb., 5 Tab.; (Eigenverlag Wismut GmbH).
• Babij, T., Goodman, A., Khalid, A. M. & Ralph, B. J. (1980): Environmental studies of flooded opencuts: Biogeochemistry of ancient and modern environments. – Berlin (Springer).
• Baborowski, M., Mages, M., Hiltscher, C., Matschullat, J. & Guhr, H. (2005): Former mining activities influence Uranium concentrations in the Elbe river near Magdeburg. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 585–592, Heidelberg (Springer).
• Babot, Y., Duzan, A., Eckart, M., Kories, H., Metz, M. & Rengers, R. (2005): Flooding of the Saar-Lorraine Coal Mines: Coupling of the Regional Model of the Lower Triassic Sandstones Aquifer with a “Box” Model of the Mining Reservoir. – p. 1–8 [CD–ROM], 3 Abb., 1 Tab.; Nancy (Proceedings Post-Mining 2005).
• Bachmaf, S. & Merkel, B. J. (2010): Sorption and Desorption of Uranium (VI) on Clay Minerals. – Wiss. Mitt. Inst. Geol., 42:213–216.
• Bachmann, H. (1987): Familiengeschichtliches über österreichische Exulanten im Weißenburger Land. – Frankenland:181–186, 2 Abb.
• Bachmann, T. M., Friese, K. & Zachmann, D. W. (2001): Redox and pH conditions in the Water Column and in the Sediments of an acidic Mining Lake. – J. Geochem. Explor., 73(2):75–86, 7 Abb., 3 Tab.
• Bachňák, M. (2011): Nižná Slaná – Zatápanie ložiska Manó-Gabriela – Geologický prieskum životného prostredia – Orientačný prieskum [Nižná Slaná – Flooding of the Manó-Gabriela deposit. Geological survey of the environment – Preliminary survey]. – Unpubl. Report for SIDERIT, s. r. o., Nižná Slaná (Report Nr. Manuskript, archív). – 25 p., 4 Abb., 4 Tab.; Rožňava (ENVEX – Environmentalistika, hydrogeológia, inžinierska a ložisková geológia).
• Bachurin, B. A. (2019): Organic Matter Of Mine Water And Mining Waste. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 639–644; Perm, Russia (Perm State University).
• Back, W. (1966): Hydrochemical facies and ground-water flow patterns in northern part of Atlantic Coastal Plain. – U.S. Geol. Surv. Prof. Pap.; Hydrology of aquifer systems, 498, A:1–42, 18 Abb., 15 Tab., 1 Taf.; doi:10.3133/pp498A.
• Bäckblom, G., Forssberg, E., Haugen, S., Johansson, J., Naarttijärvi, T. & Öhlander, B. (2010): Smart Mine of the Future Conceptual Study 2009–2010. – 34 p., 16 Abb., 1 Tab.; Luleå (Nordic Rock Tech Centre).
• Bäcker, H. & Schoell, M. (1972): New deeps with brines and metalliferous sediments in the Red Sea. – Nature Phys. Science, 240:153–142, doi:10.1038/physci240153a0.
• Bäckström, M. (2010): Environmental impact from an alum shale deposit, Kvarntorp, Sweden – present and future scenarios. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 551–555, Sydney, NS (Cape Breton University Press).
• Bäckström, M. & Sartz, L. (2010): Stabilisation of acid generating waste rock with fly ash – immobilization of arsenic under alkaline conditions. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 555–559, Sydney, NS (Cape Breton University Press).
• Bäckström, M. & Sartz, L. (2013): Fly ash injection into weathered mine waste. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 513–518, 1 Abb., 4 Tab.; Golden (International Mine Water Association).
• Bäckström, M. & Sartz, L. (2014): Permanent under Water Storing of Weathered Mine Waste after Removal of Fine Fraction and Addition of Ash. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 711–714, Xuzhou (International Mine Water Association).
• Bäckström, M. & Sartz, L. (2023): Mesocosm Experiments Performed in 1975, 1993 and 2017 to Determine Changes in Release Rates of Zinc from Sediments Affected by an Old Mining Operation. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 25–30; (International Mine Water Association).
• Bäckström, M., Sartz, L., Karlsson, S. & Allard, B. (2010): Prevention of ARD through stabilization of waste rock with alkaline by-products – results from a meso-scale experiment. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 559–563, Sydney, NS (Cape Breton University Press).
• Bäckström, M., Sartz, L., Larsson, E. & Karlsson, S. (2011): Properties of alkaline materials for injection into weathered mine waste piles – methods and intial pilot trial: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 265–270 p., Aachen (RWTH Aachen University).
• Bäckström, M., Sartz, L. & Sädbom, S. (2017): Mining Waste as an Exploration Tool and Secondary Resource. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 964–971, Lappeenranta (Lappeenranta University of Technology).
• Bacon, W. & Gooch, N. (2021): The making of Ophir – Bougainville stories and silences – An exploration of the documentary. – Pac. Journal. Rev., 27(1-2):150–172.
• Baddour, R. E. (2008): Head-Discharge Equation for Sharp-Crested Polynomial Weir. – J. Irrig. Drain. Eng., 134(2):260–262, 5 Abb., 1 Tab.; doi:10.1061/(ASCE)0733-9437(2008)134:2(260).
• Baddour, R. E. (2019): Redesigning Compound Weirs as Polynomial Weirs. Paper presented at the World Environmental and Water Resources Congress, Pittsburgh. – p. 40–44, 4 Abb.; Reston (ASCE).
• Baddour, R. E. (2020): Skimming Properties of Sharp-Crested Weirs. – J. Irrig. Drain. Eng., 146(9):04020030–1–6, doi:10.1061/(asce)ir.1943-4774.0001500.
• Badhurahman, A., Gautama, R. S. & Kusuma, G. J. (2020): REE Enrichment Pattern in Acid Mine Drainage and Overburden from Coal Mine in Indonesia. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 1–6; (International Mine Water Association).
• Badr, K. & Mowla, D. (2015): Development of rectangular broad-crested weirs for flow characteristics and discharge measurement. – KSCE J. Civ. Eng., 19(1):136–141, 7 Abb., 3 Tab.; doi:10.1007/s12205-012-0433-z.
• Badstübner, L. & Bauer, E. & Baumann, R. & Bergner, W. & Beyer, H.-E. & Bommhardt, K. H. & Böttcher, J. & Böttcher, R. & Brandt, R. & Brettschneider, G. & Damm, H. & Damm, W. & Decker, J. & Demmler, K. & Dicke, H. J. & Dietel, R. & Ducke, G. & Dusemond, D. & Felber, B. & Fischer, K. & Fleischer, E. & Fleischer, P. & Freitag, W. & Freyhoff, G. & Friedrich, K. & Fritsch, E. & Gahler, G. & Geilert, D. & Gottsmann, J. & Götze, D. & Gräbner, R. & Gressel, G. & Grimmer, K. & Groth, P. & Hähne, R. & Hambeck, L. & Hänsler, E. & Harlaß, E. & Hartmann, L. & Hiller, A. & Hommel, M. & Janke, H. & Kahlenbach, H. & Kalisch, S. & Keller, K. & Kempe, E. & Kießlich, H. & Klier, H. & Klose, G. & Knoch-Weber, J. & Kohlisch, R. & Kröber, P. & Krull, E. & Lange, G. & Lange, H. & Lange, R. C. & Lange, R. G. & Lötzsch, F. & Luderer, J. & Luft, W. & Lutze, H. & Malech, S. & Markstein, H. & Matthees, G. & Matthes, W. & Mehlhorn, E. & Meyer, S. & Motz, H. & Müller, H. & Müller, H. & Neldner, D. & Neubert, H. & Neubert, W. & Neugebauer, H. & Neumann, H. & Oczadly, V. & Otto, G. & Päßler, D. & Prokop, R. & Radon, H. & Reinhold, P. & Reinisch, A. & Renneberg, L. & Riedel, L. & Riedel, P. & Rochhausen, D. & Rosmej, D. & Rothe, K. & Sachse, K. & Schauer, M. & Schenke, G. & Schierz, W. & Schiffner, W. & Schilk, M. & Schirmer, E. & Schmiermund, B. & Schöfer, M. & Scholz, A. & Schönherr, W. & Schuppan, W. & Seidel, G. & Stübner, J. & Thiele, R. & Tonndorf, H. & Vater, A. & Viehweg, M. & Vogel, H. & Wagner, G. & Wagner, P. & Waskowiak, R. & Weber, K. & Weigelt, H. & Wicht, E. & Wild, E. & Wildner, G. & Winkler, G. & Wolf, E. (2010): Chronik der Wismut – Mit erweitertem Sanierungsteil (1998–2010). In: Runge, W. (ed). Wismut GmbH, Chemnitz, 3134.
• Baechler, F. E. (1986): Regional Water Resources Sydney Coalfield, Nova Scotia. – 111 p., 2 Kart.; Halifax (Province of Nova Scotia – Department of the Environment).
• Baena, O. J. R., Aristizabal, G., Pimentel, M. S., Florez, C. A. & Argumedo, C. E. (2021): Waste Management and the Elimination of Mercury in Tailings from Artisanal and Small-Scale Gold Mining in the Andes Municipality of Antioquia, Colombia. – Mine Water Environ., 40(1):250–256, doi:10.1007/s10230-020-00728-0.
• Baethge, C. & Jergas, H. (2025): Systematic review and meta-analysis of quotation inaccuracy in medicine. – Res. Integrity Peer Rev., 10(1):13, doi:10.1186/s41073-025-00173-z.
• Baeyer, A. (1871): Ueber eine neue Klasse von Farbstoffen. – Ber. dtsch. chem. Ges., 4(2):555–558, doi:10.1002/cber.18710040209.
• Baeyer, A. (1871): Ueber eine neue Klasse von Farbstoffen. – Zeitschrift für Chemie, 14:545–553.
• Bagdy, I. & Kaocsány, L. (1982): Treatment of mine water for the protection of pumps. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, ABCD Supplementary volume:201–214, 3 Abb.
• Bagdy, I. & Sulyokm, P. (1990): Case Example on Acid-Resistent Bulkhead in Hungary. – Int. J. Mine Water, 9(1-4):97–109, 7 Abb.
• Baghbanzadeh, M., Dillon, S., Volchek, K., Rickwood, C. & Goulet, R. R. (2023): Assessment of Membrane and Electrochemical Technologies for the Treatment of a Selenium-Bearing Mine water: Technology Performance and Effect on Toxicity and Bioaccumulation. – Mine Water Environ., 42(3):361–382, doi:10.1007/s10230-023-00942-6.
• Baglikow, V. (2012): Grubenwasseranstieg in Steinkohlegebieten – Auswirkungen auf die Oberfläche. – bergbau, 1:16–23, 13 Abb.
• Bahlburg, H. & Dobrzinski, N. (2011): A review of the Chemical Index of Alteration (CIA) and its application to the study of Neoproterozoic glacial deposits and climate transitions. – Geol. Soc. Mem., 36:81–92, doi:10.1144/M36.6.
• Bahrami, A., Hosseini, M. & Razmi, K. (2007): An Investigation on Reusing Process Water in Gold Cyanidation. – Mine Water Environ., 26(3):191–194, 8 Abb., 3 Tab.; doi:10.1007/s10230-007-0001-9.
• Bai, H., Kang, Y., Quan, H., Han, Y., Sun, J. & Feng, Y. (2013): Treatment of acid mine drainage by sulfate reducing bacteria with iron in bench scale runs. – Bioresour. Technol., 128:818–822, doi:10.1016/j.biortech.2012.10.070.
• Bai, H., Li, H., Ma, D. & Du, B. (2018): Occurrence of Coal Seam as Main Aquifer. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1001–1004; (Tshwane University of Technology).
• Bai, H., Wu, L., Wu, G. & He, S. (2019): Mechanism And Prevention Techniques Of The Hazardous Burst of Interlayer-sagging Water Body. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 339–341; Perm, Russia (Perm State University).
• Baier, C. (2017): Homer’s Cultural Children – The Myth of Troy and European Identity. – Hist. Mem., 29(2):35–62, doi:10.2979/histmemo.29.2.03.
• Baier, J., Polák, M., Šindelář, M. & Uhlík, J. (2011): Numerical modeling as a basic tool for evaluation of using mine water as a heat source. Paper presented at the Energy and Sustainability III. – p. 73–84.
• Bailey, B. L., Smith, L. J. D., Blowes, D. W., Ptacek, C. J., Smith, L. & Sego, D. C. (2013): The Diavik Waste Rock Project: Persistence of contaminants from blasting agents in waste rock effluent. – Appl. Geochem., 36:256–270, doi:10.1016/j.apgeochem.2012.04.008.
• Bailey, C. L., Bereman, R. D., Rillema, D. P. & Nowaks, R. (1986): Surface-Modified Electrodes – Oxidative Electropolymerization and Deposition of Ni[Me4(RBzo)2[14]tetraeneN4] Complexes. – Inorg. Chem., 25:933–938, 7 Abb., 2 Tab.
• Bailey, G. W. & Rogers, J. (1997): Chemical oceanography and marine geoscience off southern Africa: Past discoveries in the post-Gilchrist era, and future prospects. – Trans. Roy. Soc. S. Afr., 52:51–79, doi:10.1080/00359199709520617.
• Bailey, M., Gandy, C. J. & Jarvis, A. P. (2016): Reducing life-cycle costs of passive mine water treatment by recovery of metals from treatment wastes. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1255–1262, Freiberg (TU Bergakademie Freiberg).
• Bailey, M., Jarvis, A. & Gandy, C. (2015): Characterization of Passive Treatment System Substrates and Potential for Zinc Recovery. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Bailey, M., Moorhouse, A. & Watson, I. (2013): Heat extraction from hypersaline mine water at the Dawdon mine water treatment site. Paper presented at the Proceedings of the Eighth International Seminar on Mine Closure. – p. 559–570.
• Bailey, M., Watson, I., Wyatt, L. & Davies, T. (2011): Applications of pumping tests in the development of mine water management strategies and remediation schemes: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 97–100 p., Aachen (RWTH Aachen University).
• Bailey, M. T., Gandy, C. J., Watson, I. A., Wyatt, L. M. & Jarvis, A. P. (2016): Heat recovery potential of mine water treatment systems in Great Britain. – Int. J. Coal Geol., 164:77–84, doi:10.1016/j.coal.2016.03.007.
• Bailey, M. T., Moorhouse, A. M. L., Byrom, A. J. & Kershaw, S. (2013): Applications for Hydrous Ferric Oxide mine water treatment sludge: A Review. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 519–524, 1 Abb.; Golden (International Mine Water Association).
• Bailly-Comte, V., Durepaire, X., Batiot-Guilhe, C. & Schnegg, P.-A. (2018): In situ monitoring of tracer tests: how to distinguish tracer recovery from natural background. – Hydrogeol. J., 26(6):2057–2069, doi:10.1007/s10040-018-1748-8.
• Bain, G. W. (1950): Geology of the fissionable materials. – Econ. Geol., 45(4):273–323, 4 Abb., 4 Tab.; doi:10.2113/gsecongeo.45.4.273.
• Bain, J. G., Blowes, D. W. & Robertson, W. D. (1995): The hydrogeochemistry of a sand aquifer affected by discharge from the Nickel Rim tailings, Sudbury, Ontario. Paper presented at the Sudbury ’95 – Mining and the Environment, Sudbury. – p. 715–735, 6 Abb.; Ottawa (Canmet).
• Bain, J. G., Blowes, D. W., Robertson, W. D. & Frind, E. O. (2000): Modelling of sulfide oxidation with reactive transport at a mine drainage site. – J. Contam. Hydrol., 41(1-2):23–47, doi:10.1016/S0169-7722(99)00069-8.
• Bain, J. G., Mayer, K. U., Blowes, D. W., Frind, E. O., Molson, J. W. H., Kahnt, R. & Jenk, U. (2001): Modelling the closure-related geochemical evolution of groundwater at a former uranium mine. – J. Contam. Hydrol., 52(1-4):109–135, 5 Abb., 9 Tab.; doi:10.1016/S0169-7722(01)00155-3.
• Baisch, S., Voros, R., Rothert, E., Stang, H., Jung, R. & Schellschmidt, R. (2010): A numerical model for fluid injection induced seismicity at Soultz-sous-Forets. – International Journal of Rock Mechanics and Mining Sciences, 47(3):405–413, doi:10.1016/j.ijrmms.2009.10.001.
• Baisley, A., Pearce, S. & O’Kane, M. (2016): Climate Change and Mine Closure – A Practical Framework for Addressing Risk. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 35–42, Freiberg (TU Bergakademie Freiberg).
• Baiyegunhi, C., Liu, K. W., Wagner, N., Gwavava, O. & Oloniniyi, T. L. (2018): Geochemical Evaluation of the Permian Ecca Shale in Eastern Cape Province, South Africa: Implications for Shale Gas Potential. – Acta. Geol. Sin. Engl., 92(3):1193–1217, doi:10.1111/1755-6724.13599.
• Baiyegunhi, C., Nxantsiya, Z., Pharoe, K., Baiyegunhi, T. L. & Mepaiyeda, S. (2019): Petrographical and geophysical investigation of the Ecca Group between Fort Beaufort and Grahamstown, in the Eastern Cape Province, South Africa. – Open Geosci., 11(1):313–326, doi:10.1515/geo-2019-0025.
• Baiying, L., Hongtian, X. & Hang, G. (1988): Research on the Harnessing of Ordovician Limestone Confined-Water in Northern China Coalfields. – Proceedings, 3rd International Mine Water Congress, Melbourne:31–39, 3 Abb., 1 Tab.
• Bajdur, W., Pajaczkowska, J., Makarucha, B., Sulkowska, A. & Sulkowski, W. W. (2002): Effective polyelectrolytes synthesised from expanded polystyrene wastes. – Eur. Polym. J., 38(2):299–304.
• Bajjali, W. (2018): ArcGIS for Environmental and Water: Springer Textbooks in Earth Sciences, Geography and Environment. – 353 p., Cham (Springer); doi:10.1007/978-3-319-61158-7.
• Bajtos, P. (2000): Environmental impact of mining activity in the Rudnany Ore Field, Slovak Ore Mountain. – Proceedings, 7th International Mine Water Association Congress:59–67, 2 Abb., 3 Tab.
• Bajtoš, P. (2008): Actual and Potential Utilisation of Mine Waters in the Spišsko-gemerské Rudohorie Mts., Slovakia. – Proceedings, 10th International Mine Water Association Congress:87–89.
• Bajtoš, P. (2016): Mine waters in the Slovak part of the Western Carpathians – distribution, classification and related environmental issues. – Slovak Geol. Mag., 16(1):139–158, 11 Abb., 13 Tab.
• Bajtoš, P. (2022): Use of analysis of seasonal hydrochemical regime for better understanding of mine water genesis and more accurate estimate of its impact on stream water quality at flooded Rudňany ore mine. – Miner. Slovaca, 54(1):49–70, doi:10.56623/ms.2022.54.1.4.
• Bajtoš, P. (2025): Podmienky a Charakteristika Vývoja Chemického Zloženia Vysoko Mineralizovanej Banskej Vody Počas Troch Rokov Po Zatopení Sideritovej Bane Manó – Gabriela v Nižnej Slanej [Conditions and Characterstics of the Development of the Chemical Composition of Highly Mineralised Mine Water from the Manó – Gabriela Siderite Mine in Nižná Slaná During Three Years After Flooding]. – Podzemná Voda, 31(1):47–70, 12 Abb., 11 Tab.
• Bajtoš, P., Mašlár, E. & Mašlárová, I. (2015): Vplyv ťažby nerastov na životné prostredie – Správa za rok 2014 [Impact of mineral extraction on the environment – Report for 2014]. – (Report Nr. ČMS Geologické faktory 04–207–2025). – 77 p., 39 Abb., 63 Tab.; Spišská Nová Ves (Ministerstvo Životného Prostredia Slovenskej Republiky | Sekcia Geológie a Prírodných Zdrojov | Štátny Geologický Ústav Dionýza Štúra | Regionálne Centrum Spišská Nová Ves).
• Bajtoš, P., Pramuka, S. & Rapant, S. (2012): Vplyv ťažby nerastov na životné prostredie – Správa za rok 2011 [Impact of mineral extraction on the environment – Report for 2011]. – (Report Nr. ČMS Geologické faktory 04–207–2012). – 61 p., 20 Abb., 44 Tab.; Spišská Nová Ves (Ministerstvo Životného Prostredia Slovenskej Republiky | Sekcia Geológie a Prírodných Zdrojov | Štátny Geologický Ústav Dionýza Štúra | Regionálne Centrum Spišská Nová Ves).
• Bajtoš, P., Pramuka, S. & Rapant, S. (2013): Vplyv ťažby nerastov na životné prostredie – Správa za rok 2012 [Impact of mineral extraction on the environment – Report for 2012]. – (Report Nr. ČMS Geologické faktory 04–207–2013). – 61 p., 64 Abb., 63 Tab.; Spišská Nová Ves (Ministerstvo Životného Prostredia Slovenskej Republiky | Sekcia Geológie a Prírodných Zdrojov | Štátny Geologický Ústav Dionýza Štúra | Regionálne Centrum Spišská Nová Ves).
• Bajželj, U. & Kortnik, J. (1997): Use of Multi-Barrier Water-Proofing System for the Construction of Underground Waste Deposits. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:451–462, 4 Abb.
• Bakalar, N. (2003): Where the germs are – A Scientific Safari. – 262 p., Hoboken (Wiley).
• Bakatula, E. N., Cukrowska, E., Straker, C., Weiersbye, I. & Tutu, H. (2011): Biosorption of metals from gold mine wastewaters by Penicillium simplicissimum immobilized on zeolite: Kinetic, equilibrium and thermodynamic studies: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 271–276 p., Aachen (RWTH Aachen University).
• Baker, B. J. & Banfield, J. F. (2003): Microbial communities in acid mine drainage. – FEMS Microbiol. Ecol., 44(2):139–152, doi:10.1016/s0168-6496(03)00028-x.
• Baker, G. (2008): Scholarly publishing in South Africa: Facing reality. – S. Afr. J. Sci., 104(11-12):411–412.
• Baker, I. (1968): The Geology of Saint Helena Island South Atlantic. – 396 p., University of London, 58 Abb., 15 Tab.; London.
• Baker, I. (1970): Geological History of Saint Helena in Relation to its Floral and Faunal Colonization. – Ann. Mus. Roy. Afr. Centr., In-8°, Zool., 181(8):25–35.
• Baker, R. C. (2000): Flow Measurement Handbook – Industrial Designs, Operating Principles, Performance, and Applications. – 524 p., Cambridge (Cambridge University Press).
• Baker, W. E. (1978): The role of humic acid in the transport of gold. – Geochim. Cosmochim. Acta, 42(6, Part A):645–649, 3 Abb., 1 Tab.; doi:10.1016/0016-7037(78)90009-1.
• Bakir, A., McLoughlin, P. & Fitzgerald, E. (2010): Removal of NO₃^– from Drinking Water by Electrocoagulation – An Alternate Approach. – CLEAN – Soil, Air, Water, 38(3):225–230, doi:10.1002/clen.200900226.
• Baklanov, M., Mikheev, P., Mikheeva, O., Sheina, T. & Khayrulina, E. (2021): Methods of Environmental Bioindication of Rivers Prone to Technogenic Salinization. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 37–41; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Balatka, M., Čermáková, H., Novák, J. & Mužák, J. (2005): The optimal strategy of cleaning of fucoid sandstone. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 437–448, Heidelberg (Springer).
• Balcerzak, E., Dobrzyński, D. & Parafiniuk, J. (1992): Wpływ przeobrażeń mineralnych na skład chemiczny wód w strefie wietrzenia łupków pirytonośnych w Wieściszowicach, Rudawy Janowieckie, Sudety Zachodnie, Polska [The effects of mineral alterations on the chemical composition of waters in the weathered zone of pyrite-bearing schists in Wieściszowice, Rudawy Janowickie Mts., Western Sudetes, Poland]. – Ann. Soc. Geol. Pol., 62:75–93, 7 Abb., 1 Tab.
• Balci, N. & Demirel, C. (2018): Prediction of Acid Mine Drainage (AMD) and Metal Release Sources at the Küre Copper Mine Site, Kastamonu, NW Turkey. – Mine Water Environ., 37(1):56–74, doi:10.1007/s10230-017-0470-4.
• Balci, N., Shanks, W. C., Mayer, B. & Mandernack, K. W. (2007): Oxygen and sulfur isotope systematics of sulfate produced by bacterial and abiotic oxidation of pyrite. – Geochim. Cosmochim. Acta, 71(15):3796–3811, 5 Abb., 5 Tab.; doi:10.1016/j.gca.2007.04.017.
• Balcı, N. Ç. (2008): Effects of bacterial activity on the release of trace metals from sphalerite oxidation. – Proceedings, 10th International Mine Water Association Congress:243–246.
• Balderer, W. (1991): Conclusions on the Possible Variations of Chemical and Isotopic Composition of Groundwater Systems in Response to Changed Hydrodynamic Conditions (Based on Investigations of Deep Groundwater Systems and Thermal-Mineral Waters and Brines in Tectonic Active Areas). Paper presented at the Isotopic and geochemical precursors of earthquakes and volcanic eruptions, Wien. – p. 87–107, 19 Abb.; (IAEA).
• Balderer, W. & Leuenberger, F. (2006): Dye Tracer Tests within the Schollberg Underground Limestone Quarry – Experimental and Hydrogeological Implications. Paper presented at the 8th Conference on Limestone Hydrogeology, Neuchâtel. – p. 5–9, 10 Abb., 3 Tab.; (Presses universitaires de Franche-Compté).
• Balderer, W. & Synal, H. A. (1996): Application of the chlorine-36 method for the characterisation of the groundwater circulation in tectonic active areas: examples from North Western Anatolia/Turkey. – Terra Nova, 8(4):324–333, 5 Abb., 1 Tab.; doi:10.1111/j.1365-3121.1996.tb00565.x.
• Baldigo, B. P., Sloan, R. J., Smith, S. B., Denslow, N. D., Blazer, V. S. & Gross, T. S. (2006): Polychlorinated biphenyls, mercury, and potential endocrine disruption in fish from the Hudson River, New York, USA. – Aquat. Sci., 68(2):206–228, doi:10.1007/s00027-006-0831-8.
• Baldwin, S., Mirjafari, P., Rezahdebashi, M., Subedi, G., Taylor, J., Moger, L., McMahen, K. & Frye, A. (2015): Start-Up of a Passive Remediation Bioreactor for Sulfate and Selenium Removal from Mine Tailings Water. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Bálintová, M., Singovszká, E., Holub, M. & Demčák, Š. (2019): Influence of Acid Mine Drainage on Surface Water Quality. – In: Negm, A. M. & Zeleňáková, M. (eds): Water Resources in Slovakia: Part I: Assessment and Development. – p. 239–258, Cham (Springer); doi:10.1007/698_2017_220.
• Bálintová, M., Singovszka, E., Vodicka, R. & Purcz, P. (2016): Statistical Evaluation of Dependence between pH, Metal Contaminants, and Flow Rate in the AMD-Affected Smolnik Creek. – Mine Water Environ., 35(1):10–17, doi:10.1007/s10230-014-0324-2.
• Balkau, F. (1999): Abandoned mine sites: Report on the International Round Table on Mining and the Environment ("Berlin II Declaration"). – 40–43 p., Köln (Carl Duisberg Gesellschaft).
• Balkenhol, R., Ludwig, B., Ufer, K., Jochum, J. & Friedrich, G. (2001): Pyrite oxidation in sediment samples from the German open-cut brown coal mine Zwenkau: mineral formation and dissolution of silicates. – J. Plant Nutr. Soil Sci.-Z. Pflanzenernähr. Bodenkd., 164(3):283–288.
• Ball, B. R. & Brix, K. V. (2000): Passive Treatment of Metalloids Associated with Acid Rock Drainage: New frontiers in mining: meeting 21st century challenges. – 20 p., 4 Abb., 1 Tab.; Littleton (Society for Mining Metallurgy and Exploration).
• Ball, J. W. & Nordstrom, D. K. (1985): Major and trace-element analyses of acid mine waters in the Leviathan Mine drainage basin, California/Nevada; October, 1981 to October, 1982. – Water Resour. Investig. Rep., WRI 85-4169:46, Refs: 16; illus. incl. 5 tables, sketch maps; doi:10.3133/wri854169 .
• Ball, J. W. & Nordstrom, D. K. (1989): Final Revised Analyses of Major and Trace Elements from Acid Mine Waters in the Leviathan Mine Drainage Basin, California and Nevada-October 1981 to October 1982. – Water Resour. Investig. Rep., WRI 89-4138:46, 11 Abb., 5 Tab.
• Ball, J. W. & Nordstrom, D. K. (1991): User’s Manual for WATEQ4F, with revised Thermodynamic Data Base and Test Cases for Calculating Speciation of major, trace and redox Elements in natural Waters. – Open-File Rep. US Geol. Surv., OF 91-183:1–189, 2 Tab.; doi:10.3133/ofr90129.
• Ball, T. K. & Nutt, M. J. C. (1976): Preliminary mineral reconnaissance of Central Wales. – Rep. Inst. Geol. Si., 75(14):12, 12 Kart.
• Balling, C. A. M. (1873): Die Montanindustrie in Tyrol. – Berg- u. Hüttenm. Z., 32(11):93–94, 2 Tab.
• Balling, C. A. M. (1885): Die Metallhüttenkunde. – 627 p., Berlin (Springer).
• Ballschmiter, K. & Zell, M. (1980): Analysis of polychlorinated biphenyls (PCB) by glass capillary gas chromatography – Composition of Technical Aroclor- and Clophen-PCB Mixtures. – Fresenius Z. Anal. Chem., 302(1):20–31, doi:10.1007/BF00469758.
• Balogh, B. & Juhász, A. (1982): The geological Methods and resultats of the preliminary dewatering of the water-bearing Layers in Environment of Coal Seams in Borsod Brown Coal Basin. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:373–391, 8 Abb.
• Balogh, B. & Szepessy, A. (1985): Planning and Realization of a constantly increasing Prevention System against Underground Water in Mines. – Proceedings, 2nd International Mine Water Association Congress, 1:141–156, 13 Abb.
• Baloyi, J., Ramdhani, N., Mbhele, R. & Simate, G. S. (2024): Acid Mine Drainage from Gold Mining in South Africa: Remediation, Reuse, and Resource Recovery. – Mine Water Environ., 43(3):418–430, doi:10.1007/s10230-024-00994-2.
• Balthasar, K., Geißler, P., Heißbauer, H., Jungk, G., Müller, M., Pinsl, L., Teichmüller, M. & Teichmüller, R. (1975): Die oberbayerische Pechkohle. – Geol. Bavarica, 73:1–142.
• Baltzer, A. (1874/75): Ueber Bergstürze in den Alpen. – Jahrbuch S. A. C., 10:409–465, 4 Abb.
• Bamberger, M. (1908): Beiträge zur Kenntnis der Radioaktivität der Mineralquellen Tirols – I. – Monatsh. Chem. verw. Teile anderer Wiss., 29(3):317–332, 4 Tab.; doi:10.1007/BF01519835.
• Bamberger, M. & Krüse, K. (1910): Beiträge zur Kenntnis der Radioaktivität der Mineralquellen Tirols – II. – Monatsh. Chem. verw. Teile anderer Wiss., 31(4):221–244, 4 Abb., 8 Tab.; doi:10.1007/BF01519291.
• Bamberger, M. & Krüse, K. (1911): Beiträge zur Kenntnis der Radioaktivität der Mineralquellen Tirols – III. – Sitzungsber. kaiserl. Akad. Wiss. Wien Mathem.-naturw. Kl. Abt. IIa, 120(Juni):1–17.
• Bamberger, M. & Krüse, K. (1913): Beiträge zur Kenntnis der Radioaktivität der Mineralquellen Tirols – IV. – Monatsh. Chem. verw. Teile anderer Wiss., 34(2):403–423, 2 Abb., 6 Tab.
• Bamberger, M. & Krüse, K. (1913): Beiträge zur Kenntnis der Radioaktivität der Mineralquellen Tirols – V. – Monatsh. Chem. verw. Teile anderer Wiss., 34(9):1449–1467, 1 Abb., 5 Tab.; doi:10.1007/BF01518048.
• Bamberger, M. & Krüse, K. (1914): Beiträge zur Kenntnis der Radioaktivität der Mineralquellen Tirols – VI. – Jb. k.-k. geol. R.-A., 64(1-2):189–214, 1 Abb., 3 Tab.
• Bamforth, S. M. (2008): 1B Hydraulic System Mine Water Assessment – Neville Street Mine Water: Outline Design Report. – Unpubl. Report for Cape Breton Development, C. (Report Nr. 5063247). – 43 p., 8 Abb., 9 Tab., 1 Anl.; (Atkins).
• Bamforth, S. M., Cox, N. & Potter, H. (2023): Innovative Passive Treatment Technologies for UK Metal Mine Waters: Results from field scale trials. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 31–37; (International Mine Water Association).
• Bamforth, S. M. & Manning, D. A. C. (2005): Utilisation of solid waste products for manganese removal from mine waters: Mine Water 2005 – Mine Closure. – 419–425 p., 5 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Bamforth, S. M. & Satterley, C. (2022): Evaluating Manganese in Mine Water in UK Coal Authority Mine Water Schemes. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 7–13; (International Mine Water Association).
• Banda, P. M. & Zulu, P. (1993): Waste Management for Mine Solid Waste. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 400–409; Chililabombwe (Konkola Division).
• Bandstra, J. & Diedrich, T. (2024): Forecasting opportunities for co-management of Cu-Ni tailings with byproducts of iron ore mining. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 15–20; Morgantown (International Mine Water Association).
• Banerjee, B. P., Raval, S., Maslin, T. J. & Timms, W. (2020): Development of a UAV-mounted system for remotely collecting mine water samples. – Int. J. Min. Reclam. Environ., 34(6):385–396, doi:10.1080/17480930.2018.1549526.
• Banerjee, K., Blumenschein, C. H. C. & Buisson, H. (2015): An Innovative Process to Reduce Sulfate in Membrane Concentrate Enhances Mine Water Recovery. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Banerji, U. S., Goswami, V. & Joshi, K. B. (2022): Quaternary dating and instrumental development: An overview. – Journal of Asian Earth Sciences: X, 7:100091, doi:10.1016/j.jaesx.2022.100091.
• Banga, C. M., Wolkersdorfer, Ch. & Klingelhöfer, H. E. (2018): Implementing Sustainability Management Accounting Techniques for the Effective Management of Acid Rock Drainage. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 859–864; (Tshwane University of Technology).
• Baniasadi, A., Sharafinejad, F., Baniassadzadeh, M. H. & Akbari, S. (2011): Study of Heavy and Main Elements Concentration in Waters Supplies of Shour River in Sarcheshmeh Copper Mine (An Approach to Medical Geology): Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 7–10 p., Aachen (RWTH Aachen University).
• Bankovskaya, V. M. (1987): Changes in Underground Water Regime at Areas of the USSR Coal Mining Enterprises’ Impact: Hydrogeology of Coal Basins. – 503–508 p., Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Banks, D. (1994): The Abandonment of the Killingdal Sulphide Mine, Norway: a Saga of Acid Mine Drainage and Radioactive Waste Disposal. – Mine Water Environ., 13(3-4):35–47, 4 Abb., 1 Tab.
• Banks, D. (1996): The hydrochemistry of Selected Coal Mine Drainage and Spoil-Tip Run-off Water, Longyearbyen, Svalbard. – NGU-rapport, 96.141:1–22, 3 Abb., 5 Tab.
• Banks, D. (2001): A Variable-Volume, Head-Dependent Mine Water Filling Model. – Ground Water, 39(3):362–365, 2 Abb., 1 Tab.; doi:10.1111/j.1745-6584.2001.tb02319.x.
• Banks, D. (2004): Geochemical Processes controlling Minewater Pollution. – In: Prokop, G., Younger, P. L. & Roehl, K. E. (eds): Conference Papers 35. – p. 17–44, 14 Abb., 4 Tab.; Wien (Umweltbundesamt).
• Banks, D. (2009): Thermogeological assessment of open-loop well-doublet schemes: a review and synthesis of analytical approaches. – Hydrogeol. J., 17(5):1149–1155, doi:10.1007/s10040-008-0427-6.
• Banks, D. (2012): An Introduction to Thermogeology – Ground Source Heating and Cooling, 2nd edn. – 526 p., Oxford (Wiley-Blackwell).
• Banks, D. (2014): William Thomson – father of thermogeology. – Scott. J. Geol., doi:10.1144/sjg2013-017.
• Banks, D., Athresh, A., Al-Habaibeh, A. & Burnside, N. (2017): Water from abandoned mines as a heat source: practical experiences of open- and closed-loop strategies, United Kingdom. – Sustainable Water Resour. Manage., doi:10.1007/s40899-017-0094-7.
• Banks, D. & Boyce, A. J. (2023): Dissolved sulfate δ34S and the origin of sulfate in coal mine waters; NE England. – Q. J. Eng. Geol. Hydrogeol., 56(2):qjegh2022–106, doi:10.1144/qjegh2022-106.
• Banks, D., Burke, S. P. & Gray, C. G. (1996): The hydrochemistry of coal mine drainage and other ochre waters in North Derbyshire and South Yorkshire, UK. – NGU-rapport, 96.140:1–64, 11 Abb., 4 Tab.
• Banks, D., Burke, S. P. & Gray, C. G. (1997): Hydrogeochemistry of coal mine drainage and other ferruginous waters in north Derbyshire and south Yorkshire, UK. – Q. J. Eng. Geol., 30:257–280.
• Banks, D., Frolik, A., Gzyl, G. & Rogoż, M. (2010): Modeling and monitoring of mine water rebound in an abandoned coal mine complex: Siersza Mine, Upper Silesian Coal Basin, Poland. – Hydrogeol. J., 18(2):519–534, doi:10.1007/s10040-009-0534-z.
• Banks, D., Skarphagen, H., Wiltshire, R. & Jessop, C. (2003): Mine water as a resource – space heating and cooling via use of heat pumps. – Land Contam. Reclam., 11(2):191–198, 5 Abb.
• Banks, D., Younger, P. L., Arnesen, R. T., Iversen, E. R. & Banks, S. B. (1997): Mine-water chemistry: the good, the bad and the ugly. – Environ. Geol., 32(3):157–174, 11 Abb., 5 Tab.; doi:10.1007/s002540050204.
• Banks, G. (2008): Understanding ‘resource’ conflicts in Papua New Guinea. – Asia Pac. Viewp., 49(1):23–34, doi:10.1111/j.1467-8373.2008.00358.x.
• Banks, S. B. (2003): The Coal Authority Minewater Treatment Programme – An update on the performance of operational schemes. – Land Contam. Reclam., 11(2):161–164.
• Banks, V. J., Bruce, E., Dashwood, B., Gandy, C., Kirkham, M. R., Nedumpallile-Vasu, N., Longstaff, T., Moorhouse-Parry, A., Palumbo-Roe, B. & Potter, H. (2023): Geotechnical Characterisation of Mine Waste for Modelling Potential Climate Change Impacts. on Mine Waste Mobility. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 38–44; (International Mine Water Association).
• Bankwitz, P., Bankwitz, E., Franzke, H.-J., Rauche, H. & Dannapfel, M. (1995): In situ-Spannungsmessungen in Thüringen und Sachsen. – Brandenburgische Geowiss. Beitr., 2(2):77–94, 7 Abb., 2 Tab.
• Banning, A. & Schütte-Bestek, P. M. (2016): Trace substances in ascending mine waters – environmental and social effects in urban areas. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 732–735, Freiberg (TU Bergakademie Freiberg).
• Banning, A., Schwertfeger, D., Alonso Torres, S. & Cardona Benavides, A. (2020): Trace Element (As, F, U) Contamination and Hydrogeochemistry in the Vicinity of a Mexican Ore Mine. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 7–12; (International Mine Water Association).
• Bannister, A., Brabham, P., Jones, T. & Bowell, R. (2018): Performance and Review of Passive Minewater Treatment Sites, Pelenna Valley, Wales. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 84–90; (Tshwane University of Technology).
• Banton, D., Birch, M. & White, J. (2001): Hydrogeology of the Proposed Crown Jewel Open Pit Gold Mine, Okanogan County, Washington, USA. Paper presented at the IMWA Symposium Belo Horizonte, Belo Horizonte. – p. 1–17 [CD–ROM], 8 Abb.; Belo Horizonte (International Mine Water Association).
• Banwart, S. A. & Malmstrom, M. E. (2001): Hydrochemical modelling for preliminary assessment of minewater pollution. – J. Geochem. Explor., 74(1-3):73–97.
• Bao, T., Cao, H., Qin, Y., Jiang, G. & Liu, Z. (2020): Critical Insights into Thermohaline Stratification for Geothermal Energy Recovery from Flooded Mines with Mine Water. – J. Clean. Prod.:122989, doi:10.1016/j.jclepro.2020.122989.
• Bao, T. & Liu, Z. (2019): Geothermal energy from flooded mines: Modeling of transient energy recovery with thermohaline stratification. – Energy Convers. Manage., 199:111956, doi:10.1016/j.enconman.2019.111956.
• Bao, T. & Liu, Z. (2019): Thermohaline stratification modeling in mine water via double-diffusive convection for geothermal energy recovery from flooded mines. – Appl. Energy, 237:566–580, doi:10.1016/j.apenergy.2019.01.049.
• Bao, T., Liu, Z., Meldrum, J. & Green, C. Large-Scale Mine Water Geothermal Applications with Abandoned Mines. Singapore, 2018. Proceedings of GeoShanghai 2018 International Conference: Tunnelling and Underground Construction. Springer Singapore, 685–695 S.
• Bao, T., Liu, Z., Meldrum, J., Green, C., Xue, P. & Vitton, S. (2018): Field tests and multiphysics analysis of a flooded shaft for geothermal applications with mine water. – Energy Convers. Manage., 169:174–185, doi:10.1016/j.enconman.2018.05.065.
• Bao, T. & Liu, Z. L. (2016): Large-Scale Thermo-Hydrodynamic Modeling of a Flooded Underground Mine for Geothermal Applications. Paper presented at the Geo-Chicago 2016 GSP 270, Chicago. – p. 72–83, 8 Abb.
• Baoyan, P., Jifan, X., Yongyu, W. & Liangjing, L. (1988): Application of Shallow Interception of Groundwater in Fankou Lead-Zinc Mine. – Proceedings, 3rd International Mine Water Congress, Melbourne:499–506, 2 Abb.
• Baquerizo, G., Chaneac, A., Arellano-García, L., González-Sánchez, A. & Revah, S. (2013): Biological Removal of High Loads of Thiosulfate Using a Trickling Filter Under Alkaline Conditions. – Mine Water Environ., 32(4):278–284, 7 Abb., 1 Tab.; doi:10.1007/s10230-013-0239-3.
• Baquero Úbeda, J. C., Fernández-Rubio, R., Fábregas, A. L., Lorca Fernández, D. & Júnior, R. F. (1999): Drainage of the N4E Iron Open Pit Mine. Carajás (Brazil). Hydrogeological Model. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 347–354, 8 Abb., 4 Tab.; Sevilla (International Mine Water Association).
• Barac, R., Popović, J., Nikolić, M., Mitić, A., Sunarić, S., Petrović, M., Stošić, N. & Burić, N. (2023): Evaluation of the Erosion Potential of Fourteen Commercial Beverages by Measuring pH and Determining Titratable Acidity. – Acta Med. Medianae, 62(3):24–31, doi:10.5633/amm.2023.0304.
• Baranenko, V. I., Fal’kovskii, L. N., Kirov, V. S., Kurnyk, L. N., Musienko, A. N. & Piontkovskii, A. I. (1990): Solubility of oxygen and carbon dioxide in water. – At. Energy, 68(4):342–346, doi:10.1007/BF02074362.
• Baraniak, L., Bernhard, G. & Nitsche, H. (2002): Influence of hydrothermal wood degradation products on the uranium adsorption onto metamorphic rocks and sediments. – J. Radioanal. Nucl. Chem., 253(2):185–190.
• Barbarin, B. (1999): A review of the relationships between granitoid types, their origins and their geodynamic environments. – Lithos, 46:605–626, 7 Abb.
• Barber, L., Christensen, D. & Tallon, L. (2015): Alberta Oil Sands Cover System Field Trial – Development, Construction, and Results Two Years In. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Barber, L. B., Keefe, S. H., Antweiler, R. C., Taylor, H. E. & Wass, R. D. (2006): Accumulation of Contaminants in Fish from Wastewater Treatment Wetlands. – Environ. Sci. Technol., 40:603–611, doi:10.1021/es0514287.
• Barber, L. B. & Leenheer, J. A. (1991): Use of Azaarene Tracers to evaluate Fracture Flow from an in-situ Oil-Shale Retort, Rock Springs, Wyoming. – Water Resour. Investig. Rep., WRI 91-4034:175–181, 2 Abb., 4 Tab.
• Barbic, F., Milosevic, S. & Marinko, M. (1991): Intensification of Biochemical Leaching Process Through Application of Mine Water. – Proceedings, 4th International Mine Water Association Congress, 2:223–229, 3 Tab.
• Barbier, E., Logette, S., Coste, M., Cook, R. G. & Blumenschein, C. D. (2008): Precipitation processes in the treatment of industrial inorganic wastewaters: Impact of reactor and process configuration. – Proceedings, 1st International Conference Hazardous Waste Management:CD–ROM B07.1_1–8, 9 Abb., 1 Tab.
• Barbour, A. K. (1994): Mining non-ferrous metals. – In: Hester, R. E. & Harrison, R. M. (eds): Mining and its Environmental Impact 1. – p. 1–16, (The Royal Society of Chemistry); doi:10.1039/9781847551467-00001.
• Barbour, S. L., Hendry, M. J. & Carey, S. K. (2016): High-resolution profiling of the stable isotopes of water in unsaturated coal waste rock. – J. Hydrol., 534:616–629, doi:10.1016/j.jhydrol.2016.01.053.
• Bárcena, I., Llamas, B., Bueno, J., García- Siñeriz, J. L. & Suso, B. A. (2005): Plug Construction to isolate active zones of inactive zones in coal mine. WATERCHEM Project: Mine Water 2005 – Mine Closure. – 229–240 p., 15 Abb.; Oviedo (University of Oviedo).
• Bárdos, B. M. & Machate, B. (1982): Mine Water Utilization in the Bauxite Mines in County Fejér. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, D:5–15, 4 Abb.
• Bárdossy, A., Bogárdi, I. & Duckstein, L. (1982): Decision Models for Bauxite Mining under Water Hazard. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:18–39, 3 Abb., 7 Tab.
• Baresel, C. & Destouni, G. (2004): Cost-effective Abatement of stochastic Metal Loading to Water recipients. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 101–106, 3 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Baresel, C. & Destouni, G. (2007): Uncertainty-Accounting Environmental Policy and Management of Water Systems. – Environ. Sci. Technol., 41(10):3653–3659, 4 Abb., 2 Tab.; doi:10.1021/es061515e.
• Baresel, C., Larsén, K., Destouni, G. & Gren, I. M. (2003): Environmental Regulation of Mine Waters in the European Union – D 5 Economic Analysis Of Mine Water Pollution Abatement On A Catchment Scale: ERMITE Report – EU R&D Project EVK1-CT-2000-00078. – 34 p., 17 Abb., 11 Tab.; Stockholm (Royal Institute of Technology).
• Barettino, D., Donaire, M., Martínez Pledel, B., Alberruche, E., Aparicio, M. & Arranz, J. (1999): Mining and environmental Planning of Aggregate Exploitation in Alhaurín de la Torre (Málaga, Spain). – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 685–689, 1 Abb.; Sevilla (International Mine Water Association).
• Barkley, N. P., Farrell, C. W. & Gardner-Clayson, T. W. (1993): Alternating Current Electrocoagulation for Superfund Site Remediation. – Air & Waste, 43(5):784–789, 2 Abb., 3 Tab.; doi:10.1080/1073161X.1993.10467161.
• Barkley, N. P., Farrell, C. W. & Williams, T. (1993): Electro-Pure Alternating Current Electrocoagulation. – Superfund Innovative Technology Evaluation, EP AI540/S-93l504:1–5, 1 Abb., 1 Tab.
• Bar-Matthews, M., Ayalon, A., Matthews, A., Sass, E. & Halicz, L. (1996): Carbon and oxygen isotope study of the active water-carbonate system in a karstic Mediterranean cave: Implications for paleoclimate research in semiarid regions. – Geochim. Cosmochim. Acta, 60(2):337–347.
• Barnard, H. C. (1996): Investigation Into the Deterioration of Groundwater Quality in a part of the Zwartkrans Compartment, Districk Krugersdorp – Drainage Area: A21. – Unpubl. Report for Geohydrology, D. 6 p., 6 Abb., 4 Tab., 2 Anl.; Pretoria (Department of Water Affairs and Forestry,).
• Barnard, H. C. (2000): An Explanation of the 1:500 000 General Hydrogeological Map Johannesburg 2526. – 83 p., 18 Abb., 44 Tab., 10 Anl.; Pretoria (Department of Water Affairs and Forestry).
• Barnard, S., Venter, A. & Van Ginkel, C. E. (2013): Overview of the influences of mining-related pollution on the water quality of the Mooi River system’s reservoirs, using basic statistical analyses and self organised mapping. – Water SA, 39(5):655, doi:10.4314/wsa.v39i5.10.
• Barnes, A. (2008): The rates and mechanisms of Fe(II) oxidation in a passive vertical flow reactor for the treatment of ferruginous mine water. – 341 p., PhD, Cardiff University, 158 Abb., 29 Tab., 5 Anl.; Cardiff.
• Barnes, A., Bowell, R., Warrender, R., Sapsford, D., Sexsmith, K., Charles, J., Declercq, J., Santonastaso, M. & Dey, B. (2015): Comparison between Long-Term Humidity Cell Testing and Static Net Acid Generation (NAG) Tests – Potential for NAG Use in Preliminary Mine Site Water Quality Predictions. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Barnes, A., Dey, M., Sapsford, D. & Williams, K. (2007): Heterogeneous Fe(II) Oxidation and Zeta Potential: Water in Mining Environments. – 397–401 p., 3 Abb., 3 Tab.; Cagliari (Mako Edizioni).
• Barnes, A., Pearce, S., Brookshaw, D., Roberts, M. & Mueller, S. (2021): Justification For Modification Of The NAG Test Method To Suit Varied Mining Waste Geochemical Characteristics On A Site-Specific Basis. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 42–46; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Barnes, A., Sapsford, D., Dey, M. & Williams, K. (2008): Non Oxidisable Sorbed Fe(II): Indicator of Strong and Weak Site Adsorption at the Goethite Surface. – Proceedings, 10th International Mine Water Association Congress:???
• Barnes, D. K. A., Galgani, F., Thompson, R. C. & Barlaz, M. (2009): Accumulation and fragmentation of plastic debris in global environments. – Philos. Trans. R. Soc. B, 364:1985–1998, doi:10.1098/rstb.2008.0205.
• Barnes, H. L. & Romberger, S. B. (1968): Chemical Aspects of Acid Mine Drainage. – J. Water Pollut. Control Fed., 40(3):371–384, 5 Abb.
• Barnes, I. & Clarke, F. E. (1964): Geochemistry of Ground Water in Mine Drainage Problems. – U.S. Geol. Surv. Prof. Pap., 473-A:A1–A6, 1 Abb., 1 Tab.; doi:10.3133/pp473A.
• Barnes, I., Stuart, W. T. & Fisher, D. W. (1964): Field investigation of mine waters in the northern anthracite field, Pennsylvania. – U.S. Geol. Surv. Prof. Pap., 0473-B:B1–B8, 3 Abb., 3 Tab.
• Barnes, S. & Martindale, R. (2018): Lifetime Assessment of an Operating Tailings Facility through Modelling of the Unsettled Tailings Layer. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 303–308; (Tshwane University of Technology).
• Barnes, S. J., Makkonen, H. V., Dowling, S. E., Hill, R. E. T. & Peltonen, P. (2009): The 1.88 Ga Kotalahti and Vammala nickel belts, Finland: geochemistry of the mafic and ultramafic metavolcanic rocks. – Bull. Geol. Soc. Finl., 81:103–141, 10 Abb., 5 Tab.
• Barnes, T. M. (2000): Treatment of the gravity minewater discharge at Deerplay Mine, Burnley, UK. – Proceedings, 7th International Mine Water Association Congress:344–351, 2 Abb.
• Barnikel, H. (2004): Laubenstein – Tracerversuch 2003 – Versuch, Ergebnisse, Vergleich mit LTV 2000. – 135 p., 76 Abb., 16 Tab., 11 Anh.; München (unveröff. Dipl.-Arb. Uni München).
• Baron, P. & Schweinsberg, F. (1988): Eine Literaturstudie über Konzentrationen von Arsen, Blei, Cadmium und Quecksilber in Körperflüssigkeiten und Geweben zur Eingrenzung von Normalwerten und Erkennung von Belastungen. – Zbl. Bakt. Hyg., B 186:289–310, 1 Tab.
• Baron, P. A. (2016): Measurement of Fibers. NIOSH Manual of Analytical Methods (NMAM), 5th edn. – p. FI–1–FI–31, Cincinnati (NIOSH).
• Barrett, D., Moran, C. & Côte, C. M. (2010): A Method for Estimating the Potential Trading of Worked Water among Multiple Mines. – Mine Water Environ., 29(2):92–98, 3 Abb., 2 Tab.; doi:10.1007/s10230-010-0110-8.
• Barrett, S., Starnberger, R., Tjallingii, R., Brauer, A. & Spotl, C. (2017): The sedimentary history of the inner-alpine Inn Valley, Austria: extending the Baumkirchen type section further back in time with new drilling. – J. Quat. Sci. , 32(1):63–79, doi:10.1002/jqs.2924.
• Barrez, F., Carlier, E., Carlier, J.-P. & Shahrour, I. (2008): Hydrochemical Evolution of the Chalk Aquifer through the Coal Mine Basin of the Nord-Pas-de Calais Region (France). – Proceedings, 10th International Mine Water Association Congress:251–254.
• Barritt, R. & Scott, P. (2015): Managing the Waste Rock storage Design, Can we Build a Waste Rock Dump that Works? – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Barron, J. J. & Ashton, C. (2006): The Effect of Temperature on Conductivity Measurement. – Reagecon Technical Paper, TSP-07(3):1–5, 2 Abb., 2 Tab.
• Barroso, A., Valente, T. M., Horta Ribeiro Antunes, I. M., Marinho Reis, A. P. & Canovas, C. R. (2022): Evaporation-dissolution Cycles In Highly Acidic Mine-influenced Waters And Their Control Over The Secondary Paragenesis Of Sulfate Salt Efflorescences. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 15–20; (International Mine Water Association).
• Barroso, A. R., Barquero, J. I., García‑Ordiales, E., Jaeger, J. L., Higueras, P. & Valente, T. M. (2025): Secondary Minerals from Evolved Mine Waters: A Detailed Survey in Almadén Historic Mercury Mine Gallery. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1029–1034; Braga (International Mine Water Association).
• Barroso, A. R., Cravotta III, C. A., Gomes, P., Horta Ribeiro, I. M., Marinho Reis, A. P. & Valente, T. M. (2025): Improved Acidity Estimation by Integrating Comprehensive Dissolved Metal(oid)s Data: A Geochemical Modeling Case Study of Highly Mineralized Mine Waters. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 751–757; Braga (International Mine Water Association).
• Barroso, A. R., Henriques, R., Cerqueira, Â., Gomes, P., Horta Ribeiro, I. M., Marinho Reis, A. P. & Valente, T. M. (2025): Advanced Monitoring of Abandoned Mining Sites with High-Resolution UAV Technology. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 139–143; Braga (International Mine Water Association).
• Barroso, A. R., Valente, T. M., Antunes, I. M., Reis, A. P. & Neves, M. I. (2024): Characterization and modeling of Acid Mine Drainage in a highly acidic Stream (Trimpancho mining complex, SW of Spain). Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 27–33; Morgantown (International Mine Water Association).
• Barroso, A. R., Valente, T. M., Reis, A. P. & Antunes, I. M. (2024): Application of statistical models to estimate total dissolved solids in acid mine drainage. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 21–26; Morgantown (International Mine Water Association).
• Barry, M. E., Ivey, G. N., Winters, K. B. & Imberger, J. (2001): Measurements of diapycnal diffusivities in stratified fluid. – J. Fluid Mech., 442:267–291, 11 Abb., 2 Tab.
• Barry, T. I. (1980): The Computation of Pourbaix Diagrams. – ACS Symp. Ser., 133:681–699, 6 Abb., 4 Tab.; doi:10.1021/bk-1980-0133.ch035.
• Bärs, R. & Kuosmanen, V. (1995): Changes in vegetation reflection coefficient caused by changes in geochemistry — first results. – J. Appl. Geophys., 34(2):153, doi:10.1016/0926-9851(96)80887-1.
• Bärs, R. & Kuosmanen, V. (1995): Kasvien heijastuskyvyn ja moreenigeokemian korrelaatio tutkimus [Plant reflectance and till geochemical correlation study]. – 21 + 168 p., (Geologian tutkimuskeskus Malmiosasto).
• Barss, P. (1984): Injuries due to Falling Coconuts. – J. Trauma Acute Care Surg., 24(11):990–991, doi:10.1097/00005373-198411000-00012.
• Barsuglia, F. & Garzonio, C. A. (2005): The post-closure mine hydrogeological problems of Gavorrano (Italy): Mine Water 2005 – Mine Closure. – 147–155 p., 8 Abb.; Oviedo (University of Oviedo).
• Barták, J. & Čejka, O. (2010): Deformations of southern portal of Prackovice tunnel during construction. – Tunnel, 19(2):55–59, 14 Abb.
• Bartalini, A., Muñoz-Arnanz, J., Marsili, L., Mazzariol, S., Fossi, M. C. & Jiménez, B. (2019): Evaluation of PCDD/Fs, dioxin-like PCBs and PBDEs in sperm whales from the Mediterranean Sea. – Sci. Total Environ., 653:1417–1425, doi:10.1016/j.scitotenv.2018.10.436.
• Bartelheim, M. (2004): Die Metallurgie in vorgeschichtlichen Gesellschaften – Das Beispiel Andalusien. – 351 p., 3 Kataloge; Berlin (unveröff. Habil. Freie Universität Berlin).
• Bartels, C. (1996): Mittelalterlicher und frühneuzeitlicher Bergbau im Harz und seine Einflüsse auf die Umwelt [Mining in the Middle Ages and Modern Era in the Harz Mountains and its impact on the environment]. – Naturwissenschaften, 83(11):483–491, 4 Abb.
• Bartels, C. (2003): Die Entwicklung des Bergbaus im nordwestlichen Harz bis zum Beginn der Industrialisierung – Bergbau – eine »Großveranstaltung«? – Siedlungsforschung, 21:97–111.
• Bartels, C. & Lorenz, E. (1993): Die Grube Glasebach – ein Denkmal des Erz- und Fluoritbergbaus im Ostharz. – Der Anschnitt, 45(4):144–158, 10 Abb.
• Barth, A. (2005): Nationwide Collection, Recording, and Provision of geo-scientific Data – Examples from Namibia, Germany, and Kosovo – An Experience Report. – Wiss. Mitt. Inst. Geol., 28:95–98, 5 Abb.
• Barth, A., Berndt, T., Barth, A., Schmidt, F. & Nindel, R. (2006): Planung, Aufbau und Einführung des Informationsmanagementsystems für den Bergbausektor von Ghana (IMS Geodatabase Ghana). – Wiss. Mitt. Inst. Geol., 31:241–244, 3 Abb.
• Barth, H. v. (1874): Aus den nördlichen Kalkalpen – Ersteigungen und Erlebnisse in den Gebirgen Berchtesgadens, des Allgäu, des Innthales, des Isar-Quellengebietes und des Wetterstein; mit erläuternden Beiträgen zur Orthographie und Hypsometrie der nördlichen Kalkalpen; mit lithographischen Gebirgsprofilen und Horizontalprojectionen nach Original-Skizzen des Verfassers. – 637 p., Gera (Amthor).
• Barthauer, G. L. (1967): Practical Aspects of Mine Drainage Control and Treatment. – Society of Mining Engineers at AIME, preprint, 67F72 6 Abb., 3 Tab.
• Barthel, M. (1997): Wie ich naturwissenschaftliche Lichtbildervorträge erlebte. – Veröff. Museum Naturkunde Chemnitz, 20:133–144, 3 Abb.
• Barthel, R., Deißmann, G., Hoppe, G., Kistinger, S., Nitzsche, O., Schartmann, F. & Wörlen, S. (2008): Standortbezogene Freigabe von Zutrittslösungen aus der Schachtanlage Asse – Zwischenbericht zur Freigabe von Zutrittslösungen auf der Basis vollständiger Freigabemessungen. – Unpubl. Report for Helmholtz Zentrum München Gmb, H. (Report Nr. 0807-10). – 66 p., 6 Abb., 26 Tab.; Aachen (Brenk Systemplanung).
• Barthelt-Ludwig, D. (1991): Rund um die oberbayerische Kohle. – Jahresbericht und Mitteilungen der Freunde der Bayerischen Staatssammlung für Paläontologie und Historische Geologie, 20:33–45, 4 Abb., 3 Taf.
• Bartholini, T. (1645): De Unicornu – Observationes Nouæ, 1st edn. – 304 p., Padua.
• Bartholini, T. & Bartholino, C. (1678): De Unicornu – Observationes Novae, 2nd edn. – Amstelaedami (J. Henr. Wetstenium).
• Bartlett, R. J. & Ross, D. S. (1988): Colorimetric Determination of Oxidizable Carbon in Acid Soil Solutions. – Soil Science Society of America Journal, 52(4):1191–1192, doi:10.2136/sssaj1988.03615995005200040055x.
• Bartnitzki, T. (2017): Mining 4.0 – Importance of Industry 4.0 for the Raw Materials Sector. – Mining Rep., 153(1):25–31, 7 Abb.
• Barton, C. (1988): Technology for Mine Water Management – General Report. – Proceedings, 3rd International Mine Water Congress, Melbourne:519–521.
• Barton, C. D. & Karathanasis, A. D. (1999): Renovation of a failed constructed wetland treating acid mine drainage. – Environ. Geol., 39(1):39–50, 9 Abb., 4 Tab.
• Barton, C. M. (1986): The Havelock Asbestos Deposit in Swaziland, Barberton Greenstone Belt. – In: Anhaeusser, C. R. & Maske, S. (eds): Mineral Deposits of Southern Africa I. – p. 395–407, 7 Abb., 3 Tab.; Johannesburg (Geol. Soc. S. Afr.).
• Barton, H. A. & Northup, D. E. (2007): Geomicrobiology in cave environments: past, current and future perspectives. – Journal of Cave and Karst Studies, 69(1):163–178, 7 Abb.
• Bartov, G., Deonarine, A., Johnson, T. M., Ruhl, L., Vengosh, A. & Hsu-Kim, H. (2005): Environmental Impacts of the Tennessee Valley Authority Kingston Coal Ash Spill. 1. Source Apportionment Using Mercury Stable Isotopes. – Environ. Sci. Technol., 47(4):2092–2099, doi:10.1021/es303111p.
• Bártová, Z. (2025): The Smolnik Mining Site in Slovakia: its Potential Use for the Production of Mineral Pigments. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1017–1022; Braga (International Mine Water Association).
• Bartrip, P. W. J. (2000): Nellie Kershaw, Turner and Newall, and Asbestos-Related Disease in 1920s Britain. – Hist. Stud. Ind. Relat.,(9):101–116, doi:10.3828/hsir.2000.9.4.
• Bartsch, M. & Fröhlingsdorf, M. (2009): Alarm am Monte Kali. – Der Spiegel, 35:42–44, 5 Abb.
• Baruah, S., Khan, M. N. & Dutta, J. (2016): Perspectives and applications of nanotechnology in water treatment. – Environ. Chem. Lett., 14:1–14, doi:10.1007/s10311-015-0542-2.
• Barutçu, F., Lamaddalena, N. & Fratino, U. (2007): Energy saving for a pumping station serving an on-demand irrigation system – A study case. – Water saving in Mediterranean agriculture and future research needs, 56(1):367–379.
• Barwise, G. & Huddy, R. (1993): New Advances in Directional Drilling Techniques. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 564–573, 5 Abb., 7 Tab.; Chililabombwe (Konkola Division).
• Basallote, M. D., Cánovas, C. R., Pérez-López, R., Macías, F., Olías, M. & Nieto, J. M. (2019): Metal Partitioning and pH-Buffering During Mixing Processes in an Estuary Strongly Affected by Acid Mine Drainage – The Ria of Huelva Estuary (SW Spain). Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 409–414; Perm, Russia (Perm State University).
• Basallote, M. D., Gerardo, A., Maira, C., Cánovas, C. R., Nieto, J. M. & Rafael, P.-L. (2023): Sustainable Removal of Metal/loids from As-Rich Mine Waters Using Mine and Industry Waste Materials. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 45–50; (International Mine Water Association).
• Basallote, M. D., Olías, M., Pérez-López, R., Macías, F., Carrero, S. & Nieto, J. M. (2017): Behavior of trace elements during evaporatic salt precipitation from acid mine drainage (Agrio River, SW Spain). – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 836–842, Lappeenranta (Lappeenranta University of Technology).
• Bashir, R. & Hatley, J. (2012): Dewatering of an underground uranium mine in Saskatchewan, Canada: International Mine Water Association Symposium. – 63–72 p., Bunbury (Edith Cowan University).
• Baskaran, M. (2011): Handbook of environmental isotope geochemistry: Advances in isotope geochemistry. – 951 p., Berlin (Springer); doi:10.1007/978-3-642-10637-8.
• Basset, A., Pinna, M. & Renzi, M. (2017): Do Mining Activities Significantly Affect Feeding Behavior of Freshwater Benthic Macroinvertebrates? A Case Study in South Sardinia (Italy). – Mine Water Environ., 36(2):239–247, doi:10.1007/s10230-017-0432-x.
• Bässler, R. (1970): Hydrogeologische, chemische und Isotopen-Untersuchungen der Grubenwässer des Ibbenbürener Steinkohlenreviers. – Z. dt. geol. Ges., 122 – Sonderh. Hydrogeol. Hydrogeochem.:209–286, 28 Abb., 1 Tab.; doi:10.1127/zdgg/120/1970/209.
• Basu, A., Boyd, M. J. & McConchie, P. (1988): Numerical Modelling of two Phase Flow of Gas and Water during Drainage of a Coal Seam. – Int. J. Mine Water, 7(4):27–42, 8 Abb., 1 Tab.
• Basu, A. & Singh, R. N. (1994): Comparison of Darcy’s Law and Fick’s Law of Diffusion to Determine the Field Parameters Related to Methane Gas Drainage in Coal Seams. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:59–70, 11 Abb., 1 Tab.
• Batang, Z. B., Alikunhi, N., Gochfeld, M., Burger, J., Al-Jahdali, R., Al-Jahdali, H., Aziz, M. A. M., Al-Jebreen, D. & Al-Suwailem, A. (2016): Congener-specific levels and patterns of polychlorinated biphenyls in edible fish tissue from the central Red Sea coast of Saudi Arabia. – Sci. Total Environ., 572:915–925, doi:10.1016/j.scitotenv.2016.07.207.
• Bates, M. H., Veenstra, J. N., Barber, J., Bernard, R., Karleskint, J., Khan, P., Pakanti, R. & Tate, M. (1990): Physical-chemical treatment of acid-mine water from a superfund site. – J. Environ. Sys., 19(3):237–263, doi:10.2190/91VQ-HN0E-M2BJ-58UP.
• Batisteli, G. M. B. & Peres, A. E. C. (2008): Residual amine in iron ore flotation. – Miner. Eng., 21(12-14):873–876, doi:10.1016/j.mineng.2008.04.002.
• Batley, G. E. (2012): “Heavy metal” – a useful term. – Integr. Environ. Assess. Manag., 8(2):215, doi:10.1002/ieam.1290.
• Battaglia-Brunet, F., Crouzet, C. & Morin, D. (2009): Bio-Stabilization of Arsenic in Solid Wastes Obtained by Lime Treatment of Bioleaching Liquors. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 366–370, 1 Abb., 4 Tab; Pretoria (Document Transformation Technologies).
• Battaglia-Brunet, F., Jacob, J., Dure, F., Huron, J. & Gatellier, G. (2023): Passive Treatment Of Mine Seepage With High Arsenic Concentrations. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 51–56; (International Mine Water Association).
• Battaglia-Brunet, F., Morin, D., Coulon, S., Burnol, A., Scheinost, A. C. & Joulian, C. (2009): Bioprecipitation of Arsenic Sulphide at Low pH. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 580–587, 4 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Batterham, R. J. (2013): The Impact of the Bologna Model on Mineral Processing Education: Good, Bad or Indifferent. Paper presented at the Minerals Industry – Education and Training, Jamshedpur. – p. 29–36; (The Indian Institute of Mineral Engineers).
• Batterman, S., Chernyak, S., Gouden, Y., Hayes, J., Robins, T. & Chetty, S. (2009): PCBs in air, soil and milk in industrialized and urban areas of KwaZulu-Natal, South Africa. – Environ. Pollut., 157(2):654–663, doi:10.1016/j.envpol.2008.08.015.
• Battiau-Queney, Y. (1996): A tentative classification of paleoweathering formations based on geomorphological criteria. – Geomorphology, 16(1):87–102, 13 Abb.
• Battioui, M., Bouzahzah, H., Benzaazoua, M., Hakkou, R. & Sbaa, M. (2016): Column Kinetic Tests Assessing Geochemical Behavior of Mine Wastes in the Jerada Coal District (Morocco). – Mine Water Environ., 35(4):497–507, doi:10.1007/s10230-016-0395-3.
• Battocletti, L. (1999): Geothermal Resources of Turkey. – Unpubl. Report for Idaho National, E. & Environmental, L. (Report Nr. F99-181039). – p., Alexandria (Bob Lawrence & Associates).
• Batty, L. C. (1999): Metal removal processes in wetlands receiving acid mine drainage. – 254 p., PhD, University of Sheffield; Sheffield.
• Batty, L. C. (2003): Wetland plants – more than just a pretty face? – Land Contam. Reclam., 11(2):173–180, 2 Tab.; doi:10.2462/09670513.812.
• Batty, L. C. (2005): The Potential Importance of Mine Sites for Biodiversity. – Mine Water Environ., 24(2):101–103, doi:10.1007/s10230-005-0076-0.
• Batty, L. C. (2005): Wetland systems associated with mine sites as a source of biodiversity: Mine Water 2005 – Mine Closure. – 525–531 p., 3 Tab.; Oviedo (University of Oviedo).
• Batty, L. C., Baker, A. J. M. & Wheeler, B. D. (2002): Aluminium and phosphate uptake by Phragmites australis: the role of Fe, Mn and Al root plaques. – Ann. Bot., 89(4):443–449, 2 Abb., 2 Tab.
• Batty, L. C. & Hooley, D. (2005): An appraisal of iron and manganese removal at Shilbottle and Whittle wetland sites in Northumberland, UK: Mine Water 2005 – Mine Closure. – 331–337 p., 6 Abb.; Oviedo (University of Oviedo).
• Batty, L. C., Hooley, D. & Younger, P. (2008): Iron and manganese removal in wetland treatment systems: Rates, processes and implications for management. – Sci. Total Environ., 394(1):1–8, doi:10.1016/j.scitotenv.2008.01.002.
• Batty, L. C. & Younger, P. L. (2002): Critical role of macrophytes in achieving low iron concentrations in mine water treatment wetlands. – Environ. Sci. Technol., 36(18):3997–4002, 6 Abb.; doi:10.1021/es020033+.
• Batty, L. C. & Younger, P. L. (2003): Effects of External iron Concentration upon Seedling Growth and Uptake of Fe and Phosphate by the Common Reed, Phragmites Australis (Cav.) Trin Ex. Steude. – Ann. Bot., 92(6):801–806, 2 Abb., 2 Tab.
• Batty, L. C. & Younger, P. L. (2004): The Use of Waste Materials in the Passive Remediation of Mine Water Polution. – Surveys in Geophysics, 25(1):55–67, doi:10.1023/B:GEOP.0000015387.12390.ab.
• Bau, H. H. & Torrance, K. E. (1981): On the stability and flow reversal of an asymmetrically heated open convection loop. – J. Fluid Mech., 109:417–433, 10 Abb., 2 Tab.; doi:10.1017/S0022112081001146.
• Bau, H. H. & Torrance, K. E. (1981): Transient and Steady behavior of an open, symmetrically-heated, free convection loop. – Int. J. Heat Mass Transfer, 24(4):597–609, 15 Abb.; doi:10.1016/0017-9310(81)90004-1.
• Bau, H. H. & Torrance, K. E. (1983): On the effects of viscous dissipation and pressure work in free convection loops. – Int. J. Heat Mass Transfer, 26(5):727–734, 5 Abb., 2 Tab.; doi:10.1016/0017-9310(83)90023-6.
• Bau, M. & Dulski, P. (1996): Anthropogenic origin of positive gadolinium anomalies in river waters. – Earth Planet. Sci. Lett., 143(1-4):245–255, 6 Abb., 4 Tab.
• Baudez, J.-C., Ayol, A. & Coussot, P. (2004): Practical determination of the rheological behavior of pasty biosolids. – J. Environ. Manage., 72:181–188, 11 Abb.; doi:10.1016/j.jenvman.2004.04.011.
• Bauer, G. E. (1978): The control and drainage of water in mine tailings dams. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1125–1137; Maracena (Asociación Nacional de lngenieros de Minas).
• Bauer, G. E. (1982): The electrical Seepage Analogue and its Application in Tailings Dam Design. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:311–322, 4 Abb.
• Bauer, G. E. (1982): The stability of Tailings Structures – Pore Water Pressure Distribution and Monitoring. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:323–333, 5 Abb.
• Bauer, G. E. (1985): The Control of Water in Unlined Mine Shafts and Tunnels. – Proceedings, 2nd International Mine Water Association Congress, 1:277–285, 7 Abb.
• Bauer, G. E. (1985): Migration and containment of leachants from uranium tailing ponds. – Proceedings, 2nd International Mine Water Association Congress, 2:623–632.
• Bauer, H., Smidt, S., Stopper, S., Herman, F. & Puxbaum, H. (2008): Schwermetalleinträge in den Nordtiroler Kalkalpen. – Centralbl. Gesamte Forstwes., 125(2):103–120, 4 Abb., 4 Tab.
• Bauer, J. (1926): Vom oberbayerischen Kohlenbergbau. – Lech-Isar-Land, Organ des Heimatverbandes Lech-Isar-Land e.V., 2(2, 3):24–25, 39–40.
• Bauer, J. K. (1983): Scheelit-Magnesit-Lagerstatte Tux-Lanersbach Nordtirol Österreich – Dokumentation und Bewertung der Lagerstätte hinsichtlich Wolframvererzung. – 40 p., 11 Abb., 8 Anl.; Eisenerz (unveröff. Gutachten Voest Alpine).
• Bauer, J. K. (2010): Closure of an open pit and landfill for excavated earth. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 327–331, Sydney, NS (Cape Breton University Press).
• Bauer, J. K. & Bauer, C. G. (1988): Gold aus dem Zillertal – Bergbau Zell am Ziller 1630 – 1987. – Tiroler Chronist, 32:2–8, 5 Abb.
• Baumann, P. (2004): Die Verwaltung großvolumiger Geo-Rasterdaten in Standard-Datenbanken. – Wiss. Mitt. Inst. Geol., 25:15–22, 9 Abb.
• Baumann, P., Unnithan, V. & Schäfer, A. (2005): Großvolumige Rasterkarten in Open-Source Datenbanken. – Wiss. Mitt. Inst. Geol., 28:99–106, 7 Abb.
• Baumbach, H. (2008): Zur Situation der Schwermetallrasen und ihrer Standorte im östlichen und südöstlichen Harzvorland. – Naturschutz im Land Sachsen-Anhalt, 45(2):3–19, 6 Abb., 3 Tab.
• Baumbach, H., Volkmann, H. K. M. & Wolkersdorfer, Ch. (2007): Schwermetallrasen auf Hüttenstäuben am Weinberg bei Hettstedt-Burgörner (Mansfelder Land) – Ergebnis jahrhundertelanger Kontamination und Herausforderung für den Naturschutz. – Hercynia N.F., 40:87–109, 3 Abb., 6 Tab.
• Baumeister, W. (1955): Beiträge zur Mineralstoffernährung der Pflanzen. – Forschungsberichte des Landes Nordrhein-Westfalen, 137:3–48, doi:10.1007/978-3-663-04446-8.
• Baumert, A. & Verhein-Jarren, A. (2012): Texten für die Technik – Leitfaden für Praxis und Studium. – Heidelberg (Springer); doi:10.1007/978-3-642-13827-0.
• Baumgartl, T., Farioli, A. & Arnold, S. (2015): Integration of Climate Analysis into a Framework for Cover Design. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Bäumle, R. (2003): Geohydraulic Characterisation of Fractured Rock Flow Regimes Regional Studies in Granite (Lindau, Black Forest, Germany) and Dolomite (Tsumeb Aquifers, Northern Namibia). – 129 p., 61 Abb., 17 Tab., 4 Anh.; Karlsruhe (unveröff. Diss. Uni Karlsruhe).
• Bäumle, R., Behrens, H., Einsidl, F., Goldschneider, N., Grust, K., Hötzl, H., Käß, W., Kennedy, K., Kinzelbach, W., Kozel, R., Müller, I., Müller, J., Niehren, S., Rossi, P., Schnegg, P. A., Seiler, K. P., Witthüser, K., Wohnlich, S. & Zojer, H. (2001): Comparative Tracer Studies in Groundwater. – Beitr. Hydrogeol., 52:103–230, 55 Abb., 21 Tab.
• Bayari, C. S., Kazanci, N., Koyuncu, H., Caglar, S. S. & Gokce, D. (1995): Determination of the origin of the waters of Koycegiz Lake, Turkey. – J. Hydrol., 166(1-2):171–191, 9 Abb., 1 Tab.
• Bayari, S. (2002): TRACER: an EXCEL workbook to calculate mean residence time in groundwater by use of tracers CFC-11, CFC-12 and tritium. – Comput. Geosci., 28:621–630, 6 Abb., 3 Tab.
• Bayat, N., Alijani, F. & Nassery, H. (2024): Assessment of Bitumen-Influenced Aquifers in Southwestern Iran Based on Groundwater Geochemistry and Stable Isotopes Characteristics. – Mine Water Environ., 43(2):326–339, doi:10.1007/s10230-024-00983-5.
• Bayel, D. K., Karaca, Z., Onen, V. & Deliormanli, A. H. (2016): The Relationship Between Mineral Content and Flocculant Characteristics for Slurry Waste Water Recycling at Marble Processing Plants. – Mine Water Environ., 35(3):332–336, doi:10.1007/s10230-015-0367-z.
• Bayer. Oberbergamt, G. L. (1936): Franken, Oberpfalz und Schwaben nördlich der Donau: Die nutzbaren Mineralien, Gesteine und Erden Bayerns 2. – 62 Abb., 1 Karte, 25 Bildtaf., 2 Kartentaf.; München (R.Oldenbourg und Piloty & Loehle); doi:10.1515/9783486767674.
• Bayerischer Landtag (1953): Rede des Abgeordneten Piehler vom 29. Mai 1953. – Stenogr. Ber. d. Bayer. Landtags, 146:1465–1470.
• Bayerisches Geologisches Landesamt (1984): Burdigal-Sande. – Nn, 1 Kart.
• Bayerisches Geologisches Landesamt (2004): Ampfinger Sandstein. – Nn, 1 Kart.
• Bayerisches Geologisches Landesamt (2004): Aquitan-Sande. – NN, 1 Kart.
• Bayerisches Geologisches Landesamt (2004): Bausteinschichten. – Nn, 1 Kart.
• Bayerisches Geologisches Landesamt (2004): Buntsandstein. – Nn, 1 Kart.
• Bayerisches Geologisches Landesamt (2004): Chattsande. – Nn, 1 Kart.
• Bayerisches Geologisches Landesamt (2004): Dogger-Sandstein. – Nn, 1 Kart.
• Bayerisches Landesamt für Umwelt und, G. (2007): Hydrogeologische Teilraum | Hydrogeologischer Einheiten – Faltenmolasse. – 1–5; 1–3 p., 3 Abb., 2 Tab.; München (Bayerisches Landesamt für Umwelt und Geologie).
• Bayerisches Staatsministerium für Umwelt und, G. (2012): Intakte Gewässer für Mensch und Natur – Flussbericht Bayern 2012. – 493 p., zahlr. Abb., zahlr. Tab.; München (Bayerisches Staatsministerium für Umwelt und Gesundheit).
• Bayerisches Staatsministerium für Wirtschaft Infrastruktur Verkehr und, T. (2004): Bayerischer Geothermieatlas. – Nn, 23 Abb., 17 Tab.
• Bayless, E. R. & Olyphant, G. A. (1993): Acid-generating salts and their relationship to the chemistry of groundwater and storm runoff at an abandoned mine site in southwestern Indiana, U.S.A. – J. Contam. Hydrol., 12(4):313–328, 6 Abb., 2 Tab.; doi:10.1016/0169-7722(93)90003-B.
• Bayramoglu, M., Kobya, M., Can, O. T. & Sozbir, M. (2004): Operating cost analysis of electrocoagulation of textile dye wastewater. – Sep. Purif. Technol., 37:117–125, 9 Abb., 1 Tab.; doi:10.1016/j.seppur.2003.09.002.
• Bazardorj, S.-E. & Purevsuren, U. (2019): Undai River Diversion Project in Oyu Tolgoi. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 295–296; Perm, Russia (Perm State University).
• Bazargan Sabet, B., Demollin, E. & Van Bergermeer, J.-J. (2008): Geothermal Use of Deep Flooded Mines. Paper presented at the Post-Mining 2008, Nancy, February 6–8. – p. 1–11 [CD–ROM], 8 Abb.
• Bazuhair, A. S. & Wood, W. W. (1996): Chloride mass-balance method for estimating ground water recharge in arid areas; examples from western Saudi Arabia. – J. Hydrol., 186(1-4):153–159.
• Bazzanti, M., Chiavarini, S., Cremisini, C. & Soldati, P. (1997): Distribution of PCB congeners in aquatic ecosystems: A case study. – Environment International, 23(6):799–813, doi:10.1016/S0160-4120(97)00092-5.
• Beadle, J. F., Berger, J., Brady, K. B. C., Dalberto, A. D., Hill, S. A., Hellier, W., Hornberger, R. J., Houtz, N. A., Kania, T., Killian, T. D., Koury, D. J., LaBuz, L., Levitz, K. J., Laslow, K. A., Loop, C., Menghini, M. J., Owen, T., Pounds, W. F., Scheetz, B. E., Schueck, J. H., Stehouwer, R., Strock, G. N., Tarantino, J. M., Walters, S. E., White, W. B. & Williams, D. L. (2007): Coal Ash Beneficial Use in Mine Reclamation and Mine Drainage Remediation in Pennsylvania. – 369 + 379 p., 181 Abb., 65 Tab.; Harrisburg (The Pennsylvania Department of Environmental Protection).
• Beale, G., Syaifullah, T., Saepulloh, D. & Daley, S. (2016): Modelling approach to predict peak inflows at the Argyle block cave mine, Western Australia. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 520–527, Freiberg (TU Bergakademie Freiberg).
• Beall, J. (2017): What I learned from predatory publishers. – Biochem. Med., 27(2):273–278, doi:10.11613/BM.2017.029.
• Bear, J. & Cheng, A. H. D. (2010): Modeling groundwater flow and contaminant transport: Theory and applications of transport in porous media. – 834 p., Dordrecht (Springer); doi:10.1007/978-1-4020-6682-5.
• Bear, J. & Corapcioglu, M. Y. (1984): Fundamentals of Transport Phenomena in Porous Media: NATO advanced science institutes series E82. – 1003 p., Dordrecht (Martinus Nijhoff); doi:10.1007/978-94-009-6175-3.
• Bearcock, J. M., Palumbo-Roe, B., Banks, V. & Klinck, B. (2010): The hydrochemistry of Frongoch mine, mid Wales. – Open Report – British Geological Survey, OR/10/006:36+iv, 17 Abb., 4 Tab.
• Bearcock, J. M. & Perkins, W. T. (2007): The Use of Green Rust to accelerate Precipitation of Ochre for Mine Water Remediation: Water in Mining Environments. – 135–139 p., 3 Abb.; Cagliari (Mako Edizioni).
• Bearcock, J. M., Perkins, W. T., Dinelli, E. & Wade, S. C. (2006): Fe(II)/Fe(III) ‘green rust’ developed within ochreous coal mine drainage sediment in South Wales, UK. – Mineralogical Magazine, 70(6):731–741, doi:10.1180/0026461067060360.
• Bearcock, J. M., Perkins, W. T. & Pearce, N. J. G. (2011): Laboratory studies using naturally occurring “green rust” to aid metal mine water remediation. – Journal of Hazardous Materials, 190(1):466–473, doi:https://doi.org/10.1016/j.jhazmat.2011.03.074.
• Bearth, P. (1932): Die Diabasgänge der Silvretta. – Schweiz. Mineralog. Petrogr. Mitt., 12:147–178, 2 Abb., 3 Tab., 1 Taf.
• Beatson, A. (1816): Tracts relative to the Island of St. Helena written During a Residence of Five Years. – 330 p., 4 Anh.; London (Bulmer and Co.).
• Beattie, D., Bashir, R. & Hatley, J. (2008): Impact of Geotechnical and Hydrogeological Parameters upon Shaft Sinking Performance in the Athabasca Basin Canada. – Proceedings, 10th International Mine Water Association Congress:3–6.
• Bebieva, Y. & Timmermans, M.-L. (2017): The Relationship between Double-Diffusive Intrusions and Staircases in the Arctic Ocean. – J. Phys. Oceanogr., 47(4):867–878, 3 Abb.; doi:10.1175/jpo-d-16-0265.1.
• Bechstädt, T. (1989): Die Blei-Zink-Erze im Wettersteinkalk der Ostalpen – Eine jurassisch-kretazische Vererzung. – Geol. Paläont. Min. Innsbruck, 16:133–134.
• Bechstädt, T. & Mostler, H. (1974): Mikrofazies und Mikrofauna mitteltriadischer Beckensedimente der Nördlichen Kalkalpen Tirols. – Geol. Paläont. Mitt. Innsbruck, 4(5/6):1–74, 4 Abb., 4 Taf., 4 Tab.
• Bechstädt, T. & Mostler, H. (1976): Riff-Becken-Entwicklung in der Mitteltrias der westlichen Nördlichen Kalkalpen. – Z. dt. geol. Ges., 127(1):271–289, 6 Abb.; doi:10.1127/zdgg/127/1976/271.
• Becht, M. (1989): Neue Erkenntnisse zur Entstehung pleistozäner Talverfüllungen. – Eiszeitalter u. Gegenwart, 39(1):1–9, 4 Abb.; doi:10.3285/eg.39.1.01.
• Bechter, D. A. (2009): Petrologische, geochemische und montanarchäologische Untersuchungen der historischen Kupferlagerstätte Bartholomäberg und Silbertal (Montafon, Vorarlberg, Österreich) Und Geochemie und Mineralogie von ausgewählten Silexproben aus den Süd- und Ostalpen und ihre Relevanz für die Herkunftsbestimmung von archäologischem Silex im Alpenraum. – 162 + 65 p., 285 + 35 Abb., 2 + 3 Tab., 1 Anl.; Innsbruck (unveröff. Dipl.-Arb. Univ. Innsbruck).
• Beck (1981): Zwischenbericht „Sulfid-Schwefel”. – 18 p., 10 Abb.; Rottleberode (VEB Schwerspat).
• Beck, H. & Mathar, W. (1985): Analysenverfahren zur Bestimmung von ausgewählten PCB-Einzelkomponenten in Lebensmitteln. – Bundesgesundhbl., 28(1):1–12, 2 Abb., 2. Tab.
• Beck, M. W. (2022): Multi-scale trend analysis of water quality using error metrics and moving windows. – Sci. Total Environ., 808:152159, 8 Abb., 1 Tab.; doi:10.1016/j.scitotenv.2021.152159.
• Becke, M. (1983): Zur Geologie des Mieminger Gebirges. – Geol. Paläont. Mitt. Innsbruck, 12(15):317–340, 9 Abb., 3 Beil.
• Becker, A., Holtz, F. & Johannes, W. (1998): Liquidus temperatures and phase compositions in the system Qz-Ab-Or at 5 kbar and very low water activities. – Contr. Mineral. and Petrol., 130(3-4):213–224, 15 Abb., 6 Tab.
• Becker, A., Krysanova, V., Lahmer, W. & Müller-Wohlfeil, D. I. (1993): Modelling of hydrological and hydrochemical variability under environmental change impact. – Acta Geologica Hispanica, 28(2-3):37–43, 1 Abb.
• Becker, B., Graff, M. & Näveke, R. (1997): Biological Treatment of Overburden from Lignite Opencast Mining in Order to Avoid Seepage of Acid Mine Water. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:283–291, 6 Abb.
• Becker, G. F. & Barus, C. (1882): Geology of the Comstock lode and the Washoe district, with atlas. – 422 p., Washington, DC (Govt. Print. Off.,).
• Becker, H. (1964): Hydrogeologische Beobachtungen beim Abteufen des Warndtschachtes der Saarbergwerke AG – Ein Wassereinbruch im Gefrierschachtteil. – Z. dt. geol. Ges., 116(1):115–130, 13 Abb.; doi:10.1127/zdgg/116/1964/115.
• Becker, H. (2018): Remembering Marikana: public art intervention and the right to the city in Cape Town. – Social Dynamics, 44(3):455–471, doi:10.1080/02533952.2018.1503905.
• Becker, M., Charikinya, E., Ntlhabane, S., Voigt, M., Broadhurst, J., Harrison, S. T. & Bradshaw, D. (2018): An Integrated Mineralogy-based Modelling Framework For The Simultaneous Assessment Of Plant Operational Parameters With Acid Rock Drainage Potential Of Tailings. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 309–314; (Tshwane University of Technology).
• Becker, M. W., Reimus, P. W. & Vilks, P. (1999): Transport and attenuation of carboxylate-modified latex microspheres in fractured rock laboratory and field tracer tests. – Ground Water, 37(3):387–395, 6 Abb., 2 Tab.
• Beckingham, N. (2010): A Phosphate Plant Process Water Treatment System. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 107–111, Sydney, NS (Cape Breton University Press).
• Beckmann, A., Zittwitz, M., Gerhardt, M., Martienssen, M., Geistlinger, H. & Schirmer, M. (2005): Modellgestützte Feedback-Steuerung für modulare in-situ Gaswände. – Wiss. Mitt. Inst. Geol., 28:9–13, 2 Abb.
• Beckmann, M. (2006): Grenzen der Zumutbarkeit der Nachsorgeverantwortung eines Bergwerksunternehmens? – Z. f. Umweltrecht – Das Forum für Umwelt und Recht, 17(6):295–300.
• Beddoes, P., Herrell, M. & Vandenberg, J. (2013): Role of Professional Judgement and Scaling in Interpretation of Water Quality Model Results. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 251–256, 1 Abb., 4 Tab.; Golden (International Mine Water Association).
• Beddoes, P., Herrell, M., Vandenberg, J., Richards, J., Millar, R. & McMahen, K. (2016): Validation of Springer Pit Lake Water Balance and Water Quality Model, Mount Polley Mine, British Columbia, Canada. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 251–260, Freiberg (TU Bergakademie Freiberg).
• Bedoya-Gonzalez, D., Kessler, T., Rinder, T., Hilberg, S., Szabó-Krausz, Z. & Schafmeister, M. T. (2023): A Multiple Interactive Continua Model (MINC) to Simulate Reactive Mass Transport in a Post-Mining Coal Zone: A Case Study of the Ibbenburen Westfield. – Mine Water Environ., 42(2):266–292, doi:10.1007/s10230-023-00938-2.
• Bedoya-Gonzalez, D., Kessler, T. & Schafmeister, M.-T. (2021): Employment Of A Double Continuum Model To Characterize Groundwater Flow In Underground Post-Mining Setups: Case Study Of The Ibbenbüren Westfield. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 47–53; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Beekman, C. S., Weigand, P. C. & Pint, J. J. (1999): Old World Irrigation Technology in a New World Context: Qanats in Spanish Colonial Western Mexico. – Antiquity, 73/279:440–446, 3 Abb.
• Beer, W. (1996): Kalilagerstätten in Deutschland. – Kali Steinsalz, 12(1):18–30, 14 Abb., 5 Tab.
• Begley, I. S. & Scrimgeour, C. M. (1997): High-Precision δ2H and δ18O Measurement for Water and Volatile Organic Compounds by Continuous-Flow Pyrolysis Isotope Ratio Mass Spectrometry. – Anal. Chem., 69:1530–1535, doi:10.1021/ac960935r.
• Behardien, L., Paulse, A., Jackson, V., Khan, S. & Khan, W. (2011): Investigation into the microbial contamination in a spring water distribution system, Western Cape, South Africa. – Afr. J. Microbiol. Res., 5(20):3200–3214, doi:10.5897/AJMR11.183.
• Behbehani, A.-R., Müller, J., Schmidt, R., Schneider, J., Schröder, H.-G., Strackenbrock, I. & Sturm, M. (1986): Sediments and sedimentary history of Lake Attersee (Salzkammergut, Austria). – Hydrobiologia, 143(1):233–246, doi:10.1007/BF00026667.
• Behrens, H. (1982): Verfahren zum qualitativen Nachweis von nebeneinander vorliegenden Fluoreszenztracern. – Beitr. Geol. Schweiz – Hydrol., 28(I):39–50, 9 Abb.
• Behrens, H. (1983): Comparison of Radioactive and Non-Radioactive Tracers: Tracer Methods in Isotope Hydrology IAEA-TECDOC- 291. – 173–185 p., 2 Abb.; Wien (Iaea).
• Behrens, H. (1988): Quantitative Bestimmung von Uranin, Eosin und Pyranin in Gemischen mittels Fluoreszenzmessung bei definierten pH-Werten. – Steir. Beitr. Hydrogeol., 39:117–129, 13 Abb.
• Behrens, H., Beims, U., Dieter, H., Dietze, G., Eikmann, T., Grummt, T., Hanisch, H., Henseling, H., Käß, W., Kerndorff, H., Leibundgut, C., Müller-Wegener, U., Rönnefahrt, I., Scharenberg, B., Schleyer, R., Schloz, W. & Tilkes, F. (2001): Toxicological and ecotoxicological assessment of water tracers. – Hydrogeol. J., 9(3):321–325, 2 Tab.; doi:10.1007/s100400100126.
• Behrens, H. & Teichmann, G. (1982): Neue Ergebnisse über den Lichteinfluss auf Fluoreszenztracer. – Beitr. Geol. Schweiz – Hydrol., 28(I):69–77, 3 Abb., 1 Tab.
• Behrooz, M. (2010): Particle Size Controls Oxidation Rate of Tailings Surface and AMD Production – Hydrologic Characterization of Ore Knob Tailing Pile. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 563–567, Sydney, NS (Cape Breton University Press).
• Behrooz, M. & Borden, R. C. (2010): Controlling Sulfidic Tailings Oxidation with Surface Application of Crude Glycerol – Column Experiments. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 209–213, Sydney, NS (Cape Breton University Press).
• Behrooz, M. & Borden, R. C. (2012): Physical, Hydrologic, and Aqueous Chemical Characterization of the Ore Knob Tailings Pile (Ashe County, North Carolina, USA). – Mine Water Environ., 31(1):3–15, 9 Abb., 3 Tab.; doi:10.1007/s10230-011-0166-0.
• Behrooz, M. & Borden, R. C. (2012): Waste Glycerol Addition to Reduce AMD Production in Unsaturated Mine Tailings. – Mine Water Environ., 31(3):161–171, 9 Abb.; doi:10.1007/s10230-012-0180-x.
• Behum Jr., P. T., Ripley, A. & Wedemeyer, D. (2024): Comparison of Midwestern U.S. conventional and hybrid vertical flow ponds to previous performance data. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 34–42; Morgantown (International Mine Water Association).
• Behum, P. T., Hause, D. R., Stacy, M. A. & Branam, T. D. (2008): Passive Treatment of Acid Mine Drainage – The Enos Reclamation Project, Indiana: Preliminary Results: New Opportunities to Apply Our Science. – 129–147 p., 11 Abb., 4 Tab.; Richmond (Proceedings National Meeting of the American Society of Mining and Reclamation); doi:10.21000/JASMR08010129.
• Bei, X. & China, D. (2004): Chinese Mine Accidents Provide Tragic Lessons. – Mine Water Environ., 23(1):54, doi:10.1007/s10230-004-0036-0.
• Beike, C. (2023): Lohberg – Ein Standort der Grubenwasserhaltung der RAG im Ruhrgebiet – Die Geschichte des Bergwerks Lohberg. – Bergbau, 74(10):453–454, 2 Abb.
• Beike, C. (2023): Wir übernehmen Verantwortung – Trinkwasserschutz Auftrag mit höchster Priorität. – Bergbau, 74(10):455–456, 4 Abb.
• Beining, B. A. & Otte, M. L. (1996): Retention of metals originating from an abandoned lead-zinc mine by a wetland at Glendalough, Co. Wicklow. – Biology and Environment, 96B(2):117–126, 5 Abb., 5 Tab.
• Bejan, D. & Bunce, N. J. (2015): Acid mine drainage: electrochemical approaches to prevention and remediation of acidity and toxic metals. – J. Appl. Electrochem., 45(12):1239–1254, doi:10.1007/s10800-015-0884-2.
• Bekendam, R. F. & Pöttgens, J. J. (1995): Ground movements over the coal mines of southern Limburg, the Netherlands, and their relation to rising mine waters. – IAHS-AISH Publication, 234:3–12, 6 Abb.
• Bekesi, G., Tyler, M., Niejalke, D. & Waterhouse, J. (2013): Improved Regulation of Water Supply for the Olympic Dam Mine, South Australia. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 29–33, 4 Abb.; Golden (International Mine Water Association).
• Bekesi, G., Tyler, M. & Waterhouse, J. (2012): Conclusions from using an active production well for mine drawdown compliance: International Mine Water Association Symposium. – 73–78 p., Bunbury (Edith Cowan University).
• Bekesi, G., Tyler, M. & Waterhouse, J. (2012): Improved calculation of groundwater heads for environmental management in the Great Artesian Basin, Australia: International Mine Water Association Symposium. – 79–84 p., Bunbury (Edith Cowan University).
• Bekesi, G., Tyler, M. & Waterhouse, J. (2012): Lessons from the Use of an Active Production Well for Compliance Monitoring in the Great Artesian Basin, Australia. – Mine Water Environ., 31(3):225–232, 8 Abb.; doi:10.1007/s10230-012-0183-7.
• Bekesi, G., Woods, J., Teubner, M., Keppel, M., Inverarity, K. & Thompson, P. (2025): Opportunities to improve groundwater models for mining assessments in South Australia: learnings from common shortcomings. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 14–20; Braga (International Mine Water Association).
• Bekins, B., Rittmann, B. E. & MacDonald, J. A. (2001): Natural Attenuation Strategy for Groundwater Cleanup Focuses on Demonstrating Cause and Effect. – EOS Trans. Am. Geophys. Union, 82(5):53, 57–58, 3 Abb., 1 Tab.; doi:10.1029/01EO00028.
• Beleites, M. (1988): Pechblende – Der Uranbergbau in der DDR und seine Folgen. – 64 p., Wittenberg (Kirchliches Forschungsheim, Arbeitskreis „Ärzte für den Frieden – Berlin“).
• Beleites, M. (1992): Altlast Wismut – Ausnahmezustand, Umweltkatastrophe und das Sanierungsproblem im deutschen Uranbergbau, 1 edn. – 174 p., Frankfurt (Brandes & Apsel).
• Beless, B., Rifai, H. S. & Rodrigues, D. F. (2014): Efficacy of Carbonaceous Materials for Sorbing Polychlorinated Biphenyls from Aqueous Solution. – Environ. Sci. Technol., 48:10372−10379, doi:10.1021/es502647n.
• Belitz, M. (2015): Milde-Biese-Aland – Quellenkritische Überlegungen zu den Namen eines altmärkischen Flusssystems. – Namenkdl. Inf., 105/106:332–356, 1 Abb.
• Belkin, P. (2019): Transformation of Trace Element Composition of Fresh Natural Waters in the Central Part of Upper Kama Potash Deposit. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 415–418; Perm, Russia (Perm State University).
• Bell, F. G., Bullock, S. E. T., Hälbich, T. F. J. & Lindsay, P. (2001): Environmental impacts associated with an abandoned mine in the Witbank Coalfield, South Africa. – Int. J. Coal Geol., 45(2–3):195–216, doi:10.1016/S0166-5162(00)00033-1.
• Bell, F. G. & Donnelly, L. J. (2006): Mine effluents and acid mine drainage. Mining and its Impact on the Environment. – p. 387–445, 20 Abb., 18 Tab.; Milton Park (Taylor & Francis); doi:10.1201/9781482288230.
• Bell, F. G. & Donnelly, L. J. (2006): Mining and its Impact on the Environment. – Milton Park (Taylor & Francis); doi:10.1201/9781482288230.
• Bell, K. G. (1960): Deposition of Uranium in Salt-Pan Basins. – U.S. Geol. Surv. Prof. Pap., 354-G:161–169, 3 Tab.
• Belladelli, F., Giudice, F. D., Glover, F., Mulloy, E., Muncey, W., Basran, S., Fallara, G., Pozzi, E., Montorsi, F., Salonia, A. & Eisenberg, M. L. (2023): Worldwide Temporal Trends in Penile Length – A Systematic Review and Meta-Analysis. – World J. Mens Health, 41:e31, doi:10.5534/wjmh.220203.
• Bellin, J., Bonson, C. & Jack, A. (2010): The importance of geotechnical characterisation and structural interpretation in predicting fracture flow to mines. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 649–653, Sydney, NS (Cape Breton University Press).
• Bellin, J., Declercq, J., Stewart, M. & Pearson, C. (2023): Integrated Catchment-scale Mine Water Impact Assessment: A Case Study. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 57–62; (International Mine Water Association).
• Bellwald, U. (2004): An wilden Wassern – die Wasserversorgung Petras in der Antike: Gesichter des Orients – 10000 Jahre Kunst und Kultur aus Jordanien. – 153–160 p., 11 Abb.; Mainz (Zabern).
• Belocky, R., Slapansky, P., Ebli, O., Ogorelec, B. & Lobitzer, H. (1999): Die Uran-Anomalie in der Trias-Deckscholle des Gaisberg/Kirchberg in Tirol (Österreich) – Geophysikalische, geochemische und mikrofazielle Untersuchungen. – Abh. Geol. B.-A., 56(2):13–33, 4 Abb., 5 Tab., 6 Taf.
• Beltrami, H., Cheng, L. & Mareschal, J. C. (1997): Simultaneous inversion of borehole temperature data for determination of ground surface temperature history. – Geophys. J. Int., 129(2):311–318, 9 Abb., 4 Tab.
• Beltrami, H. & Mareschal, J.-C. (1993): Ground temperature changes in eastern Canada – borehole tempertaure evidence compared with proxy data. – Terra Nova, 5(1):21–28, 8 Abb., 1 Tab.; doi:10.1111/j.1365-3121.1993.tb00222.x.
• Belyaeva, M. & Deneke, R. (2007): Colonization of acidic mining lakes: Chydorus sphaericus and other Cladocera within a dynamic horizontal pH gradient (pH 3−7) in Lake Senftenberger See (Germany). – Hydrobiologia, 594(1):97–108, doi:10.1007/s10750-007-9082-5.
• Belyakov, V. N. & Linkov, V. M. (2005): Electrochemically-Stimulated Sorption and Sorption-Membrane Methods for Removal of Ionic Impurities from Water. – In: Omelchenko, A., Pivovarov, A. A. & Swindall, W. J. (eds): Modern Tools and Methods of Water Treatment for Improving Living Standards. – p. 115–136, Dordrecht (Springer); doi:10.1007/1-4020-3116-5.
• Ben Abu, N., Mason, P. E., Klein, H., Dubovski, N., Ben Shoshan-Galeczki, Y., Malach, E., Pražienková, V., Maletínská, L., Tempra, C., Chamorro, V. C., Cvačka, J., Behrens, M., Niv, M. Y. & Jungwirth, P. (2021): Sweet taste of heavy water. – Communications Biology, 4(1):440, doi:10.1038/s42003-021-01964-y.
• Ben Ali, H. E., Neculita, C. M., Molson, J. W., Maqsoud, A. & Zagury, G. J. (2018): Performance of Passive Systems for Mine Drainage Treatment at High Salinity and Low Temperature. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 245–251; (Tshwane University of Technology).
• Bench, D. W. (1999): PCBs, Mining, and Water Pollution. Paper presented at the Waste Management (WM) ’99 Conference, Tucson, February 28 – March 4, 1999. – p. 1–13, 4 Abb.
• Bench, D. W. (2000): PCBs, Mining, and Water Pollution. – Eng. Min. J., 201(8):36–38, 1 Abb.
• Bench, D. W. (2003): PCBs, mining and water pollution. – Min. Environ. Manage.:7–9.
• Bench, D. W. (2003): PCBs, Mining, and Water Pollution. Paper presented at the Mine Design, Operations & Closure Conference, Polson. – p. 1–12, 4 Abb.
• Bench, D. W. (2008): Identification, Management, and Proper Disposal of PCB-Containing Electrical Equipment Used in Mines. U.S. Environmental Protection Agency, 11.
• Benda, F., Daffner, F., Ernst, D., Gülden, T., Jost, J., Knauff, M., Kreuzer, B., Müller-Koch, K., Poitner, E., Scheichenzuber, J., Schinhärl, J. & Strobl, C. (2005): Bodeninformationssystem Bayern – BIS-BY. – Fachbericht, 25:1–232, 124 Abb., 14 Tab.
• Bender, M., Bojanowski, N. M., Seehafer, K. & Bunz, U. H. F. (2018): Immobilized Poly(aryleneethynylene) pH Strips Discriminate Different Brands of Cola. – Chem. Eur. J., 24(50):13102–13105, doi:10.1002/chem.201803103.
• Bender, M., Long, D. & Fitch, M. (2010): Oil Sands Mining Water Use and Management. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 31–35, Sydney, NS (Cape Breton University Press).
• Bendler, G. (2010): Plans, Manuscripts, Books: The Library and Mining Archives of the “Montanwerke Brixlegg AG” (Tyrol). – In: Anreiter, P., et al. (eds): Mining in European History and its Impact on Environment and Human Societies. – p. 390–394, 2 Abb.; Innsbruck (Innsbruck University Press).
• Benedek, K. (2025): Management of total system uncertainty in mine water. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 951–955; Braga (International Mine Water Association).
• Benedict, M., Webb, G. B. & Rubin, L. C. (1940): An Empirical Equation for Thermodynamic Properties of Light Hydrocarbons and Their Mixtures I. Methane, Ethane, Propane and n-Butane. – J. Chem. Phys., 8(4):334–345, 5 Abb., 4 Tab.
• Beneke, J. M., Ozayr Munthree, Travys Pillay, Kavesan (2015): The role of package colour in influencing purchase intent of bottled water Implications for SMEs and entrepreneurs. – J. Res. Mark. Entrep., 17(2):165–192, doi:10.1108/jrme-05-2015-0030.
• Benes, P. (2005): Electrophoretic characterization of thorium species in very dilute solutions containing humic acid. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 79–86, Heidelberg (Springer).
• Bengtsson, B., Dickson, W. & Nyberg, P. (1980): Liming Acid Lakes in Sweden. – Ambio, 9(1):34–36, 7 Abb.
• Benguit, A., Tiwari, B., Drogui, P. & Landry, D. (2022): Tertiary treatment of a mixture of composting and landfill leachates using electrochemical processes. – Chemosphere, 292:133379, doi:10.1016/j.chemosphere.2021.133379.
• Benischke, R., Goldscheider, N. & Smart, C. (2007): Tracer techniques. – In: Goldscheider, N. & Drew, D. P. (eds): Methods in Karst Hydrogeology. – p. 147–170, zahlr. Abb., zahlr. Tab.; London (Taylor & Francis); doi:10.1201/9781482266023.
• Benischke, R., Harum, T., Reszler, C., Saccon, P., Ortner, G. & Ruch, C. (2010): Karstentwässerung im Kaisergebirge (Tirol, Österreich) – Abgrenzung hydrographischer Einzugsgebiete durch Kombination hydrogeologischer Untersuchungen mit Isotopenmethoden und hydrologischer Modellierung. – Grundwasser, 15(1):43–57, 5 Abb., 11 Tab.; doi:10.1007/s00767-009-0124-y.
• Benischke, R., Schubert, G. & Zojer, H. (2005): Die Hydrogeologischen Verhältnisse im Höllengebirge, OÖ. – In: Weidinger, J. T. & Spitzbart, I. (eds): Beiträge zur Geologie des Gmundner Bezirks 3. – p. 7–12, 3 Abb., 2 Tab.; Gmunden (Erkudok Institut).
• Beniston, M. (2006): Mountain Weather and Climate: A General Overview and a Focus on Climatic Change in the Alps. – Hydrobiologia, 562(1):3–16, doi:10.1007/s10750-005-1802-0.
• Benkovics, I., Csicsák, J., Csövári, M., Lendvai, Z. & Molnár, J. (1997): Mine Water Treatment – Anion-exchange and Membrane Process. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:149–157, 6 Abb., 2 Tab.
• Benlahcen, A., Rouleau, A., Carignan, J. & Archambault, G. (1999): A Study of the Chimio-Hydro-Mechanical Processes in the Rock Mass at a Mine in Abitibi, Québec, Canada: Preliminary Results. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 513–517, 6 Abb.; Sevilla (International Mine Water Association).
• Benner, S. G., Blowes, D. W. & Ptacek, C. J. (1997): A full-scale porous reactive wall for prevention of acid mine drainage. – Ground Water Monit. Remediat., 17:99–107, 5 Abb., 1 Tab.
• Benner, S. G., Blowes, D. W., Ptacek, C. J. & Mayer, K. U. (2002): Rates of sulfate reduction and metal sulfide precipitation in a permeable reactive barrier. – Appl. Geochem., 17(3):301–320, 18 Abb., 2 Tab.; doi:10.1016/S0883-2927(01)00084-1.
• Benner, S. G., Smart, E. W. & Moore, J. N. (1995): Metal Behavior during Surface-Groundwater Interaction, Silver Bow Creek, Montana. – Environ. Sci. Technol., 29(7):1789–1795, doi:10.1021/es00007a015.
• Bennett, J. C. & Tributsch, H. (1978): Bacterial Leaching Patterns on Pyrite Crystal Surfaces. – J. Bacteriol., 134(1):310–317, 3 Abb.
• Benning, J. L. & Barnes, D. L. (2009): The effects of scale and spatial heterogeneities on diffusion in volcanic breccias and basalts: Amchitka Island, Alaska. – J. Contam. Hydrol., 106(3):150–165, doi:10.1016/j.jconhyd.2009.02.005.
• Benson, L., Burdett, J., Lund, S., Kashgarian, M. & Mensingk, S. (1997): Nearly synchronous climate change in the Northern Hemisphere during the last glacial termination. – Nature, 388:263–265, 3 Abb.
• Benson, S., Dorchak, T., Jacobs, G., Ekmann, J., Bishop, J. & Grahame, T. (2000): Carbon Dioxide Reuse and Sequestration: The State of the Art Today: Energy 2000: State of the art. – 205–226 p., L’Aquila (Balaban).
• Benthaus, F. C., Totsche, O. & Luckner, L. (2020): In-lake Neutralization of East German Lignite Pit Lakes: Technical History and New Approaches from LMBV. – Mine Water Environ., 39(3):603–617, doi:10.1007/s10230-020-00707-5.
• Benthaus, F.-C. & Lucke, B. (2013): Innovative Mine Water Treatments in Post-Mining-Areas of Germany. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 919–924, 5 Abb.; Golden (International Mine Water Association).
• Benthaus, F.-C. & Nitsche, C. (2005): Wiederherstellung des Wasserhaushaltes in den vom Braunkohlenbergbau beeinflussten Gebieten Mitteldeutschlands und der Lausitz. – Wiss. Mitt. Inst. Geol., 28:15–19, 4 Abb.
• Benthaus, F.-C., Totsche, O. & Radigk, S. (2015): Der Grundwasserwiederanstieg in den bergbaubeeinflussten Gebieten des Braunkohlenbergbaus und Konzepte zur Minderung der Auswirkungen. – In: Paul, M. (ed) Sanierte Bergbaustandorte im Spannungsfeld zwischen Nachsorge und Nachnutzung – WISSYM 2015. – p. 151–160, 8 Abb.; Chemnitz (Wismut GmbH).
• Benthaus, F.-C. & Uhlmann, W. (2006): Die chemische Behandlung saurer Tagebauseen in der Lausitz – Erfahrungen zur Kalkschlammresuspension im Tagebausee Koschen. – Wiss. Mitt. Inst. Geol., 31:85–96, 9 Abb., 5 Tab.
• Benthaus, F.-C., Uhlmann, W. & Totsche, O. (2015): Investigation and Strategy on Iron Removal from Water Courses in Mining Induced Areas. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Benvenuti, M., Mascaro, I., Corsini, F., Lattanzi, P., Parrini, P. & Tanelli, G. (1997): Mine waste dumps and heavy metal pollution in abandoned mining district of Boccheggiano (southern Tuscany, Italy). – Environ. Geol., 30(3-4):238–243, 2 Abb., 3 Tab.
• Benyassine, E. M., Lachhab, A., Dekayir, A., Parisot, J. C. & Rouai, M. (2017): An Application of Electrical Resistivity Tomography to Investigate Heavy Metals Pathways. – J. Environ. Eng. Geophys., 22(4):315–324, doi:10.2113/jeeg22.4.315.
• Benyo, S. L. (2025): Acid Mine Drainage-Background and Solutions-Global Edition. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 377–382; Braga (International Mine Water Association).
• Benz, S. A., Bayer, P. & Blum, P. (2017): Global patterns of shallow groundwater temperatures. – Environ. Res. Lett., 12(3):034005, doi:10.1088/1748-9326/aa5fb0.
• Benzaazoua, M., Bussière, B., Dagenais, A. M. & Archambault, M. (2004): Kinetic Tests Comparison and Interpretation for Prediction of the Joutel Tailings acid Generation Potential. – Environ. Geol., 46(8):1086–1101.
• Benzaazoua, M. & Taha, Y. (2020): Towards a Sustainable Management of Mine Wastes. – 227 p.
• Berezin, M. Y. & Achilefu, S. (2010): Fluorescence lifetime measurements and biological imaging. – Chem Rev, 110(5):2641–84, doi:10.1021/cr900343z.
• Berezina, O. A., Maksimovich, N. G. & Pyankov, S. V. (2018): Hydroecological characteristic of coal-mining regions with crucial anthropogenic load (in the case study of the Yaiva river basin). – IOP Conf. Ser. Earth Environ. Sci., 107 doi:10.1088/1755-1315/107/1/012001.
• Berezowsky, M. (1996): Constructed Wetlands for Remediation of Urban Waste Waters. – Geosci. Can., 22(3):129–141, 8 Abb., 5 Tab.
• Berg, G. (1913): Beiträge zur Geologie von Niederschlesien mit besonderer Berücksichtigung der Erzlagerstätten. – Abh. Königl. Preuss. Geol. L.-A., 74:1–73, 1 Taf., 2 Anl.
• Berg, G. (1913): Die Erzlagerstätten der nördlichen Sudeten. – In: Allgemeiner Deutscher Bergmannstag (ed) Der Bergbau im Osten des Königreichs Preußen – Festschrift zum XII. Allgemeinen Deutschen Bergmannstag in Breslau. – p. 1–47, 1 Kart.; Kattowitz (Selbstverl. des Oberschlesischen Berg- und Hüttenmännischen Vereins).
• Berg, G. (1913): Die Erzlagerstätten der nördlichen Sudeten. – Abh. Königl. Preuss. Geol. L.-A., 74:27–73, 1 Taf.
• Berg, M., Tran, H. C., Nguyen, T. C., Pham, H. V., Schertenleib, R. & Giger, W. (2001): Arsenic Contamination of Groundwater and Drinking Water in Vietnam: A Human Health Threat. – Environ. Sci. Technol., 35(13):2621–2626, 4 Abb., 2 Tab.
• Berg, W., Čenčur Curk, B., Feichtinger, F., Nützmann, G., Papesch, W., Rajner, V., Rank, D., Schneider, S., Seiler, K. P., Steiner, K. H., Stenitzer, E., Stichler, W., Trcek, B., Vargay, Z., Veselič, M. & Zojer, H. (2001): Tracers in the Unsaturated Zone. – Beitr. Hydrogeol., 52:7–102, zahlr. Abb., zahlr. Tab.
• Bergant, A., Simpson, A. R. & Sijamhodzic, E. (1991): Water Hammer Analysis of Pumping Systems for Control of Water in Underground Mines. – Proceedings, 4th International Mine Water Association Congress, 2:9–20, 4 Abb., 1 Tab.
• Bergaya, F. & Lagaly, G. (2013): Handbook of Clay Science: Developments in Clay Science 5, 2nd edn. – 1752 p., Amsterdam (Elsevier).
• Berger, L. R. & Hilton-Barber, B. (2006): A guide to Sterkfontein and the cradle of humankind – (Struik Nature).
• Bergerhoff-Wodopia, B. & Kalthoff, M. (2016): Ewigkeit ist eine Menge Zukunft – Die Aufgaben der RAG-Stiftung. – Veröff. Dt. Bergbau-Mus. Bochum, 217:137–142.
• Bergmaier, P. (1964): Das ehemalige Kohlenbergwerk Au bei Aibling. – Der Mangfallgau, 9:111–121.
• Bergmann, H., Voigt, K.-D., Machelett, B. & Gramss, G. (2005): Variation in heavy metal uptake by crop plants. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 459–468, Heidelberg (Springer).
• Bergmann, J. (1844): Untersuchungen über die freyen Walliser oder Walser in Graubünden und Vorarlberg – Mit einigen diese Gebiete betreffenden historischen Erläuterungen. – 108 p., Wien (Gerold).
• Bergmann, J. (1846): Ueber den Bergsegen und die Bergleute Tirol’s, und die Münze von Hall vom J. 1450 bis 1809. – Jahrbücher der Literatur – Anzeigeblatt für Wissenschaft und Kunst, 113(CXIII):16–29.
• Bergmann, J. (1853): Beiträge zu einer kritischen Geschichte Vorarlbergs und der angrenzenden Gebiete, besonders in der ältesten und älteren Zeit. – Denkschriften der Kaiserl. Akademie der Wissenschaften Phil.-Hist. Classe, 4:35–218, 1 Taf.
• Bergwerk Ibbenbüren (2003): Grubenwasserbehandlung in der Kläranlage Gravenhorst. Ibbenbüren, 11.
• Berkes, M. B. (2024): Stream restoration solutions for challenging environments. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 43–49; Morgantown (International Mine Water Association).
• Berkner, A., Altermann, M., Bauer, R., Beha, A., Bellmann, A., Bellmann, H.-J., Besch-Frotscher, W., Bräutigam, C., Burkhardt, D., Dyck, A., Eißmann, L., Günther, A., Haferkorn, B., Hauschild, B., Kabisch, S., Kappler, J., Kauschke, H., Klaus, D., Kronbügel, J., Krug, H., Lehmann, R., Meschke, B., Pester, L., Rode, K.-D., Rüffert, H., Schade, M., Schubert, L., Standke, G., Stäuble, H., Thomasius, H., Tienz, B.-S., Tschetschorke, T., Vogler, E., Vogler, F., Wünsche, M., Zehne, E., Zichel, J. & Zippenfennig, E. (2004): Der Braunkohlenbergbau im Südraum Leipzig. – Bergbau in Sachsen, 11:362.
• Berkner, A. & Thieme, T. (2005): Braunkohlenplanung, Bergbaufolgelandschaften, Wasserhaushaltssanierung: Analysen und Fallbeispiele aus dem Rheinischen, Mitteldeutschen und Lausitzer Revier: Arbeitsmaterial 323. – 186 p., Hannover (Verl. d. ARL).
• Berkün, B. & Voigt, R. (1982): Groundwater problems and dewatering systems for the Elbistan open pit lignite mine, Elbistan, Turkey. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, ABCD Supplementary volume:88–100, 4 Abb.
• Bermúdez, A., Delgado, J. L., García-García, L. M. & Quintela, P. (2007): A three Layer Model to estimate Pit Lake Water Quality: Water in Mining Environments. – 141–145 p., 3 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Bern, C. R., Campbell, K. M., Walton-Day, K. & Van Gosen, B. S. (2022): Laboratory Simulation of Groundwater Along Uranium-Mining-Affected Flow Paths Near the Grand Canyon, Arizona, USA. – Mine Water Environ., 41(2):370–386, doi:10.1007/s10230-022-00872-9.
• Bern, C. R., Engle, M. A., Boehlke, A. R. & Zupancic, J. W. (2013): Low Salinity Hydrocarbon Water Disposal Through Deep Subsurface Drip Irrigation: Leaching of Native Selenium. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1187–1192, 5 Abb., 1 Tab.; Golden (International Mine Water Association).
• Bernal, J. D. & Fowler, R. H. (1933): A Theory of Water and Ionic Solution, with Particular Reference to Hydrogen and Hydroxyl Ions. – J. Chem. Phys., 1(8):515–548, 15 Abb., 8 Tab.; doi:10.1063/1.1749327.
• Bernardez, L. A., de Andrade Lima, L. R. P., Ramos, C. L. S. & Almeida, P. F. (2012): A Kinetic Analysis of Microbial Sulfate Reduction in an Upflow Packed-Bed Anaerobic Bioreactor. – Mine Water Environ., 31(1):62–68, 7 Abb., 1 Tab.; doi:10.1007/s10230-012-0170-z.
• Bernasconi, C. & Betlem, G. (2003): Licences, liability and cross-border pollution. – Environ. Liability, 3:83–88.
• Bernasconi, R., Lund, M. & Blanchette, M. (2025): Floating islands as a tool to promote aquatic and terrestrial biodiversity in pit lakes. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 585–591; Braga (International Mine Water Association).
• Berner, R. A. (1972): Sulfate reduction, pyrite formation, and the oceanic sulfur budget. Paper presented at the The Changing Chemistry of the Oceans – Nobel Symposium 20, Aspenäsgarden. – p. 347–361; (Almquist and Wiksell).
• Berner, R. A. (1978): Rate control of mineral dissolution under Earth surface conditions. – Am. J. Sci., 278(9):1235–1252, doi:10.2475/ajs.278.9.1235.
• Berner, R. A. (1980): Early Diagenesis – A Theoretical Approach: Princeton Series in Geochemistry. – 241 p., Princeton (Princeton University Press); doi:10.2307/j.ctvx8b6p2 .
• Berner, R. A. (1984): Sedimentary pyrite formation: An update. – Geochim. Cosmochim. Acta, 48(4):605–615, doi:10.1016/0016-7037(84)90089-9.
• Berner, R. A. (1985): Sulphate reduction, organic matter decomposition and pyrite formation. – Phil. Trans. R. Soc. Lond. A, 315(1531):25–38, doi:10.1098/rsta.1985.0027.
• Bernhard, S., Daniele, B., Toni, D., Ronald, K., Imré, M., Henning, R. J. & Ueli, S. (2002): Einsatz künstlicher Tracer in der Hydrogeologie – Praxishilfe. – Berichte des BWG, Serie Geologie, 3:1–75, 12 Abb., 15 Tab.
• Bernier, L. R. (2005): The Potential use of Serpentinite in the Passive Treatment of acid mine Drainage: Batch Experiments. – Environ. Geol., 47(5):670–684.
• Bernstein, G. (1999): Liposuction of the thigh. – Dermatol. Clin., 17(4):849–863, 13 Abb.; doi:10.1016/s0733-8635(05)70133-9.
• Bernstein, J. (2007): Plutonium – A history of the world’s most dangerous element. – 194 p., 14 Plates; Washington (Joseph Henry Press).
• Berry, K. (1999): Operational and environmental Water Problems at Mariners Underground Nickel Mine, Kambalda, Western Australia. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 197–200, 4 Abb.; Sevilla (International Mine Water Association).
• Berry, K. A. (1997): Water Supply and Dewatering at WMC Resources LTD Western Australian Mines. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:175–183, 6 Abb.
• Berry, K. A. & Armstrong, D. (1997): Olympic Dam Project Water Supply – Environmental Constraint. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:261–271, 5 Abb.
• Berry, R. F. (1989): The history of movement on the Henty fault zone, western Tasmania; an analysis of fault striations. – Aust. J. Earth Sci., 36(2):189–205, Refs: 36; illus. incl. 1 table, sects., geol. sketch maps; doi:10.1080/08120098908729481.
• Bertachini, A. C., Girodo, A. C., Grandchamp, C. & Sousa, K. (1999): Dewatering of the Pico de Itabirito Iron Mine: an environmental Reclamation Case Study. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 339–345, 9 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Berthod, A. (2009): So What? or Required Content of a Review Article. – Sep. Purif. Rev., 38(3):203–206, doi:10.1080/15422110903095110.
• Berthold, S. (2009): Geophysikalischer Nachweis freier Konvektion in Grundwassermessstellen und Bohrungen. – Proceedings des Dresdner Grundwasserforschungszentrums e.V., 39:1–230.
• Berthold, S. (2010): Synthetic Convection Log — Characterization of vertical transport processes in fluid-filled boreholes. – J. Appl. Geophys., 72(1):20–27, 6 Abb.; doi:10.1016/j.jappgeo.2010.06.007.
• Berthold, S. (2012): Unerwünschte Strömungen in Grundwassermessstellen – Detektion und Vermeidung bei Monitoring und Probenahme. – Wasser und Abfall, 14(5):43–48.
• Berthold, S. & Börner, F. (2008): Detection of free vertical convection and double-diffusion in groundwater monitoring wells with geophysical borehole measurements. – Environ. Geol., 54:1547–1566, 21 Abb., 5 Tab.; doi:10.1007/s00254-007-0936-y.
• Berthold, S. & Resagk, C. (2012): Investigation of thermal convection in water columns using particle image velocimetry. – Exp. Fluids, 52(6):1465–1474, doi:10.1007/s00348-012-1267-7.
• Berthold, S. & Richter, K. (2011): Kombiniertes Probenahme- und Monitoringsystem. – wwt wasserwirtschaft wassertechnik, 2011(4):17–22.
• Bertle, H. (1992): Angewandte Geologie in Vorarlberg auf Grundlage der Landesaufnahme – Rückblick und Einfluß von R. Oberhauser. – Jb. Geol. B.-A., 135(4):791–808, 22 Abb.
• Bertle, R. J., Bertle, H., Bertle, K. & Pfeifer, K. (2024): Interessante Radiokarbon-Datierungen aus der geologischen Praxis in Westösterreich. Paper presented at the Geoforum Umhausen, Umhausen. – p. 106–114, 7 Abb., 1 Tab.
• Bertolino, S. M., Veloso, T. C. & Leao, V. A. (2011): Performance of a lactate-fed UASB reactor treating sulfate containing waters: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 277–280 p., Aachen (RWTH Aachen University).
• Bertram, M. & zur Linde, L. (2006): Das „Hori-Well-Verfahren“. – UmweltBau, 5(11):24–26.
• Bertrand, G., Celle-Jeanton, H., Huneau, F., Loock, S. & Renac, C. (2010): Identification of different groundwater flowpaths within volcanic aquifers using natural tracers for the evaluation of the influence of lava flows morphology (Argnat basin, Chaîne des Puys, France). – J. Hydrology, 391(3-4):223–234, doi:10.1016/j.jhydrol.2010.07.021.
• Bertrand, S. (1997): Performance of a nanofiltration plant on hard and highly sulphated water during two years of operation. – Desalination, 113(2-3):277–281, 3 Abb., 2 Tab.; doi:10.1016/S0011-9164(97)00141-0.
• Bertrand, V., Cole, J. & Robert, S. (2015): Meliadine Gold Project – Investigation of the Buffering Capacity of Waste Rock. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Besenicar, J. (1991): Application of Digital Geoinformation System to the Environmental Control of Mine Waters Within a Coal Mining Area. – Proceedings, 4th International Mine Water Association Congress, 2:231–241, 4 Abb.
• Besler, W. (1959): Die Jura-Fleckenmergel des Tannheimer Tales (Außerfern, Tirol). – Jb. Geol. B.-A., 102(3):407–460, 2 Abb., 1 Tab., 1 Taf.
• Besler, W. (2000): Überlegungen zum Namen „Fern“, Fernpaß. – Tiroler Heimatbl., 75:138–142.
• Besser, J. M., Brumbaugh, W. G., Allert, A. L., Poulton, B. C., Schmitt, C. J. & Ingersoll, C. G. (2009): Ecological impacts of lead mining on Ozark streams: Toxicity of sediment and pore water. – Ecotoxicol. Environ. Saf., 72:516–526, 5 Abb., 6 Tab.; doi:10.1016/j.ecoenv.2008.05.013.
• Besser, J. M., Brumbaugh, W. G. & Ingersoll, C. G. (2015): Characterizing toxicity of metal-contaminated sediments from mining areas. – Appl. Geochem., 57:73–84, doi:10.1016/j.apgeochem.2014.05.021.
• Bessho, M., Marković, R., Apostolovski-Trujic, T., Bozic, D., Masuda, N. & Stevanović, Z. (2017): Removal of Dissolved Metals from Acid Wastewater Using Organic Polymer hydrogels. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1080–1086, Lappeenranta (Lappeenranta University of Technology).
• Bessho, M., Markovic, R., Trujic, T. A., Masuda, N., Bozic, D. & Stevanovic, Z. (2019): Recovery of Metals from Acid Mine Drainage Using Organic Polymer. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 155–160; Perm, Russia (Perm State University).
• Bessler, F. T., Savic, D. A. & Walters, G. A. (2003): Water Reservoir Control with Data Mining. – J. Water Resour. Plan. Manage.-ASCE, 129(1):26–34, 8 Abb., 4 Tab.
• Best, G. A. & Aikman, D. I. (1983): The Treatment of Ferruginous Ground Water from an Abandoned Colliery. – Wat. Pollut. Control, 82(4):557–566, 6 Abb., 13 Tab.
• Bester, J. A. & Ball, A. (1993): The Performance of Aluminum-Alloys and Particulate Reinforced Aluminum Metal Matrix Composites in Erosive Corrosive Slurry Environments. – Wear, 162:57–63, doi:10.1016/0043-1648(93)90484-4.
• Bethke, C. M. (1986): Hydrologic Constraints on the Genesis of the Upper Mississippi Valley Mineral District from Illinois Basin Brines. – Econ. Geol., 81(2):233– 249, doi:10.2113/gsecongeo.81.2.233.
• Bethke, C. M. (2008): Geochemical and Biogeochemical Reaction Modeling, 2nd edn. – 564 p., New York (Cambridge University Press).
• Bethwell, C. & Mutz, M. (2005): Effect of acid mine drainage on the chemical composition and fall velocity of fine organic particles. – Ecol. Eng., 24(1-2):75–87, 8 Abb., 4 Tab.; doi:10.1016/j.ecoleng.2004.12.009.
• Betrie, G. D., Sadiq, R., Morin, K. A. & Tesfamariam, S. (2013): A Multicriteria Decision Analysis Approach for Selection of Remedial Alternatives at Mine Sites. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. A6.3–A6.8, 2 Abb., 1 Tab.; Golden (International Mine Water Association).
• Betrie, G. D., Sadiq, R., Tesfamariam, S. & Morin, K. A. (2016): On the Issue of Incomplete and Missing Water-Quality Data in Mine Site Databases: Comparing Three Imputation Methods. – Mine Water Environ., 35(1):3–9, doi:10.1007/s10230-014-0322-4.
• Betrie, G. D., Tesfamariam, S., Morin, K. A. & Sadiq, R. (2013): Predicting copper concentrations in acid mine drainage: a comparative analysis of five machine learning techniques. – Environ. Monit. Assess., 185(5):4171–82, doi:10.1007/s10661-012-2859-7.
• Bettoni, L. N. & Herbert, R. (2024): Sulfate removal from mine drainage at low temperature: effects of three reactive porous media on microbial sulfate reduction. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 50–56; Morgantown (International Mine Water Association).
• Bettoni, L. N. & Herbert, R. (2025): Influence of reactive media on microbial sulfate reduction at two distinct temperatures. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 90–96; Braga (International Mine Water Association).
• Beuge, P., Kluge, A. & Degner, T. (2001): Prognose geochemischer Auswirkungen der Nachnutzung stillgelegter Bergbau Stollnsysteme – Abschlußbericht über ein Forschungsprojekt gefördert unter dem Az: 15339 von der Deutschen Bundesstiftung Umwelt. – 88 p., 25 Abb., 24 Tab., 6 Anl.; Freiberg (TU Bergakademie Freiberg).
• Beuge, P., Wolf, D., Klemm, W., Kolitsch, S. & Junghans, M. (2002): Schwermetalltransport, Mineralisation und Sorptionspotentaile im tektonischen Inventar und in bergmännischen Hohlräumen der sulfidischen Polymetall-Ganglagerstätte Freiberg/Sachsen: Abschlussbericht an die DFG für den Zeitraum 1. Oktober 2000 bis 30. November 2002 zum Projekt II C6 – BE 1840/1. – 22 p., 1 Tab.; Freiberg.
• Beukes, N. J., Swindell, E. P. W. & Wabo, H. (2016): Manganese Deposits of Africa. – Episodes, 39(2):285–317, doi:10.18814/epiiugs/2016/v39i2/95779.
• Beust, C. F. v. (1873): Das Metall-, Berg- und Hüttenwesen, ausschliesslich des Eisens. – In: Schauenstein, A. (ed) Denkbuch des österreichischen Berg- und Hüttenwesens aus Anlass der Wiener Weltausstellung. – p. 120–167, Wien (k. k. Ackerbauministerium).
• Beust, F. C. v. (1870): Ueber das Vorkommen der Blei- und Zinkerze in den nördlichen Alpen und insbesondere in den Umgebungen von Salzburg. – Österr. Z. f. Berg- u. Hüttenwesen, 18(46):347–349.
• Beust, F. C. v. (1871): Ueber das Blei- und Zinkerzvorkommen im Oberinnthale. – Österr. Z. f. Berg- u. Hüttenwesen, 19(15):113–115.
• Beyer, K. (1996): Ohne Frauen ging nichts – Weibliche Beschäftigte im sächsischen Wismut-Bergbau. – Der Anschnitt, 48(4):148–149.
• Bezkorowajny, A., Czop, M., Stochel, B. & Worsa-Kozak, M. (2013): Hydrogeochemistry of the Mine Water from “Bochnia” Salt Mine (Kraków Region, South Poland). – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 257–262, 5 Abb., 1 Tab.; Golden (International Mine Water Association).
• Bezuidenhout, J. & le Roux, R. (2024): Investigating the relationships between radon and the geology of the Sterkfontein cave. – Journal of Applied Geophysics, 230 doi:10.1016/j.jappgeo.2024.105522.
• Bezuidenhout, N., Brown, A., Sutherland, F., Wates, J., Kotze, A., Nussey, G. & van Niekerk, J. (2003): Advances made in mine water management at Sasol Mining during the past eight years. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 423–431, 2 Abb.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Bezuidenhout, N., Verburg, R., Chatwin, T. & Ferguson, K. (2009): INAP’s Global Acid Rock Drainage Guide and the Current State of Acid Rock Drainage Assessment & Management in South Africa. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 29–37, 1 Abb; Pretoria (Document Transformation Technologies).
• Bezuidenhout, Y. (2009): Implementing an Efficient Mine Water Monitoring and Management Program: Key Considerations. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 958–966, 5 Abb; Pretoria (Document Transformation Technologies).
• Bhattacharya, J., Islam, M. & Cheong, Y. W. (2006): Microbial Growth and Action: Implications for Passive Bioremediation of Acid Mine Drainage. – Mine Water Environ., 25(4):233–240, 2 Abb., 1 Tab.; doi:10.1007/s10230-006-0138-y.
• Bhattacharya, J., Ji, S., Lee, H., Cheong, Y., Yim, G., Min, J. & Choi, Y. (2008): Treatment of acidic coal mine drainage: design and operational challenges of successive alkalinity producing systems. – Mine Water Environ., 27(1):12–19, 5 Abb., 2 Tab.; doi:10.1007/s10230-007-0022-4.
• Bhattacharya, J., Yim, G. J., Sang, W. J., Lee, H. S. & Cheong, Y. W. (2007): SAPS’ influent and effluent geochemical Parameters related to AMD Pollution Control: a Case Study: Water in Mining Environments. – 403–407 p., 5 Abb., 2 Tab.; Cagliari (Mako Edizioni).
• Bhattacharyya, K. G. & Gupta, S. S. (2008): Adsorption of a few heavy metals on natural and modified kaolinite and montmorillonite: A review. – Advances in Colloid and Interface Science, 140(2):114–131, 9 Abb., 18 Tab.; doi:10.1016/j.cis.2007.12.008.
• Bhatti, M. S., Reddy, A. S., Kalia, R. K. & Thukral, A. K. (2011): Modeling and optimization of voltage and treatment time for electrocoagulation removal of hexavalent chromium. – Desalination, 269(1-3):157–162, 5 Abb., 8 Tab.; doi:10.1016/j.desal.2010.10.055.
• Biagini, B., Mack, B., Pascal, P., Davis, T. A. & Cappelle, M. (2012): Zero Discharge Desalination Technology – Achieving Maximum Water Recovery: International Mine Water Association Symposium. – 577–584 p., 2 Abb., 4 Tab.; Bunbury (Edith Cowan University).
• Bice, S. (2016): Responsible Mining – Key Principles for Industry Integrity. – 202 p., London (Routledge); doi:10.4324/9781315765679 .
• Bice, S. (2017): Corporate Social Responsibility as Institution: A Social Mechanisms Framework. – J. Bus. Ethics, 143(1):17–34, doi:10.1007/s10551-015-2791-1.
• Bice, S., Brueckner, M. & Pforr, C. (2017): Putting social license to operate on the map: A social, actuarial and political risk and licensing model (SAP Model). – Resour. Policy, 53:46–55, doi:10.1016/j.resourpol.2017.05.011.
• Bichlmeier, H. (2015): Ein neuer Blick auf die ältesten Orts- und Gewässernamen in (Mittel-)Europa. – Namenkdl. Inf., 105/106:299–331.
• Bickert, T., Pätzold, J., Samtleben, C. & Munnecke, A. (1997): Paleoenvironmental changes in the Silurian indicated by stable isotopes in brachiopod shells from Gotland, Sweden. – Geochim. Cosmochim. Acta, 61(13):2717–2730.
• Bickford, F. E. & Breckenridge, L. (2013): Simulated Mining, Backfilling, and Artificial Recharge of the Corani Open Pit. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 97–102, 4 Abb.; Golden (International Mine Water Association).
• Biedrzycki, W. & Biedrzycki, M. (1991): Pit Water as a Source of Thermal Energy. – Proceedings, 4th International Mine Water Association Congress, 1:13–23, 4 Abb., 1 Tab.
• Bieg, G. & Aslan, R. (2006): Eine Quellhöhle in Spratt’s Plateau (Subaşı Tepe) – Wo Lag Sigeion? – Studia Troica, 16:133–145, 17 Abb.
• Biehler, D. (1990): Strukturelle Entwicklung der penninisch-ostalpinen Grenzzone am Beispiel der Arosa-Zone im Ost-Rätikon (Vorarlberg, Österreich). – Eclogae geol. Helv., 83(2):221–239, 7 Abb.
• Biehler, D. & Falck, W. E. (1999): Simulation of the effects of geochemical reactions on groundwater quality during planned flooding of the Königstein uranium mine, Saxony, Germany. – Hydrogeol. J., 7(3):284–293, 11 Abb., 2 Tab.
• Bielawski, A. (1987): Hydrogeological Investigations of Lignite Basins: Hydrogeology of Coal Basins. – 15–20 p., Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Biele, H. & Hurst, S. (2005): Long-term Aspects of Uranium Mining Remediation. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 1–10, Heidelberg (Springer).
• Bieri, F. (2010): From Blood Diamonds to the Kimberley Process: How NGOs Cleaned Up the Global Diamond Industry. – 1–213 p., Aldershot (Ashgate).
• Bierman, B. & Brink, I. (2009): Anglo Platinum’s Approach to Inter-Sectoral user Integration: The ORWRDP a Case Study. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 162–170, 5 Abb; Pretoria (Document Transformation Technologies).
• Biermann, V. (2007): Langzeitverhalten von elementarem Eisen und Hydroxylapatit zur Uranrückhaltung in permeablen reaktiven Wänden bei der Grundwassersanierung. – BAM-Dissertationsreihe, 25:201, 44 Abb., 34 Tab.; doi:10.14279/depositonce-1520.
• Biermann, V., Simon, F.-G., Csővári, M., Csicsák, J., Földing, G. & Simoncsics, G. (2005): Long-term performance of reactive materials in PRBs for uranium remediation. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 275–286, Heidelberg (Springer).
• Bigham, J. M. (1994): Mineralogy of Ochre Deposits Formed by Sulfide Oxidation. – In: Jambor, J. L. & Blowes, D. W. (eds): Short Course Handbook on Environmental geochemistry of Sulfide Mine-Wastes 22. – p. 103–132, 12 Abb., 3 Tab.; Waterloo, Ontario (Mineralogical Association of Canada).
• Bigham, J. M., Carlson, L. & Murad, E. (1994): Schwertmannite, a New Iron Oxyhydroxysulphate from Pyhäsalmi, Finland, and Other Localities. – Mineral. Mag., 58(393):641–648, doi:10.1180/minmag.1994.058.393.14.
• Bigham, J. M. & III, C. A. C. (2017): Acid Mine Drainage. – In: Lal, R. (ed) Encyclopedia of Soil Science, 3rd edn. – p. 6–10, 1 Abb., 1 Tab.; doi:10.1081/e-ess3-120053867.
• Bigham, J. M. & Nordstrom, D. K. (2000): Iron and Aluminum Hydroxysulfates from Acid Sulfate Waters. – Rev. Mineral. Geochem., 40:351–403, 24 Abb., 7 Tab.; doi:10.2138/rmg.2000.40.7.
• Bigham, J. M., Schwertmann, U., Carlson, L. & Murad, E. (1990): A poorly crystallized oxyhydroxysulfate of iron formed by bacterial oxidation of Fe(II) in acid mine waters. – Geochim. Cosmochim. Acta, 54(10):2743–2758, 10 Abb., 10 Tab.; doi:10.1016/0016-7037(90)90009-A.
• Bigham, J. M., Schwertmann, U., Traina, S. J., Winland, R. L. & Wolf, M. (1996): Schwertmannite and the chemical modeling of iron in acid sulfate waters. – Geochim. Cosmochim. Acta, 60(12):2111–2121, 10 Abb., 3 Tab.; doi:10.1016/0016-7037(96)00091-9.
• Bijamov, A., Shubitidze, F., Oliver, P. M. & Vezenov, D. V. (2010): Optical response of magnetic fluorescent microspheres used for force spectroscopy in the evanescent field. – Langmuir : the ACS journal of surfaces and colloids, 26(14):12003–11, doi:10.1021/la1015252.
• Bijedic, D., Oruc, E. & Katanic, M. (1997): Capture Possibilities of Infiltration Waters Above Salt Rock Deposit in Tuzla by Existent Production Wells in District “Hukalo-Trnovac”. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:431–439, 5 Abb.
• Bijmans, M. F. M., Dopson, M., Peeters, T. W. T., Lens, P. N. L. & Buisman, C. J. N. (2009): Sulfate Reduction at pH 5 in a High-Rate Membrane Bioreactor: Reactor Performance and Microbial Community Analyses. – J. Microbiol. Biotechnol., 19(7):698–708, 6 Abb., 5 Tab.; doi:10.4014/jmb.0809.502.
• Bíl, M., Raška, P., Dolák, L. & Kubeček, J. (2021): CHILDA – Czech Historical Landslide Database. – Nat. Hazards Earth Syst. Sci., 21(8):2581–2596, doi:10.5194/nhess-21-2581-2021.
• Bilek, F. (2004): Reduktive In-situ-Reinigung von bergbaubeeinflussten Grundwasserströmen durch aktive reaktive Zonen – Prognose einer Behandlungsmaßnahme unter kippentypischen geochemischen Randbedingungen. – Wiss. Mitt. Inst. Geol., 25:73–78, 3 Abb.
• Bilek, F. (2005): Entwicklung und anlagentechnische Umsetzung einer neuen Prozesskette zur in-situ-Sulfatdekontamination und Alkalinisierung schwefelsaurer Grubenwässer. – Wiss. Mitt. Inst. Geol., 28:21–26, 2 Abb., 1 Tab.
• Bilek, F. (2006): Batchversuche zur Sulfatreduktion durch autotrophe Mikroorganismen im natürlichen Grundwasserleiter – Gegenwärtiger Stand. – Wiss. Mitt. Inst. Geol., 31:153–158, 2 Abb., 2 Tab.
• Bilek, F. (2012): Reinigungsverfahren von Grundwasser und Oberflächengewässern – Bearbeitet im Rahmen des Ziel-3-Projektes VODAMIN – Arbeitspaket 4: Problemlagen des obertägigen Braunkohlenbergbaus Teilprojekt P 04. – Unpubl. Report for Sächsisches Landesamt für Umwelt Landwirtschaft und, G. 79 p., 29 Abb., 2 Tab., 2 Anl.; Dresden (Dresdner Grundwasserforschungszentrum e.V.).
• Bilek, F., Brömme, K. & Stolpe, H. (2011): Active Treatment of Fe-, Mn- and Coaldust Contaminated Mine Water as Part of the RAME-Project in Vietnam: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 281–286 p., Aachen (RWTH Aachen University).
• Bilek, F., Koch, C., Bücker, J. & Luckner, L. (2013): Bergrechtlich bestimmter Umgang mit den in den Folgegebieten des Braunkohlenbergbaus anfallenden Eisenhydroxidschlämmen in Süd-Brandenburg. – 53 p., Dresden (Grundwasser-Zentrum Dresden).
• Bilek, F., Moritz, F. & Albinus, S. (2016): Iron-Hydroxide-Removal from Mining Affected Rivers. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 151–158, Freiberg (TU Bergakademie Freiberg).
• Bilek, F., Wagner, S. & Preuß, V. (2008): Stärkung des Entwicklungspotentials von Bergbaufolgelandschaften durch den Schutz von Oberflächenwässern vor schwefelsauren Grundwasserzuflüssen mittels reaktiven Reinigungswänden. – (Report Nr. BMBF-GZ WTE–W–WTNA 02021004; FKZ 02 WR 0527). – 170 p., 111 Abb., 48 Tab.; Senftenberg (LMBV; Grundwasserforschungsinstitut GmbH Dresden; Brandenburgische Technische Universität Cottbus).
• Bilek, F., Wagner, S. & Scharschmidt, T. (2008): Bench Scale Reactor to Test In-situ Remediation of Mining Influenced Groundwaters by Autotrophic Sulphate Reduction and Sulphide Stripping. – Proceedings, 10th International Mine Water Association Congress:255–258.
• Bilharz, O. W. (1949): Experiences with Acid Mine-Water Drainage in Tri-State Fiel. – Trans. Am. Inst. Min. Met. Eng., 181:282–291, 7 Abb., 4 Tab.
• Bilotta, G. S. & Brazier, R. E. (2008): Understanding the influence of suspended solids on water quality and aquatic biota. – Water Res., 42(12):2849–2861, doi:10.1016/j.watres.2008.03.018.
• Bin, Z. & Jianshen, S. (1982): New Technology for weak Rock Consolidation. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:324–234, 11 Abb.
• Binder, D. (2019): Großflächige Bodenbelastungen durch historischen Bergbau in Biebergemünd. Paper presented at the Altlasten – annual 2018, Wiesbaden, 2018. – p. 89–93; Wiesbaden (Hessisches Landesamt für Naturschutz, Umwelt und Geologie).
• Bing, Q. C. & Guo, Q. D. (1985): The Water-Blocking Engineering in three horizontal Connection Roadways between Fangezhuang Mine and Lujiatuo Mine, Kailuan Mining Administration, Under Flowing Water Condition. – Proceedings, 2nd International Mine Water Association Congress, 1:287–306.
• Binggeli, V. (1961): Zur Morphologie und Hydrologie der Valle del Lucomagno (Lukmanier-Brenno, Ticino) –Beitr. Geol. Schweiz – Hydrol., 12:13–124, 22 Abb., 30 Tab., 5 Kart., 59 Fig.
• Bings, N. H., Bogaerts, A. & Broekaert, J. A. C. (2013): Atomic Spectroscopy. – Anal. Chem., 85(2):670–704, doi:10.1021/ac3031459.
• Binnemans, K., Jones, P. T., Blanpain, B., Van Gerven, T. & Pontikes, Y. (2015): Towards zero-waste valorisation of rare-earth-containing industrial process residues: a critical review. – J. Clean. Prod., 99:17–38, doi:10.1016/j.jclepro.2015.02.089.
• Biondi, F., Lange, C. B., Hughes, M. K. & Berger, W. H. (1997): Inter-decadal signals the last millenium (AD 1117-1992) in the varve record of Santa Barbara basin, California. – Geoph. Res. Letters, 24(2):193–196.
• Birgül, A., Kurt-Karakus, P. B., Alegria, H., Gungormus, E., Celik, H., Cicek, T. & Güven, E. C. (2017): Polyurethane foam (PUF) disk passive samplers derived polychlorinated biphenyls (PCBs) concentrations in the ambient air of Bursa-Turkey: Spatial and temporal variations and health risk assessment. – Chemosphere, 168:1345–1355, doi:10.1016/j.chemosphere.2016.11.124.
• Birk, D. (1990): Quantitative coal mineralogy of the Sydney Coalfield, Nova Scotia, Canada, by scanning electron microscopy, computerized image analysis, and energy-dispersive X-ray spectrometry. – Can. J. Earth Sci., 27(2):163–179, 12 Abb., 4 Tab., 5 Anl.; doi:10.1139/e90-017.
• Birk, F. (1964): Die hydrologischen Verhältnisse der Wulfener Kreidemulde. – Z. dt. geol. Ges., 116(1):204–214, 7 Abb.; doi:10.1127/zdgg/116/1964/204.
• Birk, F., Schmidt, R. & Schum, E. (1964): Grubenfahrt Zeche Präsident, Bochum, und Zeche Shamrock, Herne. – Z. dt. geol. Ges., 116(1):25–27.
• Birk, S. (2022): Groundwater Systems – A Hydrogeological Typology. – In: Mehner, T. & Tockner, K. (eds): Encyclopedia of Inland Waters 3, 2nd edn. – p. 315–323, 7 Abb., 1 Tab.; Amsterdam (Elsevier); doi:10.1016/B978-0-12-819166-8.00098-0.
• Birke, M., Rauch, U., Harazim, B., Lorenz, H. & Glatte, W. (2010): Major and trace elements in German bottled water, their regional distribution, and accordance with national and international standards. – J. Geochem. Explor., 107(3):245–271, doi:10.1016/j.gexplo.2010.06.002.
• Birke, M., Rauch, U., Lorenz, H. & Kringel, R. (2010): Distribution of uranium in German bottled and tap water. – J. Geochem. Explor., 107(3):272–282, doi:10.1016/j.gexplo.2010.04.003.
• Birke, M., Reimann, C., Demetriades, A., Rauch, U., Lorenz, H., Harazim, B. & Glatte, W. (2010): Determination of major and trace elements in European bottled mineral water — Analytical methods. – J. Geochem. Explor., 107(3):217–226, doi:10.1016/j.gexplo.2010.05.005.
• Birkle, P. & Merkel, B. J. (2000): Environmental Impact by Spill of Geothermal Fluids at the Geothermal Field of Los Azufres, Michoacán, Mexico. – Water Air Soil Pollut., 124:371–410, 11 Abb., 6 Tab.
• Birkle, P. & Merkel, B. J. (2002): Mineralogical-chemical composition and environmental risk potential of pond sediments at the geothermal field of Los Azufres, Mexico. – Environ. Geol., 41(5):583–592.
• Bisangamo, C. K., Mulongo, P. M., Balegamire, J.-P. B., Kayanga, L. W., Mitima, T. K., Kabyuma, C. W., Kavuvu, M., Malekezi, C., Mulinganya, B., Babone, L. & Munyuli, M. B. T. (2012): Bacteriological Pollution of Artesian Ground Water Sources Used by Local Communities Living in and Around Bukavu Town (Democratic Republic of Congo) as Sources of Potable Drinking Water. – Journal of Waste Water Treatment & Analysis, 01(S1):1–7, 10 Abb., 6 Tab.; doi:10.4172/2157-7587.s12-001.
• Bish, G. M. (1987): Laminar Flow through Unconsolidated Packer Beds of Spherical and Non-Spherical Material. – Int. J. Mine Water, 6(3):1–24a, 5 Abb., 1 Tab.
• Bish, M. G. (1986): Opencast Coal mining in South Wales. – Int. J. Mine Water, 5(3):1–12, 5 Abb.
• Bishop, B. H. (2013): Drought and Environmental Opinion. – Public Opin. Q., 77(3):798–810, doi:10.1093/poq/nft034.
• Bisogni, J. J. (1995): Liming dosages for acid lakes and watersheds – discussion. – J. Environ. Engineering, 121(4):358–359, doi:10.1061/(ASCE)0733-9372(1995)121:4(358).
• Bissacot, L., Ciminelli, V. & Logsdon, M. (2015): Arsenic Mobility under a Neutral Mine Drainage Environment in a Gold-Mine Tailings Dam. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–7 [electronic document], Santiago/Chile (Gecamin).
• Bistritschan, K. (1954): Ein Beitrag zur Geologie und Hydrologie der österreichischen Alpentäler. – Z. dt. geol. Ges., 106:82–88.
• Bittencourt, C., de Bessa, V. & Eufrasio de Araújo, E. (2008): The Vazante Underground Mine, Brazil — An Example of Controlled Water Table Drawdown in Karstic Areas. Sinkholes and the Engineering and Environmental Impacts of Karst. – p. 732–741, Baltimore (ASCE Proceedings Eleventh Multidisciplinary Conference); doi:10.1061/41003(327)71.
• Bittencourt, C., Sarreiro Auler, A., dos Reis Neto, J. M., de Bessa, V. & Andrade Silva, M. V. (2009): The Influence of Hypogene and Epigene Speleogenesis in the Evolution of the Vazante Karst Minas Gerais State, Brazil. – In: Klimchouk, A. B. & Ford, D. C. (eds): Hypogene Speleogenesis and Karst Hydrogeology of Artesian Basins Special Paper 1. – p. 193–199, Chernivtsi (Ukrainian Institute of Speleology and Karstology).
• Bittencourt de Abreu, C., Werle, M., Ninanya, K. & Albuquerque, R. (2025): Heterogeneous Oxidation and Hydrogeochemical Numerical Simulation in a Uranium Waste Rock Pile. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 543–548; Braga (International Mine Water Association).
• Bitterauf, T. R. S. (1905 – 1909): Die Traditionen des Hochstifts Freising 744 – 1283. – Quellen und Erörterungen zur bayerischen Geschichte N.F., 4-5:792 + 944.
• Bitterlich, L. (2017): Geologie der westlichen Mieminger Kette. – 134 p., Leopold-Franzens-Universität Innsbruck, 81 Abb., 5 Anl.; Innsbruck.
• Bitterlich, W. (1970): Altes Bergwerk mit neuen Aufgaben. – Der Aufschluss, 21(3):107–111, 7 Abb.
• Bitterlich, W. & Wöbking, H. (1972): Einsatz elektronischer Hilfsmittel bei Vermessungsarbeiten im Bergwerk. – In: Bitterlich, W. & Wöbking, H. (eds): Geoelektronik: Angewandte Elektronik in der Geophysik, Geologie, Prospektion, Montanistik und Ingenieurgeologie. – p. 281–301, 18 Abb.; Wien (Springer); doi:10.1007/978-3-7091-8291-8_7.
• Bittner, A. & Zingelmann, M. (2013): Groundwater Use and Protection as Part of the Namibian Mining Application. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 35–40, 4 Abb., 1 Tab.; Golden (International Mine Water Association).
• Bituminous Coal Research (1971): Studies of Limestone Treatment of Acid Mine Drainage – Part II. – Wat. Poll. Contr. Res. Ser., 14010 EIZ:140, 39 Abb., 51 Tab.
• Bityukova, L. & Petersell, V. (2010): Chemical composition of bottled mineral waters in Estonia. – J. Geochem. Expl., 107(3):238–244, doi:https://doi.org/10.1016/j.gexplo.2010.07.006.
• Bkhairi, A. (2012): Suffosion et Érosion Hydrique en Milieux Semiarides, le cas des Hautes Steppes Tunisiennes (Tunisie Centrale). – Physio-Géo – Géographie Physique et Environnement, 6:1–22, 9 Abb., 1 Tab.
• Blaas, J. (1900): Die geologische Erforschung Tirols und Vorarlbergs in der zweiten Hälfte des 19. Jahrhunderts – Eine Besprechung der gesammten geologischen Literatur dieses Gebietes und Zeitraumes. – 322 p., 4 Tab.; Innsbruck (Wagner).
• Blaas, J. (1902): Geologischer Führer durch die Tiroler und Vorarlberger Alpe: 1-7. – 983 p., 216 Profile und Kartenskizzen; Innsbruck (Wagner).
• Blachère, A., Metz, M., Rengers, R., Eckart, M., Klinger, C. & Unland, W. (2005): Evaluation of mine water quality dynamics in complex large coal mine fields: Mine Water 2005 – Mine Closure. – 551–557 p., 8 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Black, A. (2017): Case Study: Development of an underground depressurisation scheme in an operational mine with reduced pumping capacity. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1297–1303, Lappeenranta (Lappeenranta University of Technology).
• Black, A. (2017): The Need for Improved Representation of Groundwater-surface Water Interaction and Recharge in Cold Temperate – Subarctic regions. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 680–688, Lappeenranta (Lappeenranta University of Technology).
• Blackmore, K., Blakey, N. C. & Lewin, K. (1998): Leachate Monitoring for the Brogborough Test Cell Project. – 99 p., 22 Abb., 5 Tab.; Marlow (WRc plc).
• Blackwell, N., Perkins, W. T., Palumbo-Roe, B., Bearcock, J. M., Lloyd, J. R. & Edwards, A. (2019): Seasonal blooms of neutrophilic Betaproteobacterial Fe(II) oxidizers and Chlorobi in iron-rich coal mine drainage sediments. – FEMS Microbiol. Ecol., 95(10):fiz140, doi:10.1093/femsec/fiz140.
• Bláha, F. & Schejbalová, B. (1982): Methods of Protection of Mine Workings under Water beraring Horizons of Ostrava – Karviná Coalfield. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:40–50, 3 Abb.
• Blake, D. A., Jones, R. M., Ii, R. C. B., Pavlov, A. R., Darwish, I. A. & Yu, H. (2001): Antibody-based sensors for heavy metal ions. – Biosensors & Bioelectronics, 16:799–809, 6 Abb., 2 Tab.; doi:10.1016/S0956-5663(01)00223-8.
• Blake, D. A., Yu, H., James, E. A., Li, X. & Blake, R. C. (2005): Field Portable and Autonomous Immunosensors for the Detection of Environmental Contaminants. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 87–96, Heidelberg (Springer).
• Blanc, G. & Anschutz, P. (1995): New stratification in the hydrothermal brine system of the Atlantis II Deep, Red Sea. – Geology, 23(6):543–546, 2 Abb., 2 Tab.; doi:10/bqwbbj.
• Blanchard, R., Kofoed, V. & Green, M. (2022): Integrity Assessment of a Tailings Storage Facility Characterized with the Willowstick Method. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 21–26; (International Mine Water Association).
• Blanchette, M. L., Allcock, R., Gonzalez, J., Kresoje, N. & Lund, M. (2020): Macroinvertebrates and Microbes (Archaea, Bacteria) Offer Complementary Insights into Mine-Pit Lake Ecology. – Mine Water Environ., 39:589–602, doi:10.1007/s10230-019-00647-9.
• Blanchette, M. L. & Lund, M. A. (2017): Biophysical Closure Criteria Without Reference Sites: Evaluating River Diversions Around Mines. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 437–444, Lappeenranta (Lappeenranta University of Technology).
• Blanchette, M. L. & Lund, M. A. (2020): Foreword to the Special Issue on Pit Lakes: The Current State of Pit Lake Science. – Mine Water Environ., 39(3):425–426, doi:10.1007/s10230-020-00706-6.
• Blanchette, M. L., Lund, M. A., Moore, M. & Short, D. (2019): Incorporating Microbes into Environmental Monitoring and Mine Closure Programs: River Diversions as Test Beds. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 645–651; Perm, Russia (Perm State University).
• Blanchette, M. L., Lund, M. A., Stoney, R., Short, D. & Harkin, C. (2016): Bio-physical closure criteria without reference sites: realistic targets in modified rivers. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 586–592, Freiberg (TU Bergakademie Freiberg).
• Blanco, I., Sapsford, D. J., Trumm, D., Pope, J., Kruse, N., Cheong, Y.-w., McLauchlan, H., Sinclair, E., Weber, P. & Olds, W. (2018): International Trials of Vertical Flow Reactors for Coal Mine Water Treatment. – Mine Water Environ., 37(1):4–17, doi:10.1007/s10230-017-0491-z.
• Blankenburg, R., Brückner, F., Ceranski, H. & Mansel, H. (2016): PCGEOFIM – Integrated Modelling of Mining specific Groundwater Dynamics and Soil Water Budget. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1189–1194, Freiberg (TU Bergakademie Freiberg).
• Blankenburg, R., Sames, D., Mansel, H. & Pfützner, B. (2012): Modeling the impact of a possible climate change on the water balance in post -mining areas: International Mine Water Association Symposium. – 451–458 p., Bunbury (Edith Cowan University).
• Błaś, M., Sobik, M. & Twarowski, R. (2008): Changes of cloud water chemical composition in the Western Sudety Mountains, Poland. – Atmos. Res., 87(3-4):224–231, doi:10.1016/j.atmosres.2007.11.004.
• Blaschko, A. (1896): Die Lepra im Kreise Memel. – Dermatologische Zeitschrift, 3(4, 5-6):411–445, 592–638, 8 Abb., 2 Taf., 1 Tab.
• Blaser, P. C. (2007): Tracermethoden in der Hydrologie Kombination verschiedener Methoden und Anwendungen am Beispiel des Ledo-Paniselian-Aquifers in Belgien. – unpubl. PhD Thesis University Ghent, 1854/7364:212, 53 Abb., 25 Tab.
• Blatnik, M. (2020): Groundwater Distribution in the Recharge Area of Ljubljanica Springs: Springer Theses. – Cham (Springer); doi:10.1007/978-3-030-48336-4.
• Blattner, P., Grindley, G. W. & Adams, C. J. (1997): Low-18O terranes tracking Mesozoic polar climates in the South Pacific. – Geochim. Cosmochim. Acta, 61(3):569–576.
• Bleeker, P. M., Teiga, P. M., Santos, M. H., De Koe, T. & Verkleij, J. A. C. (2003): Ameliorating effects of industrial sugar residue on the Jales gold mine spoil (NE Portugal) using Holcus lanatus and Phaseolus vulgaris as indicators. – Environ. Pollut., 125(2):237–244, 2 Abb., 3 Tab.
• Blegen, C. W. (1932): Excavations at Troy 1932. – Am. J. Archaeol., 36:431–451, 19 Abb.
• Bleibinhaus, F. & Hilberg, S. (2012): Shape and structure of the Salzach Valley, Austria, from seismic traveltime tomography and full waveform inversion. – Geophys. J. Int., 189(3):1701–1716, doi:10.1111/j.1365-246X.2012.05447.x.
• Bleibinhaus, F., Hilberg, S. & Stiller, M. (2010): First Results from a Seismic Survey in the Upper Salzach Valley, Austria. – Austrian J. Earth Sci., 103(2):28–32.
• Bleier, R. (1979): Unerkannte Siedlungsnamenherkunft bei Tiroler Familien- und Hofnamen. – Beiträge zur Namenforschung, 14(3):309–319.
• Bleloch, W. E. (1919): The Far East Rand – Its Reefs Mines and Share Values. – 75 p., Johannesburg (Hortors).
• Bleloch, W. E. & O’Flaherty, A. E. (1917): A Thousand Million Pounds For Us Or Germany? The Gold of the Far East Rand. – 333 p., Johannesburg (Hortor).
• Blendinger, F. (1977): Zur Geschichte der Messinghütte am Stainenberg bei Pflach bzw. Reutte. – Tiroler Wirtschaftsstudien, 33:53–66, 1 Tab.
• Bless, D., Park, B., Nordwick, S., Zaluski, M., Joyce, H., Hiebert, R. & Clavelot, C. (2008): Operational Lessons Learned During Bioreactor Demonstrations for Acid Rock Drainage Treatment. – Mine Water Environ., 27(4):241–250, 8 Abb., 5 Tab.; doi:10.1007/s10230-008-0052-6.
• Blette, V. L. & Newton, R. M. (1996): Application of the integrated lake-watershed acidification study model to watershed liming at woods Lake, New York. – Biogeochemistry, 32(3):363–383, 7 Abb., 6 Tab.; doi:10.1007/BF02187146.
• Blette, V. L. & Newton, R. M. (1996): Effects of watershed liming on the soil chemistry of Woods Lake, New York. – Biogeochemistry, 32(3):175–194, 2 Abb., 5 Tab.
• Blevins, R. L., Bailey, H. H. & Ballard, G. E. (1970): The effect of acid mine water on floodplain soils in the western Kentucky coalfields. – Soil Sci., 110(3):191–196.
• Blinov, S. & Krasilnikova, S. (2019): Using The Industrial Wastes For Remediation Of Sites Affected By Acid Mine Water Dumping. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 731–735; Perm, Russia (Perm State University).
• Blissenbach, E. & Nawab, Z. (1982): Metalliferous sediments of the Seabed: the Atlantis II deep deposits of the Red Sea. – Ocean Yearbook,(3).
• Blockeel, H., Dzeroski, S. & Grbovic, J. (1999): Simultaneous prediction of multiple chemical parameters of river water quality with TILDE. – Lecture notes in computer science, 1704:32–40, 1 Abb., 3 Tab.
• Blodau, C. (2004): Evidence for a hydrologically controlled iron cycle in acidic and iron rich sediments. – Aquatic Sciences, 66:47–59, 9 Abb., 1 Tab.
• Blodau, C., Peine, A., Hoffmann, S. & Peiffer, S. (1999): Organic Matter Diagenesis in Acidic Mine Lakes. – Acta Hydrochim. Hydrobiol., 28(3):123–135.
• Blofeld, J. H. (1852): Notes on St. Helena. – Proc. Geol. Soc.:195–196.
• Bloomfield, J. (1997): The role of diagenesis in the hydrogeological stratification of carbonate aquifers: an example from the Chalk at Fair Cross, Berkshire, UK –Hydrol. Earth Syst. Sci., 1(1):19–33.
• Blount, C. W. (1977): Barite solubilities and thermodynamic quantities up to 300 °C and 1400 bars. – Am. Mineral., 62:942–957, 9 Abb., 11 Tab.
• Blowes, D., Smith, L., Sego, D., Smith, L., Neuner, M., Gupton, M., Moncur, M., Moore, M., Klassen, R., Deans, T., Ptacek, C., Garvie, A. & Reinson, J. (2007): Prediction of Effluent Water Quality from Waste Rock Piles in a continuous Permafrost Region: Water in Mining Environments. – 3–9 p., 7 Abb.; Cagliari (Mako Edizioni).
• Blowes, D. W., Bain, J. G., Smyth, D. J. & Ptacek, C. J. (2003): Treatment of Mine Drainage using Permeable Reactive Materials. – In: Jambor, J. L., Blowes, D. W. & Ritchie, A. I. M. (eds): Environmental Aspects of Mine Wastes 31. – p. 361–376, 10 Abb.; Waterloo, Ontario (Mineralogical Association of Canada).
• Blowes, D. W., Ptacek, C. J., Bain, J. G., Waybrant, K. R. & Robertson, W. D. (1995): Treatment of Mine Drainage Water using in situ permeable reactive Walls. Paper presented at the Sudbury ’95 – Mining and the Environment, Sudbury. – p. 979–987, 5 Abb.; Ottawa (Canmet).
• Blowes, D. W., Ptacek, C. J., Benner, S. G., McRae, C. W. T., Bennett, T. A. & Puls, R. W. (2000): Treatment of inorganic contaminants using permeable reactive barriers. – J. Contam. Hydrol., 45(1-2):123–137, 4 Abb.; doi:10.1016/S0169-7722(00)00122-4.
• Blowes, D. W., Ptacek, C. J., Jambor, J. L. & Weisener, C. G. (2003): The Geochemistry of Acid Mine Drainage. – In: Sherwood Lollar, B. (ed) Treatise on Geochemistry – Environmental Geochemistry 9. – p. 149–204, 14 Abb., 12 Tab.; Amsterdam (Elsevier).
• Blowes, D. W., Ptacek, C. J., Jambor, J. L., Weisener, C. G., Paktunc, D., Gould, W. D. & Johnson, D. B. (2014): The Geochemistry of Acid Mine Drainage. – In: Turekian, H. D. & Holland, K. K. (eds): Treatise on Geochemistry, 2nd edn. – p. 131–190, Oxford (Elsevier); doi:10.1016/B978-0-08-095975-7.00905-0.
• Blowes, D. W., Ptacek, C. L., Frind, E. O., Johnson, R. H., Robertson, W. D. & Molson, J. W. (1994): Acid-Neutralization Reactions in inactive Mine Tailings Impoundments and their Effect on the Transport of dissolved Metals. Paper presented at the International Land Reclamation and Mine Drainage Conference, Pittsburgh. – p. 429–438, 4 Abb., 1 Tab.
• Blume, C. (2003): Hydrogeologisches Modell der östlichen Troas/Türkei. – Freiberg (Unveröff. Dipl.-Arb. TU Bergakademie Freiberg).
• Blume, H.-P., Brümmer, G., Horn, R., Kandeler, E., Kögel-Knabner, I., Kretzschmar, R., Stahr, K. & Wilke, B.-M. (2010): Lehrbuch der Bodenkunde („Scheffer/Schachtschabel”), 16 edn. – 569 p., zahlr. Abb., zahlr. Tab.; Heidelberg (Spektrum); doi:10.1007/978-3-662-49960-3.
• Blumenthal, M. M. (1926): Das Fenster von Gargellen (Vorarlberg). – Eclogae geol. Helv., 20:40–78, 8 Abb.; doi:10.5169/seals-158598.
• Blumrich, J. (1929): Zur Geologie des Gargellentales. – Heimat – volkstüml. Beitr. zur Kultur u. Naturkunde Vorarlbergs, 10:357–361.
• Blumrich, J. (1930): Der Eingang ins Montafon. – Feierabend – Wochenbeilage zum Vorarlberger Tagblatt, 12(25):404–406.
• Blumrich, J. (1936): Die alten Eisenbergbaue in Vorarlberg. – Alemannia – Zeitschrift für Geschichte, Heimat und Volkskunde Vorarlbergs, 2 NF(3-4):94–96.
• Blumrich, J. (1936): Die alten Erzbergbaue in Vorarlberg. – Feierabend – Wochenbeilage zum Vorarlberger Tagblatt, 18(16):143–144.
• Blusztajn, J., Nielsen, S. G., Marschall, H. R., Shu, Y. C., Ostrander, C. M. & Hanyu, T. (2018): Thallium isotope systematics in volcanic rocks from St. Helena – Constraints on the origin of the HIMU reservoir. – Chem. Geol., 476:292–301, doi:10.1016/j.chemgeo.2017.11.025.
• Blythe, E. K. & Merhaut, D. J. (2007): Testing the Assumption of Normality for pH and Electrical Conductivity of Substrate Extract Obtained Using the Pour-through Method. – Hortscience, 42(3):661–669, doi:10.21273/hortsci.42.3.661.
• Blythe, E. K. & Merhaut, D. J. (2010): Calculating Average pH in Substrate Research: Should pH or [H+] Data Values Be Used? – Hortscience, 45(8):S286–S287.
• Bo, L., Qiang, W., xian-qian, D. & Meng-yu, C. (2018): Risk Analysis Model of Water Inrush Through the Seam Floor Based on Set Pair Analysis. – Mine Water Environ., 37(2):281–287, doi:10.1007/s10230-017-0498-5.
• Boadi, E. A., He, Z., Darko, D. F. & Abrokwah, E. (2018): Unlocking from Community Stakeholders, Corporate Social Responsibility (CSR) projects for effective Company-Community relationship. – Labor Hist., 59(6):746–762, doi:10.1080/0023656x.2018.1470223.
• Boak, R. & Beale, G. (2008): Mine Closure and Reclamation – Practical Examples of Options and Issues. – Proceedings, 10th International Mine Water Association Congress:119–122.
• Bob Booth, A. M. (2001): Getting Started with ArcGIS. – 253 p., Redlands (Esri).
• Bobbins, K. (2015): Acid Mine Drainage and its Governance in the Gauteng City-Region. – GCRO Occasional Paper, 10:1–66, 10 Abb., 12 Tab.
• Bobok, E. (1978): New concept to describe flow through porous media. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 693–706; Maracena (Asociación Nacional de lngenieros de Minas).
• Bocheńska, T. (1991): Impact of Deep Mine Dewatering on Groundwater Intake Located in Cap-Rock of Ore Deposit. – Proceedings, 4th International Mine Water Association Congress, 1:143–150, 4 Abb.
• Bocheńska, T., Butra, J. & Kalisz, M. (2000): Impact of the mining industry on the water environment in the Lubin-Glogów Copper Region (LGOM). – Proceedings, 7th International Mine Water Association Congress:68–80, 1 Abb., 3 Tab.
• Bocheńska, T. & Kalisz, M. (1983): Zagrożenie wodne kopalń miedzi na monoklinie przedsudeckiej [Risk of flooding in the copper mines in the Fore-Sudetic Monocline]. – Tech. Poszuk. Geol., 22(105):21–24, 2 Abb.
• Bochkarev, G. R., Beloborodov, A. V., Kondrat’ev, S. A. & Pushkareva, G. I. (1994): Intensification of Aeration in treating Natural-Water and Mine Water. – J. Min. Sci., 30(6):590–594, 1 Abb.; doi:10.1007/BF02047328.
• Bock, R. (1981): Elektrostatische Trennung der Komponenten von Kali-Rohsalze. – Chemie Ingenieur Technik, 53(12):916–924, 8 Abb., 4 Tab.
• Böcker, T. (1985): Water balance model of the transdanubian montain range in hungary for mining purposes. – Proceedings, 2nd International Mine Water Association Congress, 1:433–442, 4 Abb.
• Bocker, T. & Hegedus, M. (1988): Methods of Hydrogeological Exploration for Design of Mine Dewatering. – Proceedings, 3rd International Mine Water Congress, Melbourne:913–924, 6 Abb.
• Böcker, T. & Horiszt, G. (1988): Dewatering and Environment – Problems of Dewatering in Hungary. – Proceedings, 3rd International Mine Water Congress, Melbourne:903–911, 5 Abb.
• Böcker, T. & Vizy, B. (1982): Protection against underground waters of Bauxite mining at Nyirád, Hungary, and its impact on the environment. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, C:5–26, 9 Abb.
• Boddaert, F., Mwagalanyi, H., Sholl, S. & Beale, G. (2021): Evaluation Of Preferential Pathways For An Effective Dewatering And Depressurization Of The Aitik Open-Pit, Norrbotten, Sweden. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 54–59; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Bode, R. (1980): Die Grube „Wolf“ in Herdorf, Siegerland. – Emser Hefte, 3:7–35, 28 Abb.
• Bodine, M. W., Jr. & Jones, B. F. (1990): Normative analysis of groundwaters from the Rustler Formation associated with the Waste Isolation Pilot Plant (WIPP), southeastern New Mexico. – In: Spencer, R. J. & Chou, l.-M. (eds): Fluid-Mineral Interactions – A Tribute to H.P. Eugster. – p. 213–269, Washington (The Geochemical Society).
• Bodruzic, D. (2015): Promoting international development through corporate social responsibility: the Canadian government’s partnership with Canadian mining companies. – Can. Foreign Policy, 21(2):129–145, doi:10.1080/11926422.2014.934862.
• Boeck, H.-J., Lange, T. & Schneider, P. (2006): GIS-gestützte Bewertung des tiefengeothermischen Potentials im Freistaat Sachsen. – Wiss. Mitt. Inst. Geol., 31:297–302, 5 Abb.
• Boecker, A. (1993): Der Knotenlose Klangteppich – Konsumgut Radiomusik: Warum Zack-Bum! besser kommt als Dreivierteltakt und „Das Lebkuchenherz“ von PE Werner ohne Chance ist. – Die Zeit, 1993–12–31, 48(1):9–10, 1 Abb.
• Boege, V. (2022): Rio Tinto And Bougainville – A Fatal Connection. A Mine, A War, And An Uncertain Future. – Aust. J. Polit. Hist., 68(1):18–35, doi:10.1111/ajph.12724.
• Boegman, L. (2009): Currents in Stratified Water Bodies 2: Internal Waves. – In: Likens, G. E. (ed) Encyclopedia of Inland Waters. – p. 539–558, Oxford (Academic Press); doi:10.1016/B978-012370626-3.00081-8.
• Boehm, B., Schneider, D. & Voigt, R. (1979): Dewatering Techniques for Rheinbraun’s Open Pit Lignite Mines: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 437–462 p., 12 Abb.; San Francisco (Freeman).
• Boehm, B. & Trumpff, H. (1988): Water Management to Protect Wetland to the North of Rhenish Lignite District. – Proceedings, 3rd International Mine Water Congress, Melbourne:397–405, 3 Abb.
• Boehner, R. C. & Giles, P. S. (2008): Geology of the Sydney Basin, Cape Breton and Victoria Counties, Cape Breton Island, Nova Scotia. – Nova Scotia Department of Natural Resources – Mineral Resources Branch – Memoir, ME 11:90, 22 Abb., 1 Tab.
• Boehrer, B. (2000): Modal Response of a Deep Stratified Lake: Western Lake Constance. – J. Geophys. Res., C 105(12):28837–28845, 9 Abb., 1 Tab.
• Boehrer, B., Herzsprung, P., Schultze, M. & Millero, F. J. (2010): Calculating density of water in geochemical lake stratification models. – Limnol. Oceanogr.: Methods, 8(11):567–574, doi:10.4319/lom.2010.8.0567.
• Boehrer, B., Ilmberger, J. & Münnich, K. O. (2000): Vertical Structure of Currents in Western Lake Constance. – J. Geophys. Res., C 105(12):28823–28835, 11 Abb., 1 Tab.
• Boehrer, B. & Schultze, M. (2006): On the Relevance of Meromixis in Mine Pit Lakes: ICARD 2006 7. – 200–213 [CD–ROM] p., St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06020200.
• Boehrer, B. & Schultze, M. (2008): Stratification of lakes. – Rev. Geophys., 46(2) doi:10.1029/2006rg000210.
• Boehrer, B. & Schultze, M. (2009): Density Stratification and Stability. – In: Likens, G. E. (ed) Encyclopedia of Inland Waters. – p. 583–593, Oxford (Academic Press); doi:10.1016/B978-012370626-3.00077-6.
• Boehrer, B., von Rohden, C. & Schultze, M. (2017): Physical Features of Meromictic Lakes: Stratification and Circulation. – In: Gulati, R. D., Zadereev, E. S. & Degermendzhi, A. G. (eds): Ecology of Meromictic Lakes. – p. 15–34, Cham (Springer); doi:10.1007/978-3-319-49143-1_2.
• Boekhoven, J. & Didier, D. (2018): Merging Art and Science—The 53rd Bürgenstock Conference. – Angew. Chem. Intern. Ed., 57(32):10011–10014, doi:10.1002/anie.201806142.
• Boekstein, M. S. (2012): Revitalising the Healing Tradition – Health Tourism Potential of Thermal Springs in the Western Cape. – 182 p., Doctor of Technology, Cape Peninsula University of Technology, 7 Abb., 33 Tab.; Cape Town.
• Boekstein, M. S. (2014): Healing waters – Balneological classification of thermal springs in South Africa. – Afr. J. Phys. Health Educ. Recreat. Dance, 20(21):557–568.
• Boekstein, M. S. (2014): Revitalising the healing tradition – Thermal springs in the Western Cape. – In: Smith, M. K. & Puczko, L. (eds): Health, Tourism and Hospitality Spas, Wellness and Medical Travel, 2nd edn. – p., 1 Tab.; London (Routledge).
• Boekstein, M. S. & Spencer, J. P. (2013): International trends in health tourism – Implications for thermal spring tourism in the Western Cape Province of South Africa. – Afr. J. Phys. Health Educ. Recreat. Dance, 19(2):287–298.
• Bogárdi, I., Duckstein, L. & Szidarovszky, F. (1982): Bayesian Analysis of Underground Flooding. – Water Resour. Res., 18(4):1110–1116, 11 Abb., 1 Tab., 23 refs; doi:10.1029/WR018i004p01110.
• Bogárdi, I., Szidarovszky, F., Duckstein, L. & Kesserü, Z. (1982): Bayes Reliability of Mine Water Control Systems. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:51–73, 7 Tab.
• Bogdal, C., Muller, C. E., Buser, A. M., Wang, Z., Scheringer, M., Gerecke, A. C., Schmid, P., Zennegg, M., Macleod, M. & Hungerbuhler, K. (2014): Emissions of polychlorinated biphenyls, polychlorinated dibenzo-p-dioxins, and polychlorinated dibenzofurans during 2010 and 2011 in Zurich, Switzerland. – Environ. Sci. Technol., 48(1):482–90, doi:10.1021/es4044352.
• Bogdal, C., Scheringer, M., Abad, E., Abalos, M., van Bavel, B., Hagberg, J. & Fiedler, H. (2013): Worldwide distribution of persistent organic pollutants in air, including results of air monitoring by passive air sampling in five continents. – TrAC-Trend. Anal. Chem., 46:150–161, doi:10.1016/j.trac.2012.05.011.
• Boggio, A. (2013): Compensating asbestos victims – Law and the dark side of industrialization. – 279 p., Ashgate Publishing (Farnham).
• Bogner, J. E. (1983): Prediction of Extractable Metals in Retention Pond Sediments at Surface Coal Mines. – Environ. Geol., 4:223–238, doi:10.1007/BF02380516.
• Bogner, J. E. & Doehler, R. W. (1984): Ettringite Formation following Chemical Neutralization Treatment of Acidic Coal Mine Drainage. – Int. J. Mine Water, 3(1):13–24, 3 Abb.; doi:10.1007/BF02504589.
• Bogomolov, A. (2019): Aspects Of The Organization Of Regulated Assignment Of Excessive Brines In Superficial Water Objects Of The Entities Of The Potash Industry (on the example of the Verkhnekamsky field of potash and magnesian salts). Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 609–612; Perm, Russia (Perm State University).
• Bogush, A., Dabu, C. I., Tikhova, V. D., Campos, L. C., Stegemann, J. A. & Anoshin, G. N. (2016): Application of Biomass Ashes for Treatment of Acid Mine Drainage. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1008–1011, Freiberg (TU Bergakademie Freiberg).
• Bogush, A., Voronin, V. G., Tikhova, V. D. & Anoshin, G. N. (2016): Application of a Peat-Humic Agent for AMD Remediation and Element Removal. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1376–1382, Freiberg (TU Bergakademie Freiberg).
• Bogush, A. A. & Voronin, V. G. (2011): Application of a Peat-humic Agent for Treatment of Acid Mine Drainage. – Mine Water Environ., 30(3):185–190, 3 Abb., 2 Tab.; doi:10.1007/s10230-010-0132-2.
• Bogush, A. A., Voronin, V. G., Tikhova, V. D. & Anoshin, G. N. (2016): Acid Rock Drainage Remediation and Element Removal Using a Peat-Humic Agent with Subsequent Thermal Treatment of the Metal–Organic Residue. – Mine Water Environ., 35(4):536–546, doi:10.1007/s10230-015-0380-2.
• Bohannon, M. E. B. & Ottinger, M. A. (2018): Polychlorinated Biphenyls: Sources, Fate, Effects on Birds and Mammals, and Mechanisms of Action. – In: Dellasala, D. A. & Goldstein, M. I. (eds): Encyclopedia of the Anthropocene. – p. 207–213, Oxford (Elsevier); doi:10.1016/B978-0-12-809665-9.09996-1.
• Böhler, M. & Siegrist, H. (2004): Partial ozonation of activated sludge to reduce excess sludge, improve denitrification and control scumming and bulking. – Water Sci. Technol., 49(10):41–49, 4 Abb., 1 Tab.; doi:10.2166/wst.2004.0604.
• Böhm, C. & Johner, H. (2005): Radon in Bodenluft – Radonentstehung und -ausbreitung, Permeabilitätsbestimmung in Bodenluft. – Bull. angew. Geol., 10(1):3–16, 5 Abb., 1 Tab.
• Böhm, L., Düring, R. A., Bruckert, H. J. & Schlechtriem, C. (2017): Can solid‐phase microextraction replace solvent extraction for water analysis in fish bioconcentration studies with highly hydrophobic organic chemicals? – Environ. Toxicol. Chem., 36(11):2887–2894, doi:10.1002/etc.3854.
• Böhm, L., Schlechtriem, C. & Düring, R. A. (2016): Sorption of Highly Hydrophobic Organic Chemicals to Organic Matter Relevant for Fish Bioconcentration Studies. – Environ. Sci. Technol., 50(15):8316–23, doi:10.1021/acs.est.6b01778.
• Böhm, P., Siebenlist-Kerner, V., Arlt, T. & Hanneberg, A. (1997): Dendrochronologische Untersuchungen im Bergbaugebiet Schwaz-Brixlegg. – Proceedings, 12th International Congress of Speleology, 3:203–204, 1 Tab.
• Böhm von Böhmersheim, A. (1886): Die Hochseen der Ostalpen. – Mitt. k. k. Geogr. Ges. Wien, 19:625–647.
• Bohn, A. (2013): Hydrogeochemische Analyse und Modellierung von Lösungs- und Reaktionsprozessen im Salinar- und Deckgebirge am Staßfurter Sattel. – 156 p., Brandenburgischen Technischen Universität Cottbus-Senftenberg, 38 Abb., 19 Tab., 7 Anl.; Cottbus.
• Bohn, B. A. & Kershner, J. L. (2002): Establishing Aquatic Restoration Priorities Using a Watershed Approach. – J. Environ. Manage., 64(4):355–363, doi:10.1006/jema.2001.0496.
• Boi, M., Mogolló, J. L., Soler, J. M., Ayora, C. & Cama, J. (2007): An experimental Approach to the Study of the Passivation of permeable Carbonate Barriers for the Remediation of Acid Mine Solutions: Water in Mining Environments. – 409–413 p., 5 Abb.; Cagliari (Mako Edizioni).
• Boice, J. D., Mumma, M., Schweitzer, S. & Blot, W. J. (2003): Cancer Mortality in a Texas County with prior Uranium Mining and Milling Activities, 1950-2001. – J. Radiol. Prot., 23(3):247–262, 4 Abb.
• Boiselle, C., Hildebrandt, G. & Schnüll, H. (1987): A rapid and easily applicable procedure for the quantitative determination of polychlorinated biphenyls (PCB) in fuel oils. – Fresenius Z. Anal. Chem., 328(7):593–594, doi:10.1007/BF00468976.
• Boiten, W. (1993): Flow-measuring structures. – Flow Measurement and Instrumentation, 4(1):17–24, 10 Abb., 3 Tab.; doi:10.1016/0955-5986(93)90006-5.
• Bojanowski, A. (2005): Gräber für den Klimakiller. – Financial Times Deutschland, 26.10.2005:29.
• Bojanowski, A. (2005): Kerker für den Klimakiller. – Süddeutsche Zeitung, 22.06.2005.
• Bolaček, O. & Mihók, J. (1994): Súčasnosť a perspektívy ťažby sideritového ložiska Nižná Slaná – Predstavujeme banský závod Železorudných bani SIDERIT Nižná Slaná [Present and prospects of mining the siderite deposit Nižná Slaná – Introducing the SIDERIT Nižná Slaná Iron Ore Mine]. – Mineralia Slovaca – GeoVestnik, 3:1–4, 4 Abb.
• Boland, K. T. & Padovan, A. V. (2002): Seasonal stratification and mixing in a recently flooded mining void in tropical Australia. – Lakes & Reservoirs: Research and Management, 7(2):125–131, doi:10.1046/j.1440-169X.2002.00176.x.
• Boland, M., Boddaert, F., Beale, G., Hein, G., Labuschagne, P. & Cox, R. (2021): Numerical Groundwater Flow Modelling In Support Of Mine Water Supply In An Endoreic Groundwater System, Tasiast Mine, Mauritania. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 60–65; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Boland, M., Rowland, A., Bester, M., Cintolesi, C. & Dowling, J. (2016): Deploying Oil and Gas drilling techniques with Directional Well Placement techology (DWPt) in open pit and underground mines. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 455–462, Freiberg (TU Bergakademie Freiberg).
• Boland, M. P., Yohannes, R., White, J., Benghiat, P. & Daley, S. (2018): Integrated Numerical Model Development For Sustainable Management Of Mine Water In A Semi Arid Environment. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 791–796; (Tshwane University of Technology).
• Bolanos, F., Ledue, J. M. & Murphy, T. H. (2017): Cost effective raspberry pi-based radio frequency identification tagging of mice suitable for automated in vivo imaging. – J. Neurosci. Meth., 276:79–83, doi:10.1016/j.jneumeth.2016.11.011.
• Boldt, H., Classen, H. J., Rüller, K. H. & Semmler, W. (1964): Grubenfahrt Zeche Franz Haniel, Bottrop. – Z. dt. geol. Ges., 116(1):20–25.
• Boldy, R., Santini, T., Annandale, M., Erskine, P. D. & Sonter, L. J. (2021): Understanding the impacts of mining on ecosystem services through a systematic review. – Extr. Ind. Soc., 8(1):457–466, doi:10.1016/j.exis.2020.12.005.
• Bolger, P. & Brumley, J. (1988): Geological Studies for Predicting Artesian Dewatering Requirements at Loy Yang Open Cut, Latrobe Valley, Victoria, Australia. – Proceedings, 3rd International Mine Water Congress, Melbourne:699–710, 8 Abb.
• Bolis, J. L., Wildeman, T. R. & Cohen, R. R. (1991): The Use of Bench Scale Permeameters for Preliminary Analysis of Metal Removal from Acid Mine Drainage by Wetlands. Paper presented at the National Meeting of the American Society for Surface Mining and Reclamation, Durango. – p. 123–136, 4 Abb.; 4 Tab.
• Bolis, J. L., Wildeman, T. R. & Dawson, H. E. (1992): Hydraulic Conductivity of Substrates used for passive Acid Mine Drainage Treatment. Paper presented at the 9th Annual National Meeting – American Society for Surface Mining and Reclamation, Duluth. – p. 79–89, 2 Abb., 2 Tab.
• Bollini, M. (2023): Bioaccumulation of Polychlorinated Biphenyl Compounds and Mercury in a Mining Impacted Aquatic Ecosystem. – 116 p., Master’s Thesis, Michigan Technological University, 44 Abb., 25 Tab.; Houghton.
• Bollmann, K. (2000): Ettringitbildung in nicht wärmebehandelten Betonen. – 197 p., 152 Abb., 29 Tab.; Weimar (Unveröff. Diss. Bauhaus-Universität Weimar); doi:10.25643/bauhaus-universitaet.61.
• Bologo, V., Maree, J. P. & Carlsson, F. (2012): Application of magnesium hydroxide and barium hydroxide for the removal of metals and sulphate from mine water. – Water SA, 38(1):23–28, 4 Abb., 3 Tab.; doi:10.4314/wsa.v38i1.4.
• Bologo, V., Maree, J. P. & Zvinowanda, C. M. (2009): Treatment of Acid Mine Drainage using Magnesium Hydroxide. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 371–381, 9 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Bolstad, P. (2008): Geodesy, Datums, Map Projections, and Coordinate Systems: GIS Fundamentals – A First Text on Geographic Information Systems, 3 edn. – 69–121 p., 50 Abb., 1 Tab.; White Bear Lake (Eider Press).
• Bolton, E. W., Maasch, K. A. & Lilly, J. M. (1995): A wavelet analysis of Plio-Pleistocene climate indicators: A new view of periodicity evolution. – Geoph. Res. Letters, 22(20):2753–2756, 2 Abb.
• Bolzicco, J., Ayora, C., Rötting, T. & Carrera, J. (2003): Performance of the Aznalcóllar permeable reactive barrier. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 287–299, 10 Abb., 2 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Bomberg, M., Arnold, M. & Kinnunen, P. (2015): Bioremediation and Metal Resistant Bacteria in a Closed, Cold Northern Mine. – Advanced Materials Research, 1130:551–554, doi:10.4028/www.scientific.net/AMR.1130.551.
• Bomberg, M., Arnold, M. & Kinnunen, P. (2015): Characterization of the Bacterial and Sulphate Reducing Community in the Alkaline and Constantly Cold Water of the Closed Kotalahti Mine. – Minerals, 5(3):452–472, doi:10.3390/min5030452.
• Bonamente, M. (2017): Statistics and Analysis of Scientific Data: Graduate Texts in Physics, 2nd edn. – 318 p., New York (Springer); doi:10.1007/978-1-4939-6572-4.
• Bonatti, E. (1996): Anomalous opening of the Equatorial Atlantic due to an equatorial mantle thermal minimum. – Earth Planet. Sci. Lett., 143(1-4):147–160, doi:10.1016/0012-821x(96)00125-2.
• Bond, N. A. J. & Uddin, N. (1997): Detroit salt mine closure design. – Int. J. Rock. Mech. Min. Sci. Geomech. Abstr., 34(3-4):644, doi:10.1016/S1365-1609(97)00107-X.
• Bonetto, J. P., López, S., Ratto, S., Schindler, V. & Schnug, E. (2005): Uranium leaching during short term application of pit-water on a carbonate containing soil in the Mendoza province of Argentina. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 287–298, Heidelberg (Springer).
• Bonetto, S., Fornaro, M., Giuliani, A. & Lasagna, M. (2008): Underground Quarrying and Water Control: Some Cases from Northern Italy. – Proceedings, 10th International Mine Water Association Congress:7–10.
• Bongaerts, J. C. (2002): European Water Law: water policy and water resources management in France: the project de loi sur l’eau. – Europ. Env. Law Rev.,(8-9, 10):239–244; 260–270.
• Bongaerts, J. C. (2016): Recognition and external reporting of mine water treatment costs according to IFRS Standards. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 63, Freiberg (TU Bergakademie Freiberg).
• Bonner, R., Aylward, L., Kappelmeyer, U. & Sheridan, C. (2018): Combining tracer studies and biomimetic design principles to investigate clogging in constructed wetlands. – Water SA, 44(4):764–770, doi:10.4314/wsa.v44i4.24.
• Bonner, R., Naidu, J., Germishuizen, C. & Franzsen, S. (2019): Strategies for Treatment of Mine Impacted Waters with High Ammonia-N Feed Levels using Membrane Systems. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 161–166; Perm, Russia (Perm State University).
• Bonnier, A. & Korganoff, A. (1978): Utilisation de modeles matematiques pour la prevision des venues s’eau en travaux miniers. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 707–717; Maracena (Asociación Nacional de lngenieros de Minas).
• Bono, P. & Boni, C. (2001): Water Supply of Rome in Antiquity and Today: Springs and Bottled Waters of the World – Ancient History, Source, Occurence, Quality and Use. – 200–210 p., 8 Abb., 1 Tab.; Berlin (Springer).
• Boodt, P. I., Maini, T. & Brown, E. T. (1982): Three-Dimensional Water Pressure Testing of Fractured Rock. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:165–183, 7 Abb.
• Booij, K., Robinson, C. D., Burgess, R. M., Mayer, P., Roberts, C. A., Ahrens, L., Allan, I. J., Brant, J., Jones, L., Kraus, U. R., Larsen, M. M., Lepom, P., Petersen, J., Profrock, D., Roose, P., Schafer, S., Smedes, F., Tixier, C., Vorkamp, K. & Whitehouse, P. (2016): Passive Sampling in Regulatory Chemical Monitoring of Nonpolar Organic Compounds in the Aquatic Environment. – Environ. Sci. Technol., 50(1):3–17, doi:10.1021/acs.est.5b04050.
• Boon, M., Luyben, K. C. A. M. & Heijnen, J. J. (1998): The use of on-line off-gas analyses and stoichiometry in the bio-oxidation kinetics of sulphide minerals. – Hydrometallurgy, 48(1):1–26, doi:10.1016/S0304-386X(97)00074-1.
• Booth, A., Fleck, J., Pellerin, B. A., Hansen, A., Etheridge, A., Foster, G. M., Graham, J. L., Bergamaschi, B. A., Carpenter, K. D., Downing, B. D., Rounds, S. A. & Saraceno, J. (2023): Field techniques for fluorescence measurements targeting dissolved organic matter, hydrocarbons, and wastewater in environmental waters: Principles and guidelines for instrument selection, operation and maintenance, quality assurance, and data reporting: U. S. Geological Survey Techniques and Methods – Collection of Water Data by Direct Measurement Techniques 1–D11. – 41 p., Reston doi:10.3133/tm1D11.
• Booth, C. J. (1999): Recovery of Groundwater Levels after Longwall Mining. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 35–40, 3 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Booth, C. J. (2003): Groundwater as an environmental constraint of longwall coal mining. – RMZ – Materials and Geoenvironment, 50(1):49–52, 3 Abb.
• Booth, C. J. & Breuer, E. P. (2008): Using MODFLOW with TMR to Model Hydrologic Effects and Recovery in the Shallow Aquifer System Above Longwall Coal Mining. – Proceedings, 10th International Mine Water Association Congress:11–14.
• Booth, C. J., Curtiss, A. M. & Miller, J. D. (1994): Groundwater Response to Longwall Mining, Saline County, Illinois, USA. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:71–81, 6 Abb., 3 Tab.
• Booth, C. J. & Greer, C. B. (2011): Application of MODFLOW using TMR and discrete-step modification of hydraulic properties to simulate the hydrogeologic impact of longwall mining subsidence on overlying shallow aquifers: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 211–216 p., Aachen (RWTH Aachen University).
• Booth, C. J. & Spande, E. D. (1991): Changes in Hydraulic Properties of Strata Over Active Longwall Mining, Illinois, USA. – Proceedings, 4th International Mine Water Association Congress, 1:163–174, 5 Abb., 2 Tab.
• Booth, T. & Cammack, J. (2025): Flooding of an underground mine during closure – Analytical vs numerical model estimations. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 513–519; Braga (International Mine Water Association).
• Boothe, T. J., Capo, R. C., Stewart, B. W., Hedin, B., Olds, T. & Rosenfeld, C. (2024): Lab-based assessment of critical metal adsorption by biotic and abiotic hydrous manganese oxides. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 57–58; Morgantown (International Mine Water Association).
• Borba, R. P., Figueiredo, B. R. & Matschullat, J. (2003): Geochemical distribution of arsenic in waters, sediments and weathered gold mineralized rocks from Iron Quadrangle, Brazil. – Environ. Geol., 44(1):39–52, 4 Abb., 7 Tab.
• Borcherdt, W. O. (1937): The Underground Mill at Gilman, Colorado. – Technical Publication American Institute of Mining and Metallurgical Engineers, Class A, 808:1–4, 2 Abb.
• Borden, R. K. (2003): Environmental geochemistry of the Bingham Canyon porphyry copper deposit, Utah. – Environ. Geol., 43(7):752–758, 6 Abb., 1 Tab.
• Boreli, M. (1991): Protection of Ground Water from the Impact of Ash Depositories. – Proceedings, 4th International Mine Water Association Congress, 1:151–162, 3 Abb., 1 Tab.
• Borg, G., Piestrzynski, A., Bachmann, G. H., Püttmann, W., Walther, S. & Fiedler, M. (2012): An Overview of the European Kupferschiefer Deposits. – In: Hedenquist, J. W., Harris, M. & Camus, F. (eds): Geology and Genesis of Major Copper Deposits and Districts of the World: A Tribute to Richard H. Sillitoe. – p. 455–485.
• Borgatti, L. & Soldati, M. (2013): Hillslope Processes and Climate Change. – p. 319, Amsterdam (Elsevier); doi:10.1016/B978-0-12-374739-6.00180-9.
• Borghetti Soares, A., de Oliveira Ubaldo, M., de Souza, V. P., Moreira Soares, P. S., Barbosa, M. C. & Gondim Mendonça, R. M. (2009): Design of a Dry Cover Pilot Test for Acid Mine Drainage Abatement in Southern Brazil. I: Materials Characterization and Numerical Modeling. – Mine Water Environ., 28(3):219–231, 14 Abb., 8 Tab.; doi:10.1007/s10230-009-0077-5.
• Borgonie, G., Linage-Alvarez, B., Ojo, A., Shivambu, S., Kuloyo, O., Cason, E. D., Maphanga, S., Vermeulen, J.-G., Litthauer, D., Ralston, C. D., Onstott, T. C., Sherwood-Lollar, B. & Van Heerden, E. (2015): Deep subsurface mine stalactites trap endemic fissure fluid Archaea, Bacteria, and Nematoda possibly originating from ancient seas. – Frontiers in Microbiology, 6 doi:10.3389/fmicb.2015.00833.
• Borgwardt, R. H. (1969): Kinetics of the Reaction of SO2 with Calcined Limestone. – Am. Chem. Soc., Div. Fuel Chem., Prepr., 13(2):1–12, 7 Abb., 2 Tab.
• Borji, H., Ayoub, G. M., Al-Hindi, M., Malaeb, L. & Hamdan, H. Z. (2020): Nanotechnology to remove polychlorinated biphenyls and polycyclic aromatic hydrocarbons from water – A review. – Environ. Chem. Lett., 18(3):729–746, doi:10.1007/s10311-020-00979-x.
• Borkowski, A., Parafiniuk, J., Wolicka, D. & Kowalczyk, P. (2013): Geomicrobiology of Acid Mine Drainage in the weathering zone of pyrite-bearing schists in the Rudawy Janowickie Mountains (Poland). – Geol. Q., 57(4):601–611, doi:10.7306/gq.1115.
• Borne, M. v. d. (1881): Die Fischerei-Verhältnisse des Deutschen Reiches, Oesterreich-Ungarns, der Schweiz und Luxemburgs. – 306 p., Berlin (Moeser).
• Börner, H. (1932): Über randglaziale Formen in Paznaun und Montafon (Silvretta). – Zeitschrift für Gletscherkunde, für Eiszeitforschung und Geschichte des Klimas, 20:134–137.
• Börner, R.-U., Brossmann, E., Franke, A., Jetschny, S., Merkel, B. J., Meyer, B., Pretzschner, C., Rauchfuss, H., Spitzer, K., Stanek, K., Vasterling, M., Wetzel, H. & Wolkersdorfer, Ch. (2006): scCO2 – Machbarkeitsuntersuchung über den Einsatz von Hot Dry Rock Geothermie zur Elektrizitätserzeugung mit Hilfe von superkritischem CO₂. – 105 p., 54 Abb., 19 Tab.; Freiberg (unveröff. Projektbericht TU Bergakademie Freiberg).
• Bornhardt, W. (1910): Über die Gangverhältnisse des Siegerlandes und seiner Umgebung – Teil 1: Archiv für Lagerstättenforschung 2. – 415 p., Berlin (Kgl. Preuß. Geolog. Landesanst.).
• Bornhardt, W. (1912): Über die Gangverhältnisse des Siegerlandes und seiner Umgebung – Teil 2: Archiv für Lagerstättenforschung. – 483 p., Berlin (Königl. Geolog. Landesanst.).
• Bornhauser, K. (1912/13): Die Tierwelt der Quellen in der Umgebung Basels. – Int. Rev. Gesamten Hydrobiol. Hydrogr. – Biol. Suppl., V. Serie:1–90.
• Borovicová, M. & Seko, M. (2022): The Relationship Between Groundwater in the Nováky Coal Deposit and the Thermal Waters from the Bojnice High Block (Slovakia). – Mine Water Environ., 41(1):74–92, doi:10.1007/s10230-022-00848-9.
• Borvinskaya, E. V., Sukhovskaya, I. V., Vasil’eva, O. B., Nazarova, M. A., Smirnov, L. P., Svetov, S. A. & Krutskikh, N. V. (2017): Whitefish (Coregonus lavaretus) Response to Varying Potassium and Sodium Concentrations: A Model of Mining Water Toxic Response. – Mine Water Environ., 36(3):393–400, doi:10.1007/s10230-016-0426-0.
• Bos, B., Çelik, T., Hickson, I. & Lie, H. W. (2004): Cascading Style Sheets, level 2 revision 1 CSS 2.1 Specification – W3C Candidate Recommendation 25 February 2004. – 349 p., (W3 Consortium).
• Bos, M. G. (1989): Discharge measurement structures, 3 edn. – 401 p., Wageningen (International Institute for Land Reclamation and Improvemen).
• Bose, R., Shirkey, G., Wakeham, T., Karvakko, C., Kreuze, A., Louie, E., Morrison, M., Sanchez Gonzalez, M., Geisler, D. & Winkler, R. (2013): Exploring the Social Feasibility of Minewater Geothermal in Calumet. – 26 p., 20 Abb., 3 Tab.; (Michigan Technological University).
• Boshoff, H. (2015): Practices in Setting Sustainable Water Management Closure Performance Criteria. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Bosman, C. (2009): The Hidden Dragon: Nitrate Pollution from Open-Pit Mines – A Case Study from the Limpopo Province, South Africa. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 849–857, 4 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Bosman, D. J. (1974): The impoved densification of sludge from neutralized acid mine drainage. – J. S. Afr. Inst. Min. Metall., 74(4):340–346, 4 Abb., 5 Tab.
• Bosman, D. J. (1983): Lime Treatment of Acid-Mine Water and Associated Solids Liquid Separation. – Water Sci. Technol., 15(2):71–84, doi:10.2166/wst.1983.0026.
• Bosman, D. J., Clayton, J. A., Maree, J. P. & Adlem, C. J. L. (1990): Removal of Sulphate from Mine Water with Barium Sulphide. – Int. J. Mine Water, 9(1-4):149–163, 5 Abb., 6 Tab.; doi:10.1007/BF02503689.
• Bossé, B., Bussiére, B., Hakkou, R., Maqsoud, A. & Benzaazoua, M. (2013): Assessment of Phosphate Limestone Wastes as a Component of a Store-and-Release Cover in a Semiarid Climate. – Mine Water Environ., 32(2):152–167, 10 Abb., 3 Tab.; doi:10.1007/s10230-013-0225-9.
• Bossé, B., Bussière, B., Maqsoud, A., Hakkou, R. & Benzaazoua, M. (2016): Hydrogeological Behavior of a Store-and-Release Cover: A Comparison Between Field Column Tests and Numerical Predictions With or Without Hysteresis Effects. – Mine Water Environ., 35(2):221–234, doi:10.1007/s10230-015-0350-8.
• Botai, C. M., Botai, J. O. & Adeola, A. M. (2018): Spatial distribution of temporal precipitation contrasts in South Africa. – S. Afr. J. Sci., 114(7/8) doi:10.17159/sajs.2018/20170391.
• Botes, E., Jordan, R., deFlaun, M. F., Howell, J., Borch, R. & van Heerden, E. (2010): Bioremediation of hexavalent chromium contaminated water in fixed-film upflow reactors – a South African first (abstract). – J. Biotechnol., 150S:S269, 1 Abb.; doi:10.1016/j.jbiotec.2010.09.178.
• Botha, F. & Chetty, K. (2012): Is Water Conservation and Water Demand Management a real option?: International Mine Water Association Symposium. – 300 A–300 H p., Bunbury (Edith Cowan University).
• Botha, F. & Maleka, L. (2011): Results show that man-made aquifers within the platinum mining industry in South Africa can provide a solution for future water demands: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 147–152 p., Aachen (RWTH Aachen University).
• Botha, F. & Maleka, L. (2012): Shallow anthropogenic aquifers may provide a solution to reduce nitrate in dirty mine water?: International Mine Water Association Symposium. – 568 A–568 F p., Bunbury (Edith Cowan University).
• Botha, F. S. (2008): Transforming Groundwater from Risk Management to Asset Management in the Mining Sector, South Africa. – Proceedings, 10th International Mine Water Association Congress:425–428.
• Botha, F. S. (2025): Mining: The value of creating a lasting legacy of water resources within unsurmountable challenges. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 319–325; Braga (International Mine Water Association).
• Botha, J. F. & Bakkes, G. N. (1984): Modelling Ground-Water Flow with the Global and Finite Element Methods. – In: Laible, J. P., Brebbia, C. A., Gray, W. & Pinder, G. F. (eds): Finite Elements in Water Resources. – p. 175–185, 6 Abb., 1 Tab.; Berlin (Springer); doi:10.1007/978-3-662-11744-6_16.
• Botha, J. F. & Cloot, A. H. (2004): Karoo Aquifers – Deformations, Hydraulic and Mechanical Properties, 936/1/04. – (Report Nr. 1-77005-202-X). – 110 p., Johannesburg (Water Research Commission).
• Botha, J. F., Verwey, J. P., van der Voort, I., Vivier, J. J. P., Buys, J., Colliston, W. P. & Loock, J. C. (1998): Karoo Aquifers – Their Geology, Geometry and Physical Properties, 487/1/98. – 192 p., 126 Abb., 25 Tab.; Johannesburg (Water Research Commission).
• Botha, M., Bester, L. & Hardwick, E. (2009): Removal of Uranium from Mine Water using Ion Exchange at Driefontein Mine. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 382–391, 12 Abb., 4 Tab; Pretoria (Document Transformation Technologies).
• Bothe-Fiekert, M., Binder, A. & Langefeld, O. (2022): Historic Mining Infrastructure as An Opportunity for Regional Water- & Energy Supply (Harz Mountains, Germany). Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 27–32; (International Mine Water Association).
• Bottino, G., Civita, M., Manzone, I., Olivero, G. & Vigna, B. (1991): Hydrogeology of Molaoi Mining District (Lakonia – Greece). – Proceedings, 4th International Mine Water Association Congress, 1:1–12, 6 Abb., 1 Tab.
• Bottomer, L. R. (1986): Epithermal silver-gold mineralization in the Drake area, northeastern New South Wales. – Aust. J. Earth Sci., 33(4):457–473, doi:10.1080/08120098608729384.
• Bottomley, D. J. (1984): Origins of some arseniferous groundwaters in Nova Scotia and New Brunswick, Canada. – J. Hydrol., 69(1-4):223–257, Refs: 70; illus. incl. 5 tables, geol. sketch map; doi:10.1016/0022-1694(84)90165-3.
• Bottomley, D. J., Katz, A., Chan, L. H., Starinsky, A., Douglas, M., Clark, I. D. & Raven, K. G. (1999): The origin and evolution of Canadian Shield brines: evaporation or freezing of seawater? New lithium isotope and geochemical evidence from the Slave craton. – Chem. Geol., 155(3-4):295–320.
• Bottrell, S. H., Thornton, S. F., Spence, M. J., Allshorn, S. & Spence, K. H. (2010): Assessment of the use of fluorescent tracers in a contaminated Chalk aquifer. – Q. J. Eng. Geol. Hydrogeol., 43(2):195–206, 5 Abb., 7 Tab.; doi:10.1144/1470-9236/08-020.
• Botz, M. K. & Mason, S. E. (1990): Prevention of Acid Drainage from Gold Mining in the Western United States and Impact on Water Quality. – Int. J. Mine Water, 9(1-4):27–41, 5 Tab.
• Botz, R., Stoffers, P., Faber, E. & Tietze, K. (1988): Isotope Geochemistry of Carbonate Sediments from Lake Kivu (East-Central Africa). – Chemical Geology, 69(3-4):299–308, doi:10.1016/0009-2541(88)90041-1.
• Boudjemaa, R., Forbes, A. B., Harris, P. M. & Langdell, S. (2003): Multivariate empirical models and their use in metrology. – Reports NPL-CMSC, CMSC 32/03:55, 30 Abb.
• Bouhlel, Z., Köpke, J., Mina, M. & Smakhtin, V. (2023): Global Bottled Water Industry – A Review of Impacts and Trends. – 40 p., Hamilton (University Institute for Water, Environment and Health).
• Boujounoui, K., Abidi, A., Baçaoui, A., El Amari, K. & Yaacoubi, A. (2018): Flotation Process Water Recycling Investigation for the Complex Draa Sfar Sulphide Ore, Morocco. – Mine Water Environ., 37(1):75–87, doi:10.1007/s10230-017-0471-3.
• Boukhalfa, C. & Chaguer, M. (2012): Characterisation of sediments polluted by acid mine drainage in the northeast of Algeria. – Int. J. Sediment Res., 27(3):402–407, doi:10.1016/S1001-6279(12)60045-6.
• Boult, S. (1996): Fluvial Metal Transport near Sources of Acid Mine-Drainage: Relationships of Soluble, Suspended and Deposited Metal. – Mineral. Mag., 60(399):325–335, 5 Abb., 2 Tab.; doi:10.1180/minmag.1996.060.399.07.
• Boult, S., Johnson, N. & Curtis, C. (1997): Recognition of a Biofilm at the Sediment-water Interface of an Acid Mine Drainage-contaminated Stream, and its Role in Controlling Iron Flux. – Hydrol. Processes, 11(4):391–399, 5 Abb., 5 Tab.
• Boulton, N. S., Rohwer, C., Leggette, R. M., Lewis, M. R. & Jacob, C. E. (1947): Drawdown test to determine effective radius of artesian well – discussion. – Trans. Am. Soc. Civ. Eng., 112:1065–1070.
• Bour, O. & Davy, P. (1998): On the connectivity of three-dimensional fault networks. – Water Resour. Res., 34(10):2611–2622.
• Bourgeois, W., Gardey, G., Servieres, M. & Stuetz, R. M. (2003): A Chemical Sensor Array based System for Protecting Wastewater Treatment Plants. – Sens. Actuator B-Chem., 91(1-3):109–116, 9 Abb.
• Bourne, S., Crouch, S. & Smith, M. (2014): A risk-based framework for measurement, monitoring and verification of the Quest CCS Project, Alberta, Canada. – Int. J. Greenhouse Gas Control, 26:109–126, 12 Abb., 6 Tab.; doi:10.1016/j.ijggc.2014.04.026.
• Bournonville, B., Nzihou, A., Sharrock, P. & Depelsenaire, G. (2004): Stabilisation of heavy metal containing dusts by reaction with phosphoric acid – study of the reactivity of fly ash. – J. Hazard. Mater., 116(1-2):65–74.
• Boutilier, R. G. & Shelton, G. (1980): Statistical Treatment of Hydrogen-Ion Concentration and pH. – J. Exp. Biol., 84(Feb):335–339.
• Bouw, P. C. & Morton, K. L. (1987): Calculation of Mine Water Inflow using Interactively a Groundwater Model and an Inflow Model. – Int. J. Mine Water, 6(4):31–50, 10 Abb.
• Bouyat, C., Picod, G. & Fages, R. (1978): Metro de Lyons – Construction sous le niveau de la nappe phreatique. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 719–740; Maracena (Asociación Nacional de lngenieros de Minas).
• Bouzahzah, H., Benzaazoua, M. & Bussière, B. (2010): A modified protocol of the ASTM normalized humidity cell test as laboratory weathering method of mill tailings. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 567–571, Sydney, NS (Cape Breton University Press).
• Bouzahzah, H., Benzaazoua, M., Bussière, B. & Plante, B. (2014): Prediction of Acid Mine Drainage: Importance of Mineralogy and the Test Protocols for Static and Kinetic Tests. – Mine Water Environ., 33(1):54–65, 7 Abb., 6 Tab.; doi:10.1007/s10230-013-0249-1.
• Bouzahzah, H., Benzaazoua, M., Bussière, B. & Plante, B. (2015): ASTM Normalized Humidity Cell Kinetic Test: Protocol Improvements for Optimal Sulfide Tailings Reactivity. – Mine Water Environ., 34(3):242–257, doi:10.1007/s10230-014-0307-3.
• Bouzalakos, S., Timms, W., Rahman, P., McGeeney, D. & Wheelan, M. (2013): Geotechnical centrifuge permeameter for characterizing the hydraulic integrity of partially saturated confining strata for CSG operations. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1193–1198, 3 Abb., 2 Tab.; Golden (International Mine Water Association).
• Bowden, A. (1988): Special Problems of Management – General Report. – Proceedings, 3rd International Mine Water Congress, Melbourne:771–774.
• Bowden, L. I., Jarvis, A., Orme, P., Moustafa, M. & Younger, P. L. (2005): Construction of a novel Permeable Reactive Barrier (PRB) at Shilbottle, Northumberland, UK: engineering design considerations and preliminary performance assessment: Mine Water 2005 – Mine Closure. – 375–381 p., 5 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Bowell, R. (2003): The influence of speciation in the removal of arsenic from mine waters. – Land Contam. Reclam., 11(2):231–238, doi:10.2462/09670513.819.
• Bowell, R. (2018): Assessment of Scordite Precipitation from Mine Waters. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 91–96; (Tshwane University of Technology).
• Bowell, R., Bamforth, S., Walton, J. & Brabham, P. (2023): An assessment of the current operation of the Coal Authority Six Bells Mine Water Treatment Scheme, South Wales. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 77–82; (International Mine Water Association).
• Bowell, R., Rees, B. & Broughton, L. (2005): Assessment of mine waters suitable for metal recovery: Mine Water 2005 – Mine Closure. – 559–560 p., 1 Tab.; Oviedo (University of Oviedo).
• Bowell, R. & Sapsford, D. (2018): Geochemical assessment of Metal/Metalloid release by contrasting laboratory methods; The importance of secondary minerals. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 315–320; (Tshwane University of Technology).
• Bowell, R., Smith, K. S., Plumlee, G. S., Hageman, P. L. & Kleinmann, R. (2016): Metal Recovery from Mine Waters: Feasibility and Options – an Example Assessment from the Colorado Mineral Belt, USA. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1263–1266, Freiberg (TU Bergakademie Freiberg).
• Bowell, R. J. (2001): Hydrogeochemistry of the Getchell Underground Mine – Part 1: Mine Water Chemistry. – Mine Water Environ., 20(2):81–97, 10 Abb., 7 Tab.; doi:10.1007/s10230-001-8086-z.
• Bowell, R. J. (2002): The hydrogeochemical dynamics of mine pit lakes. – Spec. Publ. – Geol. Soc. London, 198:159–185, 18 Abb., 7 Tab.
• Bowell, R. J. (2003): Pit Lake Systematics: A Special Issue. – Mine Water Environ., 22(4):167–169, doi:10.1007/s10230-003-0019-6.
• Bowell, R. J. (2004): A review of sulphate removal options for mine waters. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 75–91, 6 Abb., 7 Tab.; Newcastle upon Tyne (University of Newcastle).
• Bowell, R. J., Barta, J., Gringrich, M., Mansanares, W. & Parshley, J. (1998): Geological Controls on Pit Lake Chemistry: Implications for the assessment of Water Quality in Inactive Open Pits: Mine Water and Environmental Impacts 2. – 375–386 p., 5 Abb., 1 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Bowell, R. J., Connelly, R. J., Ellis, J., Cowan, J., Wood, A., Barta, J. & Edwards, P. (1997): A review of sulfate removal options from mine waters. – Open-File Rep. US Geol. Surv., OF 97-0496:14.
• Bowell, R. J., Day, M., Griffiths, L., Rees, S. B. & Williams, K. P. (1999): Geochemistry of Oxidised Waste Rock: Implications for the Disposal of Mine Waste. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 519–524, 2 Abb., 5 Tab.; Sevilla (International Mine Water Association).
• Bowell, R. J., Kabellega, D., Knol, R., McLveen, G., Rees, S. B., Shoo, K. & Stephen, R. (2003): Establishing a geochemical baseline for environmental assessment at the Geita mine, Tanzania. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 403–421, 6 Abb., 8 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Bowell, R. J. & Parshley, J. V. (2005): Control of Pit-lake Water Chemistry by Secondary Minerals, Summer camp pit, Getchell Mine, Nevada. – Chem. Geol., 215(1-4):373–385.
• Bowen, G. G., Dussek, C. & Hamilton, R. M. (1998): Pollution resulting from the abandonment and subsequent flooding of Wheal Jane Mine in Cornwall, UK. – Spec. Publ. – Geol. Soc. London, 128(Groundwater Contaminants and Their Migration):93–99, doi:10.1144/GSL.SP.1998.128.01.09.
• Bowen, G. J., Wassenaar, L. I. & Hobson, K. A. (2005): Global application of stable hydrogen and oxygen isotopes to wildlife forensics. – Oecologia, 143(3):337–348, doi:10.1007/s00442-004-1813-y.
• Bowie, A. J., Stearman, A. & Tom, S. (2017): Under Ice Treatment and Discharge Of A Tailings Impoundment – A Case Study From The Lupin Mine Nunavut, Canada. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 189–196, Lappeenranta (Lappeenranta University of Technology).
• Bowie, G. L., Mills, W. B., Porcella, D. B., Campbell, C. L., Pagenkopf, J. R., Rupp, G. L., Johnson, K. M., Chan, P. W. H., Gherini, S. A. & Chamberlin, C. E. (1985): Rates, Constants, and Kinetics Formulations in Surface Water Quality Modeling. – 455 p., (U.S. Environmental Protection Agency).
• Bowker, L. N. & Chambers, D. M. (2017): In the Dark Shadow of the Supercycle Tailings Failure Risk & Public Liability Reach All Time Highs. – Environments, 4(4):21, doi:10.3390/environments4040075.
• Bowles, D. S., Giuliani, F. L., Hartford, D. N. D., Janssen, J. P. F. M., McGrath, S., Poupart, M., Stewart, D. & Zielinski, P. A. (2007): ICOLD Bulletin on Dam Safety Management. Paper presented at the NZSOLD-ANCOLD 2007 Conference – Dams – Securing Water for Our Future, Queenstown. – p. 1–9; (New Zealand Society on Large Dams, Australian National Committee on Large Dams).
• Bowles, O. (1937): Asbestos. – Bur. Mines Bull., 403:1–92, 10 Abb., 38 Tab.
• Bowls, O. & Banks, D. M. (1936): Lime. – Bur. Mines Inf. Circ., IC-6884:1–37, 6 Tab.
• Bowman, R. S. (1984): Evaluation of Some New Tracers for Soil Water Studies. – Soil Sci. Soc. Am. J., 48(5):987–993, 10 Abb., 2 Tab.
• Bowman, W. D., Cleveland, C. C., Halada, Ĺ., Hreško, J. & Baron, J. S. (2008): Negative impact of nitrogen deposition on soil buffering capacity. – Nature Geoscience, 1:767, doi:10.1038/ngeo339.
• Box, G. E. P. (1976): Science and Statistics. – J. Amer. Stat. Assoc., 71(356):791–799, 3 Abb., 1 Tab.
• Box, G. E. P. (1979): Robustness in the strategy of scientific model building: Robustness in Statistics. – 201–236 p., 14 Abb., 1 Tab.; New York (Academic Press).
• Box, G. E. P., Hunter, W. G. & Hunter, J. S. (2005): Statistics for Experimenters – Design, Innovation, and Discovery, 2nd edn. – 633 p., 129 Abb., 124 Tab.; New York (Wiley).
• Boyd, C. E., Tucker, C. S. & Viriyatum, R. (2011): Interpretation of pH, Acidity, and Alkalinity in Aquaculture and Fisheries. – N. Am. J. Aquacult., 73(4):403–408, doi:10.1080/15222055.2011.620861.
• Boyd, G. L. (1988): Hydrodynamic Environments – General Report. – Proceedings, 3rd International Mine Water Congress, Melbourne:1–8.
• Boyer, J. F. & Gleason, V. E. (1974): Coal and Coal Mine Drainage. – J. Water Pollut. Control Fed., 46(6):1290–1294.
• Bozau, E., Bauer, G., Licha, T. & Lojen, S. (2021): Hydrochemical response of spring and mine waters in the Upper Harz Mountains (Germany) after dry periods and heavy rain events. – Z. Dt. Ges. Geowiss., 172(1):73–82, doi:10.1127/zdgg/2021/0259.
• Bozau, E., Bauer, G., Licha, T. & Lojen, S. (2021): Hydrochemical response of spring and mine waters in the Upper Harz Mountains (Germany) after dry periods and heavy rain events. – Z. Dt. Ges. Geowiss., 172(1):73–82, doi:10.1127/zdgg/2021/0259.
• Bozau, E., Friese, K. & Stärke, H.-J. (2003): Geochemistry and REE pattern of acidic Pit Lakes in Lower Lusatia (Germany). – Wiss. Mitt. Inst. Geol., 24:15–18, 3 Abb., 2 Tab.
• Bozau, E., Licha, T. & Ließmann, W. (2017): Hydrogeochemical characteristics of mine water in the Harz Mountains, Germany. – Chem. Erde Geochem., 77:614–624, 8 Abb., 2 Tab.; doi:10.1016/j.chemer.2017.10.001.
• Bozau, E., Sattler, C.-D. & van Berk, W. (2015): Hydrogeochemical classification of deep formation waters. – Appl. Geochem., 52(Supplement C):23–30, doi:10.1016/j.apgeochem.2014.10.018.
• Bozau, E., Schäfer, T. & Licha, T. (2024): Spring water monitoring in the Upper Harz Mountains: Precipitation, runoff and specific electrical conductivity. – Sci. Total Environ., 939 doi:10.1016/j.scitotenv.2024.173565.
• Bozau, E. & Stärk, H.-J. (2005): Uranium contents in acidic lakes and groundwater of Lower Lusatia (Germany). – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 867–874, Heidelberg (Springer).
• Bozdag, A. (2015): Combining AHP with GIS for assessment of irrigation water quality in Cumra irrigation district (Konya), Central Anatolia, Turkey. – Environ. Earth Sci., 73(12):8217–8236, doi:10.1007/s12665-014-3972-4.
• Bozkurt, E. & Mittwede, S. K. (2003): Introduction to the Geology of Turkey – A Synthesis. – Int. Geol. Rev., 43:578–594, 2 Abb.
• Brack, C. (1990): The “Löwengrube” – The End of a Legend or A (Un-) Modern Fairy-tale about a Mythical Mine. – D.C. Speleograph, 46(4):15–21, 4 Fotos, 1 Abbildung, 1 Karte.
• Bracke, G., Alkan, H. & Müller, W. (2005): Modelling Underground Ventilation Networks and Radon Flow for Radiological Protection Using VUMA. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 593–600, Heidelberg (Springer).
• Bracke, G., Förster, B., Meyer, H., Hensel, G., Thauer, G.-W. & Taylor, T. (2002): Long Term Safety of the Asse Salt Mine. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 129–134, 3 Abb.; Heidelberg (Springer).
• Bracke, R., Bussmann, G., Eicker, T., Ignacy, R., Jagert, F., Danowski-Buhren, C. & Schmidt, B. (2018): Potenzialstudie Warmes Grubenwasser. – LANUV-Fachbericht, 90:1–154.
• Bradley, C., Cross, J., Durand, J. F., Ellis, R., Groenewald, J., Grove, A., Holland, M., Kenyon, P., Jamison, A. A., Krige, W. G., Macgregor, M., Tholin, J., Peinke, D., Witthüser, K. & van Biljon, M. (2010): The Karst System of the Cradle of Humankind World Heritage Site, KV 241/10. – (Report Nr. WRC Report No. KV 241/10). – 402 p., Pretoria (Water Research Commission).
• Bradley, D. C. & Bradley, L. M. (1986): Tectonic significance of the Carboniferous Big Pond Basin, Cape Breton Island, Nova Scotia. – Can. J. Earth Sci., 23:2000–2011, 12 Abb.
• Brady, K., Hornberger, R. J., Chisholm, W. & Sames, G. (2000): How Geology Affects Mine Drainage Prediction. – In: Kleinmann, R. L. P. (ed) Prediction of Water Quality at Surface Coal Mines. – p. 8–34, 7 Abb., 5 Tab.; Morgantown (National Mine Land Reclamation Center).
• Brady, K. B. C. & Cravotta, C. A., III (1992): Acid-base Accounting: An improved Method of interpreting Overburden Chemistry to predict Quality of Coal-Mine Drainage. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 13:elektronisches Dokument, 1 Abb.
• Brady, K. B. C., Smith, M. W., Beam, R. L. & Cravotta, C. A., III (1990): Effectiveness of the Addition of Alkaline Materials at Surface Coal Mines in Preventing and Abating Acid Mine Drainage – Part 2 Mine Site Case Studies. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 11:elektronisches Dokument, 11 Abb., 2 Tab.
• Braga, A. d. S., Cordeiro, G. M. & Ortega, E. M. M. (2018): A new skew-bimodal distribution with applications. – Commun. Stat. Theory Methods, 47(12):2950–2968, doi:10.1080/03610926.2017.1343851.
• Brahmi, K., Bouguerra, W., Belhsan, H., Elaloui, E., Loungou, M., Tlili, Z. & Hamrouni, B. (2016): Use of Electrocoagulation with Aluminum Electrodes to Reduce Hardness in Tunisian Phosphate Mining Process Water. – Mine Water Environ., 35(3):310–317, doi:10.1007/s10230-015-0354-4.
• Brajnik, D., Krizman, M., Kobal, I. & Stegnar, P. (1988): Sources of Technologically Enhanced Natural Radioactivity and their Impact in Slovenia (Yugoslavia). – Radiat. Prot. Dosim., 24:551–554, 3 Abb., 1 Tab.
• Brakensiek, D. L., Engleman, R. L. & Rawls, W. J. (1981): Variation within Texture Classes of Soil Water Parameters. – Trans. Am. Soc. Agric. Eng., 24:335–339, 6 Abb., 2 Tab.
• Bram, L. & Klemetsrud, B. (2023): Calcium Carbonate in Waste Flooring for Neutralization of Acid Rock Drainage. – Mine Water Environ., 42(1):70–77, doi:10.1007/s10230-023-00926-6.
• Brammer, K.-J. & Knipping, B. J. (1993): The origin of formation waters in the abandoned Konrad iron ore mine (Salzgitter, Germany). – Eur. J. Mineral., 5(4):787–797, 7 Abb., 8 Tab.
• Branch, T., Ritter, O., Weckmann, U., Sachsenhofer, R. F. & Schilling, F. (2007): The Whitehill Formation – a high conductivity marker horizon in the Karoo Basin. – S. Afr. J. Geol., 110(2-3):465–476, 5 Abb., 3 Tab.; doi:10.2113/gssajg.110.2-3.465.
• Branchu, P. & Bergonzini, L. (2004): Chloride concentrations in Lake Tanganyika: an indicator of the hydrological budget? – Hydrol. Earth Syst. Sci., 8(2):256–265, 5 Abb., 4 Tab.; doi:10.5194/hess-8-256-2004.
• Brand, H. (1921): Die Kupfererzlagerstätte bei Kupferberg i. Oberfranken mit besonderer Berücksichtigung ihrer Beziehungen zur Münchberger Gneismasse. – Geogn. Jh., 34:1–102, 12 Abb., 10 Taf., 1 Kart.
• Brandberg, F., Grundfelt, B., Hoglund, L. O. & Lindgren, M. (1993): Prediction of metal discharges from sulphidic mine tailings covered with soil. – IAHS-AISH Publication, 220:193–202, 3 Abb., 2 Tab.
• Brandner, R. (1984): Meeresspiegelschwankungen und Tektonik in der Trias der NW-Tethys. – Jb. Geol. B.-A., 126(4):435–475.
• Brandt, A. & Fernando, H. J. S. (1995): Double-Diffusive Convection: Geophysical Monograph 94. – 334 p., Washington (American Geophysical Union).
• Brandt, D. & Reimold, W. U. (1995): The geology of the Pretoria Saltpan impact structure and the surrounding area. – S. Afr. J. Geol., 98(3):287–303.
• Brandt, M. J., Johnson, K. M., Elphinston, A. J. & Ratnayaka, D. D. (2017): Twort’s Water Supply, 7th edn. – 898 p., Amsterdam (Elsevier); doi:10.1016/c2012-0-06331-4.
• Brandt, S. B., Brandt, I. S., Rasskazov, S. V. & Ivanov, A. V. (2003): Formal Considerations on Argon-Argon Diagrams in 40Ar/39Ar Geochronometry. – Wiss. Mitt. Inst. Geol., 24:19–26, 5 Abb.
• Brantley, S. L. & Mellott, N. P. (2000): Surface area and porosity of primary silicate minerals. – Am. Mineral., 85(11-12):1767–1783, 8 Abb., 4 Tab.; doi:10.2138/am-2000-11-1220.
• Brasser, T., Fischer-Appelt, K., Larue, J. & Moenig, J. (2001): Hydrochemischer Charakter von Tiefenwässern in ausgewählten Regionen Deutschlands – Fachliche Unterstützung des BMU-Arbeitskreises zur Auswahl von Endlagerstandorten. – 86 p., 21 Abb., 13 Tab.; (Gesellschaft für Anlagen- und Reaktorsicherheit (GRS) GmbH).
• Brasser, T., Noseck, U. & Schönwiese, D. (2002): Uranium Migration in Argillaceous Sediments as Analogue for Transport Processes in the Far Field of Repositories (Heselbach Site, Germany). – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 141–148, 10 Abb.; Heidelberg (Springer).
• Brassington, R. (2017): Field Hydrogeology, 4th edn. – 276 p., 104 Abb., 43 Tab., 2 Anh.; Chichester (Wiley & Sons); doi:10.1002/9781118397404.
• Bratsch, S. G. (1989): Standard Electrode Potentials and Temperature Coefficients in Water at 298.15 K. – J. Phys. Chem. Ref. Data, 18(1):1–21, 3 Tab.
• Bratty, M., Rutkowski, T., Blumenstein, E., Conroy, K. & van Niekerk, A. M. (2015): Established and Emerging Passive and Hybrid Biological Sulphate Removal from Mining Effluents. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Braun, F. (1888): Ueber die Lagerungs-Verhältnisse der Kohlenflötze in der bayerischen Steinkohlengrube Mittelbexbach und deren Zusammenhang mit jenen der benachbarten Gruben links der Blies. – Geogn. Jh., 1:23–38, 2 Abb., 3 Tab.
• Braun, L. & Kisting, S. (2006): Asbestos-Related Disease in South Africa – The Social Production of an Invisible Epidemic. – Am. J. Public Health, 96(8):1386–1396, doi:10.2105/AJPH.2005.064998.
• Braun, L., Märten, H., Raschke, R., Richter, A., Sommer, K. & Zimmermann, U. (2008): Flood Water Treatment at the Former Uranium Mine Site Königstein – a Field Report. – Proceedings, 10th International Mine Water Association Congress:189–192.
• Braun, M. (1837): Neues zur Oryktognosie Baden’s. – N. Jb. Min. Geol. Pal.:633–640, 1 Taf.
• Braun, M. (1840): Notice sur les mines de cobalt et argent de la forêt Noire (grand-duché de Bade). – Ann. des mines, 18(3):145–152.
• Braun, M. (1841): Note sur un gisement de soufre et sur le terrain qui le renferme dans la province de Feruel (Royaume d’Aragon. — Espagne.) –Bulletin de la Soc. de Géol. de France, 12:169–174.
• Braun, M. (1853): Bemerkungen zu: Schwarzenberg, Über die geognostischen Verhältnisse der Umgebung von Algier, Koleah, Blidah und Medeah nebst einem Gebirgsprofile. – Amtlicher Bericht Versammlung Deutscher Naturforscher und Ärzte zu Wiesbaden 1852, 29:141.
• Braun, M. (1853): Über das Vorkommen von Kieselzinkerz im Lager des Altenberg. – Amtlicher Bericht Versammlung Deutscher Naturforscher und Ärzte zu Wiesbaden 1852, 29:132.
• Braun, M. (1857): Ueber die Galmeilagerstätte des Altenbergs im Zusammenhang mit den Erzlagerstätten des Altenberger Grubenfeldes und der Umgebung. – Z. dt. geol. Ges., 9:354–370, 3 Taf.
• Braungardt, C. B., Buterfield, M. & Wajrak, M. (2010): On-site mine water analysis: application note for the PDV6000plus. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 331–335, Sydney, NS (Cape Breton University Press).
• Braungardt, C. B., Mighanetara, K. & Money, C. (2007): Mine Waters in estuarine Environments: Water in Mining Environments. – 31–35 p., 1 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Braunhofer, D. & Mostler, W. (2023): Wasser aus dem Berg – Trinkwassergewinnung aus dem Mieminger Gebirge. Paper presented at the Geoforum Umhausen, Umhausen. – p. 32–42, 7 Abb., 1 Tab.
• Braunstein, P. (1989): Leggende “welsche” e itinerari slesiani: la prospezione mineraria nel Quattrocento. – Quaderni storici, 70:24(1):25–56.
• Bräutigam, B., Molitor, N., Harpke, B. & Heise, K. (2017): Mass Flow Reduction in Mining Water: Valuation of Measures with due regard to the Requirements of the Water Framework Directive. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 101–108, Lappeenranta (Lappeenranta University of Technology).
• Brawner, C. O. (1979): General Report on Mine Drainage: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 33–53 p., 1 Tab.; San Francisco (Freeman).
• Brawner, C. O. (1982): Control of Ground Water in Surface Mining. – Int. J. Mine Water, 1(1):1–16, 11 Abb.
• Brawner, C. O., Pakalnis, R. & Balmer, J. (1982): Vacuum Drainage to stabilize Rock Slopes on Mining Projects. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:392–410, 17 Abb., 1 Tab.
• Breckenridge, J. L., Bickford, F. E. & Luscz, E. (2013): Assessing the Reliability of an Unlined Tailings Storage Facility for Protecting Water Resources. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 269–274, 4 Abb.; Golden (International Mine Water Association).
• Breckenridge, J. L. & Luscz, E. (2011): Predicting Underground Mine Dewatering Requirements: A Case Study of a Precious Metal Mine in a Subtropical Environment: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 101–106 p., Aachen (RWTH Aachen University).
• Breckenridge, L. (2010): Evapotranspiration Caps for Mine Waste Closure – Case Studies in Extreme Environments. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 455–459, Sydney, NS (Cape Breton University Press).
• Breckenridge, L., Bickford, F. & Livingston, A. (2015): Acid-Generating Waste Rock Encapsulation in a Subalpine Environment. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Breckenridge, L., Blair, M. & Subotskaya, Y. (2025): Pit Lake Prediction Case Study: Managing Insecurity in the Dataset using Bracketed Inputs. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 745–750; Braga (International Mine Water Association).
• Breckenridge, L., Fisher, B. & Leduc, M. P. (2016): Integrated Slope Stability and Dewatering Evaluation: Optimizing Slopes to Optimize Value. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1084–1091, Freiberg (TU Bergakademie Freiberg).
• Breckenridge, L. & Harvey, T. (2023): Modeling Heap Leach Solutions to Optimize Safety and Revenue. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 83–88; (International Mine Water Association).
• Breckenridge, L., Hudson, A., Brown, P. & Henderson, M. (2005): Hydrogeologic Investigation of the Gold Reserve Incorporated Brisas del Cuyuni Concession in Southeast Venezuela: Mine Water 2005 – Mine Closure. – 459–465 p., 7 Abb.; Oviedo (University of Oviedo).
• Breckenridge, L. P. E. & Hudson, A. R. E. M. (2008): Hydrogeologic Modeling to Improve Pit Slope Stability. – Proceedings, 10th International Mine Water Association Congress:61–64.
• Bredekamp, H. (1984): Der Mensch als Mörder der Natur – Das ›ludicium Iovis‹ von Paulus Niavis und die Leibmetaphorik. – In: Reinitzer, H. (ed) All Geschöpf ist Zung’ und Mund – Beiträge aus dem Grenzbereich von Naturkunde und Theologie 6. – p. 261–283, Hamburg (Wittig).
• Bredenkamp, B. (2013): Numeric model calibration against both flux and head targets to determine reliable groundwater inflow prediction. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 103–103, Golden (International Mine Water Association).
• Bredenkamp, B. J., Levay, E. & Marais, A. (2017): Finely Discretized Numerical Flow Model Of Complex Multiple Open Pit Mine For Reliable Inflow And Pore Pressure Simulations – An African Perspective. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 510–516, Lappeenranta (Lappeenranta University of Technology).
• Breedveld, G. D., Klimpel, F., Kvennås, M. & Okkenhaug, G. (2017): Stimulation of Natural Attenuation of Metals in Acid Mine Drainage through Water and Sediment Management at Abandoned Copper Mines. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1133–1137, Lappeenranta (Lappeenranta University of Technology).
• Breit, G. N. & Wanty, R. B. (1991): Vanadium accumulation in carbonaceous rocks: A review of geochemical controls during deposition and diagenesis. – Chem. Geol., 91(2):83–97, doi:10.1016/0009-2541(91)90083-4.
• Breitenlechner, E., Hilber, M., Lutz, J., Kathrein, Y., Unterkircher, A. & Oeggl, K. (2010): The impact of mining activities on the environment reflected by pollen, charcoal and geochemical analyses. – J. Archaeol. Sci., 37(7):1458–1467, doi:10.1016/j.jas.2010.01.006.
• Breivik, K., Sweetman, A., Pacyna, J. M. & Jones, K. C. (2002): Towards a global historical emission inventory for selected PCB congeners — a mass balance approach: 1. Global production and consumption. – Sci. Total Environ., 290(1):181–198, doi:10.1016/S0048-9697(01)01075-0.
• Breivik, K., Sweetman, A., Pacyna, J. M. & Jones, K. C. (2007): Towards a global historical emission inventory for selected PCB congeners — A mass balance approach: 3. An update. – Sci. Total Environ., 377(2):296–307, doi:10.1016/j.scitotenv.2007.02.026.
• Bremner, L. (2013): The Political Life of Rising Acid Mine Water. – Urban Forum, 24(4):463–483, doi:10.1007/s12132-013-9198-9.
• Brencic, M. (1996): Hydrogeological Aspects of Karst | Conceptual approach to modeling karst development: Engineering in Karst. – 17 p., 4 Abb.; Portoroz (Proceedings International Mine Water Association Workshop).
• Brenčič, M., Ferjan, T. & Gosar, M. (2010): Geochemical survey of Slovenian bottled waters. – J. Geochem. Explor., 107(3):400–409, doi:10.1016/j.gexplo.2010.09.007.
• Brenčič, M. & Vreča, P. (2010): The use of a finite mixture distribution model in bottled water characterisation and authentication with stable hydrogen, oxygen and carbon isotopes — Case study from Slovenia. – J. Geochem. Expl., 107(3):391–399, doi:https://doi.org/10.1016/j.gexplo.2010.08.006.
• Brenk, F.-R. & Wentrup, G.-J. (1985): Quantifizierung von polychlorierten Biphenylen (PCB) in Altöl. – Erdöl Kohle Erdgas Petrochem., 38(10):469–470.
• Brentano, E. W. (1877): Alt-Ilion im Dumbrekthal – Ein Versuch die Lage des Homerischen Troia nach den Angaben des Plinius und Demetrius von Skepsis zu bestimmen. – 1 Kart.; Heilbronn (Henninger).
• Brereton, V. C. H. R. (1973): The gold deposits of the farms Lisbon and Berlyn in the Eastern Transvaal. – J. S. Afr. Inst. Min. Metall., 74(4):125–131.
• Bretherton, B. (1989): Near-surface acid mine water pools and their implications for mine abandonment, Coeur d’Alene mining district, Idaho. – 152 p., Master's Thesis, University of Idaho, 32 Abb., 17 Tab.; Moscow.
• Bretzler, A. (2008): Hydrochemical Characterisation and Time Series Comparison of Ground- and Surface Water in Troia, Turkey. – 56 p., TU Bergakademie Freiberg, 19 Abb., 12 Tab.; Freiberg.
• Breuer, R. & Al-Asmi, S. R. (2010): Nimr water treatment project – Up scaling a reed bed trail to industrial scale produced water treatment. Paper presented at the SPE International Conference on Health, Safety and Environment in Oil and Gas Exploration and Production 2010, Rio de Janeiro, 12–14 April 2010. – p. 286–296, 3 Abb., 5 Tab.; (Society of Petroleum Engineers).
• Breuer, R. & Grissemann, E. (2011): Produced water treatment using wetlands – Reducing the environmental impact of oilfield operations. Paper presented at the SPE International Conference on Health, Safety and Environment in Oil and Gas Exploration and Production 2011, Wien, 22–24 February 2011. – p. 70–77, 2 Abb., 5 Tab.; (Society of Petroleum Engineers).
• Breuer, R., Headley, T. R., Thaker, Y. I. & Al Sharji, B. (2012): The first year’s operation of the Nimr water treatment plant in Oman-sustainable produced water management using wetlands. Paper presented at the SPE/APPEA Int. Conference on Health, Safety and Environment in Oil and Gas Exploration and Production 2012: Protecting People and the Environment – Evolving Challenges, Perth, 11–13 September 2012. – p. 334–341, 4 Abb., 2 Tab.; (Society of Petroleum Engineers).
• Breuer, R. & Schlicht, T. (2011): Produced Water Management Using Wetlands: A Progress Report on the Installation of the First Commercial Wetland Application in the Oil and Gas Industry. Paper presented at the SPE Americas E&P Health, Safety, Security, and Environmental Conference, Houston, 2011/1/1/. – p. 11; SPE (Society of Petroleum Engineers).
• Breyer, F. G. (1921): Zinc Chloride as a Wood Preservative. – Coal Age, 20(25):1015.
• Brezina, E. (1906): Die Donau vom Leopoldsberge bis Preßburg, die Abwässer der Stadt Wien und deren Schicksal nach ihrer Einmündung in den Strom. – Z. Hyg. Infektionskr., 53(1):369–503, 51 Tab., 1 Taf.; doi:10.1007/BF02217422.
• Brezinski, D. K. (2007): Geologic and anthropogenic factors influencing karst development in the Frederick region of Maryland. – Environ. Geosci., 14(1):31–48, 16 Abb., 3 Tab.
• Breznik, M. (1996): Exploration, Design and Construction of Cutoffs in Karstic Regions: Engineering in Karst. – 19 p., 5 Abb., 2 Tab.; Portoroz (Proceedings International Mine Water Association Workshop).
• Bridge, T. A. M. & Johnson, D. B. (2000): Reductive Dissolution of Ferric Iron Minerals by Acidiphilium SJH. – Geomicrobiol. J., 17:193–206, 5 Abb., 2 Tab.
• Bridgland, D. R. & Westaway, R. (2014): The use of fluvial archives in reconstructing landscape evolution: the value of sedimentary and morphostratigraphical evidence. – Neth. J. Geosci. – Geol. en Mijnb., 91(1-2):5–24, doi:10.1017/s0016774600000536.
• Bridgwood, E. W., Singh, R. N. & Atkins, A. S. (1983): Selection and Optimisation of Mine Pumping Systems. – Int. J. Mine Water, 2(2):1–18, 4 Abb., 1 Tab.
• Brielmann, H. (2008): Recharge and discharge mechanism and dynamics in the mountainous northern Upper Jordan River Catchment, Israel. – 312 p., 65 Abb., 87 Tab.; München (unveröff. Dissertation Ludwig-Maximilians-Universität).
• Bright, D. A., Dodd, M. & Reimer, K. J. (1996): Arsenic in Subarctic Lakes Influenced by Gold Mine Effluent: the Occurrence of Organoarsenicals and ’hidden’ Arsenic. – Sci. Total Environ., 180(2):165–182.
• Brindha, K. & Elango, L. (2014): Geochemical Modelling of the Effects of a Proposed Uranium Tailings Pond on Groundwater Quality. – Mine Water Environ., 33(2):110–120, 10 Abb., 2 Tab.; doi:10.1007/s10230-014-0279-3.
• Bringemeier, D. (2012): Inrush and mine inundation – A real threat to Australian coal mines?: International Mine Water Association Symposium. – 25–30 p., Bunbury (Edith Cowan University).
• Bringhurst, R. (2012): The elements of typographic style Version 4.0 – 20th anniversary edition, 4th edn. – 398 p., Seattle (Hartley & Marks).
• Brink, H.-J. (2013): Die Intrusion von Bramsche – ein Irrtum im invertierten Niedersächsischen Becken? – Z. Dt. Ges. Geowiss., 164(1):33–48, doi:10.1127/1860-1804/2013/0011.
• Brinkmann, R. & Kühn, R. (1973): Über Salzwasser-Thermen im Küstenland von West-Anatolien, Türkei. – Chem. Geol., 12(3):171–187, 8 Abb., 3 Tab.
• Briso, A., Quintana, G., Ide, V., Basualto, C., Molina, L., Montes, G. & Valenzuela, F. (2018): Integrated use of magnetic nanostructured calcium silicate hydrate and magnetic manganese dioxide adsorbents for remediation of an acidic mine water. – J. Water Process Eng., 25:247–257, doi:10.1016/j.jwpe.2018.08.010.
• Bristow, C. M., Durrance, E. M. & Selwood, E. B. (1998): The Geology of Cornwall –298 p.
• British Soft Drinks Association (2004): Labelling of Bottled Water. In: British Soft Drinks Association (ed). British Soft Drinks Association, London, 2.
• British Soft Drinks Association (2010): Guide to Good Bottled Water Standards. – London (British Soft Drinks Association).
• Britt, T. E. & Wood, D. C. (1983): Free Convection in a Partially Submerged Fluid Loop. – American Society of Mechanical Engineers, 83-HT-67:1–8, 13 Abb.
• Brix, H. (1987): The applicability of the wastewater treatment plant in Othfresen as scientific documentation of the root-zone method. – Water Sci. Technol., 19(10):19–24, 1 Abb., 1 Tab.; doi:10.2166/wst.1987.0093.
• Brix, H. (1987): Treatment of wastewater in the rhizosphere of wetland plants – the root-zone method. – Water Sci. Technol., 19(1–2):107–118, 5 Abb., 2 Tab.; doi:10.2166/wst.1987.0193.
• Brix, H. (2003): Danish Experiences with Wastewater Treatment in Constructed Wetlands. – Proceedings, 1st International Seminar on the Use of Aquatic Macrophytes for Wastewater Treatment in Constructed Wetlands:1–36, 20 Abb., 2 Tab.
• Brix, H. (2003): Plants used in Constructed Wetlands and their Function. – Proceedings, 1st International Seminar on the Use of Aquatic Macrophytes for Wastewater Treatment in Constructed Wetlands:81–109, 9 Abb., 2 Tab.
• Broadhurst, J. (2019): The contribution of mining to clean water and sanitation (SDG 6): Case studies from South Africa. – In: Nagao, M., Masinja, J. & Alhassan, A. (eds): Sustainable Development in Africa – Case Studies. – p. 213–225, 3 Abb.; Denver (Spears Media Press).
• Broadhurst, J. & Harrison, S. (2015): A Desulfurization Flotation Approach for the Integrated Management of Sulfide Wastes and Acid Rock Drainage Risks. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Broadhurst, J. L., Bryan, C., Becker, M., Franzidis, J.-P. & Harrison, S. (2013): Characterising the Acid Generating Potential of Mine Wastes by means of Laboratory-scale Static and Biokinetic Tests. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 275–280, 5 Abb., 2 Tab.; Golden (International Mine Water Association).
• Brodaric, B., Boisvert, E., Chery, L., Dahlhaus, P., Grellet, S., Kmoch, A., Letourneau, F., Lucido, J., Simons, B. & Wagner, B. (2018): Enabling global exchange of groundwater data: GroundWaterML2 (GWML2). – Hydrogeol. J., 26(3):733–741, doi:10.1007/s10040-018-1747-9.
• Brodie, G. A. (1991): Staged, Aerobic Constructed Wetlands to Treat Acid Drainage – Case History of Fabius Impoundment 1 and Overview of the Tennessee Valley Authority’s Program: Wetland Design for Mining Operations. – 1–16 p., 6 Abb., 1 Tab.; Pensacola (Proceedings International Conference on Constructed Wetlands for Water Quality Improvement).
• Brodie, G. A. (1993): Staged, Aerobic, Wetlands-Based Acid Drainage Treatment Systems Design, Construction, and Operation. – In: Wildeman, T., Brodie, G. & Gusek, J. (eds): Wetland Design for Mining Operations. – p. II.1 – II.35, 8 Abb.; Richmond, BC (BiTech).
• Brodie, G. A., Britt, C. R., Tomaszewski, T. M. & Taylor, H. N. (1991): Anoxic Limestone Drains to Enhance Performance of Aerobic Acid Drainage Treatment Wetlands – Experiences of the Tennessee Valley Authority: Wetland Design for Mining Operations. – 17–34 p., 7 Abb.; Pensacola (Proceedings International Conference on Constructed Wetlands for Water Quality Improvement).
• Broemme, K., Trinh, V. Q., Greassidis, S. & Stolpe, H. (2018): Material flow analysis for spatiotemporal mine water management in Hon Gai, Vietnam. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 97–102; (Tshwane University of Technology).
• Bromley, J., Edmunds, W. M., Fellman, E., Brouwer, J., Gaze, S. R., Sudlow, J. & Taupin, J. D. (1997): Estimation of rainfall inputs and direct recharge to the deep unsaturated zone of southern Niger using the chloride profile method. – J. Hydrol., 188-189:139–154, 5 Abb., 3 Tab.
• Brook, M. C. (2009): The Development and Management of Water Related Technical “Partnerships” within the Debswana Diamond Mining Company. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 213–221, Pretoria (Document Transformation Technologies).
• Brookins, D. G. (1988): Eh-pH diagrams for geochemistry. – 176 p., 98 Fig, 61 Tab; Berlin (Springer).
• Brooks, C. K. (1991): Killing the Goose That Laid the Golden Eggs – the Story of the Panguna Mine, Bougainville Island, Papua-New-Guinea. – Terr. Nova, 3(1):98–107, doi:10.1111/j.1365-3121.1991.tb00849.x.
• Brooks, K. A. & McIlveen, G. R. (1988): The Impact of a Derelict Base Metal Mine on the Aquatic Environment. – Proceedings, 3rd International Mine Water Congress, Melbourne:793–802, 4 Tab.
• Brooks, R. R., Chambers, M. F., Nicks, L. J. & Robinson, B. H. (1998): Phytomining. – Trends Plant Sci., 3(9):359–362, 2 Abb., 2 Tab.; doi:10.1016/S1360-1385(98)01283-7.
• Bros, T. & Loredo, J. (2008): Pollution Indicators as a Tool to Eestimate the Groundwater Aaffection Level in Mining Areas. – Proceedings, 10th International Mine Water Association Congress:505–508.
• Broschek, U., Lobos, J., Cornejo, J., Bravo, L., Lagos, J. & Volker, K. (2013): DROP Project: Leaching process optimization for reducing water consumption in copper mining. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 807–811, 2 Abb., 2 Tab.; Golden (International Mine Water Association).
• Broschek, U., Vidal, C., Bravo, L. & Zuñiga, G. (2009): MILAF: Integral Management of Arsenical Sludge, Treatment and Recovery of By-products of Acid Waters from Smelter Plants. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 614–621, 3 Abb., 7 Tab; Pretoria (Document Transformation Technologies).
• Brose, R. J. (1996): Subsurface mine reclamation for urban construction. – Environ. Eng. Geosci., 2(1):73–83, Refs: 15; illus.
• Broshears, R. E. (1996): Reactive solute transport in acidic streams. – Water Air Soil Pollut., 90:195–204, 5 Abb., 2 Tab.
• Broshears, R. E., Kimball, B. A. & Runkel, R. L. (1995): Interpreting spatial profiles of concentration in acid mine drainage streams. – In: Hotchkiss, W. R., Downey, J. S. & Gutentag, E. D. (eds): Water resources at risk. – p. LL10–21, Minneapolis, Minnesota (American Institute of Hydrology).
• Brotheridge, R. M., Newton, K. E. & Evans, S. W. (1998): Presence of a parasitic nematode (Eustrongylidies sp.) in brown trout (Salmo trutta) from a heavy metal contaminated aquatic ecosystem. – Chemosphere, 37(14-15):2921–2934.
• Brotheridge, R. M., Newton, K. E., Taggart, M. A., McCormick, P. H. & Evans, S. W. (1998): Nickel, cobalt, zinc and copper levels in brown trout (Salmo trutta) from the river Otra, southern Norway. – Analyst, 123(1):69–72.
• Broughton, P. L. (2020): Morphogenesis and microstructure of concrete-derived calthemites. – Environ Earth Sci, 79(10) doi:10.1007/s12665-020-08982-9.
• Brouwer, A., Reijnders, P. J. H. & Koeman, J. H. (1989): Polychlorinated biphenyl (PCB)-contaminated fish induces vitamin A and thyroid hormone deficiency in the common seal (Phoca vitulina). – Aquat. Toxicol., 15(1):99–105, doi:10.1016/0166-445X(89)90008-8.
• Brouwer, E., Bobbink, R. & Roelofs, J. G. M. (2002): Restoration of aquatic macrophyte vegetation in acidified and eutrophied softwater lakes: an overview. – Aquatic Botany, 73(4):405–431.
• Brouwer, E. & Roelofs, J. G. M. (2001): Degraded Softwater Lakes: Possibilities for Restoration. – Restoration Ecology, 9(2):155–166, doi:10.1046/j.1526-100x.2001.009002155.x.
• Brouwer, E., Soontiens, J., Bobbink, R. & Roelofs, J. G. M. (1999): Sulphate and bicarbonate as key factors in sediment degradation and restoration of Lake Banen. – Aquatic Conservation-Marine and Freshwater Ecosystems, 9(1):121–132.
• Brouyère, S., Orban, P., Wildemeersch, S., Couturier, J., Gardin, N. & Dassargues, A. (2008): The Hybrid Finite Element Mixing Cell method – a new flexible method for modelling mine water problems. – Proceedings, 10th International Mine Water Association Congress:429–432.
• Brouyère, S., Orban, P., Wildemeersch, S., Couturier, J., Gardin, N. & Dassargues, A. (2009): The Hybrid Finite Element Mixing Cell Method – A New Flexible Method for Modelling Mine Ground Water Problems. – Mine Water Environ., 28(2):102–114, 14 Abb., 4 Tab.; doi:10.1007/s10230-009-0069-5.
• Brown, A. (1979): Simple Mine Inflow Evaluation for Underground Oil Shale Mines: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 528–551 p., 9 Abb., 2 Tab.; San Francisco (Freeman).
• Brown, A. (1982): A validated theory of underground mine flooding. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:411–428, 9 Abb.
• Brown, A. (2002): Infiltration to Groundwater at High Altitude. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 941–947, 1 Abb., 1 Tab.; Heidelberg (Springer).
• Brown, A. (2009): Reliable Mine Water Technology. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 15–21, Pretoria (Document Transformation Technologies).
• Brown, A. (2010): Reliable Mine Water Technology. – Mine Water Environ., 29(2):85–91, 1 Abb.; doi:10.1007/s10230-010-0111-7.
• Brown, A. (2013): Low-cost Long-term Passive Treatment of Metal-Bearing and ARD Water using Iron Rich Material. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 525–531, 1 Abb., 9 Tab.; Golden (International Mine Water Association).
• Brown, A. (2014): Mine-Life Slope Stabilization by Water Pressure Control: toward a Reliable Systems Approach. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 189, Xuzhou (International Mine Water Association).
• Brown, A. (2014): Reliable Packer Testing and Analysis. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 3, Xuzhou (International Mine Water Association).
• Brown, A. (2018): Passive Metal Mining and Mine Water Treatment Using Crushed Concrete. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1029–1035; (Tshwane University of Technology).
• Brown, A. (2024): The engineering of truly passive mine water treatment systems using recycled concrete aggregate. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 59–64; Morgantown (International Mine Water Association).
• Brown, A. (2025): Water Driven Failure of Large Mine Slopes. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 796–800; Braga (International Mine Water Association).
• Brown, A., Goodrich, G. & Comer, T. (2009): Sediment Pond Removal of Precipitates from Neutralized Acid Rock Drainage. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 351–358, 4 Abb., 7 Tab; Pretoria (Document Transformation Technologies).
• Brown, C. E. (1998): Applied multivariate statistics in geohydrology and related sciences. – 248 p., 72 Abb., 64 Tab.; Berlin (Springer).
• Brown, D. M. & Milligan, N. (2003): Groundwater challenges associated with the mining and closure of a channel iron deposit (CID) situated in the Pilbara Region of Western Australia [Abstract]. – RMZ – Materials and Geoenvironment, 50(1):[CD–ROM].
• Brown, D. W. (2000): Geothermal power production utilizing supercritical CO₂ combined with deep earth carbon sequestratio. – Abstr. Pap. Am. Chem. Soc., 220(94-FUEL Part 1):U399.
• Brown, D. W. (2000): A Hot Dry Rock Geothermal Energy Concept Utilizing Supercritical CO₂ Instead of Water. – 1–2 p., Stanford (Proceedings 25th Stanford Geothermal Workshop).
• Brown, J. G. & Glynn, P. D. (2003): Kinetic dissolution of carbonates and Mn oxides in acidic water: measurement of in situ field rates and reactive transport modeling. – Appl. Geochem., 18(8):1225–1239, doi:10.1016/s0883-2927(03)00010-6.
• Brown, K. & Trott, S. (2014): Groundwater Flow Models in Open Pit Mining: Can We Do Better? – Mine Water Environ., 33(2):187–190, 5 Abb., 1 Tab.; doi:10.1007/s10230-014-0270-z.
• Brown, K., Trott, S. & Nabi, A. (2012): An alternative approach to managing dewatering in an open pit mine: International Mine Water Association Symposium. – 557–568 p., Bunbury (Edith Cowan University).
• Brown, M., Barley, B. & Wood, H. (2002): Minewater Treatment – Technology, Application and Policy. – 500 p., zahlr. Abb., zahlr. Tab.; London (IWA Publishing); doi:10.2166/9781780402185.
• Brown, M. C. & Ford, D. C. (1971): Quantitative tracer methods for investigation of karst hydrological systems. – Trans. Cave Res. Group G.B., 13(1):37–51, 13 Abb., 2 Tab.
• Brown, M. C., Wigley, T. L. & Ford, D. C. (1969): Water budget studies in karst aquifers. – J. Hydrol., 9:113–116, 2 Abb.; doi:10.1016/0022-1694(69)90018-3.
• Brown, M. J. F. (1974): A development consequence — Disposal of mining waste on Bougainville, Papua New Guinea. – Geoforum, 5(2):19–27, doi:10.1016/0016-7185(74)90003-7.
• Brown, M. M. E., Atkinson, K., Wilkins, C. & Norton, P. J. (1994): Contaminated Mine Water Amelioration – Study of a Long Established Natural Wetland. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:499–519, 13 Abb., 8 Tab.
• Brown, P. E., Bamberg, S. & Arndt, M. B. (1988): Evaluation of Hydrogeological Risk Involved in the Siting of Mining Operations. – Proceedings, 3rd International Mine Water Congress, Melbourne:819–828, 5 Abb.
• Brown, P. E. & Greenberg, M. A. (1987): Coal Mine dewatering as a Key Aspect in pre-mine Feasibility Planning in the semi-arid Western United States: Hydrogeology of Coal Basins. – 21–35 p., 4 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Brown, P. E., Smith, R. G. & Lombardo, L. (1985): Development of an Open Pit Coal Mine Dewatering Plan in Cesar Department, Colombia, S.A. – Proceedings, 2nd International Mine Water Association Congress, 1:83–94, 6 Abb.
• Brown, P. L. & Lowson, R. T. (1997): The use of kinetic modelling as a tool in the assessment of contaminant release during rehabilitation of a uranium mine. – J. Contam. Hydrol., 26(1-4):27–34.
• Brown, R. (1871): The Coal Fields and Coal Trade of the Island of Cape Breton. – 166 p., London (Sampson Low Marston Low & Searle).
• Brown, S. A. P. (1993): Management of Water Quality Regarding the Mining Industry in the Republic of South Africa. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 321–335, 2 Abb., 1 Anh.; Chililabombwe (Konkola Division).
• Browne, M. A., Galloway, T. S. & Thompson, R. C. (2010): Spatial Patterns of Plastic Debris along Estuarine Shorelines. – Environ. Sci. Technol., 44:3404–3409, doi:10.1021/es903784e.
• Brownlow, A., Davison, N. & Doeschate, M. t. (2016): Scottish Marine Animal Stranding Scheme – Annual Report 2016 – 1 January to 31 December 2016 for Marine Scotland, Scottish Government. – (Report Nr. 2016). – 122 p., Inverness (Scottish Marine Animal Stranding Scheme).
• Brownscombe, W., Herrington, R. J., Wilkinson, J. J., Berry, A. J., Coppard, J., Ihlenfeld, C., Klatt, S., Hartshorne, C., Boyce, A. J. & Taylor, R. N. (2013): Geochemistry of the Sakatti magmatic Cu-Ni-PGE deposit, northern Finland: Mineral Deposit Research for a High-Tech World 3. – 956–959 p., 4 Abb., 1 Tab.
• Brownscombe, W., Ihlenfeld, C., Coppard, J., Hartshorne, C., Klatt, S., Siikaluoma, J. K. & Herrington, R. J. (2015): Chapter 3.7 – The Sakatti Cu-Ni-PGE Sulfide Deposit in Northern Finland. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds). – p. 211–252, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00009-1.
• Brožová, K., Halfar, J., Čabanová, K., Motyka, O., Drabinová, S., Hanus, P. & Heviánková, S. (2023): The first evidence of microplastic occurrence in mine water: The largest black coal mining area in the Czech Republic. – Water Res., 244:120538, doi:10.1016/j.watres.2023.120538.
• Bru, K., Guezennec, A.-G. & Bourgeois, F. (2008): Numerical Simulation: a Performing Tool for Water Management in Tailings Impoundments. – Proceedings, 10th International Mine Water Association Congress:433–436.
• Brückl, E., Brückl, J., Chwatal, W. & Ullrich, C. (2010): Deep alpine valleys: examples of geophysical explorations in Austria. – Swiss J. Geosci., 103(3):329–344, doi:10.1007/s00015-010-0045-x.
• Brückner, F., Ceranski, H., Mansel, H. & Uhlig, C. (2013): Impacts of Re-Rising Groundwater Levels in Rehabilitated Opencast Mining Areas, Prediction Tools and Potential Measures of Damage Limitation. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 925–930, 8 Abb.; Golden (International Mine Water Association).
• Brückner, G., Knitzschke, G., Pelzel, J., Schwandt, A. & Spilker, M. (1982): Problems of and experience in controlling karst phenomena in the vicinity of abandoned mines in the Zechstein subdivision in the German Democratic Republic. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, ABCD Supplementary volume:7–27, 7 Abb., 1 Tab.
• Brueckner, M., Durey, A., Pforr, C. & Mayes, R. (2014): The civic virtue of developmentalism: on the mining industry’s political licence to develop Western Australia. – Impact Assess. Proj. Apprais., 32(4):315–326, doi:10.1080/14615517.2014.929784.
• Brueckner, M., Spencer, R., Knowles, S. & Paull, M. (2021): Mining legacies – Broadening understandings of mining impacts. – Extr. Ind. Soc., 8(3):100950, doi:10.1016/j.exis.2021.100950.
• Brugam, R., Gastineau, J. & Ratcliffe, E. (1990): Tests of Organic Matter Additions for the Neutralization of Acid Mine Drainage Influenced Lakes. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 11:elektronisches Dokument, 7 Abb., 1 Tab.; doi:10.21000/JASMR90010425.
• Brugam, R. B., Gastineau, J. & Ratcliff, E. (1995): The neutralization of acidic coal mine lakes by additions of natural organic matter: a mesocosm test. – Hydrobiologia, 316(2):153–159, doi:10.1007/bf00016896.
• Brugge, D. & Goble, R. (2002): The History of Uranium Mining and the Navajo People. – American Journal of Public Health, 92(9):1410–1419.
• Brüggemann, J. (2016): Flächenumwandlung und -entwicklung stillgelegter Betriebsflächen an der Ruhr. – Veröff. Dt. Bergbau-Mus. Bochum, 217:38–45.
• Brugger, J., Long, N., McPhail, D. C. & Plimer, I. (2005): An active amagmatic hydrothermal system: The Paralana hot springs, Northern Flinders Ranges, South Australia. – Chem. Geol., 222:35–64, 13 Abb., 5 Tab.; doi:10.1016/j.chemgeo.2005.06.007.
• Brugnara, Y., Brunetti, M., Maugeri, M., Nanni, T. & Simolo, C. (2012): High-resolution analysis of daily precipitation trends in the central Alps over the last century. – International Journal of Climatology, 32(9):1406–1422, doi:10.1002/joc.2363.
• Brunauer, S., Copeland, L. E. & Bragg, R. H. (1956): The Stoichiometry of the Hydration of Tricalcium Silicate at Room Temperature. I. Hydration in Paste Form. – J. Phys. Chem., 60(1):112–116, doi:10.1021/j150535a027.
• Brunauer, S., Emmett, P. H. & Teller, E. (1938): Adsorption of Gases in Multimolecular Layers. – J. Am. Chem. Soc., 60(2):309–319, doi:10.1021/ja01269a023.
• Brunel, J. P., Walker, G. R., Dighton, J. C. & Monteny, B. (1997): Use of stable isotopes of water to determine the origin of water used by the vegetation and to partition evapotranspiration. A case study from HAPEX-Sahel. – J. Hydrol., 188-189:466–481, doi:10.1016/S0022-1694(96)03188-5.
• Bruner, K. R. & Smosna, R. (2011): A Comparative Study of the Mississippian Barnett Shale, Fort Worth Basin, and Devonian Marcellus Shale, Appalachian Basin. – (Report Nr. DOE/NETL-2011/1478). – 106 p., Albany (United States Department of Energy).
• Brunner, H. (1949): Die Landschaft von Chur und Umgebung. – Geogr. Helv., 4:70–78, 3 Abb.; doi:10.5194/gh-4-70-1949.
• Brunner, H. (1962): Die Churer Toma. – Bündner Jb., 4:67–75, 4 Abb., 1 Tab.
• Brunner, H., Strasser, H., Pümpel, T. & Schinner, F. (1993): Mikrobielle Laugung von Kupfer und Zink aus Tetraedrit-haltigem Baryt (Region Kleinkogel/Tirol) durch Thiobacillus ferrooxidans. – Arch. f. Lagerst.forsch. Geol. B.-A., 16:5–12, 6 Abb., 3 Tab.
• Brunner, K. (2002): Regionalkarten von Tirol des Matthias Burgklechner und ihre Vorläufer. – Mitt. Österr. Geogr. Ges., 144:237–254, 8 Abb., 2 Anl.
• Brunnthaler, A. (2005): Die Messingfabrik Reichraming – Ein Paradebeispiel der österreichischen Wirtschaftsgeschichte. – 355 p., Universität Wien, 39 Abb.; Wien.
• Bruns, P., Dullo, W. C., Hay, W. W., Wold, C. N. & Pernicka, E. (1996): Iridium concentration as an estimation of instantaneous sediment accumulation rates. – J. Sediment. Res., 66(3):608–612, 4 Abb., 2 Tab.; doi:10.1306/D42683BF-2B26-11D7-8648000102C1865D.
• Brüschweiler, B. (2007): Markierstoffe im Bereich von Trinkwasserfassungen – Abklärung zur Humantoxizität der Fluoreszenztracer. – GWA Gas Wasser Abwasser, 5:355–359, 3 Tab.
• Brusseau, M. L. (1996): Evaluation of simple methods for estimating contaminant removal by flushing. – Ground Water, 34(1):19–22, 2 Abb., 1 Tab.; doi:10.1111/j.1745-6584.1996.tb01860.x.
• Bruxelles, L., Stratford, D. J., Maire, R., Pickering, T. R., Heaton, J. L., Beaudet, A., Kuman, K., Crompton, R., Carlson, K. J., Jashashvili, T., McClymont, J., Leader, G. M. & Clarke, R. J. (2019): A multiscale stratigraphic investigation of the context of StW 573 'Little Foot' and Member 2, Sterkfontein Caves, South Africa. – J. Hum. Evol., 133:78–98, doi:10.1016/j.jhevol.2019.05.008.
• Bryan, C. G., Hallberg, K. B. & Johnson, D. B. (2004): Microbial populations in surface spoil at the abandoned Mynydd Parys copper mines. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 107–112, 3 Tab.; Newcastle upon Tyne (University of Newcastle).
• Bryan, G. W. & Langston, W. J. (1992): Bioavailability, accumulation and effects of heavy metals in sediments with special reference to United Kingdom estuaries: a review. – Environ. Pollut., 76(2):89–131, 9 Abb., 5 Tab.
• Bucek, M. F. & Emel, J. L. (1977): Long-Term Environmental Effectiveness of Close Down Procedures – Eastern Underground Coal Mines: EPA-600/7-77-083. – 139 p., 13 Abb., 12 Tab., 5 Anh.; Cincinnati (U.S. Environmental Protection Agency – Office of Research and Development).
• Buchanan, D. J. & Brenkley, D. (1994): Green coal mining. – In: Hester, R. E. & Harrison, R. M. (eds): Mining and its Environmental Impact 1. – p. 71–96, (The Royal Society of Chemistry); doi:10.1039/9781847551467-00071.
• Büchel, E. (2002): Die Erforschungsgeschichte der Gauerblickhöhle. – Rheticus, 24(1/2):59–67, 3 Abb.
• Bucher, K., Kerschner, H., Lumasegger, M., Mergili, M. & Rastner, P. (2004): Spatial Precipitation Modeling for the Tyrol Region. In: Tirol Atlas. http://tirolatlas.uibk.ac.at.
• Buchholz, H., Carl, M., Beck, H. & Tuinstra, L. G. M. T. (1986): Kapillargaschromatographie „signifikanter“ Chlorbiphenyle, ein Konzept für die Routineanalytik Polychlorierter Biphenyle und seine Prüfung im Ringversuch. – VDLUFA-Schriftenreihe, 17.
• Buchner, D., Schweikhart, M., Behrens, S., Schöndorf, T., Laskov, C. & Haderlein, S. B. (2019): Sanierung eines PCE-Schadens in einem makroskopisch oxischen Grundwasserleiter durch Stimulation anaerober dehalogenierender Bakterien. – Grundwasser, 24(1):51–63, doi:10.1007/s00767-018-00410-x.
• Büchner, R. (2014): Im Städtischen Bad vor 500 Jahren – Badhaus, Bader und Badegäste im Alten Tirol. – 196 p., Wien (Böhlau).
• Buchtela, K., Mairhofer, J., Maurin, V., Papadimitropoulos, T. & Zötl, J. (1968): Comparative Investigations into Recent Methods of Tracing Subterranean Water. – Natl. Speleol. Soc. Bull., 30(3):55–74, 17 Abb., 4 Tab.
• Buck, R. P., Rondinini, S., Covington, A. K., Baucke, F. G. K., Brett, C. M. A., Camões, M. F., Milton, M. J. T., Mussini, T., Naumann, R., Pratt, K. W., Spitzer, P. & Wilson, G. S. (2002): Measurement of pH – Definition, Standards, and Procedures (IUPAC Recommendations 2002). – Pure Appl. Chem., 74(11):2169–2200, 3 Abb., 4 Tab.; doi:10.1351/pac200274112169.
• Bücker, C. & Rybach, L. (1996): A simple method to determine heat production from gamma-ray logs. – Mar. Pet. Geol., 13(4):373–375, 4 Abb.
• Buckley, J. S. & Lord, D. L. (2003): Wettability and morphology of mica surfaces after exposure to crude oil. – Journal of Petroleum Science and Engineering, 39(3):261–273, doi:10.1016/S0920-4105(03)00067-6.
• Buckwalter-Davis, M., Lussier-Purdy, C. & Jamieson, H. E. (2015): Mineralogically-Based Determinations of Neutralization and Acid Potential Using Automated Mineralogy. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Buddle, C. M. (2010): Photographic key to the Pseudoscorpions of Canada and the adjacent USA. – Can. J. Arthropod Ident., 10:1–77, doi:10.3752/cjai.2010.10.
• Buehler, H. A. & Gottschalk, V. H. (1910): Oxidation of sulphides I. – Econ. Geol., 5(1):28–35, doi:10.2113/gsecongeo.5.1.28.
• Buff, H. (1851): Ueber das Wassertrommelgebläse. – Ann. Chem. Pharm., 79(3):249–255, 1 Abb.; doi:10.1002/jlac.18510790302.
• Bugge, G. (1940): Leonhard Thurneysser in Tirol. – Angew. Chem., 53(17/18):190–192.
• Bugliosi, E. F., Miller, T. S. & Reynolds, R. J. (2014): Hydrogeology and water quality of the stratified-drift aquifer in the Pony Hollow Creek valley, Tompkins County, New York. – U. S. Geol. Surv. Sci. Investig. Rep., 2014-5059:23, doi:10.3133/sir20145059.
• Buha Djordjevic, A., Antonijevic, E., Curcic, M., Milovanovic, V. & Antonijevic, B. (2020): Endocrine-disrupting mechanisms of polychlorinated biphenyls. – Current Opinion in Toxicology, 19:42–49, doi:10.1016/j.cotox.2019.10.006.
• Buhmann, D. & Dreybrodt, W. (1985): The kinetics of calcite dissolution and precipitation in geologically relevant situations of karst areas. 1. Open system. – Chem. Geol., 48:189–211.
• Buhmann, D. & Dreybrodt, W. (1985): The kinetics of calcite dissolution and precipitation in geologically relevant situations of karst areas. 2. Closed system. – Chem. Geol., 53:109–124.
• Buhrmann, F., van der Waldt, M., Hanekom, D. & Finlayson, F. (1999): Treatment of industrial wastewater for reuse. – Desalination, 124(1-3):263–269, 3 Abb., 4 Tab.
• Buja, H.-O. (2013): Ingenieurhandbuch Bergbautechnik – Lagerstätten und Gewinnungstechnik – (Beuth).
• Bukovanska, M., Jakee, P., Pernicka, E. & El, G. A. (1983): Usti nad Orlici; a new L6 chondrite from Czechoslovakia. – Meteoritics, 18(3):223–240, Refs: 10; illus. incl. 5 tables.
• Bukowski, P. (2000): Water storage capacity of rock massif in forecasting the flooding process of mine workings. – Proceedings, 7th International Mine Water Association Congress:506–518, 4 Abb.
• Bukowski, P. (2009): Relationship between Renewable Energy from Low Enthalpy Mine Waters Stored in Polish Hard Coal Mines and Water Hazards in Active Coal Mines. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 946–951, 4 Abb; Pretoria (Document Transformation Technologies).
• Bukowski, P. (2011): Water Hazard Assessment in Active Shafts in Upper Silesian Coal Basin Mines. – Mine Water Environ., 30(4):302–311, 8 Abb., 2 Tab.; doi:10.1007/s10230-011-0148-2.
• Bukowski, P., Bromek, T. & Augustyniak, I. (2006): Using the DRASTIC System to Assess the Vulnerability of Ground Water to Pollution in Mined Areas of the Upper Silesian Coal Basin. – Mine Water Environ., 25(1):15–22, 3 Abb., 2 Tab.
• Bukowski, P. & Bukowska, M. (2008): Changes in Geomechanical Properties of Carboniferous Rocks Under the Influence of Water and Their Possible Consequences in the Areas of Abandoned Mines of the Upper Silesian Coal Basin (Poland). – Proceedings, 10th International Mine Water Association Congress:123–126.
• Bukowski, P., Bukowska, M., Rapantova, N., Hemza, P. & Niedbalska, K. (2019): Secondary Water Saturation of a Carboniferous Rock Mass in a Abandoned Mines as the Cause Behind the Changes in Geomechanical Conditions and State of Hazards in Active Mines of the Upper Silesian Coal Basin. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 3–9; Perm, Russia (Perm State University).
• Bukowski, P. & Grzybek, I. (2005): Coal mine flooding as a cause of methane hazard – The case study of Morcinek mine, Upper Silesian Coal Basin, Poland: Mine Water 2005 – Mine Closure. – 627–633 p., 6 Abb.; Oviedo (University of Oviedo).
• Bukowski, P., Wagner, J. & Witkowski, A. (2007): Use of void Space in abandoned Mines in the Upper Silesia Coal Basin (Poland): Water in Mining Environments. – 147–151 p., 5 Abb.; Cagliari (Mako Edizioni).
• Bullen, C. & Stanley, P. C. (2020): Final Treatment Trials On Cwm Rheidol - Ystumtuen Mines Discharges, Wales, Using Sono-electrochemistry (Electrolysis With Assisted Power Ultrasound). Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 174–180; (International Mine Water Association).
• Bullister, J. L. & Weiss, R. F. (1988): Determination of CCI3F and CCl2F2 in seawater and air. – Deep-Sea Research, 35(5):839–853, 4 Abb.
• Bullock, L., Parnell, J., Muirhead, D., Armstrong, J., Schito, A. & Corrado, S. (2019): A thermal maturity map based on vitrinite reflectance of British coals. – J. Geol. Soc. London, 176(6):1136–1142, doi:10.1144/jgs2019-055.
• Bullock, S. E. T., Barnard, S. & Nicholls, H. A. (2001): Water Pollution from and Rehabilitation of an Exploration Site in the Barberton Area of South Africa. – Proc. Conf. on Environmentally Responsible Mining in Southern Africa, 2:4A–6–4A–18, 9 Abb., 4 Tab.
• Bulpin, T. V. (1986): Discovering Southern Africa, 2nd edn. – 899 p., Cape Town (Bulpin).
• Bunce, N. J., Chartrand, M. & Keech, P. (2001): Electrochemical Treatment of Acidic Aqueous Ferrous Sulfate and Copper Sulfate as Models for Acid Mine Drainage. – Water Res., 35(18):4410–4416, 4 Abb., 7 Tab.; doi:10.1016/S0043-1354(01)00170-1.
• Bundesministerium der Justiz (2004): Referenzentwurf für ein Zweites Gesetz zur Regelung des Urheberrechts in der Informationsgesellschaft. – Nn.
• Bundesministerium der Justiz (2010): Verordnung zum Schutz des Grundwassers (Grundwasserverordnung – GrwV), die zuletzt durch Artikel 1 der Verordnung vom 12. Oktober 2022 geändert worden ist. – Bundesgesetzblatt, I:1513–1529.
• Bundesministerium der Justiz (2016): Verordnung zum Schutz der Oberflächengewässer (Oberflächengewässerverordnung – OGewV) vom 20. Juni 2016, zuletzt geändert durch Artikel 2 Absatz 4 des Gesetzes vom 9. Dezember 2020 und Artikel 2 der Verordnung vom 9. Februar 2024. – Bundesgesetzblatt, I:1373–1443.
• Bundesministerium für Bildung Wissenschaft Forschung und Technologie & Forschungszentrum Karlsruhe (1998): Förderkonzept zur Entsorgung gefährlicher Abfälle in tiefen geologischen Formationen. – NN, 7 Abb., 2 Tab.
• Bundesministerium für Umwelt Naturschutz und, R. (2006): Bekanntmachung über die Förderung von Forschung und Entwicklung im Bereich erneuerbare Energien vom 4. September 2006. – Bundesanzeiger,(179):6380–6383.
• Bundesministerium für Umwelt Naturschutz und Reaktorsicherheit (2001): EG-Wasserrahmenrichtlinie und Bergbaufolgelandschaften – Proceedings Internationaler Workshop. – 184 p., Leipzig (Bundesministerium für Umwelt Naturschutz und Reaktorsicherheit).
• Bundesministerium für Verkehr‚ Innovation und Technologie – Abteilung IV/ST1 und II/Infrastruktur (2011): Straßenverkehrszählung 2010 – Auswertung der Straßenverkehrszählung 2010 auf Autobahnen, Schnellstraßen und Landesstraßen B. – 177 p., Wien.
• Bundesministerium für Wirtschaft und Technologie (2000): WISMUT – Perspektiven durch Sanierung. – 32 p., zahlr. Abb., zahlr. Tab.; Berlin (Bundesministerium für Wirtschaft und Technologie).
• Bundesministerium für Wirtschaft und Technologie (2003): Der Bergbau in der Bundesrepublik Deutschland 2003 Bergwirtschaft und Statistik. – 146 p., Berlin (Bundesministerium für Wirtschaft und Technologie).
• Bundesministerium für Wirtschaft und Technologie (2006): Der Bergbau in der Bundesrepublik Deutschland 2005. – Nn, 19 Abb., 67 Tab.
• Buonomenna, M. G., Golemme, G. & Perrotta, E. (2012): Membrane Operations for Industrial Applications: Advances in Chemical Engineering. – 543–562 p., 16 Abb., 5 Tab.; Shanghai (InTech); doi:10.5772/33724.
• Burbey, T. J., Younos, T. & Anderson, E. T. (2000): Hydrologic analysis of discharge sustainability from an abandoned underground coal mine. – J. Am. Water Resour. Assoc., 36(5):1161–1172, 10 Abb., 4 Tab.; doi:10.1111/j.1752-1688.2000.tb05718.x.
• Burchi, S. (2018): Legal frameworks for the governance of international transboundary aquifers: Pre- and post-ISARM experience. – J. Hydro. Regional Stud., 20:15–20, doi:10.1016/j.ejrh.2018.04.007.
• Burchi, S. & Mechlem, K. (2005): Groundwater in international law – Compilation of treaties and other legal instuments [sic!]: FAO Legislative Studies 86. – 584 p., 3 Tab.; Rome (United Nations Educational Scientific and Cultural Organization; Food and Agriculture Organization of the United Nations).
• Bureau International des Poids et Mesures (2019): Le Système international d’unités – The International System of Units, 9 (V3.01 Août 2024) edn. – 216 p., 3 Anh.; Sèvres Cedex (Organisation Intergouvernementale de la Convention du Mètre).
• Bureau of Indian Standards (2014): Indian Standard – Packaged drinking water other than packaged natural water specifcation – second revision: ICS 13.060.20, 2nd edn. – 34 p., New Delhi (Bureau of Indian Standards).
• Burger, H. (1978): Arosa- und Madrisa-Zone im Gebiet zwischen dem Schollberg und der Verspala (Osträtikon). – Eclogae geol. Helv., 71(2):255–266, 2 Abb.
• Burger, M. & Vermeulen, P. D. (2011): The groundwater interaction of a deeper lying gold mine and a shallower lying coal mine through the presence of naturally occurring as well as induced preferential flow paths: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 563–568 p., Aachen (RWTH Aachen University).
• Burghardt, D., Coldewey, W. G., Melchers, Ch., Meßer, J., Paul, M., Walter, T., Wesche, D., Westermann, S., Wieber, G., Wisotzky, F. & Wolkersdorfer, Ch. (2017): Glossar Bergmännische Wasserwirtschaft. – 79 p., Neustadt/Wstr. (Fachsektion Hydrogeologie in der DGGV).
• Burghardt, D., Coldewey, W. G., Melchers, Ch., Meßer, J., Paul, M., Walter, T., Wesche, D., Westermann, S., Wieber, G. & Wolkersdorfer, Ch. (2023): Praxisleitfaden Grubenwasser Teil 1: Beprobung und Vor-Ort-Untersuchung: Schriftenreihe der Fachsektion Hydrogeologie e. V. in der DGGV e. V. 4. – 67 p., Neustadt/Wstr. (Fachsektion Hydrogeologie in der DGGV).
• Burghardt, D. & Kassahun, A. (2004): Design of a Treatment Zone Technology for in-situ Immobilisation of Uranium and Arsenic. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 159–165, 7 Abb.; Newcastle upon Tyne (University of Newcastle).
• Burghardt, D. & Kassahun, A. (2004): Design of a Treatment Zone Technology for In-situ Immobilisation of Uranium and Arsenic. – Wiss. Mitt. Inst. Geol., 25:79–84, 7 Abb.
• Burghardt, D., Richter, J., Simon, E., Reichel, S., Janneck, E. & Laubrich, J. (2016): Treatment of Seepage Water from a Tailings Pond of Uranium Mining: Column Tests with a Novel Schwertmannite Adsorbent. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 889–893, Freiberg (TU Bergakademie Freiberg).
• Burghardt, D., Stiebitz, E., Knöller, K. & Kassahun, A. (2005): Simultaneous In-Situ Immobilisation of Uranium and Arsenic by Injectible Iron and Stimulated Autotrophic Sulphate Reduction. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 299–308, Heidelberg (Springer).
• Bürgin, T., Furrer, H. & Oberli, U. (2004): Fossile Knochenfische aus der marinen Obertrias des Steinbruchs Lorüns (Gemeinde Stallehr). – Rheticus, 26(3):7–16, 7 Abb.
• Burke, J. (2018): The Influence of Water Use Licences on Mine Water Management. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 797–802; (Tshwane University of Technology).
• Burke, S. & Barber, J. (2004): An Overview of Mine Water Rebound in the South Yorkshire Coalfield. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 61–66, 5 Abb.; Newcastle upon Tyne (University of Newcastle).
• Burke, S. P. & Banwart, S. A. (2002): A geochemical model for removal of iron(II)(aq) from mine water discharges. – Appl. Geochem., 17(4):431–443, 7 Abb., 5 Tab.
• Burke, S. P. & Banwart, S. A. (2002): Using Fe(II) adsorption and surface-catalysed oxidation for Fe(II) removal from predicted mine water discharges. – IAHS Publication, 72:271–275, 1 Abb., 1 Tab.
• Burke, S. P., Banwart, S. A., Jarvis, A., England, A. & Younger, P. L. (2003): Up-scaling of oxidation and accretion reactors – engineering and economic considerations. – Land Contam. Reclam., 11(2):165–171, 3 Abb., 2 Tab.
• Burke, S. P., Potter, H. A. B. & Jarvis, A. (2005): Groundwater Rebound in the South Yorkshire Coalfield: A review of initial modelling: Mine Water 2005 – Mine Closure. – 223–227 p., 3 Abb.; Oviedo (University of Oviedo).
• Burke, S. P. & Younger, P. L. (2000): Groundwater Rebound in the South Yorkshire Coalfield: A First Approximation using the GRAM Model. – Q. J. Eng. Geol. Hydrogeol., 33(2):149–160, 9 Abb., 5 Tab.
• Burleigh, T. D., Ruhe, C. & Forsyth, J. (2003): Photo-Corrosion of Different Metals during Long-Term Exposure to Ultraviolet Light. – Corrosion, 59(9):774–779, doi:10.5006/1.3277606.
• Burlingame, A. L., Shackleton, C. H. L., Howe, I. & Chizhov, O. S. (1978): Mass spectrometry. – Anal. Chem., 50(5):346R–384R, doi:10.1021/ac50028a031.
• Burman, B. C. & Sullivan, T. D. (1985): Dewatering and Depressurisation Studies for Development of the Lochiel Open Pit Mine, South Australia. – Proceedings, 2nd International Mine Water Association Congress, 1:307–324, 10 Abb., 2 Tab.
• Burmeister, K. H. (2009): »Montafonium Nostrum« – Das Montafon in der Zeit um und nach 1500 – Vom Schweizerkrieg bis zum Dreißigjährigen Krie: Montafon: Besiedlung – Bergbau – Relikte 2. – 178–227 p., 24 Abb.; Schruns (Eigenverlag Stand Montafon).
• Burnett, M. & Skousen, J. G. (1996): Injection of Limestone into Underground Mines for AMD control. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 17:elektronisches Dokument, 4 Abb., 1 Tab.
• Burns, J. S., Williams, P. L., Sergeyev, O., Korrick, S. A., Rudnev, S., Plaku-Alakbarova, B., Revich, B., Hauser, R. & Lee, M. M. (2020): Associations of peri-pubertal serum dioxins and polychlorinated biphenyls with growth and body composition among Russian boys in a longitudinal cohort. – Int. J. Hyg. Environ. Health, 223(1):228–237, doi:10.1016/j.ijheh.2019.08.008.
• Burns, T. W., O'Connor, D. J. & Stocklmayer, S. M. (2003): Science Communication: A Contemporary Definition. – Public Understanding Sci., 12(2):183–202, doi:10.1177/09636625030122004.
• Burnside, N. M., Banks, D. & Boyce, A. J. (2016): Sustainability of thermal energy production at the flooded mine workings of the former Caphouse Colliery, Yorkshire, United Kingdom. – Int. J. Coal Geol., 164:85–91, doi:10.1016/j.coal.2016.03.006.
• Burnside, N. M., Banks, D., Boyce, A. J. & Athresh, A. (2016): Hydrochemistry and stable isotopes as tools for understanding the sustainability of minewater geothermal energy production from a ‘standing column’ heat pump system: Markham Colliery, Bolsover, Derbyshire, UK. – Int. J. Coal Geol., 165:223–230, doi:10.1016/j.coal.2016.08.021.
• Burrell, R. & Whitworth, K. (2000): The influence of minewater recovery on surface gas and water discharges in the Yorkshire Coalfield. – Proceedings, 7th International Mine Water Association Congress:81–90, 6 Abb.
• Burritt, R. & Carter, A. (2014): International Corporate Sustainability Barometer – Australia. – In: Schaltegger, S., Windolph, S. E., Harms, D. & Horisch, J. (eds): Corporate Sustainability in International Comparison: State of Practice, Opportunities and Challenges 31. – p. 37–52, Dordrecht (Springer); doi:10.1007/978-3-319-06227-3_4.
• Burrows, J. E., Peters, S. C. & Cravotta, C. A. (2015): Temporal geochemical variations in above- and below-drainage coal mine discharge. – Appl. Geochem., 62:84–95, doi:10.1016/j.apgeochem.2015.02.010.
• Burschel, P. & Häberlein, M. (1994): Familie, Geld und Eigennutz – Patrizier und Großkaufleute im Augsburg des 16. Jahrhunderts: Ausstellungskatalog „Kurzweil viel ohn’ Maß und Ziel“ – Alltag und Festtag auf den Augsburger Monatsbildern der Renaissance. – 48–65 p., München (Deutsches Historisches Museum Berlin).
• Burton, E., Friedmann, J. & Upadhye, R. (2006 [2019]): Best Practices in Underground Coal Gasification. – (Report Nr. LLNL-TR-225331). – 119 p., Livermore (Lawrence Livermore National Laboratory).
• Burton, R. & Hudson, E. (2023): Flow Monitoring at Mine Water Discharges and Treatment Schemes in Wales – Challenges and Lessons Learnt. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 89–95; (International Mine Water Association).
• Burzynski, Z. & Jarodzki, L. (1987): Identification of hydrogeological Parameters for Modelling of a Lignite Basin (with Drmno Lignite Field as an Example): Hydrogeology of Coal Basins. – 447–455 p., 3 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Busch, W., Coldewey, W. G., Walter, D., Wesche, D. & Tielmann, I. (2012): Analyse von Senkungserscheinungen außerhalb prognostizierter bergbaulicher Einwirkungsbereiche des Bergwerks Prosper-Haniel. – Unpubl. Report for Bezirksregierung Arnsberg – Abteilung 6 – Bergbau und Energie in NRW 140 p., 70 Abb., 3 Tab., 7 Anl.; Clausthal-Zellerfeld (Institut für Geotechnik und Markscheidewesen).
• Busch, W., Walter, D., Coldewey, W. G., Wesche, D., Hejmanowski, R., Malinowska, A. A., Kwinta, A. & Witkowski, W. T. (2016): Bergwerk Ibbenbüren der RAG AG – Analyse von Senkungserscheinungen außerhalb der prognostizierten Einwirkungsbereiche aktiver und in jüngster Zeit stillgelegter Steinkohlenbergwerke der RAG AG. – Unpubl. Report for Bezirksregierung Arnsberg – Abteilung 6 – Bergbau und Energie in NRW (Report Nr. 12.21-90-13-166). – 241 p., 164 Abb., 16 Tab., 5 Anl.; Clausthal-Zellerfeld (Institut für Geotechnik und Markscheidewesen).
• Busenberg, E. & Plummer, L. N. (1986): The solubility of BaCO₃(cr) (witherite) in CO₂-H₂O solutions between 0 and 90°C, evaluation of the association constants of BaHCO3+(aq) and BaCO30(aq) between 5 and 80°C, and a preliminary evaluation of the thermodynamic properties of Ba²⁺(aq). – Geochim. Cosmochim. Acta, 50(10):2225–2233, doi:10.1016/0016-7037(86)90077-3.
• Busenberg, E. & Plummer, L. N. (1991): Chlorofluorocarbons (CCl3F and CCl2F2) – Use as an Age-Dating Tool and Hydrologic Tracer in shallow Ground-Water Systems. – Water Resour. Investig. Rep., WRI 91-4034:542–547, 4 Abb., 1 Tab.
• Busenberg, E. & Plummer, L. N. (2000): Dating young groundwater with sulfur hexafluoride: Natural and anthropogenic sources of sulfur hexafluoride. – Water Resour. Res., 36(10):3011–3030, 17 Abb., 3 Tab.; doi:10.1029/2000WR900151.
• Busse, J., Scheuermann, A., Bringemeier, D. & Li, L. (2014): Tracing Groundwater Flow Paths in a Coal Mine by Means of Geophysical and Borehole Flow Data. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 349–353, Xuzhou (International Mine Water Association).
• Bussière, B. (2010): Acid Mine Drainage From Abandoned Mine Sites: Problematic and Reclamation Approaches. – In: Chen, Y., Zhan, L. & Tang, X. (eds): Advances in Environmental Geotechnics. – p. 111–125, 6 Abb., 10 Tab.; Berlin (Springer); doi:10.1007/978-3-642-04460-1_6.
• Bussière, B. & Benzaazoua, M. (1999): Desulphurization of Tailings with Low Neutralizing Potential – Kinetic Study and Flotation Modeling. – 29–38 p., 8 Abb., 5 Tab.; Sudbury (Proceedings Mining and the environment II).
• Bussière, B., Benzaazoua, M., Aubertin, M., Lelièvre, J., Bois, D. & Servant, S. (1998): Valorisation des résidus miniers – une approche intégrée – Phase II. – 198 p., 94 Abb., 46 Tab.; Rouyn-Noranda (Unité de recherche et de service en technologie minérale (URSTM)).
• Bussière, B., Lelièvre, J., Ouellet, J. & Bois, D. (1994): Valorisation des résidus miniers – une approche intégrée. – 71 p., 24 Abb., 21 Tab., 3 Anl.; Rouyn-Noranda (Unité de recherche et de service en technologie minérale (URSTM)).
• Butar Butar, D. C., Kaasalainen, H., Alakangas, L. & Ronne, E. (2025): Batch leaching to enhance dissolution of siliceous secondary materials for controlling AMD formation. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 807–812; Braga (International Mine Water Association).
• Butcher, J., Drake, C. & Leach, M. (2006): Butcher’s Copy-editing – The cambridge Handbook for Editors, Copy-editors and Proofreaders, 4th edn. – 543 p., Cambrige (Cambrige University Press).
• Butlanska, J., Oliva González, A. O., Fernandez-Merodo, J. A. & Rodriguez-Pacheco, R. (2025): Flow Failure of TSF Brunita in 1972, NE Spain. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 981–986; Braga (International Mine Water Association).
• Butler, B. A. & Brase, L. E. (2024): Critical Review of Field Studies of Chemical Surface Coatings to Mitigate Leaching from Mining Wastes. – Mine Water Environ., 43(1):3–15, doi:10.1007/s10230-024-00973-7.
• Butler, B. A. & Ford, R. G. (2018): Evaluating relationships between total dissolved solids (TDS) and total suspended solids (TSS) in a mining-influenced watershed. – Mine Water Environ., 37(1):18–30, doi:10.1007/s10230-017-0484-y.
• Butler, B. S. & Burbank, W. S. (1929): The Copper Deposits of Michigan. – U.S. Geol. Surv. Prof. Pap., 114:1–238.
• Butler, E., Hung, Y.-T., Yeh, R. Y.-L. & Al Ahmad, M. S. (2011): Electrocoagulation in Wastewater Treatment. – Water, 3:495–525, doi:10.3390/w3020495.
• Büttcher, H., Mansel, H. & Weber, L. (2015): Coupled Modeling of Iron Loads from Lignite Mining Dump Groundwater to the Pleiße River. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Büttcher, H., Mansel, H., Weber, L., Uhlig, C. & Häfner, K. (2010): Räumlich-differenzierte Stofftransportmodellierung zur Prognose des Stoffaustrags aus der Braunkohlenbergbaukippe Witznitz in den Vorfluter Pleiße im Südraum von Leipzig. – Wiss. Mitt. Inst. Geol., 42:133–142.
• Butterfield, M. (2009): On-site Measurement of Metals in Water Samples taken from Nant Gwydyr and Llyn Gerionydd using a Cogent Environmental PDV 6000 plus Metals Analyser. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 234–239, 9 Abb; Pretoria (Document Transformation Technologies).
• Büttgenbach, F. (1898): Geschichtliches über die Entwicklung des 800 jährigen Steinkohlenbergbaues an der Worm (1113 – 1898) – Nebst Situationskarte des Wormreviers. – 1 Kart.; Aachen (Schweitzer).
• Buza, M., Dimen, L., Pop, G. & Turnock, D. (2001): Environmental protection in the Apuseni Mountains: The role of Environmental Non-Governmental Organisations (ENGOs). – GeoJournal, 54:631–653, 7 Abb., 3 Tab.
• Buzio, S., Pesando, G. & Zuppi, G. M. (2000): Hydrogeological study on the presence of asbestos fibres in water of northern Italy. – Water research, 34(6):1817–1822, doi:10.1016/S0043-1354(99)00336-X.
• Buzzacott, P. & Paine, D. (2012): Former Pit Mine Dive Parks: International Mine Water Association Symposium. – 679–684 p., Bunbury (Edith Cowan University).
• Buzzi, D. C., Viegas, L. S., Cianga Silvas, F. P., Romano Espinosa, D. C., Siqueira Rodrigues, M. A., Bernardes, A. M. & Tenório, J. A. (2011): The Use of Microfiltration and Electrodialysis for Treatment of Acid Mine Drainage: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 287–292 p., Aachen (RWTH Aachen University).
• Buzzi, D. C., Viegas, L. S., Cianga Silvas, F. P., Siqueira Rodrigues, M. A., Romano Espinosa, D. C., Homrich Schneider, I. A., Bernardes, A. M. & Soares Tenório, J. A. (2011): Treatment of Acid Mine Drainage by Electrodialysis: Supplemental Proceedings: Materials Processing and Energy Materials 1. – 277–284 p., 5 Abb., 2 Tab.; Hoboken (Wiley & Sons); doi:10.1002/9781118062111.ch29.
• Bv, D. C. & Hydraulics, D. (1999): How to measure dissolved, suspended & total solids. – 24+4 p., New Delhi.
• Bylak, A., Rak, W., Wojcik, M., Kukula, E. & Kukula, K. (2019): Analysis of Macrobenthic Communities in a Post-Mining Sulphur Pit Lake (Poland). – Mine Water Environ., 38(3):536–550, doi:10.1007/s10230-019-00624-2.
• Byrne, P., Onnis, P., Runkel, R. L., Frau, I., Lynch, S. F. L., Brown, A. M. L., Robertson, I. & Edwards, P. (2021): Numerical Modelling of Mine Pollution to Inform Remediation Decision-making in Watersheds. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 66–71; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Byrne, P., Reid, I. & Wood, P. J. (2009): Short-Term Fluctuations in Heavy Metal Concentrations during Flood Events through Abandoned Metal Mines, with Implications for Aquatic Ecology and Mine Water Treatment. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 124–129, 4 Abb; Pretoria (Document Transformation Technologies).
• Byrne, P., Runkel, R. L. & Walton-Day, K. (2017): Synoptic sampling and principal components analysis to identify sources of water and metals to an acid mine drainage stream. – Environ. Sci. Pollut. Res., 24(20):17220–17240, doi:10.1007/s11356-017-9038-x.
• Byrne, P., Yendell, A., Frau, I. & Todd, A. M. L. (2021): Identification and Prioritisation of Mine Pollution Sources in a Temperate Watershed Using Tracer Injection and Synoptic Sampling. – Mine Water Environ., 40(4):980–993, doi:10.1007/s10230-021-00792-0.
• Byun, J.-W. & Lee, Y.-S. (2004): Preparation of polymer-supported palladium/N-heterocyclic carbene complex for Suzuki cross-coupling reactions. – Tetrahedron Letters, 45:1837–1840, 1 Abb., 3 Tab.
• Bzowski, Z., Sracek, O., Gzyl, G., Frolik, A., Kubica, J. & Gwodziewicz, M. (2008): Evaluation of the Environmental Impact of Coal Waste Pile at Smolnica, Upper Silesia, Poland. – Proceedings, 10th International Mine Water Association Congress:363–366.
• C. M. S. Collaboration & L. HCb Collaboration (2015): Observation of the rare Bs0 →µ+µ− decay from the combined analysis of CMS and LHCb data. – Nature, advance online publication doi:10.1038/nature14474.
• Cabala, D. (1985): The water problem in relation to mining at magnesite deposits in Slovakia. – Proceedings, 2nd International Mine Water Association Congress, 2:919–930.
• Cabala, D. (1987): Hydrogeology of East Slovakian Neogene Coal Deposits: Hydrogeology of Coal Basins. – 203–213 p., 6 Abb., 2 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Cabala, D. & Skaviniak, M. (1988): Environment Studies to Determine the Impacts of Re-opening Banksá Štiavnica-Hodruša Ore District in Czechoslovakia. – Proceedings, 3rd International Mine Water Congress, Melbourne:809–817, 4 Abb.
• Cabrera, F., Toca, C. G., Diaz, E. & Dearambarri, P. (1984): Acid Mine-Water and Agricultural Pollution in a River skirting the Donana-National-Park (Guadiamar River, South West Spain). – Water Res., 18(12):1469–1482.
• Cacas, M. C., Ledoux, E., de Marsily, G., Barbreau, A., Calmels, P., Gaillard, B. & Margritta, R. (1990): Modeling fracture flow with a stochastic discrete fracture network; calibration and validation; 2, The transport model. – Water Resour. Res., 26(3):491–500, Refs: 18; illus; doi:10.1029/wr026i003p00491.
• Cacciuttolo, C. & Tabra, K. (2015): Water Management in the Closure of Tailings Storage Facilities. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–13 [electronic document], Santiago/Chile (Gecamin).
• Cadena, F. & Peters, R. W. (1988): Evaluation of chemical oxidizers for hydrogen sulfide control. – J. Water Pollut. Con. F., 60(7):1259–1263, 4 Abb., 3 Tab.
• Cadez, F., Likar, B., Logar, Z. & Gantar, I. (1999): Mining Impact on Ground Water of Uranium Mine Žirovski Vrh. – 16 p., 5 Abb., 1 Tab.; Todraz (Unveröff. Manuskript Rudnik Žirovski Vrh).
• Cai, J., Huang, H., Wen, R., Han, S., Lu, L. & Lei, W. (2024): Saturated-unsaturated seepage characteristics and stability analysis of tailings dam under different rainfall pattern. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 68–75; Morgantown (International Mine Water Association).
• Cai, M., Post, S., Rao, S., Chun, C. L., Johnson, L. & Hudak, G. (2024): Low-concentration sulfate removal from wastewater with barite precipitation technology. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 65–67; Morgantown (International Mine Water Association).
• Cai, S., Lin, Y., Zhineng, H., Xianzu, Z., Zhalou, Y., Huidong, X., Yuanrong, L., Rongdi, J., Wenhau, Z. & Fangyuan, Z. (1990): Cadmium exposure and health effects among residents in an irrigation area with ore dressing wastewater. – Sci. Total Environ., 90:67–73, 3 Tab.
• Cai, X., Chen, L., Hou, X., Zhang, M., Hu, Y., Ou, Q., Song, J., Wu, M., Shi, X. & Yin, X. (2025): The Mechanisms Controlling the Characteristics of Groundwater in the Qinan Coal Mine. – Mine Water Environ., 44(1):78–92, doi:10.1007/s10230-025-01022-7.
• Cain, D. J., Croteau, M.-N. & Fuller, C. C. (2005): Dietary Bioavailability of Cu Adsorbed to Colloidal Hydrous Ferric Oxide. – Environ. Sci. Technol., 47(6):2869–2876, doi:10.1021/es3044856.
• Cain, P., Brown, J. D. & Amirault, J. A. (1985): Stability Enhancement of coal Measures Strata with Water-Based Chemical Agents. – Int. J. Mine Water, 4(4):37–53, 1 Abb., 1 Tab.
• Cain, P., Forrester, D. J. & Cooper, R. (1994): Water Inflows at Phalen Colliery in the Sydney Caolfield and their Realtion to Interaction of Workings. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:83–95, 8 Abb.
• Caine, J. S., Johnson, R. H. & Wild, E. C. (2011): Review and interpretation of previous work and new data on the hydrogeology of the Schwartzwalder Uranium Mine and vicinity, Jefferson County, Colorado. – (Report Nr. 2011-1092). – 44 p.
• Cairncross, B. (2024): Postmasburg Manganese Field, Northern Cape Province, South Africa. – Rocks & Minerals, 99(3):208–235, doi:10.1080/00357529.2024.2303948.
• Cairney, T. & Frost, R. C. (1975): A Case study of mine water-quality deterioration, Mainsforth Colliery, County Durham. – J. Hydrol., 25(3-4):275–293, doi:10.1016/0022-1694(75)90026-8.
• Cairns, J. & Atkinson, R. B. (1994): Constructing ecosystems and determining their connectivity to the larger ecological landscape. – In: Hester, R. E. & Harrison, R. M. (eds): Mining and its Environmental Impact 1. – p. 111–120, (The Royal Society of Chemistry); doi:10.1039/9781847551467-00111.
• Cairns, S., Todd, A. M. L., Robertson, I. & Byrne, P. (2022): Metals Removal from Acid Mine Water by Wood-Ash Amended Biochar. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 33–38; (International Mine Water Association).
• Čajka, R. (2017): Analýza Příčin Vzniku Sesuvu na Jihovýchodním Úbočí Kopce Kubačka ve Svahu Pod Lomem Dobkovičky, okres Litoměřice [Analysis of the causes of landslide formation on the south-eastern hillside of the Kubačka Hill in the slope below the Dobkovičky Quarry, Litoměřice District]. – Unpubl. Report for Kámen Zbraslav, a. s. (Report Nr. ZU-FAST_164/2017). – 268 p., 230 Abb., 34 Tab., 3 Anl.; Ostrava (VŠB-TU Ostrava, Fakulta stavební Znalecký ústav).
• Çakirlar, C. (2008): Investigations on Archaeological Cerastoderma glaucum Population from Troia (Turkey) and Their Potential for Palaeoeconomical Reconstruction. – Archaeofauna, 17:91–102, 4 Abb., 2 Tab.
• Calaforra, J. M., Pulido-Bosch, A., Lopez-Chicano, M., Johnson, K. S. & Gunay, G. (2002): Gypsum karst in the Betic Cordillera (South Spain). – Carbonate Evaporite, 17(2):134–141.
• Calder, D. R. & Bleakney, J. S. (1967): Observations on Frenchman’s Cave, Nova Scotia, and Its Fauna. – Natl. Speleol. Soc. Bull., 29(1):23–25, 1 Abb., 1 Tab.
• Calder, J. H. (1998): The Carboniferous evolution of Nova Scotia. – Spec. Publ. – Geol. Soc. London, 143:261–302, 9 Abb., 2 Tab.; doi:10.1144/GSL.SP.1998.143.01.19.
• Calder, J. H., Gillis, K. S., MacNeil, D. J., Naylor, R. D. & Campbell, N. W. (1993): One of the Greatest Treasures – The Geology & History of Coal in Nova Scotia: Proceedings, Mine Drainage and Surface Mine Reclamation 25. – 41 p., Halifax (Nova Scotia Department of Natural Resources).
• Calderoni, A. & Tartari, G. A. (2000): Evolution of the water chemistry of Lake Orta after liming. – J. Limnol., 60 (Supp 1):69–78, 15 Abb., 2 Tab.; doi:10.4081/jlimnol.2001.69.
• Caldwell, R. J. & Irwin, R. (2018): A Kinetic Investigation of Siderite Oxidation during Laboratory Neutralization Potential Determinations. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 369–374; (Tshwane University of Technology).
• Calf, G. E. (1978): An investigation of recharge to the Namoi Valley aquifers using environmental isotopes. – Aust. J. Soil Res., 16:197–207, 6 Abb., 2 Tab.; doi:10.1071/SR9780197.
• Calgaroto, S., Azevedo, A. & Rubio, J. (2016): Separation of amine-insoluble species by flotation with nano and microbubbles. – Miner. Eng., 89:24–29, doi:10.1016/j.mineng.2016.01.006.
• Calhoun, N., Poschinger, A. v., Clague, J. J., Giardino, M., Masera, D. & Perotti, L. (2015): New Pieces to the Flims-Tamins Rockslide Puzzle. – In: Lollino, G., et al. (eds): Engineering Geology for Society and Territory – Volume 2. – p. 899–903, (Springer International Publishing); doi:10.1007/978-3-319-09057-3_155.
• Callaghan, T., Brady, K., Chisholm, W. & Sames, G. (2000): Hydrology of the Appalachian Bituminous Coalbasin. – In: Kleinmann, R. L. P. (ed) Prediction of Water Quality at Surface Coal Mines. – p. 36–72, 5 Abb., 4 Tab.; Morgantown (National Mine Land Reclamation Center).
• Callender, E. (2000): Geochemical Effects of Rapid Sedimentation in Aquatic Systems: Minimal Diagenesis and the Preservation of Historical Metal Signatures. – J. Paleolimn., 23(3):243–260.
• Callinicos, L. (1980): A Peoples History of South Africa – Gold and Workers: 1. – 112 p., Johannesburg (Ravan Press).
• Calmels, D., Gaillardet, J., Brenot, A. & France-Lanord, C. (2007): Sustained sulfide oxidation by physical erosion processes in the Mackenzie River basin: Climatic perspectives. – Geology, 35(11):1003–1006, doi:10.1130/g24132a.1.
• Calow, R. (1991): Quality Control/Quality Assurance in Geochemical Laboratories. – Explore – Newsletter for the Association of Exploration Geochemists, 72:23–24.
• Camacho, D., Jessen, G. L., Mori, J. F., Apte, S. C., Jarolimek, C. V. & Warren, L. A. (2020): Microbial Succession Signals the Initiation of Acidification in Mining Wastewaters. – Mine Water Environ., 39(4):669–683, doi:10.1007/s10230-020-00711-9.
• Camarero, P. L., Moreira, C. A., Targa, D. A., Duz, B. G. & Pereira, H. G. (2022): Analysis of Acid Drainage Flow Zones in a Rocky Massif in a Uranium Mine from Structural and Geophysical Diagnoses. – Mine Water Environ., 41(2):303–316, doi:10.1007/s10230-021-00827-6.
• Camargo, F., Leucas, H. d. & Ladeira, A. C. (2015): Sorption/Oxidation of Manganese in Aqueous System. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–7 [electronic document], Santiago/Chile (Gecamin).
• Cambridge, M. (1999): Rehabilitation of historic Mineworkings in Europe. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 781–786, 1 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Camden-Smith, B., Johnson, R. H., Camden-Smith, P. & Tutu, H. (2015): Geochemical Modelling of Water Quality and Solutes Transport from Mining Environments. Research and Practices in Water Quality. – p. 39–64, doi:10.5772/59234.
• Camden-Smith, B., Mthombeni, P., Johnson, R. H., Weiersbye, I. M. & Tutu, H. (2014): The Release and Transport of Metals Arising from Gold Mining Tailings Storage Facilities in the Witwatersrand, South Africa. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 157–160, 2 Abb., 2 Tab.; Xuzhou (International Mine Water Association).
• Camden-Smith, B., Pretorius, N., Turton, A., Camden-Smith, P. & Tutu, H. (2015): Chemical Transformations of Metals Leaching from Gold Tailings. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Camden-Smith, B. P., Johnson, R. H., Richardson, R., Billing, D. G. & Tutu, H. (2013): Investigating the potential impact of efflorescent mineral crusts on water quality: complementing analytical techniques with geochemical modelling. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 281–286, 4 Abb., 2 Tab.; Golden (International Mine Water Association).
• Camden-Smith, B. P. & Tutu, H. (2014): Geochemical modelling of the evolution and fate of metal pollutants arising from an abandoned gold mine tailings facility in Johannesburg. – Water Sci. Technol., 69(5):1108–14, doi:10.2166/wst.2014.028.
• Camero-Hermoza, P., Calla-Choque, D., Rojas-Montes, J. C., Villachica-Leon, C. & Villachica-Llamosas, J. (2021): Pyrite Flotation Separation and Encapsulation: A Synchronized Remediation System for Tailings Dams. – Mine Water Environ., 40(1):74–82, doi:10.1007/s10230-021-00753-7.
• Cameron, D., Willett, M. & Hammer, L. (2006): Distribution of Organic Carbon in the Berkeley Pit Lake, Butte, Montana. – Mine Water Environ., 25(2):93–99, 1 Abb., 3 Tab.; doi:10.1007/s10230-006-0116-4.
• Cameron, E. M., Prevost, C. L., McCurdy, M., Hall, G. E. M. & Doidge, B. (1998): Recent (1930s) natural acidification and fish-kill in a lake that was an important food source for an Inuit community in northern Quebec, Canada. – J. Geochem. Explor., 64(1-3):197–213, 11 Abb., 2 Tab.
• Cameron, J. (1980): History of the Evaluation and Exploitation of a Group of Small Uranium Mines in Portugal. Paper presented at the Uranium Evaluation and Mining Techniques, Buenos Aires. – p. 179–206, 2 Abb., 5 Tab.; Vienna (IAEA).
• Cameron, R. (2008): Discussion on Implementation of the Water Framework Directive and Related Implications for the Metalliferous Mining Industry. – Proceedings, 10th International Mine Water Association Congress:509–512.
• Campbell, B. & Gauthier, A. (2010): Development of Remedial Objectives for the former Cape Breton Development Corporation Mine Closure Program. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 617–621, Sydney, NS (Cape Breton University Press).
• Campbell, I. H. (1966): The Petrology of the Jimberlana Norite near Norseman, Western Australia. – 240 p., 93 Abb., 4 Karten; Univ. of. W.A. (Unpubl. Thesis).
• Campbell, I. H. (1977): A Study of Macro-Rhythmic Layering and Cumulate Processes in the Jimberlana Intrusion, Western Australia. Part I: The Upper Layered Series. – J. Petrol., 18(2):183–215, 11 Abb., 3 Tab.; doi:10.1093/petrology/18.2.183.
• Campbell, K. M., Alpers, C., Nordstrom, D. K., Blum, A. & Williams, A. (2013): Characterization and Remediation of Iron(III) Oxide-rich Scale in a Pipeline Carrying Acid Mine Drainage at Iron Mountain Mine, California, USA. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 287–293, 2 Abb., 1 Tab.; Golden (International Mine Water Association).
• Campbell, K. M., Gallegos, T. J. & Landa, E. R. (2015): Biogeochemical aspects of uranium mineralization, mining, milling, and remediation. – Appl. Geochem., 57:206–235, doi:10.1016/j.apgeochem.2014.07.022.
• Campbell Pitt, L. T. (1969): The Flooding at the West Driefontein Mine – Discussion. – J. S. Afr. Inst. Min. Metall., 70(3):69–73.
• Canaval, R. (1914): Über den Silbergehalt der Bleierze in den triassischen Kalken der Ostalpen. – Z. f. prakt. Geol., 22:157–163.
• Cancrinus, F. L. v. (1767): Beschreibung der vorzüglichsten Bergwerke in Hessen, in dem Waldekkischen, an dem Haarz, in dem Mansfeldischen, in Chursachsen, und in dem Saalfeldischen. – Frankfurth an dem Main (Andreäische Buchhandlung).
• Cancrinus, F. L. v. (1787): Geschichte und systematische Beschreibung der in der Graffschaft Hanau Münzenberg, in dem Amte Bieber und anderen Aemtern dieser Graffschaft, auch den dieser Graffschaft benachbarten Ländern gelegenen Bergwerke. – 190 p., Leipzig (Hertel).
• Candiota Tubino, R. M. (2010): Possibility of removing metals from acid mine drainage using industry waste processing agates as adsorbent. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 643–647, Sydney, NS (Cape Breton University Press).
• Cane, A., Nader, G., Folguera, L., Sanchez Proaño, P., Davite, G., Silva, A. & Cicerone, D. S. (2018): Modelo Conceptual Hidrogeologico Mejorado – Sitio Los Gigantes [Hydrogeological aspects of Los Gigantes site]. – (Report Nr. ARG/7/008). – 191 p., Buenos Aires, Argentina (Comisión Nacional de Energía Atómica – CNEA).
• Caniaux, G., Giordani, H., Redelsperger, J. L., Guichard, F., Key, E. & Wade, M. (2011): Coupling between the Atlantic cold tongue and the West African monsoon in boreal spring and summer. – J. Geophys. Res. Oceans, 116:17, doi:10.1029/2010jc006570.
• Cañizares, P., Jiménez, C., Martínez, F., Rodrigo, M. A. & Sáez, C. (2009): The pH as a key parameter in the choice between coagulation and electrocoagulation for the treatment of wastewaters. – J. Hazard. Mater., 163:158–164, 8 Abb., 1 Tab.; doi:10.1016/j.jhazmat.2008.06.073.
• Cannon, H. L. (1955): Geochemical Relations of Zinc-Bearing Peat to the Lockport Dolomite, Orleans Country, New York. – US Geological Survey Bulletin, B 1000-D:119–185, 6 Plates, 5 Fig., 13 Tab.
• Cannon, H. L. (1960): Botanical Prospecting for Ore Deposits. – Science, 132(3427):591–598, 5 Abb., 5 Tab.; doi:10.1126/science.132.3427.591.
• Cannon, K. J., Carter, M. W. & Waggitt, P. W. (1991): Standards and Procedures for Release of Uranium Mine Waste Waters into a World Heritage Area Physical Aspects. – Proceedings, 4th International Mine Water Association Congress, 2:317–328, 5 Abb.
• Cánovas, C. R., Hubbard, C., Olías, M., Nieto, J. M., Black, S. & Coleman, M. (2005): Water Quality variations in the Tinto River during high flood events: Mine Water 2005 – Mine Closure. – 133–139 p., 5 Abb.; Oviedo (University of Oviedo).
• Cantrill, S. (2009): So long sulphur (Editorial). – Nature Chemistry, 1:333, doi:10.1038/nchem.301.
• Canty, G. A. & Everett, J. (1998): Using tracers to understand the hydrology of an abandoned underground coal mine. – 62–72 p., 5 Abb., 2 Tab.; Princeton (Proceedings 15th Annual National Meeting – American Society for Surface Mining and Reclamation); doi:10.21000/JASMR98010062.
• Canty, G. A. & Everett, J. (1999): Remediation of Underground Mine Areas through Treatment with Fly Ash. – (Report Nr. OCC Tasks 50 FY 1993 319(h) Task #600 EPA Grant C9-996100-0). – 167 p., 30 Abb., 43 Tab.; Oklahoma City (Oklahoma Conservation Commission).
• Canty, G. A. & Everett, J. W. (2006): Injection of Fluidized Bed Combustion Ash into Mine Workings for Treatment of Acid Mine Drainage. – Mine Water Environ., 25(1):45–55, 6 Abb., 1 Tab.; doi:10.1007/s10230-006-0107-5.
• Cao, L., Xu, T., Wang, Y. & Huo, P. (2015): Experimental Analysis on Soil-Water Characteristic Curve of CH3COO-Contaminated Clay. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Cao, Q., Yang, L., Qian, Y. & Zhao, Z. (2022): Spatial Distribution Characteristics of Coal Mine Drainage Water Quality in China. – Mine Water Environ., 41(4):1096–1105, doi:10.1007/s10230-022-00899-y.
• Cao, V., Schaffer, M., Jin, Y. & Licha, T. (2017): Preservation of commonly applied fluorescent tracers in complex water samples. – Grundwasser, 22(2):127–133, 1 Abb., 1 Tab.; doi:10.1007/s00767-017-0356-1.
• Cao, Z., Chen, Q., Ren, M., Zhang, L., Shen, F., Wang, X., Shi, S., Zhao, Y., Yan, G. & Peng, J. (2019): Higher health risk resulted from dermal exposure to PCBs than HFRs and the influence of haze. – Sci. Total Environ., 689:223–231, doi:10.1016/j.scitotenv.2019.06.429.
• Capo, R. C., Winters, W. R., Weaver, T. J., Stafford, S. L., Hedin, R. S. & Stewart, B. W. (2001): Hydrogeologic and Geochemical Evolution of Deep Mine Discharges, Irwin Syncline, Pennsylvania. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 22:1–10, 5 Abb., 1 Tab.
• Capra, L. (2011): Volcanic Natural Dams Associated with Sector Collapses: Textural and Sedimentological Constraints on Their Stability. – In: Evans, S. G., Hermanns, R. L., Strom, A. & Scarascia-Mugnozza, G. (eds): Natural and Artificial Rockslide Dams 133. – p. 279–294, (Springer Berlin Heidelberg); doi:10.1007/978-3-642-04764-0_9.
• Čar, J. (2013): Ladinian skonca beds of the Idrija Ore Deposit (W Slovenia). – Geologija, 56(2):151–174, 24 Abb., 3 Tab.; doi:10.5474/geologija.2013.010.
• Caraballo, M. A., Macías, F., Rötting, T. S., Nieto, J. M. & Ayora, C. (2008): First Results of a Full Scaled Passive Treatment System for High Metal Concentration AMD at the Iberian Pyrite Belt, SW Spain. – Proceedings, 10th International Mine Water Association Congress:259–262.
• Caraballo, M. A., Rötting, T., Nieto, J. M. & Ayora, C. (2007): Mineralogical Characterization of a reactive Tank in a passive AMD Treatment System at Monte Romero (Iberian Pyrite Belt, SW Spain): Water in Mining Environments. – 153–157 p., 3 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Carayannis, E. G., Del Giudice, M. & Soto-Acosta, P. (2018): Disruptive technological change within knowledge-driven economies: The future of the Internet of Things (IoT). – Technol. Forecasting Social Change, 136:265–267, doi:10.1016/j.techfore.2018.09.001.
• Caringal, E. M. (1988): Water – The Biggest Factor in the Development of the Highest Grade Gold Deposit of the Philippines. – Proceedings, 3rd International Mine Water Congress, Melbourne:281–288, 2 Abb.
• Carissimi, E. & Rubio, J. (2002): The flocs generator reactor-FGR: a new basis for flocculation and solid–liquid separation. – Int. J. Miner. Process., 75:237–247, 14 Abb., 1 Tab.; doi:10.1016/j.minpro.2004.08.021.
• Carlier, J. D., Luís, A. T., Alexandre, L. M. & Costa, M. C. (2020): Feasibility of Co-Treating Olive Mill Wastewater and Acid Mine Drainage. – Mine Water Environ., 39(4):859–880, doi:10.1007/s10230-020-00719-1.
• Carlin, J. F., Jr. (1999): Tin: Metal Prices in the United States through 1998. – 159–160 p., 1 Abb., 1 Tab.; Washington (US Department of the Interior US Geolocical Survey).
• Carlson Calhoun, N. (2015): LiDAR and geomorphic characterisation of landslide-induced liquefaction deposits in the eastern Swiss Alps. – 137 p., Simon Fraser University, 63 Abb.
• Carlson, G. G. (1940): Numbers Gambling – A Study of a Culture Complex. – 159 p., Ph.D., University of Michigan.
• Carlson, G. G. (1949): The Argot of Number Gambling. – American Speech, 24(3):189–193.
• Čarman, M., Jemec Auflič, M. & Komac, M. (2014): Landslides at a uranium mill tailing deposit site Boršt (Slovenia) detected by radar interferometry. – Landslides, 11(3):527–536, 6 Abb., 5 Tab.; doi:10.1007/s10346-013-0454-9.
• Carneado, S., Hernandez-Nataren, E., Lopez-Sanchez, J. F. & Sahuquillo, A. (2015): Migration of antimony from polyethylene terephthalate used in mineral water bottles. – Food Chem., 166:544–550, doi:10.1016/j.foodchem.2014.06.041.
• Carneiro, S. R. C., Marques, E. A. G. & Chiste-Costa, J. P. (2016): Evaluation of Hydraulic Conductivity of Itabirites of the Alegria Centro and Alegria Sul Open Pits, Samarco Mineração S.A., Minas Gerais State, Brazil. – Mine Water Environ., 35(2):136–144, doi:10.1007/s10230-015-0328-6.
• Carow, U. (2016): Freiflächenentwicklung – Industriekultur und postindustrielle Landschaften auf ehemaligen Montanstandorten im Ruhrgebiet. – Veröff. Dt. Bergbau-Mus. Bochum, 217:51–60.
• Carpenter, D. O. (2006): Polychlorinated Biphenyls (PCBs): Routes of Exposure and Effects on Human Health. – Rev. Environ. Health, 21(1):1–24, doi:10.1515/REVEH.2006.21.1.1.
• Carpenter, D. O. (2015): Exposure to and health effects of volatile PCBs. – Rev. Environ. Health, 30(2) doi:10.1515/reveh-2014-0074.
• Carrasco, I. (2021): Shifting the Mind Set: Tailings Management at the Las Cruces Mine (Seville, Spain). – Mine Water Environ., 40(1):16–22, doi:10.1007/s10230-020-00735-1.
• Carsel, R. F. & Parrish, R. S. (1988): Developing Joint Probability Distributions of Soil Water Retention Characteristics. – Water Resour. Res., 24(5):755–769, 12 Abb., 8 Tab.
• Carson, R. L. (1962 [2002]): Silent spring – 50th Anniversary Edition. – 397 p., New York (First Mariner).
• Carstairs, S. D. (2013): Diagnosis of testicular cancer with a urine pregnancy test in an austere military medical environment –The American Journal of Emergency Medicine, 31(11):1615, doi:10.1016/j.ajem.2013.08.010.
• Carstens, A., Bartie, C., Dennis, R. & Bezuidenhout, C. (2014): Antibiotic-resistant heterotrophic plate count bacteria and amoeba-resistant bacteria in aquifers of the Mooi River, North West province, South Africa. – J. Water Health, 12(4):835–845, doi:10.2166/wh.2014.226.
• Cartwright, A. P. (1969): West Driefontein – Ordeal by Water. – 83 p., (J. G. Ince Gold Fields of South Africa Limited).
• Cartwright, P. S. (2012): Application of Membrane Separation Technologies to Wastewater Reclamation and Reuse. – In: Drelich, J., Hwang, J.-Y., Adams, J., Nagaraj, D. R., Sun, X. & Xu, Z. (eds): Water in Mineral Processing. – p. 115–129, 6 Abb., 8 Tab.; Littleton (SME).
• Caruccio, F. T. (1987): Acid Mine Drainage Research – Hydrology’s Critical Role and Unifying Theme. Paper presented at the American Society of Mining and Reclamation. – p. 228–231.
• Caruccio, F. T. & Parizek, R. R. (1967): An evaluation of factors influencing acid mine drainage production from various strata of the Allegheny Group and the ground water interactions in selected areas of western Pennsylvania, SR-65. – 213 p., 47 Abb., 16 Tab., 4 Anl.; University Park (Pennsylvania State University).
• Caruso, B., Mirtskhulava, M., Wireman, M., Schroeder, W., Kornilovich, B. & Griffin, S. (2015): Manganese Mining Impacts on Water Quality in the Caucasus Mountains, Republic of Georgia. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Caruso, B. S. & Bishop, M. (2009): Seasonal and Spatial Variation of Metal Loads from Natural Flows in the Upper Tenmile Creek Watershed, Montana. – Mine Water Environ., 28(3):166–181, 7 Abb., 3 Tab.; doi:10.1007/s10230-009-0073-9.
• Caruso, B. S., Cox, T. J., Runkel, R. L., Velleux, M. L., Bencala, K. E., Nordstrom, D. K., Julien, P. Y., Butler, B. A., Alpers, C. N., Marion, A. & Smith, K. S. (2008): Metals fate and transport modelling in streams and watersheds: state of the science and USEPA workshop review. – Hydrol. Processes, 22:4011–4021, 3 Abb.; doi:10.1002/hyp.7114.
• Caruso, B. S., Mirtskhulava, M., Wireman, M., Schroeder, W., Kornilovic, B. & Griffin, S. (2012): Effects of Manganese Mining on Water Quality in the Caucasus Mountains, Republic of Georgia. – Mine Water Environ., 31(1):16–28, 6 Abb., 5 Tab.; doi:10.1007/s10230-011-0163-3.
• Caruso, B. S. & Ward, R. C. (1998): Assessment of nonpoint source pollution from inactive mines using a watershed-based approach. – Environ. Manage., 22(2):225–243, 6 Abb., 6 Tab.; doi:10.1007/s002679900099.
• Carvajal, D. J. & González, A. (2000): Mining Heritage & Closure Mines. – 158–165 p., Rio de Janeiro (Cyted – Imacc – Unido).
• Carvajal Gómez, D. J., González Martínez, A. & Romero Macías, E. (1999): The Tinto River: a very old acid River of the Iberian Pyrite Belt. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 237–242, 8 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Carvalho, E., Diamantino, C. & Pinto, R. (2016): Environmental Remediation of Abandoned Mines in Portugal – Balance of 15 Years of Activity and New Perspectives. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 554–561, Freiberg (TU Bergakademie Freiberg).
• Carvalho, F. & Schulte, L. (2021): Reconstruction of mining activities in the Western Alps during the past 2500 years from natural archives. – Sci. Total Environ., 750:141208, 7 Abb., 1 Tab.; doi:10.1016/j.scitotenv.2020.141208.
• Carvalho, F. P. (2019): Uranium legacy Sites in Portugal: Environmental Radioactivity and Mitigation of Radiological Impact. Paper presented at the International Symposium on Uranium Raw Material for the Nuclear Fuel Cycle: Exploration, Mining, Production, Supply and Demand, Economics and Environmental Issues (Uram 2014), Wien, 23 – 27 June 2014. – p. 355–361; Wien (International Atomic Energy Agency).
• Carvalho, F. P., Oliveira, J. M., Madruga, M. J., Lopes, I., Libânio, A. & Machado, L. (2005): Contamination of Hydrographic Bassins in Uranium Mining Areas of Portugal. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 691–702, Heidelberg (Springer).
• Carvalho, F. P., Oliveira, J. M. & Malta, M. (2009): Analyses of radionuclides in soil, water, and agriculture products near the Urgeiriça uranium mine in Portugal. – J. Radioanal. Nucl. Chem., 281(3):479–484, doi:10.1007/s10967-009-0027-5.
• Carvalho, F. P., Oliveira, J. M. & Malta, M. (2015): Radiation exposure and environmental remediation at the Urgeiriça mine site, Portugal. Paper presented at the Uranium – Past and Future Challenges, Freiberg. – p. 63–72.
• Carvalho, P., Richards, D. G., Fernández-Rubio, R. & Norton, P. J. (1990): Prevention of Acid Mine Drainage at Neves-Corvao Mine, Portugal. – Int. J. Mine Water, 9(1-4):71–84, 6 Abb.
• Carvalho, P. N., Arias, C. A. & Brix, H. (2017): Constructed Wetlands for Water Treatment: New Developments. – Water, 9(6):397, doi:10.3390/w9060397.
• Casagrande, A. (1934): Die Aräometer-Methode zur Bestimmung der Kornverteilung von Böden und anderen Materialien –56 p., 20 Abb., 9 Tab.; Berlin (Springer); doi:10.1007/978-3-642-91247-4.
• Casagrande, A. (1937): Seepage Through Dams. – J. New England Water Works Assoc., 51(2):131–172.
• Casagrande, A. (1961): Control of Seepage through Foundations and Abutments of Dams. – Géotechnique, 11(3):161–182, doi:10.1680/geot.1961.11.3.161.
• Cashman, P. M. & Preene, M. (2020): Groundwater lowering in construction – A practical guide to dewatering, 3rd edn. – pages cm p., Boca Raton (CRC Press).
• Casiot, C., Egal, M., Elbaz-Poulichet, F., Bruneel, O., Bancon-Montigny, C., Cordier, M.-A., Gomez, E. & Aliaume, C. (2009): Hydrological and geochemical control of metals and arsenic in a Mediterranean river contaminated by acid mine drainage (the Amous River, France); preliminary assessment of impacts on fish (Leuciscus cephalus). – Appl. Geochem., 24:787–799, 7 Abb., 5 Tab.; doi:10.1016/j.apgeochem.2009.01.006.
• Casiot, C., Lebrun, S., Morin, G., Bruneel, O., Personné, J. C. & Elbaz-Poulichet, F. (2004): Sorption and redox processes controlling arsenic fate and transport in a stream impacted by acid mine drainage. – Sci. Total Environ., 347(1-3):122–130, 5 Abb., 2 Tab.; doi:10.1016/j.scitotenv.2004.12.039.
• Casiot, C., Morin, G., Juillot, F., Bruneel, O., Personné, J.-C., Leblanc, M., Duquesne, K., Bonnefoy, V. & Elbaz-Poulichet, F. (2003): Bacterial immobilization and oxidation of arsenic in acid mine drainage (Carnoulés creek, France). – Water Res., 37:2929–2936, 6 Abb., 1 Tab.
• Casiot, C., Sarmiento, A. M., Motelica-Heino, M., Nieto, J. M. & Elbaz-Poulichet, F. (2005): Iron isotopes in acid stream waters and iron-rich solids from abandoned mining areas along Tinto and Odiel watershed: Mine Water 2005 – Mine Closure. – 117–124 p., 5 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Cason, E. D., Piater, L. A. & van Heerden, E. (2012): Reduction of U(VI) by the deep subsurface bacterium, Thermus scotoductus SA-01, and the involvement of the ABC transporter protein. – Chemosphere, 86(6):572–577, 6 Abb., 1 Tab.; doi:10.1016/j.chemosphere.2011.10.006.
• Casqueira, R. G., Torem, M. L. & Kohler, H. M. (2006): The removal of zinc from liquid streams by electroflotation. – Miner. Eng., 19(13):1388–1392, 5 Abb.; doi:10.1016/j.mineng.2006.02.001.
• Castell-Exner, C. (1997): Qualitätsicherung im Bohr- und Brunnenbau. – Grundwasser, 2(4):176–180, 2 Abb., 1 Tab.
• Castendyk, D., Hill, B., Filiatreault, P., Straight, B., Alangari, A., Cote, P. & Leishman, W. (2018): Experiences with Autonomous Sampling of Pit Lakes in North America using Drone Aircraft and Drone Boats. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1036–1041; (Tshwane University of Technology).
• Castendyk, D., Sorsby, S. & Sanchez Espana, J. (2025): Screening-level economic evaluation of Critical and Strategic Raw Materials stored in Iberian Pyrite Belt pit lakes, Spain. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 549–552; Braga (International Mine Water Association).
• Castendyk, D., Voorhis, J. & Kucera, B. (2020): A Validated Method for Pit Lake Water Sampling Using Aerial Drones and Sampling Devices. – Mine Water Environ., 39(3):440–454, doi:10.1007/s10230-020-00673-y.
• Castendyk, D. N., Balistrieri, L. S., Gammons, C. H. & Tucci, N. (2015): Modeling and management of pit lake water chemistry 2: Case studies. – Appl. Geochem., 57:289–307, doi:10.1016/j.apgeochem.2014.09.003.
• Castendyk, D. N. & Eary, L. E. (2009): Mine pit lakes – characteristics, predictive modeling, and sustainability: Management technologies for metal mining influenced water 3. – 304 p., Littleton (SME).
• Castendyk, D. N., Eary, L. E. & Balistrieri, L. S. (2015): Modeling and management of pit lake water chemistry 1: Theory. – Appl. Geochem., 57:267–288, doi:10.1016/j.apgeochem.2014.09.004.
• Castiglia, P., Lane, T., Foote, R., Linderfelt, W., Cheng, C., Jordan, D., Wilson, D. & Tinklenberg, A. (2013): A deep, non-potable water supply for the Ochoa Sulphate of Potash (SOP) Mine Project, Lea County, New Mexico, U.S.A. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 105–110, 3 Abb., 1 Tab.; Golden (International Mine Water Association).
• Castiglia, P., Linderfelt, W., Cheng, C., Tinklenberg, A., Jordan, D., Dale, T., Foote, R. & Lane, T. (2015): A Deep, Non-potable Water Supply for the Ochoa Sulphate of Potash (SOP) Mine Project, New Mexico, USA. – Mine Water Environ., 34(2):223–230, doi:10.1007/s10230-014-0288-2.
• Castillo, J., Gomez-Arias, A., Posthumus, J., Welman-Purchase, M. & Heerden, E. v. (2015): Geochemical Study of the Interaction of Acid and Alkaline Mine Drainage with BaCO₃. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Castrilli, J. F. (2002): Barriers to Collaboration – Orphaned/Abandoned Mines in Canada (Final Report). – 67 p., Ontario (National Orphaned/Abandoned Mines Advisory Committee).
• Castrilli, J. F. (2007): Report on the Legislative, Regulatory, and Policy Framework Respecting Collaboration, Liability, and Funding Measures in relation to Orphaned/Abandoned, Contaminated, and Operating Mines in Canada. – 257 p., 4 Anh.; Ottawa (The National Orphaned/Abandoned Mines Initiative).
• Castro, J. M. & Moore, J. N. (2000): Pit lakes: their characteristics and the potential for their remediation. – Environ. Geol., 39(11):1254–1260, 2 Abb.
• Castro, J. M., Wielinga, B. W., Gannon, J. E. & Moore, J. N. (1999): Stimulation of sulfate-reducing bacteria in lake water from a former open-pit mine through addition of organic wastes. – Water Environ. Res., 71(2):218–223, doi:10.2175/106143098X121806.
• Castro, L. M. A. d., Cordeiro, J. R. C., Souza, A. K. P. d. & Oliveira, G. P. C. (2010): A Water Resources Management System as a tool to guarantee the water supply of an iron ore mining project in Brazil. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 35–39, Sydney, NS (Cape Breton University Press).
• Castro, L. M. A. d., Cordeiro, J. R. C., Souza, A. K. P. d. & Oliveira, G. P. C. (2011): Legal aspects of water resources management relating to mine water in Brazil: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 655–660 p., Aachen (RWTH Aachen University).
• Castro, L. M. A. d., Cordeiro, J. R. C., Souza, A. K. P. d., Oliveira, G. P. C. & Lemos, S. (2010): A Water Resources Management System using the hydrologic potential of the tailings dam on iron ore mining. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 73–77, Sydney, NS (Cape Breton University Press).
• Castro, R. S. D., Caetano, L. r., Ferreira, G., Padilha, P. M., Saeki, M. J., Zara, L. F., Martines, M. A. U. & Castro, G. R. (2011): Banana Peel Applied to the Solid Phase Extraction of Copper and Lead from River Water: Preconcentration of Metal Ions with a Fruit Waste. – Ind. Eng. Chem. Res., 50(6):3446–3451, doi:10.1021/ie101499e.
• Castro-Rodríguez, A. A., Isidro-Angeles, M. G., Neri-Oliva, A., Flores-Castrellón, O., Arellano-Gil, J. & Santos-Jallath, J. E. (2017): Soil Infiltration, Permeability, and Rock Fracturing Assessment to Establish Water Flow Patterns in a Mine with Acid Mine Drainage. – Mine Water Environ., 36(4):564–571, doi:10.1007/s10230-017-0445-5.
• Cath, T., Geza, M., Drewes, J. E. & Xu, P. (2013): Decision support tool for management of produced and frac-flowback water. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1199–1204, 6 Abb.; Golden (International Mine Water Association).
• Cath, T. Y., Childress, A. E. & Elimelech, M. (2006): Forward osmosis: Principles, applications, and recent developments. – J. Membr. Sci., 281(1–2):70–87, doi:10.1016/j.memsci.2006.05.048.
• Cathrein, A. (1890): Ueber den sogenannten Augitporphyr von Ehrwald. – Verh. k.-k. geol. R.-A.,(1):1–9, 1 Tab.
• Cavazza, E. (2024): The Banning/West Newton Coal Logistics coal refuse pile reclamation project, Rostraver Township, Westmoreland County, Pennsylvania. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 76–78; Morgantown (International Mine Water Association).
• Cave, R. R., Ledoux, L., Turner, K., Jickells, T., Andrews, J. E. & Davies, H. (2003): The Humber Catchment and its Coastal Area: from UK to European Perspectives. – Sci. Total Environ., 314:31–52.
• Cawthorn, R. G. (1999): The discovery of the platiniferous Merensky Reef in 1924. – S. Afr. J. Geol., 102(3):178–183, 3 Abb.
• Cazenave, H. W. (2008): Mining Activity at the High Colorado River and the Saline Waste Problem. – Proceedings, 10th International Mine Water Association Congress:15–17.
• Čech, M., Peterka, J., Říha, M., Vejřík, L., Jůza, T., Draštík, V., Kratochvíl, M., Muška, M. & Kubečka, J. (2011): Deep spawning of perch (Perca fluviatilis L.) in the newly created Chabařovice Lake, Czech Republic: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 509–510 p., Aachen (RWTH Aachen University).
• Cekic, L. & Oruc, E. (1991): Dewatering Systems for Underground and Surface Mines in the Kreka Coal Basin. – Proceedings, 4th International Mine Water Association Congress, 2:29–40, 5 Abb., 1 Tab.
• Celia, M. A., Bachu, S., Nordbotten, J. M., Gasda, S. E. & Dahle, H. K. (2004): Quantitative Estimation of CO₂ Leakage from Geological Storage: Analytical Models, Numerical Models, and Data Needs. – 1–9 p., 6 Abb., 1 Tab.; Vancouver (Proceedings 7th International Conference on Greenhouse Gas Control Technologies).
• Çelik Çakıroğulları, G., Kılıç, D. & Uçar, Y. (2010): Levels of polychlorinated dibenzo-p-dioxins, dibenzo-p-furans and polychlorinated biphenyls in farmed sea bass (Dicentrarchus labrax) and sea bream (Sparus aurata) from Turkey. – Food Control, 21(9):1245–1249, doi:10.1016/j.foodcont.2010.02.010.
• Cempiel, E., Grabowska, K., Pozzi, M. & Sowa, M. (2000): Examination of fly-ashes stored in workings of “Wujek” coal mine in aspect of their influence on environment. – Proceedings, 7th International Mine Water Association Congress:91–102, 3 Abb., 6 Tab.
• Cempiel, E. & Pozzi, M. (2000): Hydrogeological conditions and consequences of closing down the “Gliwice” colliery. – Proceedings, 7th International Mine Water Association Congress:229–237, 4 Abb.
• Cengiz, A. E. (2020): Determination of ecotourism potential in national parks: Troy historical national park, Çanakkale-Turkey. – J. Environ. Biol., 41(2):514–526, doi:10.22438/jeb/41/2(SI)/JEB-27.
• Cengiz, T. & Akbulak, C. (2009): Application of analytical hierarchy process and geographic information systems in land-use suitability evaluation: a case study of Dümrek village (Çanakkale, Turkey). – Int. J. Sustain. Dev. World Ecol., 16(4):286–294, doi:10.1080/13504500903106634.
• Centre for the development of enterprise (2003): Code of Environmental Practice Mining Projects. – 64 p., (Centre for the development of enterprise).
• Centro Regional Basilea para América del Sur (CRBAS), Fondo para el Medio Ambiente Mundial (FMAM) & Mejores Prácticas para el Manejo de PCB en el Sector Minero Sudamericano (2013): Guía para la elaboración de un Plan de Gestión de PCB en el Sector Minero. – (Report Nr. 2013). – 152 p., Argentina (Centro Regional Basilea para América del Sur).
• Centro Regional Basilea para América del Sur (CRBAS), Mejores Prácticas para el Manejo de PCB en el Sector Minero Sudamericano, Fondo para el Medio Ambiente Mundial (FMAM) & Programa de las Naciones Unidas para el Medio Ambiente (PNUMA) (2020): Mejores Prácticas para el Manejo de BPC en el Sector Minero de Sudamérica – Informe final del Proyecto. – (Report Nr. FMAM Nº GFL-2328-2760-4A40). – 82 p., Argentina (Centro Regional Basilea para América del Sur).
• Cepeda Alves, R. M., Valente, T. M., Sequeira Braga, M. A. & Leal Gomes, C. A. (2011): Mineralogical composition and metals retention in the fine-fraction streambed sediments of an AMD affected system: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 569–574 p., Aachen (RWTH Aachen University).
• Cepriá, J., Guedella, E., Maurice, C. & Westin, G. (2017): Paperchain Project: Establishing a New Circular Economy Model between the Mining Sector and the Pulp & Paper Industry to Prevent Acid Mine Drainage. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 892–899, Lappeenranta (Lappeenranta University of Technology).
• Cepriá, J. J., Martinez, A. & Guedella, E. (2017): Transformation of Reactive Spoil into Reusable Borrow Materials through Alkaline Waste Valorisation. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 884–891, Lappeenranta (Lappeenranta University of Technology).
• Cereda, S., Goldenberg, G., Staudt, M. & Tropper, P. (2024): Of Fire and Water Microarchaeological Evidence of Mining, Rituals and Floods in North Tyrol’s Kropfsberg Mine (Austria). – Geoarchaeology, 40(1) doi:10.1002/gea.22033.
• Cerny, I. (1989): Die karbonatgebundenen Blei-Zink-Lagerstätten des alpinen und außeralpinen Mesozoikums – Die Bedeutung ihrer Geologie, Stratigraphie und Faziesgebundenheit für Prospektion und Bewertung. – Arch. f. Lagerst.forsch. Geol. B.-A., 11:5–125, 49 Abb., 16 Tab.
• Cerny, I. & Schroll, E. (1995): Heimische Vorräte an Spezialmetallen (Ga, In, Ge, Se, Te und Cd) in Blei-Zink- und anderen Erzen. – Arch. f. Lagerst.forsch. Geol. B.-A., 18:5–33.
• Cervantes, F. J., Pavlostathis, S. G. & van Haandel, A. C. (2006): Advanced biological treatment processes for industrial wastewaters principles and applications Integrated environmental technology series.
• Cesar Teixeira, L. A., Santos dos Santos, J., Leal Costa, V. S., Yokoyama, L. & Marquez Sarmiento, C. (2010): Preliminary Studies on Precipitating Manganese Using Caro’s Acid and Hydrogen Peroxide. – Mine Water Environ., 29(2):154–157, 2 Abb., 2 Tab.; doi:10.1007/s10230-010-0100-x.
• Cesar, V., Bellemin-Laponnaz, S. & Gade, L. H. (2004): Chiral N-heterocyclic carbenes as stereodirecting ligands in asymmetric catalysis. – Chem. Soc. Rev., 33(9):619–36, doi:10.1039/b406802p.
• Chaari, F., Racineux, G., Poitou, A. & Chaouche, M. (2003): Rheological behavior of sewage sludge and strain-induced dewatering. – Rheol. Acta, 42:273–279, 6 Abb.; doi:10.1007/s00397-002-0276-5.
• Chabbi, A., Hines, M. E. & Rumpel, C. (2001): The Role of Organic Carbon Excretion by Bulbous Rush Roots and Its Turnover and Utilization by Bacteria Under Iron Plaques in Extremely Acid Sediments. – Environ. Exp. Bot., 46(3):237–245.
• Chabbi, A., Sebilo, M., Rumpel, C., Schaaf, W. & Mariotti, A. (2008): Origin of Nitrogen in Reforested Lignite-Rich Mine Soils Revealed by Stable Isotope Analysis. – Environ. Sci. Technol., 42(8):2787–2792, doi:10.1021/es702377k.
• Chacha, N., Njau, K. N., Lugomela, G. V. & Muzuka, A. N. N. (2018): Groundwater age dating and recharge mechanism of Arusha aquifer, northern Tanzania: application of radioisotope and stable isotope techniques. – Hydrogeol. J., 26(8):2693–2706, doi:10.1007/s10040-018-1832-0.
• Chacon-Baca, E., Santos, A., Sarmiento, A. M., Luís, A. T., Santisteban, M., Fortes, J. C., Dávila, J. M., Diaz-Curiel, J. M. & Grande, J. A. (2021): Acid Mine Drainage as Energizing Microbial Niches for the Formation of Iron Stromatolites: The Tintillo River in Southwest Spain. – Astrobiology, 21(4):443–463, 13 Abb., 2 Tab.; doi:10.1089/ast.2019.2164.
• Chadha, D. K. (1999): A proposed new diagram for geochemical classification of natural waters and interpretation of chemical data. – Hydrogeol. J., 7(5):431–439, doi:10.1007/s100400050216.
• Chahbandour, J. (2013): Reliable Mine Water Management; Connecting the Drops to Operate “Water Smart” Mines. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 813–817, 4 Abb.; Golden (International Mine Water Association).
• Chakraborty, A., Chakrabarti, K., Chakraborty, A. & Ghosh, S. (2011): Effect of long-term fertilizers and manure application on microbial biomass and microbial activity of a tropical agricultural soil. – Biol Fert Soils, 47(2):227–233, doi:10.1007/s00374-010-0509-1.
• Chalaturnyk, R. & Gunter, W. D. (2004): Geological Storage of CO₂ – Time Frames, Monitoring and Verification. – 1–9 p., 5 Abb., 2 Tab.; Vancouver (Proceedings 7th International Conference on Greenhouse Gas Control Technologies).
• Chalov, P. I., Nifadiev, V. I. & Vasiliev, I. A. (2001): Evaluating the Environmental Effects of Uranium Production at the Kara-Balty Mining Complex. – Mine Water Environ., 20(4):153–157, 6 Abb.; doi:10.1007/s10230-001-8100-5.
• Chałupnik, S., Michalik, B., Wysocka, M., Skubacz, K. & Mielnikow, A. (2001): Contamination of settling ponds and rivers as a result of discharge of radium-bearing waters from Polish coal mines. – J. Environ. Radioact., 54(1):85–98, 1 Abb., 7 Tab.
• Chałupnik, S. & Wysocka, M. (2000): Removal of radium from mine waters – the experience from the coal mine. – Proceedings, 7th International Mine Water Association Congress:352–362, 3 Abb.
• Chałupnik, S. & Wysocka, M. (2007): Monitoring and Control of Radium Content in Discharge Waters from Coal Mines in Poland: Water in Mining Environments. – 37–41 p., 1 Tab.; Cagliari (Mako Edizioni).
• Chamberlain, S. & Moorhouse, A. M. (2016): Baffle Curtain Installation to Enhance Treatment Efficiency for Operational Coal Mine Water Treatment Schemes. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 812–819, Freiberg (TU Bergakademie Freiberg).
• Chamberlain, V. E., Williams, R. E. & Towatana, P. (1995): Metal concentrations and concomitant Metal Mobility in unsaturated Mine and Mill Wastes. – Mine Water Environ., 14(1-4):23–37, 16 Abb.
• Chambers, D. M. (2024): Net Present Value Calculations for Mining Post-Closure Financial Assurance. – Mine Water Environ., 43(3):511–515, doi:10.1007/s10230-024-00995-1.
• Chamorro, S., Barata, C., Piña, B., Casado, M., Schwarz, A., Sáez, K. & Vidal, G. (2018): Toxicological Analysis of Acid Mine Drainage by Water Quality and Land Use Bioassays. – Mine Water Environ., 37(1):88–97, doi:10.1007/s10230-017-0472-2.
• Champagne, P., Van Geel, P. & Parker, W. (2005): A Bench-scale Assessment of a Combined Passive System to Reduce Concentrations of Metals and Sulphate in Acid Mine Drainage. – Mine Water Environ., 24(3):124–133, 4 Abb., 2 Tab.; doi:10.1007/s10230-005-0083-1.
• Champagne, P., Van Geel, P. & Parker, W. (2008): Impact of Temperature and Loading on the Mitigation of AMD in Peat Biofilter Columns. – Mine Water Environ., 27(4):225–240, 8 Abb., 3 Tab.; doi:10.1007/s10230-008-0053-5.
• Chan, G. Y. S., Ye, Z. H. & Wong, M. H. (2003): Comparison of four Sesbania Species to remediate Pb/Zn and Cu Mine Tailings. – Environ. Manage., 32(2):246–251, 6 Tab.; doi:10.1007/s00267-003-2901-1.
• Chanan, A. & Woods, P. (2006): Introducing total water cycle management in Sydney: a Kogarah Council initiative. – Desalination, 187(1-3):11–16, doi:10.1016/j.desal.2005.04.063.
• Chanda, M. W. (1993): Activities of the United Nations University Institute for Natural Resources in Africa (UNU/INRA) in the Field of Water Resources. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 690–701, 2 Abb.; Chililabombwe (Konkola Division).
• Chander, S. (1992): Mankind, Minerals and the Environment: Emerging Process Technologies for a Cleaner Environment. – 3–6 p., 2 Abb., 1 Tab.; Littleton (Society for Mining Metallurgy and Exploration).
• Chandraprabha, M. N., Ahalya, N., Jyothi, M. & Natarajan, K. (2012): Studies on bioremoval of copper and zinc by Desulfovibrio desulfuricans isolated from Chitradurga mine sites, India. – J. Biochem. Tech., 3(5):S147–S150.
• Chaney, R. L., Brown, S. L., Li, Y. M., Angle, J. S., Stuczynski, T. I., Daniels, W. L., Henry, C. L., Siebelec, G., Malik, M., Ryan, J. A. & Compton, H. (2000): Progress in Risk Assessment for Soil Metals, and In-situ Remediation and Phytoextraction of Metals from Hazardous Contaminated Soils: Phytoremediation: State of Science 625/R-01/011b. – 1–26 p., 4 Abb., 5 Tab.; Boston (U.S. Environmental Protection Agency).
• Chaney, R. L. & Mahoney, M. (2014): Phytostabilisation and Phytomining – Principles and Successes. Paper presented at the Life-of-Mine 2014, Brisbane, 16–18 July 2014. – p. 3–16, 3 Abb., 2 Tab.; Carlton (The Australasian Institute of Mining and Metallurgy).
• Chang, C. S. (1985): The Applications of Flowcut Grouting Curtain in Mine Water Preventing and Controlling. – Proceedings, 2nd International Mine Water Association Congress, 1:325–339, 6 Abb., 6 Tab.
• Chang, D. S. & Zhang, L. M. (2011): A stress-controlled erosion apparatus for studying internal erosion in soils. – Geotech. Test. J., 34(6):579–589, 11 Abb., 2 Tab.; doi:10.1520/GTJ103889.
• Chang, I. L. & Lee, D. J. (1998): Ternary expression stage in biological sludge dewatering. – Water Res., 32(3):905–914.
• Chang, K.-L., Schultz, M. G., Lan, X., McClure-Begley, A., Petropavlovskikh, I., Xu, X. & Ziemke, J. R. (2021): Trend detection of atmospheric time series – Incorporating appropriate uncertainty estimates and handling extreme events. – Elem. Sci. Anth., 9(1):1–28, 13 Abb., 2 Tab.; doi:10.1525/elementa.2021.00035.
• Chang, N.-B., Houmann, C., Lin, K.-S. & Wanielista, M. (2016): Fate and transport with material response characterization of green sorption media for copper removal via desorption process. – Chemosphere, 154:444–453, doi:10.1016/j.chemosphere.2016.03.130.
• Chansang, H. (1988): Coastal tin mining and marine pollution in Thailand. – Ambio, 17(3):223–228, 6 Abb., 2 Tab.
• Chanson, H. & Toombes, L. (2002): Air–water flows down stepped chutes: turbulence and flow structure observations. – International Journal of Multiphase Flow, 28(11):1737–1761, doi:10.1016/S0301-9322(02)00089-7.
• Chaparro, G., Pérez, N. & Schwarz, A. (2015): Diffusive Exchange System with Internal Precipitation for Acid Mine Drainage Treatment. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Chapelle, F. H. & Lovley, D. R. (1990): Rates of Microbial Metabolism in Deep Coastal Plain Aquifer. – Appl. Environ. Microbiol., 56(6):1865–1874, 6 Abb., 3 Tab.
• Chapin, T., Progess, C. & Todd, A. (2013): MiniSipper: A New, High-capacity, Long-duration, Automated In Situ Water Sampler for Acid Mine Drainage Monitoring. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 295–300, 7 Abb.; Golden (International Mine Water Association).
• Chaplin, B. P., Reinhard, M., Schneider, W. F., Schuth, C., Shapley, J. R., Strathmann, T. J. & Werth, C. J. (2012): Critical review of Pd-based catalytic treatment of priority contaminants in water. – Environ. Sci. Technol., 46(7):3655–70, doi:10.1021/es204087q.
• Chapman, B. M., Jones, D. R., Jung, R. F., Jones, C. J., Kadletz, O. & Teague, J. W. S. (1988): Treatment and Utilisation of Hilton Mine Water. – Proceedings, 3rd International Mine Water Congress, Melbourne:147–156, 7 Abb.
• Chapman, H. (2003): Removal of endocrine disruptors by tertiary treatments and constructed wetlands in subtropical Australia. – Water Sci. Tech., 47(9):151–156, doi:10.2166/wst.2003.0514.
• Chapman, J. T., Hockley, D. E., Sevick, J., Dachel, R. & Paul, M. (1998): Pit backfllling on two continents: Comparison of recent experiences in the Wismut and Flambeau projects. Proceedings, 5th International Conference on Tailings and Mine Waste 5. – p. 55–65, 5 Abb., 4 Tab.; Rotterdam (Balkema).
• Chapman, P. M. (2007): Heavy metal – music, not science. – Environ. Sci. Technol., 41:6C.
• Chapman, P. M. (2012): “Heavy metal” – cacophony, not symphony. – Integrated Environ. Assess. Manag., 8(2):216, doi:10.1002/ieam.1289.
• Chapman, R. E. (1981): Geology and Water – An introduction to fluid mechanics for geologists: Developments in Applied Earth Sciences 1. – 228 p., 71 Abb., 1 Karte; The Hague (Nijhoff Junk); doi:10.1007/978-94-009-8244-4.
• Chappell, B. W. & White, A. J. R. (2001): Two contrasting granite types: 25 years later. – Aust. J. Earth Sci., 48(4):489–499, doi:10.1046/j.1440-0952.2001.00882.x.
• Charbonnier, P. (2001): Management of Mining, Quarrying and Ore-Processing Waste in the European Union: BRGM/RP-50319-FR. – 79 p., 7 Abb., 17 Tab., 7 Anh.; Orleans (BRGM).
• Charles, J., Barnes, A., Declercq, J., Warrender, R., Brough, C. & Bowell, R. (2015): Difficulties of Interpretation of NAG Test Results on Net Neutralizing Mine Wastes – Initial Observations of Elevated pH Conditions and Theory of CO₂ Disequilibrium. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Charles, J., Declercq, J., Bowell, R., Barnes, A. & Warrender, R. (2016): Prediction of Source Term Leachate Quality from Waste Rock Dumps: A Case Study from an Iron Ore Deposit in Northern Sweden. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1170–1174, Freiberg (TU Bergakademie Freiberg).
• Charles, J. C., Declercq, J., Bowell, R., Warrender, R. & Barnes, A. (2017): Comparison of thermodynamic equilibrium and kinetic approach in the predictive evaluation of waste rock seepage quality in Northern Finland. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 664–671, Lappeenranta (Lappeenranta University of Technology).
• Charlton, S. R. & Parkhurst, D. L. (2011): Modules based on the geochemical model PHREEQC for use in scripting and programming languages. – Comput. Geosci., 37(10):1653–1663, doi:10.1016/j.cageo.2011.02.005.
• Charmbury, H. B., Maneval, D. R. & Girard, L., III (1967): Operation Yellowboy-Design and Economics of a Lime Neutralization Mine Drainage Treatment Plant. – Society of Mining Engineers at AIME, preprint, 67F35 3 Abb., 7 Tab.
• Charou, E., Stefouli, M., Dimitrakopoulos, D., Vasiliou, E. & Mavrantza, O. D. (2010): Using Remote Sensing to Assess Impact of Mining Activities on Land and Water Resources. – Mine Water Environ., 29(1):45–52, 8 Abb., 1 Tab.; doi:10.1007/s10230-010-0098-0.
• Chartrand, M. M. G. & Bunce, N. J. (2003): Electrochemical remediation of acid mine drainage. – J. Appl. Electrochem., 33:259–264, 5 Abb., 3 Tab.; doi:10.1023/A%3A1024139304342.
• Chastre, C., Neves, J., Ribeiro, D., Neves, M. G. & Faria, P. (2023): Advances on Testing and Experimentation in Civil Engineering: Springer Tracts in Civil Engineering. – 375 p., Berlin (Springer); doi:10.1007/978-3-031-05875-2.
• Chaturvedi, A. C. (1978): Water in mining. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1195–1205; Maracena (Asociación Nacional de lngenieros de Minas).
• Chatwin, T. (2015): International Network for Acid Prevention’s Path Forward. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Chatwin, T. D., Williams, D. & Creek, M. (2013): Acid Rock Drainage Challenges and a Path Forward. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 301–306, Golden (International Mine Water Association).
• Chau, N. D., Duliñski, M., Rajchel, L. & Nowak, J. (2013): Naturalna promieniotwórczość wybranych wód butelkowanych w Polsce [Natural radioactivity of selected bottled waters in Poland]. – Przegl. Geol., 61(2):140–144
• Chau, N. D. & Fujak, M. (2007): Naturalna promieniotwórczość butelkowanych wód mineralnych Polski Południowej [Natural radioactivity of bottled mineral waters of south Poland]. – In: Szczepański, A., Kmiecik, E. & Żurek, A. (eds): Współczesne problemy hydrogeologii. – p. 153–163, Kraków (Wydział Geologii, Geofizyki i Ochrony Środowiska AGH).
• Chaulk, J., Zinck, J. M. M., Griffith, W. & MacKinnon, T. (2003): Characterization of High Density Sludge from Britannia Beach, British Columbia. – CANMET-MMSL Report, INT-03-07:1–12, 1 Abb., 4 Tab., 3 Anh.
• Chaulya, S. K. (2003): Assessment and Management of Water Resources for a Lignite Mine. – Mine Water Environ., 22(1):45–51, 1 Abb., 6 Tab.; doi:10.1007/s102300300007.
• Chaussidon, M. & Koeberl, C. (1995): Boron content and isotopic composition of tektites and impact glasses: Constraints on source regions. – Geochim. Cosmochim. Acta, 59(3):613–624.
• Chave, P., Howard, G., Schijven, J., Appleyard, S., Fladerer, F. & Schimon, W. (2006): Groundwater protection zones: Protecting Groundwater for Health: Managing the Quality of Drinking-Water Sources. – 465–492 p., 3 Abb., 8 Tab.; London (IWA Publishing).
• Chazarenc, F., Merlin, G. & Gonthier, Y. (2003): Hydrodynamics of Horizontal Subsurface flow Constructed Wetlands. – Ecol. Eng., 21(2-3):165–173.
• Che, Q., Tao, Y. & Liu, P. (2014): Influence Analysis of the Leaching Water of Waste Rock Site on Surrounding Groundwater Quality. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 417–419, Xuzhou (International Mine Water Association).
• Cheam, V., Garbai, G., Lechner, J. & Rajkumar, J. (2000): Local impacts of coal mines and power plants across Canada. I. Thallium in Waters and Sediments. – Water Qual. Res. J. Canada, 35(4):581–607, 9 Abb., 3 Tab.; doi:10.2166/wqrj.2000.034.
• Cheam, V., Reynoldson, T., Garbai, G., Rajkumar, J. & Milani, D. (2000): Local impacts of coal mines and power plants across Canada. II. Metals, organics and toxicity in sediments. – Water Qual. Res. J. Canada, 35(4):609–631, 4 Abb., 9 Tab.; doi:10.2166/wqrj.2000.035.
• Cheema, I. I., Ramzan, N., Feroze, N. & Noon, M. Z. (2012): SORPS: SORption Process Simulation Software. – J. Software, 7(11):2460–2469, 9 Abb., 6 Tab.; doi:10.4304/jsw.7.11.2460-2469.
• Chekan, G. J. (1985): Design of Bulkheads for Controlling Water in Underground Mines. – Bur. Mines Inf. Circ., IC-9020:36, 10 Abb., 3 Tab., 2 Anh.
• Chelius, M. (2012): Farbenlehre in Blaubeuren – KIT-Hydrogeologen erforschen die unterirdischen Flussläufe des legendären Blautopfsystem. – looKIT, 3:36–37, 1 Abb.
• Chen, C.-T. & Millero, F. J. (1976): The specific volume of seawater at high pressures. – Deep Sea Res. Oceanogr. Abstr., 23(7):595–612, doi:10.1016/0011-7471(76)90003-6.
• Chen, G. (2004): Electrochemical technologies in wastewater treatment. – Sep. Purif. Technol., 38(1):11–41, 24 Abb., 12 Tab.; doi:10.1016/j.seppur.2003.10.006.
• Chen, J., LeBoeuf, E. J., Dai, S. & Gu, B. (2003): Fluorescence spectroscopic studies of natural organic matter fractions. – Chemosphere, 50(5):639–47.
• Chen, J. M., Liu, R. Q., Sun, W. & Qiu, G. Z. (2009): Effect of mineral processing wastewater on flotation of sulfide minerals. – Trans. Nonferrous Met. Soc. China, 19(2):454–457, doi:10.1016/S1003-6326(08)60294-0.
• Chen, K., Xue, G., Chen, W., Zhou, N. & Li, H. (2019): Fine and Quantitative Evaluations of the Water Volumes in an Aquifer Above the Coal Seam Roof, Based on TEM. – Mine Water Environ., 38(1):49–59, doi:10.1007/s10230-018-00573-2.
• Chen, L., Feng, X., Xu, D., Zeng, W. & Zheng, Z. (2018): Prediction of Water Inrush Areas Under an Unconsolidated, Confined Aquifer: The Application of Multi-information Superposition Based on GIS and AHP in the Qidong Coal Mine, China. – Mine Water Environ., 37(4):786–795, doi:10.1007/s10230-018-0541-1.
• Chen, L., Jiang, S., Liu, X., Sun, F. & Zhao, M. (1994): Analytical methods for chemicals in a surfactant flooding system [in Chinese]. – Shiyou Xuebao, 15(3):68–75, doi:10.7623/syxb199403009.
• Chen, L. W., Feng, X. Q., Xie, W. P., Zeng, W. & Zheng, Z. Y. (2017): Using a Fluid-Solid Coupled Numerical Simulation to Determine a Suitable Size for Barrier Pillars When Mining Shallow Coal Seams Beneath an Unconsolidated, Confined Aquifer. – Mine Water Environ., 36(1):67–77, doi:10.1007/s10230-016-0404-6.
• Chen, L. X., Su, S. W., Liao, C. H., Wong, K. S. & Yuan, S. M. (2023): An open automation system for predatory journal detection. – Sci Rep, 13(1):2976, doi:10.1038/s41598-023-30176-z.
• Chen, M., Chen, H., Ai, Y., Feng, Y. & Li, J. (2025): The treatment strategies of acid mine drainage based on resource utilization. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 553–558; Braga (International Mine Water Association).
• Chen, M., Guan, E. & Tao, W. (2014): The Application of Floor Grouting Consolidation in Zhengzhou Mining Area. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 244–247, Xuzhou (International Mine Water Association).
• Chen, M., Soulsby, C. & Younger, P. L. (1999): Modelling the evolution of minewater pollution at Polkemment Colliery, Almond catchment, Scotland. – Q. J. Eng. Geol. Hydrogeol., 32(4):351–362, 5 Abb., 1 Tab.
• Chen, M., Wu, Y., Gao, D. & Chang, M. (2017): Identification of coal mine water-bursting source using multivariate statistical analysis and tracing test. – Arabian J. Geosci., 10(2):28, doi:10.1007/s12517-016-2779-x.
• Chen, Q., Cohen, D. R., Andersen, M., Robertson, A. M., Jones, D. R. & Kelly, B. (2017): Application of Alkaline Coal Seam Gas Waters to Remediate AMD from Historical Sulfide Ore Mining Operations. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 923–930, Lappeenranta (Lappeenranta University of Technology).
• Chen, S. (2014): Comparative Study among Diverse Statistical Methods Used in Groundwater Source Identification in Coal Mine Area. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 64–68, Xuzhou (International Mine Water Association).
• Chen, S. (2014): Unsteady-state Flow Created by a Slanted Well in Coal Mine. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 90–94, Xuzhou (International Mine Water Association).
• Chen, S., Ding, Y., Zhu, Y., Zuo, Z., Fu, C. & Liu, J. (2014): Research on Water Demand of China Shale Gas Development and Its Influence on Water Environment. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 766, Xuzhou (International Mine Water Association).
• Chen, S., Liu, J., Wang, F., Zhou, J., Tang, P. & Gao, Z. (2022): Hydrochemical Analysis of Groundwater in Coastal Coal Mining Areas—A Case Study of the Liangjia Coal Mine, North China. – Mine Water Environ., 41(2):415–427, doi:10.1007/s10230-022-00855-w.
• Chen, S.-S., Hsu, H.-D. & Li, C.-W. (2004): A new method to produce nanoscale iron for nitrate removal. – J. Nanopart. Res., 6(6):639–647, 10 Abb., 4 Tab.; doi:10.1007/s11051-004-6672-2.
• Chen, T., Ren, J., Xin, D. & Zhang, S. (2014): New Technology for Reusing Mine Water in Underground Goafs and Its Engineering Applications. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 679–684, Xuzhou (International Mine Water Association).
• Chen, T., Wang, X. & Mukerji, T. (2014): Evaluation of Stress Concentration in a Coal Mine Panel Using Seismic Data. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 269–272, Xuzhou (International Mine Water Association).
• Chen, T., Yin, H. Y., Zhai, Y. T., Xu, L., Zhao, C. Y. & Zhang, L. F. (2022): Numerical Simulation of Mine Water Inflow with an Embedded Discrete Fracture Model: Application to the 16112 Working Face in the Binhu Coal Mine, China. – Mine Water Environ., 41(1):156–167, doi:10.1007/s10230-021-00820-z.
• Chen, W., Westerhoff, P., Leenheer, J. A. & Booksh, K. (2003): Fluorescence excitation–Emission matrix regional integration to quantify spectra for dissolved organic matter. – Environ. Sci. Technol., 37(24):5701–5710, doi:10.1021/es034354c.
• Chen, W. C., Li, W. P., Qiao, W. & Li, L. F. (2020): Beneficial Use of Deep Ordovician Limestone Water from Mine Safety Dewatering at the Xinglongzhuang Coal Mine, North China. – Mine Water Environ., 39:42–56, doi:10.1007/s10230-020-00653-2.
• Chen, W. C., Li, W. P., Wang, Q. Q. & Qiao, W. (2021): Evaluation of Groundwater Inflow into an Iron Mine Surrounded by an Imperfect Grout Curtain. – Mine Water Environ., 40(2):520–538, doi:10.1007/s10230-021-00777-z.
• Chen, Y., Yang, Y. & Luo, J. (2014): Spatial Prediction of Concealed Karstic Collapse Columns by Multiple Information Using GIS. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 345, Xuzhou (International Mine Water Association).
• Chen, Y. C., Yu, M. L., Rogan, W. J., Gladen, B. C. & Hsu, C.-C. (1994): A 6-year follow-up of behavior and activity disorders in the Taiwan Yu-cheng children. – American Journal of Public Health, 84(3):415–421, doi:10.2105/AJPH.84.3.415.
• Cheng, C.-M., Butalia, T., Baker, R., Jent, J. & Wolfe, W. (2021): Using Coal Combustion Residues for Abandoned Coal Mine Reclamation. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 72–78; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Cheng, C.-M., Butalia, T., Lenhart, J. & Bielicki, J. (2021): Distributions of Rare Earth Elements in Coal Mine Drainages. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 85–90; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Cheng, C.-M., Butalia, T., Lenhart, J. & Bielicki, J. (2021): Recovering Rare Earth Elements from Acid Mine Drainage with Mine Land Reclamation. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 79–84; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Cheng, G. W., Tang, C. A., Li, L. C., Chuai, X. Y., Yang, T. H. & Wei, L. K. (2021): Micro-fracture Precursors of Water Flow Channels Induced by Coal Mining: A Case Study. – Mine Water Environ., 40(2):398–414, doi:10.1007/s10230-021-00772-4.
• Cheng, J. Y., Wang, P., Nan, S. H. & Qin, S. (2021): Rapidly Locating a Water-inrush Collapse Column in a Seam Floor: A Case Study. – Mine Water Environ., 40(2):389–397, doi:10.1007/s10230-021-00768-0.
• Cheng, S., Jang, J.-H., Dempsey, B. A. & Logan, B. E. (2011): Efficient recovery of nano-sized iron oxide particles from synthetic acid-mine drainage (AMD) water using fuel cell technologies. – Water Res., 45(1):303–307, 6 Abb.; doi:10.1016/j.watres.2010.07.054.
• Cheong, Y. W., Das, B. K., Roy, A. & Bhattacharya, J. (2010): Performance of a SAPS-Based Chemo-Bioreactor Treating Acid Mine Drainage Using Low-DOC Spent Mushroom Compost, and Limestone as Substrate. – Mine Water Environ., 29(3):217–224, 3 Abb., 5 Tab.; doi:10.1007/s10230-010-0104-6.
• Cheong, Y. W., Yim, G. J., Ji, S. W., Oh, C., Ahn, J. S. & Seo, E. Y. (2016): Removal of iron and suspended solids in mine water treated by vertical flow reactor. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1002–1003, Freiberg (TU Bergakademie Freiberg).
• Cheong, Y. W., Yim, G.-J., Ji, S. W., Kang, S. S. & Skousen, J. (2012): Water quality changes of a closed underground coal mine in Korea. – Environ. Monit. Assess., 184(1):503–513, doi:10.1007/s10661-011-1983-0.
• Cheong, Y.-W., Yim, G.-J., Ji, S.-W., Lee, H.-S. & Baek, H.-J. (2007): Improvement of a Passive Treatment System for Acid Rock Drainage generated near an abandoned Quarry, Korea: Water in Mining Environments. – 43–46 p., 2 Abb., 3 Tab.; Cagliari (Mako Edizioni).
• Cheong, Y.-W., Yim, G.-J. & Park, H.-S. (2011): Alkalinity Production and Neutralization Potential of Used Limestone Retrieved from Anoxic Reactors. – In: Rüde, T. R., Freund, A. & Wolkersdorfer, Ch. (eds): Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – p. 293–296, Aachen (RWTH Aachen University).
• Cheremisinoff, N. P. (2002): Handbook of Water and Wastewater Treatment Technologies. – 636 p., Woburn (Butterworth-Heinemann).
• Cherian, M. G. & Goyer, R. A. (1978): Role of metallothioneins in disease. – Ann. Clin. Lab. Sci., 8(2):91–94, 2 Tab.
• Chernyi, L. T., Sedova, G. L. & Vasil’eva, N. L. (1995): Electrocoagulation of aerosols in noncollinear electric and gravitational fields. – Journal of aerosol science, 26(1):S265, doi:10.1016/0021-8502(95)97040-l.
• Cheshire, J. & Batty, M. (2012): Visualisation tools for understanding big data. – Environment and Planning B: Planning and Design, 39(3):413–415, doi:10.1068/b3903ed.
• Chester, T. L. (2013): Recent developments in high-performance liquid chromatography stationary phases. – Anal Chem, 85(2):579–89, doi:10.1021/ac303180y.
• Chesters, S., Morton, P. & Fazel, M. (2016): Membranes and minewater – waste or revenue stream. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1310–1322, Freiberg (TU Bergakademie Freiberg).
• Chetty, D., Bazhko, O., Govender, V. & Ramatsoma, S. (2020): The Prediction of Acid Mine Drainage Potential Using Mineralogy. – In: Fosso-Kankeu, E., Wolkersdorfer, Ch. & Burgess, J. (eds): Recovery of Byproducts from Acid Mine Drainage Treatment. – p. 49–72, 3 Abb., 8 Tab.; Salem (Scrivener); doi:10.1002/9781119620204.ch3.
• Chevrel, S., Kopaková, V., Bourguignon, A., Rojík, P. & Metelka, V. (2008): Application of High Altitude and Ground-based Spectroradiometry in the Monitoring of Hazardous Waste Derived from Sokolov Open-pit Mine. – Proceedings, 10th International Mine Water Association Congress:371–374.
• Chiasson, P. (2005): Methods of interpretation of borehole falling-head tests performed in compacted clay liners. – Canadian Geotechnical Journal, 42(1):79–90, 13 Abb., 3 Tab.; doi:10.1139/t04-068.
• Chidya, R. C. G., Singano, L., Chitedze, I. & Mourad, K. A. (2019): Standards Compliance and Health Implications of Bottled Water in Malawi. – Int. J. Environ. Res. Public Health, 16(6) doi:10.3390/ijerph16060951.
• Chikanda, F., Iwaki, H., San, H. H., Kikuchi, R., Ohtomo, Y., Otake, T. & Sato, T. (2025): Geochemical Processes in Iron-Rich Mine Drainages: Enhancing Passive Treatment Systems through Colloid Stability and CO₂ Reduction. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 357–363; Braga (International Mine Water Association).
• Chileshe, B. C. & Khulkarni, R. V. (1993): Konkola Deep Mining – Concept and Planning. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 2–31, 4 Abb.; Chililabombwe (Konkola Division).
• Chileshe, B. C. & Kulkarni, R. V. (1992): Konkola Deep Mining Project: Concept and Planning. – Mine Water Environ., 11(3):1–15, 4 Abb.
• Chilingar, G. V. (1956): Durov’s Classification of Natural Waters and Chemical Composition of Atmospheric Precipitation in USSR: A Review. – Trans. Am. Geophys. Union, 37(2):193–196, 3 Abb., 1 Tab.; doi:10.1029/TR037i002p00193.
• Chilton, P. J. & Foster, S. S. D. (1995): Hydrogeological Characterisation and Water-Supply Potential of Basement Aquifers in Tropical Africa. – Hydrogeol. J., 3(1):36–49, doi:10.1007/s100400050061.
• Chimhanda, W., Duthe, D. M. & Kawali, L. (2018): Unraveling the convoluted marbles of a Namibian Gold Mine. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 591–597; (Tshwane University of Technology).
• Chimhanda, W. B. (2010): Hydrogeochemical and Isotopic Investigations of the Mine Water in the 1B Mine Pool of the Sydney Coal Field, Nova Scotia, Canada. – 27 Abb., 5 Tab., 6 Anh.; Tübingen (unpubl. Master Thesis Univ. Tübingen).
• Chiodza, G. K., Harrison, S. & Fagan-Endres, M. (2018): Desulphurisation Of Fine Coal Waste Tailings Using Algal Lipids. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1042–1048; (Tshwane University of Technology).
• Chiogna, G., Cirpka, O. A., Grathwohl, P. & Rolle, M. (2011): Transverse mixing of conservative and reactive tracers in porous media: Quantification through the concepts of flux-related and critical dilution indices. – Water Resour. Res., 47(2):W02505, doi:10.1029/2010wr009608.
• Chiou, C. T., Malcolm, R. L., Brinton, T. I. & Kile, D. E. (1986): Water solubility enhancement of some organic pollutants and pesticides by dissolved humic and fulvic acids. – Environ. Sci. Technol., 20(5):502–8, doi:10.1021/es00147a010.
• Chisholm, S., Davies, J. C., Mulamoottil, G. & Capatos, D. (1995): Wetland Evaluation in Ontario – Models for predicting Wetland Score. – NEST Technical Report, TR-025:1–43, 10 Abb., 5 Tab., 4 Anh.
• Chitchob, S. (1988): Water Management of the Mae Moh Project. – Proceedings, 3rd International Mine Water Congress, Melbourne:561–570, 2 Abb.
• Chivas, A. R., De Deckker, P., Cali, J. A., Chapman, A., Kiss, E. & Shelley, J. M. G. (1993): Coupled stable-isotope and trace-element measurements of lacustrine carbonates as paleoclimatic indicators. – In: Swart, P. K., Lohmann, K. C., McKenzie, J. & Savin, S. (eds): Climate change in Continental Isotopic Records 78. – p., Washington (American Geophysical Union).
• Cho, C. k. & Lee, J.-H. (2017): A Study on Analysis of Current Status and Causes of Mine Hazards in North Korea. – Journal of the Korean Society of Mineral and Energy Resources Engineers, 54(6):619–627, doi:10.12972/ksmer.2017.54.6.619.
• Choi, B. Y., Yun, S. T., Mayer, B., Hong, S. Y., Kim, K. H. & Jo, H. Y. (2012): Hydrogeochemical processes in clastic sedimentary rocks, South Korea – A natural analogue study of the role of dedolomitization in geologic carbon storage. – Chem. Geol., 306–307:103–113, doi:10.1016/j.chemgeo.2012.03.002.
• Choi, H., Al-Abed, S. R., Agarwal, Shirish & Dionysiou, D. D. (2008): Synthesis of Reactive Nano-Fe/Pd Bimetallic System-Impregnated Activated Carbon for the Simultaneous Adsorption and Dechlorination of PCBs. – Chem. Mater., 20:3649–3655, doi:10.1021/cm8003613.
• Choi, P. M., Tscharke, B., Samanipour, S., Hall, W. D., Gartner, C. E., Mueller, J. F., Thomas, K. V. & O’Brien, J. W. (2019): Social, demographic, and economic correlates of food and chemical consumption measured by wastewater-based epidemiology. – Proc. Natl. Acad. Sci. U.S.A., 116(43):21864–21873, doi:10.1073/pnas.1910242116.
• Choi, Y., Baek, H., Cheong, Y.-W., Shin, S.-H., Kim, G.-M. & Kim, D.-H. (2012): GRAM Model Analysis of Groundwater Rebound in Abandoned Coal Mines. – Tunnel Underground Space – J. Korean Soc. Rock Mech., 22(6):373–382, doi:10.7474/tus.2012.22.6.373.
• Chong, M. N., Jin, B., Chow, C. W. K. & Saint, C. (2010): Recent developments in photocatalytic water treatment technology – A review. – Water Res., 44:2997–3027, doi:10.1016/j.watres.2010.02.039.
• Chongrui, Z. (1988): QCE-Series Single Liquid Grout. – Proceedings, 3rd International Mine Water Congress, Melbourne:677–682, 5 Abb.
• Choopani, A., Ronchi, B., Declercq, P.-Y. & Devleeschouwer, X. (2022): Ground Deformations Related to an Old Drainage Adit in The Abandoned Coal Concession Around Saint-Vaast (Wallonia, Belgium) Analyzed Using PS-InSAR and Piezometric Wells Time Series. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 39–45; (International Mine Water Association).
• Chopard, A., Benzaazoua, M., Plante, B., Bouzahzah, H. & Marion, P. (2015): Kinetic Tests to Evaluate the Relative Oxidation Rates of Various Sulfides and Sulfosalts. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Choubey, V. D. & Sankaranarayana, I. (1987): Hydrogeology of Eastern Part of Jharia Coalfield, India: Hydrogeology of Coal Basins. – 225–235 p., 6 Abb., 1 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Chowdhury, A., Pradhan, S., Saha, M. & Sanyal, N. (2008): Impact of pesticides on soil microbiological parameters and possible bioremediation strategies. – Indian J Microbiol, 48(1):114–127, doi:10.1007/s12088-008-0011-8.
• Chowdhury, S. R. & Yanful, E. K. (2013): Kinetics of cadmium(II) uptake by mixed maghemite-magnetite nanoparticles. – J. Environ. Manage., 129:642–51, doi:10.1016/j.jenvman.2013.08.028.
• Chraiti, R., Raddaoui, M. & Hafiane, A. (2016): Effluent Water Quality at Phosphate Mines in M’Dhilla, Tunisia and its Potential Environmental Effects. – Mine Water Environ., 35(4):462–468, doi:10.1007/s10230-016-0400-x.
• Chrétien, A. R. N. (1997): Geochemical behaviour, fate and impacts of Cu, Cd and Zn from mine effluent discharges in Howe Sound. – 249 p., Vancouver (PhD Thesis University of British Columbia).
• Christensen, B., Laake, M. & Lien, T. (1996): Treatment of acid mine water by sulfate-reducing bacteria; Results from a bench scale experiment. – Water Res., 30(7):1617–1624.
• Christensen, D. (2017): Forecasting long term water quality after closure: Boliden Aitik Cu mine, Sweden. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 761–769, Lappeenranta (Lappeenranta University of Technology).
• Christensen, J. N., Dresel, P. E., Conrad, M. E., Maher, K. & DePaolo, D. J. (2004): Identifying the Sources of Subsurface Contamination at the Hanford Site in Washington using High-Precision Uranium Isotopic Measurements. – Environ. Sci. Technol., 38(12):3330–3337, doi:10.1021/es034700q.
• Christensen, T. H., Bjerg, P. L., Banwart, S. A., Jakobsen, R., Heron, G. & Albrechtsen, H.-J. (2000): Characterization of redox conditions in groundwater contaminant plumes. – Journal of Contaminant Hydrology, 45(3):165–241, doi:10.1016/S0169-7722(00)00109-1.
• Christenson, H., Pope, J., Craw, D., Johns, J., Newman, N. & Trumm, D. (2018): Characterisation of As Geochemistry in Mine Tailings from a Mesothermal Gold Deposit. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 573–578; (Tshwane University of Technology).
• Christenson, H., Pope, J., Trumm, D., Uster, B., Newman, N. & Young, M. (2016): Mn removal from acid mine drainage using limestone leaching beds. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 906–912, Freiberg (TU Bergakademie Freiberg).
• Christenson, H. K., Skews, R., Trumm, D., Pope, J., Newman, N., Lee, G., Ross, D. & Boyt, C. (2022): Enhanced Passive Treatment of Sulfate and Nitrate Enriched Mine Water: Laboratory Optimisation Experiments. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 47–52; (International Mine Water Association).
• Christenson, H. K., Weber, P., Pope, J., Trumm, D. & Olds, W. (2017): Enhancing Mine Drainage Treatment by Sulphate Reducing Bacteria Using Nutrient Additives. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1196–1203, Lappeenranta (Lappeenranta University of Technology).
• Christenson, T. D. & Stier, J. V. (2011): Environment. – In: Dege, N. (ed) Technology of Bottled Water, 3rd edn. – p. 407–436, Chichester (Wiley-Blackwell); doi:10.1002/9781444393330.ch15.
• Christof, E. (1953): Über geologische Aufnahmen beim Bau der Kampkraftwerke (Südliche Böhmische Masse). – Jb. Geol. B.-A., 96(2):217–252, 1 Abb., 3 Taf.
• Chrysler-Fox, P. & Thomas, A. (2017): Managing plagiarism of South African Honours students: Does an intervention have any effect? – Koers – Bull. Christ. Scholarsh., 82(1):1–16, doi:10.19108/koers.82.1.2305.
• Chryst, R. & Rupala, M. (2000): The use of computer modelling systems and data analysis monitoring threats in connection with forcing salty mine waters into rockmass. – Proceedings, 7th International Mine Water Association Congress:363–372, 7 Abb., 1 Tab.
• Chua, L. H. C., Robertson, A. P., Yee, W. K., Shuy, E. B., Lo, E. Y. M., Lim, T. T. & Tan, S. K. (2007): Use of Fluorescein as a Ground Water Tracer in Brackish Water Aquifers. – Ground Water, 45(1):85–88, 3 Abb., 2 Tab.; doi:10.1111/j.1745-6584.2006.00265.x.
• Chuang, Y., Xudong, W., Linyou, P. & Fei, W. (2008): Numerical Simulation of Ground Subsidence Induced by Dewatering in Excavation. – Proceedings, 10th International Mine Water Association Congress:445–448.
• Chudy, K. & Worsa-Kozak, M. (2012): The influence of mine water on surface water in the Milek catchment (Intrasudetic Basin, SW Poland): International Mine Water Association Symposium. – 704 A–704 F p., Bunbury (Edith Cowan University).
• Chudy, K., Worsa-Kozak, M. & Wójcik, A. (2020): Groundwater Chemistry and Stratification in the Flooded Hard-Coal Mine Shaft “Nowy I” (Nowa Ruda Region, SW Poland). – Water, 12(11) doi:10.3390/w12113257.
• Chudy, K., Worsa-Kozak, M., Wójcik, A., Wolkersdorfer, Ch., Drzewicki, W., Konsencjusz, D. & Szyszka, D. (2021): Chemical Variations in Mine Water of Abandoned Pyrite Mines Exemplified by the Colorful Lakes in Wieściszowice, Sudetes Mountains, Poland. – J. Hydro. Regional Stud., 38:100974, 17 Abb., 2 Tab.; doi:10.1016/j.ejrh.2021.100974.
• Chukwu, A. & Obiora, S. C. (2018): Geochemical constraints, on the petrogenesis of the pyroclastic rocks in Abakaliki basin (Lower Benue Rift), Southeastern Nigeria. – J. Afr. Earth Sci., 141:207–220, doi:10.1016/j.jafrearsci.2018.02.017.
• Chukwuma, K. & Bordy, E. M. (2016): Spatiotemporal Sedimentary Facies Variations in the Lower Permian Whitehill Formation, Ecca Group, Karoo Basin. – In: Linol, B. & de Wit, M. J. (eds): Origin and Evolution of the Cape Mountains and Karoo Basin. – p. 101–110, Cham (Springer); doi:10.1007/978-3-319-40859-0_10.
• Chukwuma, K., Bordy, E. M. & Coetzer, A. (2018): Evolution of porosity and pore geometry in the Permian Whitehill Formation of South Africa – A FE-SEM image analysis study. – Mar. Pet. Geol., 91:262–278, doi:10.1016/j.marpetgeo.2017.12.026.
• Chunlai, Y. (1998): Control of the Limestone Water Nuisance for Kuzhulin Coal Mine: Mine Water and Environmental Impacts 1. – 69–73 p., 2 Abb.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Church, M., Burt, T. P., Galay, V. J. & Kondolf, G. M. (2009): Rivers. – In: Slaymaker, O., Spencer, T. & Embleton-Hamann, C. (eds): Geomorphology and Global Environmental Change. – p. 98–129, 11 Abb., 5 Tab.; Cambridge (Cambridge University Press); doi:10.1017/CBO9780511627057.005.
• Church, T. (2000): Distribution and Sources of Obsidian in the Rio Grande Gravels of New Mexico. – Geoarchaeology, 15(7):649–678, 8 Abb., 6 Tab.
• Churchwell, M. I., Twaddle, N. C., Meeker, L. R. & Doerge, D. R. (2005): Improving LC-MS sensitivity through increases in chromatographic performance: comparisons of UPLC-ES/MS/MS to HPLC-ES/MS/MS. – Journal of chromatography. B, Analytical technologies in the biomedical and life sciences, 825(2):134–43, doi:10.1016/j.jchromb.2005.05.037.
• Cianga Silvas, F. P., Buzzi, D. C., Bernardes, A. M., Romano Espinosa, D. C. & Soares Tenório, J. A. (2011): Santa Catarina Coal Mining: Acid Mine Drainage Characterization and Neutralization: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 475–480 p., Aachen (RWTH Aachen University).
• Cicchella, D., Albanese, S., De Vivo, B., Dinelli, E., Giaccio, L., Lima, A. & Valera, P. (2010): Trace elements and ions in Italian bottled mineral waters: Identification of anomalous values and human health related effects. – J. Geochem. Expl., 107(3):336–349, doi:https://doi.org/10.1016/j.gexplo.2010.04.004.
• Cidu, R. (2007): Influence of Past Mining on the Quality of Surface Waters at Funtana Raminosa (Sardinia). – Mine Water Environ., 26(4):199–208, 9 Abb., 7 Tab.; doi:10.1007/s10230-007-0013-5.
• Cidu, R., Biagini, C., Fanfani, L., La Ruffa, G. & Marras, I. (2001): Mine closure at Monteponi (Italy): effect of the cessation of dewatering on the quality of shallow groundwater. – Appl. Geochem., 16(5):489–502, 12 Abb., 3 Tab.
• Cidu, R., Biddau, R. & Dore, E. (2012): Antimony contamination of surface water at abandoned Sardinian mine sites: International Mine Water Association Symposium. – 301–308 p., Bunbury (Edith Cowan University).
• Cidu, R., Biddau, R., Dore, E. & Vacca, A. (2013): Antimony and arsenic uptake by vegetation growing at abandoned mines. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 931–935, 3 Abb.; Golden (International Mine Water Association).
• Cidu, R., Biddau, R. & Nieddu, G. (2007): Rebound at Pb-Zn Mines Hosted in Carbonate Aquifers: Influence on the Chemistry of Ground Water. – Mine Water Environ., 26(2):88–101, 13 Abb., 3 Tab.; doi:10.1007/s10230-007-0155-5.
• Cidu, R., Biddau, R. & Secci, G. (2005): Legacy at abandoned mines: impact of mine wastes on surface waters: Mine Water 2005 – Mine Closure. – 247–252 p., 3 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Cidu, R., Biddau, R. & Spano, T. (2005): Temporal Variations in Water Chemistry at Abandoned Underground Mines Hosted in a Carbonate Environment. – Mine Water Environ., 24(2):77–87, 8 Abb., 4 Tab.; doi:10.1007/s10230-005-0075-1.
• Cidu, R., Da Pelo, S. & Frau, F. (2011): Impact of gold mining on the aquatic system: a case study at Furtei (Sardinia, Italy): Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 575–580 p., Aachen (RWTH Aachen University).
• Cidu, R., Da Pelo, S. & Frau, F. (2013): Legacy of Cyanide and ARD at a Low-Scale Gold Mine (Furtei, Italy). – Mine Water Environ., 32(2):74–83, 7 Abb., 1 Tab.; doi:10.1007/s10230-012-0209-1.
• Cidu, R., Dore, E., Biddau, R. & Nordstrom, D. K. (2018): Fate of Antimony and Arsenic in Contaminated Waters at the Abandoned Su Suergiu Mine (Sardinia, Italy). – Mine Water Environ., 37(1):151–165, doi:10.1007/s10230-017-0479-8.
• Cidu, R. & Fanfani, L. (2000): Impact of dismantled mines on water resources in Sardinia (Italy): Contribution Number: 1380. – 1 Abb.; Ann Arbor (Proceedings 11th International Conference on Heavy Metals in the Environment (CD-ROM)).
• Cidu, R. & Fanfani, L. (2002): Overview of the environmental geochemistry of mining districts in southwestern Sardinia, Italy. – Geochem.-Explor. Environ. Anal., 2(3):243–251.
• Cidu, R., Fanfani, L., Frau, F., Biddau, R., Cabras, R. & Pelo, S. D. (2008): The Abandoned Antimony-mines of SE Sardinia: Impact on Surface Waters. Proceedings, 10th International Mine Water Association Congress. – p. 127–130.
• Cidu, R., Fanfani, L., Shand, P., Edmunds, W. M., Van’t Dack, L. & Gijbels, R. (1995): Hydrogeochemical exploration for gold in the Osilo area, Sardinia, Italy. – Appl. Geochem., 10(5):517–530, 8 Abb., 3 Tab.
• Cidu, R. & Frau, F. (2009): Effects of Past Mining on the Quality of Water Resources in Sardinia. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 903–909, 3 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Cidu, R. & Frau, F. (2009): Impact of the Casargiu Mine Drainage (SW Sardinia, Italy) on the Mediterranean Sea. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 926–931, 3 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Cidu, R. & Frau, F. (2010): Natural attenuation of contaminants in mine drainage at abandoned mines. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 459–463, Sydney, NS (Cape Breton University Press).
• Cidu, R., Frau, F. & Da Pelo, S. (2011): Drainage at Abandoned Mine Sites: Natural Attenuation of Contaminants in Different Seasons. – Mine Water Environ., 30(2):113–126, 9 Abb., 3 Tab.; doi:10.1007/s10230-011-0146-4.
• Cidu, R., Frau, F. & Petrini, R. (2017): Contamination Trend at Flooded Mines: 20 y Time-series at Casargiu, Sardinia. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 801–805, Lappeenranta (Lappeenranta University of Technology).
• Cidu, R., Frau, F. & Tore, P. (2011): Drinking water quality: Comparing inorganic components in bottled water and Italian tap water. – J. Food Compos. Anal., 24(2):184–193, doi:10.1016/j.jfca.2010.08.005.
• Cidu, R. & Mereu, L. (2007): The abandoned Copper-Mine of Funtana Raminosa (Sardinia): preliminary Evaluation of its Impact on the Aquatic System: Water in Mining Environments. – 53–57 p., 2 Abb., 2 Tab.; Cagliari (Mako Edizioni).
• Cidu, R., Palma, M. D. & Medas, D. (2007): The Fluminese Mining District (SW Sardinia, Italy): Impact of the past Lead-Zinc Exploitation on Aquatic Environment: Water in Mining Environments. – 47–51 p., 3 Abb., 3 Tab.; Cagliari (Mako Edizioni).
• Cień, D., d'Obyrn, K., Starczewska, M., Sowiżdżał, A., Motyka, J. & Sracek, O. (2024): Coal Mine Drainage as a Source of Drinking and Industrial Water—The Upper Silesian Coal Basin, Poland. – Energies (19961073), 17(5):1175, doi:10.3390/en17051175.
• Cipak, L., Miadokova, E., Dingova, H., Kogan, G., Novotny, L. & Rauko, P. (2001): Comparative DNA protectivity and antimutagenicity studies using DNA-topology and Ames assays. – Toxicol. Vitro, 15(6):677–681.
• Cirmo, C. P. & Driscoll, C. T. (1996): The impacts of a watershed CaCO₃ treatment on stream and wetland biogeochemistry in the Adirondack Mountains. – Biogeochemistry, 32(3):265–297, 12 Abb., 5 Tab.
• Claes, H., Huysmans, M., Soete, J., Dirix, K., Vassilieva, E., Erthal, M. M., Vandewijngaerde, W., Hamaekers, H., Aratman, C., Ozkul, M. & Swennen, R. (2019): Elemental geochemistry to complement stable isotope data of fossil travertine – Importance of digestion method and statistics. – Sediment. Geol., 386:118–131, doi:10.1016/j.sedgeo.2019.04.002.
• Clair-Caliot, G., Marks, S. J., Hug, S. J., Bretzler, A., N'Guessan, N. g. D., Tihe, S. F. K. & Lalanne, F. (2021): Uptake of Arsenic by Irrigated Vegetables and Cooked Food Products in Burkina Faso. – Frontiers in Water, 3 doi:10.3389/frwa.2021.667308.
• Clancy, L., Pearce, S., Schoen, D., Gersten, B., Mouchos, E., Barnes, A. & Shiimi, R. (2025): From novel laboratory methodologies to field implementation: assessing CO₂ and O₂ flux in Northern Europe mine waste. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 658–663; Braga (International Mine Water Association).
• Clar, E. (1929): Über die Blei-Zinklagerstätte St. Veit bei Imst (Nordtirol). – Jb. Geol. B.-A., 79:333–356, 6 Abb., 1 Taf.
• Clar, E. (1945): Ostalpine Vererzung und Metamorphose. – Verh. Geol. B.-A.:29–37.
• Clar, E. (1955): Bemerkungen zur Entstehungsfrage der kalkalpinen Pb-Zn-Erzlagerstätten. – Mitt. Geol. Ges. Wien, 48:17–28, 1 Taf.
• Clark, C., Brody, M., Dillon, J., Hart, P. & Heimlich, J. (2007): The Messy Process of Research: Dilemmas, Process, and Critique. – Canadian Journal of Environmental Education, 12:110–126, 2 Abb.
• Clark, H. H. & Ilsley, L. C. (1913): The Action of Acid Mine Water on the Insulation of Electric Conductors – A preliminary Report. – Bur. Mines Tech. Paper, 58:1–26.
• Clark, I. D. & Fritz, P. (1999): Environmental Isotopes in Hydrogeology, 2nd print edn. – 328 p., zahlr. Abb., zahlr. Tab.; Boca Raton (Lewis).
• Clark, J. P. (2010): Treatment of Mine Site Runoff Containing Suspended Solids Using Sedimentation Ponds – A Proposed Best Management Practice Design Guideline. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 213–217, Sydney, NS (Cape Breton University Press).
• Clark, J. P. (2010): Treatment of Mine Site Runoff Containing Suspended Solids Using Sedimentation Ponds – Optimizing Flocculant Addition to Ensure Discharge Compliance. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 217–221, Sydney, NS (Cape Breton University Press).
• Clark, L. C., Jr., Wolf, R., Granger, D. & Taylor, Z. (1953): Continuous Recording of Blood Oxygen Tensions by Polarography. – J. Appl. Physiol., 6(3):189–193, 4 Abb., 1 Tab.; doi:10.1152/jappl.1953.6.3.189.
• Clark, M. M., Srivastava, R. M. & David, R. (1993): Mixing and Aluminum Precipitation. – Environ. Sci. Technol., 27:2181–2189, 9 Abb., 1 Tab.
• Clark, S. & Muhlbauer, R. (2010): Mine Closure Water Management: Choosing the Right Alternative within a Changing Environment. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 463–467, Sydney, NS (Cape Breton University Press).
• Clark, T. & Pretzel, S. (2024): Tioga river watershed restoration, design considerations and updates. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 79–84; Morgantown (International Mine Water Association).
• Clarke, A. J., Yamamoto, N., Jensen, P. & Hambley, T. W. (2009): Iron(III) complexes of fluorescent hydroxamate ligands: preparation, properties, and cellular processing. – Dalton Trans., 48:10787–10798, 9 Abb., 3 Tab.; doi:10.1039/b914368h.
• Clarke, C. E. & Johnson, K. L. (2009): Oxidative Breakdown of Acid Azo Dyes by Mn Oxides. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 756–757, Pretoria (Document Transformation Technologies).
• Clarke, J. D. A. (2009): Palaeovalley, Palaeodrainage, and Palaeochannel – What’s the Difference and why does it Matter? – Trans. R. Soc. South Aust., 133(1):57–61, doi:10.1080/03721426.2009.10887111.
• Clarke, J. H., Macdonell, M. M., Smith, E. D., Dunn, R. J. & Waugh, W. J. (2004): Engineered Containment and Control Systems: Nurturing Natur. – Risk Anal., 24(3):771–779.
• Clarke, R. J. (2006): A deeper understanding of the stratigraphy of Sterkfontein fossil hominid site. – Trans. Roy. Soc. S. Afr., 61(2):111–120, doi:10.1080/00359190609519960.
• Classen, H. J. (1964): Methodik und Beispiele von Färbeversuchen. – Z. dt. geol. Ges., 116(1):231–236, doi:10.1127/zdgg/116/1964/231.
• Classen, H. J. (1967): Der Einsatz von Färbeversuchen unter der Verwendung von Uranin im Untertagebetrieb des Ruhrbergbaues und seine Handhabung. – Steir. Beitr. Hydrogeol., 18/19:141–149.
• Clauser, C., Heitfeld, M., Rosner, P., Sahl, H. & Schetelig, K. (2005): Beispiel Aachener Steinkohlenrevier – Nutzung von Erdwärme in aufgelassenen Bergwerken. – Beratende Ing.,(6):14–17, 4 Abb.
• Clausnitzer, V. & Mirnyy, V. (2016): Modeling groundwater and heat flow subject to freezing and thawing. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1150–1153, Freiberg (TU Bergakademie Freiberg).
• Clauß, D., Scholz, G., Rabe, W. & Günther, L. (2010): Vom sauren Bergbausee zum Fischereigewässer mittels Inlake-Schiffstechnik. – Wiss. Mitt. Inst. Geol., 42:43–50.
• Clauß, H. (1932): Zum Zug der evangelischen Salzburger durch das Bezirksamt Schwabach. – Heimat-Blatt für Geschichte, Volks- und Heimatkunde der Stadt und des Amtsgerichtsbezirks Roth bei Nürnberg, 11(12, 13, 17):nicht bekannt.
• Clayton, S., Grice, T. G. & Bogera, D. V. (2003): Analysis of the slump test for on-site yield stress measurement of mineral suspensions. – Int. J. Miner. Process., 70:3–21, 11 Abb., 4 Tab.; doi:10.1016/S0301-7516(02)00148-5.
• Clean Air Task Force & Earthjustice (2007): The Impacts on Water Quality From Placement of Coal Combustion Waste In Pennsylvania Coal Mines. – Fact Sheet:1–4, 4 Abb.
• Cleary, D. & Thornton, I. (1994): The environmental impact of gold mining in the Brazillian Amazon. – In: Hester, R. E. & Harrison, R. M. (eds): Mining and its Environmental Impact 1. – p. 17–30, (The Royal Society of Chemistry); doi:10.1039/9781847551467-00017.
• Clemens, M. K., Nelson, P. A. & Swift, W. M. (1996): Removal of Carbon Dioxide in Closed Loop Off-Gas Treatment Systems. – J. Environ. Sci. Health Part A-Environ. Sci. Eng. Toxic Hazard. Subst. Control, 31(7):1801–1825, 9 Abb.
• Clemens, T., Huckinghaus, D., Liedl, R. & Sauter, M. (1999): Simulation of the development of karst aquifers – role of the epikarst. – Int. J. Earth Sciences (Geol. Rundsch.), 88(1):157–163, 6 Abb.
• Clemens, T., Hückinghaus, D., Liedl, R., Sauter, M. & Teutsch, G. A combined continuum and discrete network reactive transport model for simulation of karst development. ModelCARE 96, IAHS Publ. 237, 1996. S.
• Clement, C., Fischer, R., Levicki, R., Ouvry, J.-F. & Page, B. (2014): Realisation d’Une Station de Traitement Passif des Eaux de Resurgence Miniere sur le Site du Puits Simon 5 a Forbach (57) [Water Passive Treatement Plant Build for Mine Drainage of Simon 5 Site (57600 Forbach)]. Paper presented at the Journées Nationales de Géotechnique et de Géologie de l’Ingénieur JNGG2014, Beauvais. – p. 1–11 [electronic], 12 Abb.
• Clement, J. L., Boyd, J. E., Kanas, N. & Saylor, S. (2007): Leadership challenges in ISS operations: Lessons learned from junior and senior mission control personnel. – Acta Astronautica, 61:2–7, 2 Tab.; doi:10.1016/j.actaastro.2007.01.014.
• Clement, R. E., Koester, C. J. & Eiceman, G. A. (1993): Environmental analysis. – Anal. Chem., 65(12):85R–116R, doi:10.1021/ac00060a007.
• Clement, R. E., Yang, P. W. & Koester, C. J. (1997): Environmental Analysis. – Anal. Chem., 69(12):251–288, doi:10.1021/a1970010g.
• Clement, R. E., Yang, P. W. & Koester, C. J. (1999): Environmental Analysis. – Anal. Chem., 71(12):257–292, doi:10.1021/a1990012w.
• Clements, N. & Noske, C. (2013): Dugald River Tailings Storage Facility and Process Water Dam – Robust Options Analyses. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 819–824, 2 Abb.; Golden (International Mine Water Association).
• Clemmens, A. J., Wahl, T. L., Bos, M. G. & Replogle, J. A. (2010): Water Measurement with Flumes and Weirs. – 382 p., Wageningen (International Institute for Land Reclamation and Improvement).
• Cleophas, T. J. & Zwinderman, A. H. (2016): SPSS for Starters and 2nd Levelers, 2nd edn. – 375 p., Cham (Springer Nature); doi:10.1007/978-3-319-20600-4.
• Clercx, H. J. H. & van Heijst, G. F. (2018): Mixing and dispersion in flows dominated by rotation and buoyancy: CISM International Centre for Mechanical Sciences – Courses and Lectures. – 218 p., New York, NY (Springer Berlin Heidelberg); doi:10.1007/978-3-319-66887-1.
• Cleveland, W. S. (1993): Visualizing data. – 360 p., Murray Hill (AT&T Bell Laboratories).
• Cleveland, W. S. (1994): The elements of graphing data, Rev. edn. – 297 p., Murray Hill (AT&T Bell Laboratories).
• Clever, H. L., Derrick, M. E. & Johnson, S. A. (1992): The Solubility of Some Sparingly Soluble Salts of Zinc and Cadmium in Water and in Aqueous Electrolyte Solutions. – J. Phys. Chem. Ref. Data, 21(5):941–1004, 62 Abb., 3 Tab., 1 Anh.
• Cline, J. D. (1969): Spectrophotometric determination of hydrogen sulfide in natural waters. – Limnol. Oceanogr., 14(3):454–458, 3 Abb., 3 Tab.
• Clode, K., Gurieff, N. B., Freeman, N. & Storey, M. (2023): Innovative Approach To The Development of a Mine Water Remediation R&D Portfolio. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 96–101; (International Mine Water Association).
• Cloos, H. (1938): Geologisch Zeichnen! – Geol. Rundsch., 29(7-8):599–604, 4 Abb.; doi:10.1007/BF01779240.
• Clopath, G. (1986): Bergbau im Schams und Ferreratal – Wie die Schamser sich mit der Verpachtung der Bergwerke befassten. – Bergknappe, 38(4):21–23, 4 Abb.
• Clow, D. W. & Fleming, A. C. (2008): Tracer gauge: An automated dye dilution gauging system for ice-affected streams. – Water Resour. Res., 44(12):W12441.1–11, doi:10.1029/2008WR007090.
• Clowes, F. (1889): Deposits of Barium Sulphate from Mine-water. – Proc. R. Soc. London, 46:368–370.
• Clusius, K. (1963): Zur Geschichte des Metermasses. – Experientia, 19(4):169–224, 6 Abb.
• Clutter, M., Fandal, C. & Ferré, T. (2022): The basics of groundwater: Earth Sciences in the 21st Century. – 225 p., New York (Nova Science Publishers).
• Coakley, G. J. (2001): Minerals Yearbook – The Mineral Industry of Swaziland. U.S. Geological Survey Minerals Yearbook—2001. – p. 27.1–27.3, Reston (U.S. Geol Survey).
• Coal Authority & Planning Officers Society (2012): Mine Water Treatment Schemes – Code of Practice. – 18 p., 3 Abb.; Berry Hill (Coal Authority).
• Coal Research Bureau (1971): Dewatering of Mine Drainage Sludge. – Wat. Poll. Contr. Res. Ser., 14010 FJX 12/71:1–90, 19 Abb., 9 Tab.
• Cobban, D. A., Rossouw, J. N., Versfeld, K. & Nel, D. (2009): Water Quality Considerations for Opencast Mining of the Molteno Coal Field, Indwe, Eastern Cape. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 222–232, 6 Abb., 7 Tab; Pretoria (Document Transformation Technologies).
• Cocci, P., Mosconi, G., Bracchetti, L., Nalocca, J. M., Frapiccini, E., Marini, M., Caprioli, G., Sagratini, G. & Palermo, F. A. (2018): Investigating the potential impact of polycyclic aromatic hydrocarbons (PAHs) and polychlorinated biphenyls (PCBs) on gene biomarker expression and global DNA methylation in loggerhead sea turtles (Caretta caretta) from the Adriatic Sea. – Sci. Total Environ., 619-620:49–57, doi:10.1016/j.scitotenv.2017.11.118.
• Cochrane, G. (2017): Anthropology in the Mining Industry. – 243 p., Cham (Palgrave Macmillan); doi:10.1007/978-3-319-50310-3.
• Cochrane, J., Williams, T., Knott, R., Williams, H., Craxford, S. & Stanley, P. C. (2023): Sediment Harvesting Using A Nautilus Pond™ Within Surface Water Management At Esgair Mwyn. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 102–107; (International Mine Water Association).
• Cockburn, G. (2013): Challenges and successes at the Nkomati Nickel JV – pit-to-product process improvements. Paper presented at the Base Metals Conference 2013. – p. 151–167; (The Southern African Institute of Mining and Metallurgy).
• Cocos, I. A., Zagury, G. J., Clément, B. & Samson, R. (2002): Multiple Factor design for reactive mixtrue selection for use in reactive walls in mine drainage treatment. – Water Res., 36(1):167–177, 5 Abb., 4 Tab.; doi:10.1016/S0043-1354(01)00238-X.
• Coetzee, H. (2011): A flooding and pumping model for the Western Basin of the Witwatersrand Gold Fields, based on empirical data. – (Report Nr. Report 2011-0176). – 7 p., Pretoria (Council for Geoscience).
• Coetzee, H. (2013): Flooding of the underground mine workings of the Witwatersrand Gold Fields. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 937–942, 3 Abb.; Golden (International Mine Water Association).
• Coetzee, H. (2013): Rapid field based analytical techniques for the environmental screening of abandoned mine sites. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 943–948, 1 Abb., 1 Tab.; Golden (International Mine Water Association).
• Coetzee, H. (2016): Management of water levels in the flooded mines of the Witwatersrand, South Africa. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 630–635, Freiberg (TU Bergakademie Freiberg).
• Coetzee, H. (2018): Reconstructing Historical Mine Water Management Practices for a Portion of the East Rand Gold Field, South Africa Using Long-Term Map and Image Time Series. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 803–807; (Tshwane University of Technology).
• Coetzee, H., Chirenje, E., Hobbs, P. & Cole, J. (2009): Ground and airborne geophysical surveys identify potential subsurface acid mine drainage pathways in the Krugersdorp Game Reserve, Gauteng Province, South Africa. Paper presented at the 11th SAGA Biennial Technical Meeting and Exhibition Swaziland, Swaziland. – p. 461–470, 7 Abb.
• Coetzee, H., Cole, P. & Ramugondo, S. (2022): Estimation of Mine Water Ingress Volumes for the Witwatersrand Goldfields. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 53–58; (International Mine Water Association).
• Coetzee, H., Horstmann, U., Ntsume, G. & Croukamp, L. (2003): The potential environmental impact of the decant of water from Witwatersrand. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 201–217, 10 Abb., 4 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Coetzee, H., Kotoane, M., Atanasova, M. & Roelofse, F. (2013): Interactions between dolomite and acid mine drainage in the Witwatersrand: results of field and laboratory studies and the implications for natural attenuation in the West Rand Goldfield. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 307–312, 6 Abb., 2 Tab.; Golden (International Mine Water Association).
• Coetzee, H. & Rademeyer, M. (2005): Lead isotope ratios as a tracer for contaminated waters from uranium mining and milling. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 663–670, Heidelberg (Springer); doi:10.1007/3-540-28367-6_67.
• Coetzee, H., Tlowana, S. & Makgae, M. (2015): Flooding of the underground mine workings of the old Witwatersrand gold/uranium mining areas: acid mine drainage generation and long term options for water quality management. – In: Merkel, B. J. & Arab, A. (eds): Uranium – Past and Future Challenges. – p. 317–324, 4 Abb., 1 Tab.; Cham (Springer).
• Coetzee, H., Wade, P. & Winde, F. (2002): Reliance on existing wetlands for pollution control around the Witwatersrand gold/uranium mines of South Africa – Are they sufficient? – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 59–64, 4 Abb.; Heidelberg (Springer).
• Cogho, V. E. (2012): Optimum Coal Mine – striving towards a ‘zero effluent’ mine. – J. S. Afr. Inst. Min. Metall., 112(2):119–126, 7 Abb., 2 Tab.
• Cogho, V. E. & van Niekerk, A. M. (2009): Optimum Coal Mine Water Reclamation Project. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 130–140, 9 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Cogram, P. (2018): Jarosite. Reference Module in Earth Systems and Environmental Sciences. – p. 1–9, 4 Abb., 1 Tab.; Amsterdam (Elsevier); doi:10.1016/b978-0-12-409548-9.10960-1.
• Cohen, E. R., Cvitas, T., Frey, J. G., Holmström, B., Kuchitsu, K., Marquardt, R., Mills, I., Pavese, F., Quack, M., Stohner, J., Strauss, H. L., Takami, M. & Thor, A. J. (2008): Quantities, Units and Symbols in Physical Chemistry, 3rd edn. – 233 p., Cambridge (International Union of Pure and Applied Chemistry); doi:10.1039/9781847557889.
• Cohen, S. M. & Mattheis, J. (2003): Fluorescence Mapping using the Spex® FluoroMap. – HORIBA Technical Reports, 7:70–75, 10 Abb.
• Cohn, T. A., Kiang, J. E. & Mason, R. R. (2013): Estimating Discharge Measurement Uncertainty Using the Interpolated Variance Estimator. – J. Hydraul. Eng., 139(5):502–510, doi:10/gjv4wp.
• Cojean, R., Franco, N., Lazarewicz, J.-C., Blachere, A., Lefort, D. & Sorgi, C. The post-minig context at Decazeville-Firmi concession (Aveyron, France) : analysis of impacts resulting from the cessation of pumping at the central shaft. Survey of various scenarios related to the water level of the Pit lake in the Grande Decouverte. Symposium Post mining 2005, Nancy, France, 2005–11–16 2005. NC S.
• Çöl, M. & Çöl, C. (2003): Environmental Boron Contamination in Waters of Hisarcik Area in the Kutahya Province of Turkey. – Food Chem. Toxicol., 41(10):1417–1420.
• Colborn, T. & Smolen, M. J. (1996): Epidemiological analysis of persistent organochlorine contaminants in cetaceans. – Rev. Environ. Contam. Toxicol., 146:91–172, 2 Abb., 10 Tab.; doi:10.1007/978-1-4613-8478-6_4.
• Coldewey, W. G. (2016): Grubenwasseranstieg unter hydrogeologischen und hydrochemischen Aspekt. – Veröff. Dt. Bergbau-Mus. Bochum, 217:160–163.
• Coldewey, W. G. & Göbel, P. (2015): Hydrogeologische Gelände- und Kartiermethoden. – 221 p., 54 Abb., 18 Tab., 5 Anl.; Heidelberg (Springer); doi:10.1007/978-3-8274-2728-1.
• Coldewey, W. G., Hewig, R., Richter, R., Rüterkamp, P. & Wedewart, M. (1999): Mittelfristige Entwicklung des Chemismus und der Dichte-Schichtungen von Grubenwässern in Bergwerken und ihre Auswirkungen auf nutzbares Grund- und Oberflächenwasser. – Unpubl. Report for Landesoberbergamt Nordrhein-Westfalen (Report Nr. 2332). – 83 p., 3 Tab., 73 Anl.; Essen (Deutsche Montan Technologie GmbH).
• Coldewey, W. G., Kories, H. & Wenzel, H.-J. (1991): Computer-aided Analyses of Hydro-chemical Data Concerning Deposition of Waste in Carboniferous Strata. – Proceedings, 4th International Mine Water Association Congress, 1:175–178, 1 Abb.
• Coldewey, W. G. & Semrau, L. (1994): Mine Water in the Ruhr Area (Federal Republic of Germany). – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:613–629, 7 Abb.
• Coldewey, W. G. & Wesche, D. (2017): Hydrogeologische und gesteinsphysikalische Eigenschaften der Emscher-Formation im Hinblick auf den Steinkohlenbergbau des Ruhrgebietes. – Grundwasser, 22(3):175–183, doi:10.1007/s00767-017-0365-0.
• Coldewey, W. G., Wesche, D. & Brandt, A. (2014): Evaluating the Geothermal Potential of Abandoned Mine Workings: an Appropriate Approach Based on Geological and Technical Conditions. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 632–635, Xuzhou (International Mine Water Association).
• Coldewey, W. G., Wesche, D., Rudolph, T. & Melchers, Ch. (2014): Methods for Evaluating the Hydraulic Barrier Effects of the Emscher Marl Following Cessation of German Hard-coal Mining. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 693–698, Xuzhou (International Mine Water Association).
• Coldewey, W. G. & Wolkersdorfer, Ch. (2014): Professor Dr. Walter Semmler: A German Mine Water Pioneer. – Mine Water Environ., 33(4):372–375, 3 Abb.; doi:10.1007/s10230-014-0301-9.
• Coldewey, W. G. & Wolkersdorfer, Ch. (2018): A hard coal miner at the Haarmannsbrunnen (Haarmann Fountain) in Osnabrück (Germany). – Mine Water Environ., 37(4):856–857, 1 Abb.; doi:10.1007/s10230-018-0556-7.
• Cole, J., Stoffers, A. & Bertrand, V. (2015): Geo-environmental tools to identify ARD and sulphate in groundwater at a former processing site. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Cole, M., Lindeque, P., Halsband, C. & Galloway, T. S. (2011): Microplastics as contaminants in the marine environment – A review. – Mar. Pollut. Bull., 62(12):2588–2597, doi:10.1016/j.marpolbul.2011.09.025.
• Cole, M. J. & Broadhurst, J. L. (2022): Sustainable Development in Mining Communities: The Case of South Africa’s West Wits Goldfield. – Front. Sustain. Cities, 4 doi:10.3389/frsc.2022.895760.
• Cole, R. A. & Phelps, K. (1979): Use of canonical variate analysis in the differentiation of swede cultivars by gas-liquid chromatography of volatile hydrolysis products. – J. Sci. Food. Agr., 30(7):669–676, 3 Abb., 5 Tab.; doi:10.1002/jsfa.2740300706.
• Coleridge, S. T. (1836): Specimens of the Table Talk of Samuel Taylor Coleridge, 2nd edn. – 326 p., London (Murray).
• Colin, F. & Quevauviller, P. (1998): Monitoring of Water Quality – The Contribution of Advanced Technologies. – Amsterdam (Elsevier).
• Colins de Tarsienne, E., Niederbacher, P. & Sauer, R. (1989): Kohlenwasserstoffexploration in Vorarlberg: Ergebnisse der Bohrung Vorarlberg-Au 1. – Mitt. Österr. Geol. Ges., 82:91–104, 6 Abb.
• Collan, M., Savolainen, J. & Luukka, P. (2017): Integrating the Effect of Water Balance on the Economic Feasibility Analysis of Metal Mining Ivestments. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 478–484, Lappeenranta (Lappeenranta University of Technology).
• Colley, H. & Westra, L. (1987): The Volcano-Tectonic Setting and Mineralization of the Early Proterozoic Kemiö-Orijärvi-Lohja Belt, SW Finland. – Spec. Publ. – Geol. Soc. London, 33(1):95–107, doi:10.1144/gsl.sp.1987.033.01.08.
• Colling, A. V., Menezes, J. C. S. d. S., Silveira, P. S. & Schneider, I. A. H. (2010): Biohydrometallurgical Process to Produce the Coagulant Ferric Sulfate from the Pyrite Present in Coal Tailings. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 571–575, Sydney, NS (Cape Breton University Press).
• Collios, A. & Stournaras, G. (1991): Impact of Ground Water on the Design and Exploitation of an Open Cast Coal Mine in Northern Greece. – Proceedings, 4th International Mine Water Association Congress, 2:21–28, 3 Abb.
• Collon, P. (2003): Evolution de la qualité de l’eau dans les mines abandonnées du bassin ferrifère lorrain – De l’expérimentation en laboratoire à la modélisation in situ. – 247 p., 94 Abb., 57 Tab., 5 Anh.; Nancy (unpubl. PhD-Thesis Institut National Polytechnique de Lorraine).
• Collon, P. (2016): Modélisation géologique et hydrogéochimique de réservoirs souterrains à géométrie complexe [Geological and Hydrogeochemical modelling of reservoirs characterised by complex geometries]. – 104 p., Habilitation, Université de Lorraine; Vandoeuvre-lès-Nancy.
• Collon, P., Steckiewicz-Laurent, W., Pellerin, J., Laurent, G., Caumon, G., Reichart, G. & Vaute, L. (2015): 3D geomodelling combining implicit surfaces and Voronoi-based remeshing: A case study in the Lorraine Coal Basin (France). – Comput. Geosci., 77:29–43, 14 Abb., 3 Tab.; doi:10.1016/j.cageo.2015.01.009.
• Collon-Drouaillet, P., Fabriol, R. & Buès, M. (2005): A semi-distributed modelling of the evolution of groundwater quality in flooded mines in the lorraine iron basin. – 1–15 [CD–ROM] p., 10 Abb., 3 Tab.; Nancy (Proceedings Post-Mining 2005).
• Colmer, A. R., Temple, K. L. & Hinkle, M. E. (1950): An Iron-Oxidizing Bacterium from the Acid Drainage of some Bituminous Coal Mines. – J. Bacteriol., 59(3):317–328, 4 Abb., 2 Tab.
• Colorado Department of Public Health and Environment & U. S. Environmental Protection Agency (2003): Summitville Update. – News & Information About the Summitville Mine Superfund Sit, December:10, 15 Abb., 2 Tab.
• Colorado Department of Public Health and Environment – Water Quality Control Commission (2013): The Basic Standards and Methodologies for Surface Water (Regulation No. 31) – (last amendment 2012-11-09, effective 2013-01-31): 5 CCR 1002-31. – 213 p., Denver (Department of Public Health and Environment).
• Colpaert, A. (2006): The Forgotten Uranium Mine of Paukkajanvaara, North Karelia, Finland. – Nordia Geographical Publications, 35(2):31–38, 6 Abb.
• Comber, S. D. W., Evans, D., Gardner, M. J., Green, C. & Whitehead, P. G. (1999): Development of a liming prediction model for Llyn Brianne. – Water Environ. J., 13(4):275–279.
• Comina, C., Lasagna, M., De Luca, D. A. & Sambuelli, L. (2013): Discharge measurement with salt dilution method in irrigation canals: direct sampling and geophysical controls. – Hydrol. Earth Syst. Sci. Discuss., 10(8):10035–10060, doi:10.5194/hessd-10-10035-2013.
• Committee on Intrinsic Remediation, Water Science and Technology Board, Board on Radioactive Waste Management & National Research Council (2000): Natural Attenuation for Groundwater Remediation. – 292 p., 33 Abb., 16 Tab.; Washington (National Academy Press).
• Committee on Management and Effects of Coalbed Methane Development and Produced Water in the Western United States, Committee on Earth Resources & National Research Council (2010): Management and Effects of Coalbed Methane Produced Water in the United States. – 238 p., Washington (The National Academies Press).
• Commonwealth of Pennsylvania (1973): Scarlift Report – Clearfield Creek Moshannon Watershed: SL 1-73:1-101.7. – 333 p., 21 Abb.; Harrisburg (Commonwealth of Pennsylvania).
• Comninellis, C. & Chen, G. (2010): Electrochemistry for the Environment. – Heidelberg (Springer); doi:10.1007/978-0-387-68318-8.
• Company, A. R.-I. (1997): A Survey of International Environmental Remediation Regulations. – 32 p., Princeton (Corporable Communications and Advertising Department).
• Compère, F., Kern, G. & Bellenfant, G. (2021): A 3D Feflow hydrogeological Uranium underground mine Model, France. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 91–96; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Compliance Advisor Ombudsman, Atkins, D. & Wildau, S. (2008): Participatory water monitoring – a guide for preventing and managing conflict. – 109 p., Washington (Office of the Compliance Advisor Ombudsman International Finance Corporation).
• Conca, J. L. & Wright, J. (2006): An Apatite II permeable reactive barrier to remediate groundwater containing Zn, Pb and Cd. – Appl. Geochem., 21(8):1288–1300, 7 Abb., 4 Tab.; doi:10.1016/j.apgeochem.2006.06.008.
• Conesa, J. A. (2020): Chemical Reactor Design – Mathematical Modeling and Applications. – 332 p., Weinheim (Wiley-VCH).
• Conestoga Rovers Associates (2008): Coal Pillar Failure Risk Analysis 1B Hydraulic System – Glace Bay, Reserve and Dominion, Nova Scotia. – Unpubl. Report for Cape Breton Development, C. (Report Nr. 050969-04 (3)). – 47 p., 23 Abb., 9 Tab., 6 Taf.; Sydney (Conestoga-Rovers & Associates).
• Conference of the Parties to the Basel Convention on the Control of Transboundary Movements of Hazardous Wastes and Their Disposal (2017): Technical guidelines – Addendum – Technical guidelines on the environmentally sound management of wastes consisting of, containing or contaminated with polychlorinated biphenyls, polychlorinated terphenyls, polychlorinated naphthalenes or polybrominated biphenyls including hexabromobiphenyl. – (Report Nr. UNEP/CHW.13/6/Add.4/Rev.1). – 32 p., Geneva (United Nations, Basel Convention).
• Conference of the Parties to the Basel Convention on the Control of Transboundary Movements of Hazardous Wastes and Their Disposal (2022): Technical guidelines – Addendum – General technical guidelines on the environmentally sound management of wastes consisting of, containing or contaminated with persistent organic pollutants. – (Report Nr. UNEP/CHW.15/6/Add.1/Rev.1). – 76 p., Geneva (United Nations, Basel Convention).
• Conley, J. M. & Williams, C. A. (2011): Global Banks as Global Sustainability Regulators? – The Equator Principles. – Law & Policy, 33(4):542–575, doi:10.1111/j.1467-9930.2011.00348.x.
• Conly, A. G., Lee, P. F., Godwin, A. & Cockerton, S. (2008): Experimental Constraints for the Source of Sulfate Toxicity and Predictive Water Quality for the Hogarth and Caland Pit Lakes, Steep Rock Iron Mine, Northwestern Ontario, Canada. – Proceedings, 10th International Mine Water Association Congress:551–554.
• Conly, A. G., Lee, P. F., Goold, A. & Godwin, A. (2008): Geochemistry and Stable Isotope Composition of Hogarth and Caland Pit Lakes, Steep Rock Iron Mine, Northwestern Ontario, Canada. – Proceedings, 10th International Mine Water Association Congress:555–558.
• Conly, A. G., Shankie, S. & Lee, P. (2010): Treatment of sulphate toxic waters using permeable reactive barriers: batch and flow-through reactor experiments. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 221–225, Sydney, NS (Cape Breton University Press).
• Connelly, R., Rees, B., Bowell, R. & Farrell, L. (2005): Rehabilitation Planning for Abandoned Mines at Silvermines, Tipperary, Ireland: Mine Water 2005 – Mine Closure. – 253–260 p., 2 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Connelly, R. J. (2009): Rehabilitation and Construction Issues for Silvermines Abandoned Mine Area, Ireland. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 298–307, 3 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Connelly, R. J. & Gibson, J. (1985): Dewatering of the Open Pits at Letlhakane and Orapa Diamond Mines, Botswana. – Int. J. Mine Water, 4(3):25–41, 5 Abb., 2 Tab.
• Connelly, R. J., Harcourt, K. J., Chapman, J. & Williams, D. (1994): Approache to Remediation of Ferruginous Discharges in the South Wales Caolfield. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:521–531, 2 Abb., 1 Tab.
• Connelly, R. J. & Ward, A. D. (1987): Optimising Dewatering Costs on a South African Gold Mine. – Int. J. Mine Water, 6(2):15–25, 6 Abb., 1 Tab.
• Conrad, J., Nel, J. & Wentzel, J. (2004): The challenges and implications of assessing groundwater recharge: A case study – northern Sandveld, Western Cape, South Africa. – Water SA, 30(5):75–81, 4 Abb., 1 Tab.
• Conroy, K. W., Huff, B. D. & Gallagher, N. T. (2013): Development of Treatment Solutions for the Central City/Clear Creek Superfund Site in Colorado. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 533–538, 3 Tab.; Golden (International Mine Water Association).
• Conroy, K. W. & Moderski, A. M. (2013): Water Management and Treatment for the Copperwood Mine Project. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 539–544, 2 Abb., 1 Tab.; Golden (International Mine Water Association).
• Controls, I. (2005): Conductivity Theory and Measurement. – Technical Notes, 4(1).
• Cook, J. M. (1973): The Troad – An archaeological and topographical study. – 443 p., 20 Abb., 73 Taf.; Oxford (Clarendon).
• Cook, N. G. W. (1982): Ground-Water Problems in Open-Pit and Underground Mines. – Special Paper – Geological Society of America, 189:397–406, 7 Abb.; doi:10.1130/SPE189-p397.
• Cook, R. B., Kelly, C. A., Schindler, D. W. & Turner, M. A. (1986): Mechanisms of hydrogen-ion neutralization in an experimentally acidified lake. – Limnol. Oceanogr., 31(1):134–148, doi:10.4319/lo.1986.31.1.0134.
• Cook, T., Skousen, J. G. & Hilton, T. (2008): Covering Pre-existing, Acid-producing Fills with Alkaline Sandstone to Control Acid Mine Drainage. – Mine Water Environ., 27(4):259–264, 2 Abb., 4 Tab.; doi:10.1007/s10230-008-0051-7.
• Cooke, D., Hudson, E., Jones, L., Mason, D., Wylie, R. & Stanley, P. C. (2023): Surface Water Management To Reduce Pollution At Dylife, Mid Wales. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 116–121; (International Mine Water Association).
• Cooke, D., Mason, D., Williams, H., Jones, L., Byfield, R., Mansell, L., Carline, R. & Stanley, P. C. (2023): Working With Designation Constraints At Cwmystwyth. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 108–115; (International Mine Water Association).
• Cooper, A. H., Johnson, K. S. & Gunay, G. (2002): Environmental problems caused by gypsum karst and salt karst in Great Britain. – Carbonate Evaporite, 17(2):116–120.
• Coopmans, E. J. A., Schwarz, H. P. & Pryor, M. J. (2001): The dewatering of a mining sludge containing hexavalent chromium using a tubular filter press. – Water Sci. Technol., 44(1 5/6):371–376, 5 Abb., 2 Tab.
• Cope, J. C. W., Ingham, J. K. & Rawson, P. F. (1992): Atlas of Palaeogeography and Lithofacies. – Geological Society Memoir, 13.
• Coppa, L. V., Kaas, L. M., Ferderer, D. A. & Goklany, I. M. (1995): Developing Priorities for Verifying and Inventorying Suspected Abandoned Mine Sites on Public Lands: Water resources at risk. – IMWA.125–140 p., 10 Abb.; Minneapolis (American Institute of Hydrology).
• Corbel, S., Kaiser, J. & Vicentin, S. (2017): Coal Mine Flooding in the Lorraine-Saar Basin: Experience from the French Mines. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 161–166, Lappeenranta (Lappeenranta University of Technology).
• Cordato, R. E. (2001): The Polluter Pays Principle – A Proper Guide for Environmental Policy. – Studies in Social Cost, Regulation, and the Environment, 6:1–16.
• Cornelissen, H., Watson, I., Adam, E. & Malefetse, T. (2019): Challenges and strategies of abandoned mine rehabilitation in South Africa: The case of asbestos mine rehabilitation. – J. Geochem. Explor., 205(2019):106354, doi:10.1016/j.gexplo.2019.106354.
• Cornell, R. M. & Schwertmann, U. (2003): The Iron Oxides – Structure, Properties, Reactions, Occurrences and Uses. – 664 p., Weinheim (Wiley-VCH); doi:10.1002/3527602097.
• Cornish, M. (2010): The Bougainville conflict – A classic outcome of the resource-curse effect. – Peace Conf. Monit., 2010.
• Corona-Chavez, P., Maldonado, R., Ramos-Arroyo, Y. R., Robles-Camacho, J., Lozano-SantaCruz, R. & Martinez-Medina, M. (2017): Geoquímica y mineralogía de los jales del distrito minero Tlalpujahua-El Oro, México, y sus implicaciones de impacto ambiental [Geochemistry and mineralogy of Au-tailings from Tlalpujahua-El Oro mining district, Mexico, and their environmental impact implications]. – Rev. Mex. Cienc. Geol., 34(3):250–273, doi:10.22201/cgeo.20072902e.2017.3.540.
• Côrrea, H., Antunes, M. H. & Marinho Reis, P. (2021): Surface Water on the Influence of the Carajás Mineral Province (Brazil) – Consequences to an Indigenous Community. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 97–102; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Corwin, R. F. (1990): Applications of the Self-Potential Method for Engineering and Environmental Investigations. Paper presented at the Symposium on the Application of Geophysics to Engineering and Environmental Problems. – p. 107–121, 5 Abb.
• Cosgrove, W. J., Rijsberman, F. R. & World Water Council (2000): World Water Vision – Making Water Everybody’s Business. – 108 p., 15 Abb., 11 Tab.; London (Earthscan Publications); doi:10.4324/9781315071763.
• Cossart, E. & Fort, M. (2008): Consequences of landslide dams on alpine river valleys: Examples and typology from the French Southern Alps. – Nor. Geogr. Tidsskr. – Norw. J. Geogr., 62(2):75–88, doi:10.1080/00291950802094882.
• Costa, A. T., Arias Nalini Jr, H., Lena, J. C. d., Mages, M. & Friese, K. (2001): Surface Water Quality Parameters in an Iron Mine Region, Quadrilátero Ferrífero, Minas Gerais, Brazil. – 1–15 [CD–ROM] p., 5 Abb., 2 Tab.; Belo Horizonte (Proceedings IMWA Symposium Belo Horizonte).
• Costa, M. C. & Duarte, J. C. (2005): Bioremediation of acid mine drainage using acidic soil and organic wastes for promoting sulphate-reducing bacteria activity on a column reactor. – Water Air Soil Pollut., 165(1-4):325–345.
• Costa, M. C., Palma, T. & Carlier, J. D. (2025): Biologic treatment of acid mine drainage: A perspective of two decades of research, challenges and opportunities. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1051–1057; Braga (International Mine Water Association).
• Costa, M. R., Ávila, P., Ferreira, A. & Fereira da Silva, E. (2013): Availability of trace elements in the abandoned Freixeda gold mine area, NE Portugal. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 313–318, 2 Abb., 3 Tab.; Golden (International Mine Water Association).
• Costa, M. R., Marszałek, H., Ferreira da Silva, E., Mickiewicz, A., Wąsik, M. & Candeias, C. (2021): Temporal fluctuations in water contamination from abandoned pyrite Wieściszowice mine (Western Sudetes, Poland). – Environ. Geochem. Health., doi:10.1007/s10653-021-00809-1.
• Costagliola, P., Rimondi, V., Benvenuti, M., Chiarantini, L., Benedetto, F. D., Gasparon, M., Lattanzi, P. & Paolieri, M. (2007): Arsenic Uptake by natural Calcites: Preliminary Results from sequential Extraction of italian Travertines: Water in Mining Environments. – 415–418 p., 1 Abb.; Cagliari (Mako Edizioni).
• Costanza, J. N. (2016): Mining Conflict and the Politics of Obtaining a Social License: Insight from Guatemala. – World Dev., 79:97–113, doi:10.1016/j.worlddev.2015.10.021.
• Costello, C. (2003): Acid Mine Drainage – Innovative Treatment Technologies. – 47 p., 11 Abb.; Washington (National Network for Environmental Management Studies Program).
• Costerton, J. W., Cheng, K. J., Geesey, G. G., Ladd, T. I., Nickel, J. C., Dasgupta, M. & Marrie, T. J. (1987): Bacterial Biofilms in Nature and Disease. – Annu. Rev. Microbiol., 41(Volume 41):435–464, doi:10.1146/annurev.mi.41.100187.002251.
• Costilla-Salazar, R., Trejo-Acevedo, A., Rocha-Amador, D., Gaspar-Ramírez, O., Díaz-Barriga, F. & Pérez-Maldonado, I. N. (2011): Assessment of Polychlorinated Biphenyls and Mercury Levels in Soil and Biological Samples from San Felipe, Nuevo Mercurio, Zacatecas, Mexico. – Bull. Environ. Contam. Toxicol., 86(2):212–216, doi:10.1007/s00128-010-0165-z.
• Costin, D., Baciu, C., Pop, C. & Varga, I. (2011): Field-based kinetic testing of ARD potential of the waste rock from Roşia Montană ore deposit (Apuseni Mountains, Romania): Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 677–682 p., Aachen (RWTH Aachen University).
• Costin, G., Götz, A. E. & Ruckwied, K. (2019): Sedimentary organic matter characterization of the Whitehill shales (Karoo Basin, South Africa) – An integrated quantitative approach using FE-EPMA and LA-ICP-MS. – Rev. Palaeobot. Palynol., 268:29–42, doi:10.1016/j.revpalbo.2019.05.008.
• Côte, C. M., Moran, C. J. & Hedemann, C. (2007): Evaluating the Costs and Benefits of Mine Sites Salt Management Strategies using a Systems Model: Water in Mining Environments. – 319–323 p., 1 Abb., 3 Tab.; Cagliari (Mako Edizioni).
• Côte, C. M., Moran, C. J. & Hedemann, C. (2007): Evaluating the Costs and Benefits of Salt Management Strategies at Mine Sites Using a Systems Model. – Mine Water Environ., 26(4):229–236, 9 Abb., 2 Tab.; doi:10.1007/s10230-007-0016-2.
• Côte, C. M., Moran, C. J., Hedemann, C. & Koch, C. (2010): Systems modelling for effective mine water management. – Environ. Modell. Software, 25:1664–1671, 10 Abb., 12 Tab.; doi:10.1016/j.envsoft.2010.06.012.
• Cotta, B. (1853): Das Zentralfeuer. – Unterhaltungen am häuslichen Herd, 1(46):727–730.
• Cotta, B. (1854): Das Zentralfeuer. – Meyer’s Monats-Hefte – Deutsch-amerikanische Zeitschrift für Literatur, Kunst und Gesellschaft, 1(2):139–140.
• Cotter-Howells, J., Charnock, J. M., Winters, C., Kille, P., Fry, J. C. & Morgan, A. J. (2005): Metal Compartmentation and Speciation in a Soil Sentinel: The Earthworm, Dendrodrilus rubidus. – Environ. Sci. Technol., 39(19):7731–7740, doi:10.1021/es050648h.
• Cottingham, C. T., Vitale, M., Selker, J., Lupton, S. & Selker, F. (2013): Using Fiber Optics and Vibrating Wire Piezometers to Characterize an Aquifer in Preparation for Ground and Aquifer Freezing. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 111–116, 4 Abb.; Golden (International Mine Water Association).
• Cotton, A., Orban, P., Wildemeersch, S., Collon, P., Hallet, V. & Brouyère, S. (2019): Active Dewatering Of Limestone Quarry And Drinking Water Production – Feasibility Assessment Using A Groundwater Model. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 579–584; Perm, Russia (Perm State University).
• Coulon, C., Vidal, P., Dupuy, C., Baudin, P., Popoff, M., Maluski, H. & Hermitte, D. (1996): The Mesozoic to Early Cenozoic Magmatism of the Benue Trough (Nigeria); Geochemical Evidence for the Involvement of the St Helena Plume. – J. Petrol., 37(6):1341–1358, 10 Abb., 3 Tab.
• Coulthard, T. J. & Macklin, M. G. (2003): Modeling long-term contamination in river systems from historical metal mining. – Geology, 31(5):451–454, 3 Abb.
• Coulton, R., Bullen, C., Dolan, J., Hallett, C., Wright, J. & Marsden, C. (2003): Wheal Jane mine water active treatment plant – Design, construction and operation. – Land Contam. Reclam., 11(2):245–252, doi:10.2462/09670513.821.
• Coulton, R., Bullen, C. & Hallett, C. (2003): The design and optimisation of active mine water treatment plants. – Land Contam. Reclam., 11(2):273–280, 5 Abb., 2 Tab.; doi:10.2462/09670513.825.
• Coulton, R., Bullen, C., Williams, C. & Williams, K. (2004): The formation of high density sludge from minewater with low iron concentrations. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 24–30, 9 Abb., 3 Tab.; Newcastle upon Tyne (University of Newcastle).
• Coulton, R., Bullen, C., Williams, K., Dey, M. & Jarvis, A. (2004): Active treatment of high salinity mine water. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 119–124, 3 Abb., 6 Tab.; Newcastle upon Tyne (University of Newcastle).
• Coupland, K., Rowe, O., Hallberg, K. B. & Johnson, D. B. (2004): Biogeochemistry of a subterranean acidic mine water body at an abandoned copper mine. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 113–119, 4 Abb.; Newcastle upon Tyne (University of Newcastle).
• Courbet, C., Wysocka, M., Martin, L., Chmielewska, I., Bonczyk, M., Michalik, B., Barker, E., Zebracki, M. & Mangeret, A. (2016): Fate of radium in river and lake sediments impacted by coal mining sites in Silesia (Poland). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1249–1253, Freiberg (TU Bergakademie Freiberg).
• Coury, L. (1999): Conductance Measurements – Part 1: Theory. – Current Separations, 18(3):91–96, 4 Abb., 1 Tab.
• Cousens, R. R. M. & Garrett, W. S. (1969): The Flooding at the West Driefontein Mine. – J. S. Afr. Inst. Min. Metall., 69(9):421–463, 27 Abb., 10 Tab.
• Cousins, I. T., Gevao, B. & Jones, K. C. (1999): Measuring and Modelling the Vertical Distribution of Semi-volatile Organic Compounds in Soils. I: PCB and PAH Soil Core Data. – Chemosphere, 39(14):2507–2518, doi:10.1016/S0045-6535(99)00164-2.
• Couto, H. J. B., França, S. C. A. & Barbosa, R. K. C. (2014): The use of DAF (dissolved air flotation) as an alternative treatment for red mud wastewater. Paper presented at the XXVII International Mineral Processing Congress (IMPC 2014). – p. CAC00160014, 6 Abb., 2 Tab.; (Gecamin Publications).
• Couto, R. (2003): The use of a floating raft and walkway to replace the conventional timber walkway and penstock on tailings dams. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 265–274, 7 Abb.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Covart, V., Neubert, J. T., Wood, B., Topper, R. & Sares, M. (2001): Geology, Mining, and the Environment – A History of the Upper Alamosa River Basin. – Colorado Geological Survey ROCKTALK, 4(2):1–15, 16 Abb., 2 Tab.
• Covich, A. & Stuiver, M. (1974): Changes in oxygen 18 as measure of long-term fluctuations in tropical lake levels and molluscan populations. – Limnol. Oceanogr., 19(4):682–690.
• Covington, A. K., Bates, R. G., Durst, R. A. & IUPAC (1985): Definition of pH scales, standard reference values, measurement of pH and related terminology (Recommendations 1984). – Pure Appl. Chem., 57(3):531–542, doi:10.1351/pac198557030531.
• Cowan, I. M. (1966): Management, Response, and Variety. – In: Darling, F. F. & Milton, J. P. (eds): Future Environments of North America – Being the record of a Conference convened by The Conservation Foundation in April, 1965, at Airlie House, Warrenton, Virginia. – p. 55–65, Garden City (The Natural History Press).
• Cowie, R. (2014): Surface Water and Groundwater Interactions in Natrual (sic!) and Mining Impacted Mountain Catchments. – 261 p., University of Colorado, 48 Abb., 4 Tab.
• Cowie, R., Williams, M., Wireman, M. & Runkel, R. (2014): Use of Natural and Applied Tracers to Guide Targeted Remediation Efforts in an Acid Mine Drainage System, Colorado Rockies, USA. – Water, 6(4):745–777, 9 Abb., 1 Tab.; doi:10.3390/w6040745.
• Cox, D. P. & Singer, D. A. (1986): Mineral Deposit Models. – US Geological Survey Bulletin, B 1693:1–379.
• Cox, K. R. (1979): Hydrogeological Problems and Their Resolutions at the Friedensville Mine: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 617–626 p., 6 Abb.; San Francisco (Freeman).
• Cox, M., Tait, D., Bowell, R. & Griffiths, R. (2023): An Overview of Challenges Associated with Defining and Applying Water Quality Standards in the Absence of Applicable Regulatory Limits. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 122–128; (International Mine Water Association).
• Cox, M. A., Dale, C., Satterley, C., Coulton, R., Coulton, R. D. & Morgan, R. (2024): Pilot plant testing to determine the process effects of treating net alkaline mine water using the high density sludge process. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 85–90; Morgantown (International Mine Water Association).
• Cox, M. A., Satterley, C., Ahmed, W. & Cordier, B. (2021): In-situ Hydrogen Peroxide Dosing Trials To Design Semi-Passive Treatment Schemes. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 103–108; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Crabtree, R. H. (2005): NHC ligands versus cyclopentadienyls and phosphines as spectator ligands in organometallic catalysis. – Journal of Organometallic Chemistry, 690(24-25):5451–5457, doi:10.1016/j.jorganchem.2005.07.099.
• Craig, H. (1963): The Isotopic Geochemistry of Water and Carbon in Geothermal Areas. Paper presented at the Nuclear Geology on Geothermal Areas, Spoleto. – p. 17–53, 9 Abb.; (Consiglio Nazionale Delle Ricerche (CNR), Laboratorio Di Geologia Nucleare).
• Craig, R. F. (2004): Craig’s soil mechanics, 7th edn. – London (Spon).
• Craig, R. M. & Mink, L. L. (1985): An analytical and graphical Technique to determine the Spacing of Drainage Wicks for Pressure Relief in an Open Pit Coal Mine. – Proceedings, 2nd International Mine Water Association Congress, 1:95–103, 2 Abb.
• Crans, D. C. (2005): Fifteen years of dancing with vanadium. – Pure Appl. Chem., 77(9):1497–1527, doi:10.1351/pac200577091497.
• Craven, A. (2012): Reducing capital expenditure using probabilistic simulation for water management: International Mine Water Association Symposium. – 365–370 p., Bunbury (Edith Cowan University).
• Cravotta, C. A., III (1994): Secondary Iron-Sulfate Minerals as Sources of Sulfate and Acidity – Geochemical Evolution of Acidic Ground Water at a Reclaimed Surface Coal Mine in Pennsylvania. – In: Alpers, C. N. & Blowes, D. W. (eds): Environmental geochemistry of Sulfide Oxidation 550. – p. 345–364, 3 Abb., 4 Tab.; New York (American Chemical Society); doi:10.1021/bk-1994-0550.ch023.
• Cravotta, C. A., III (2007): Passive aerobic treatment of net-alkaline, iron-laden drainage from a flooded underground anthracite mine, Pennsylvania, USA. – Mine Water Environ., 26(3):128–149, 8 Abb., 3 Tab.; doi:10.1007/s10230-007-0002-8.
• Cravotta, C. A. (2008): Dissolved metals and associated constituents in abandoned coal-mine discharges, Pennsylvania, USA. Part 1: Constituent quantities and correlations. – Appl. Geochem., 23(2):166–202, doi:10.1016/j.apgeochem.2007.10.011.
• Cravotta, C. A., III (2008): Dissolved metals and associated constituents in abandoned coal-mine discharges, Pennsylvania, USA. Part 2: Geochemical controls on constituent concentrations. – Appl. Geochem., 23(2):203–226, 13 Abb., 1 Tab.; doi:10.1016/j.apgeochem.2007.10.003.
• Cravotta, C. A., III (2010): Abandoned Mine Drainage in the Swatara Creek Basin, Southern Anthracite Coalfield, USA: 2. Performance of Treatment Systems. – Mine Water Environ., 29(3):200–216, 6 Abb., 3 Tab.; doi:10.1007/s10230-010-0113-5.
• Cravotta, C. A., III (2013): Apparent Rates of Fe(II) Oxidation and Associated Hydrogeochemical Interactions in an Extensively Mined Watershed, Pennsylvania, USA. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 319–324, 4 Abb.; Golden (International Mine Water Association).
• Cravotta, C. A. (2021): Interactive PHREEQ-N-AMDTreat water-quality modeling tools to evaluate performance and design of treatment systems for acid mine drainage. – Appl. Geochem., 126:104845, 8 Abb., 1 Tab.; doi:10.1016/j.apgeochem.2020.104845.
• Cravotta, C. A., III & Bilger, M. D. (2001): Water-quality trends for a stream draining the Southern Anthracite Field, Pennsylvania. – Geochem.-Explor. Environ. Anal., 1(1):33–50, 9 Abb., 3 Tab.
• Cravotta, C. A., III, Brady, K. B. C., Rose, A. W. & Douds, J. B. (1999): Frequency Distribution of the pH of Coal-Mine Drainage in Pennsylvania. – Water Resour. Investig. Rep., WRI 99-4018A:313–324, 6 Abb.
• Cravotta, C. A., III, Brady, K. B. C., Smith, M. W. & Beam, R. L. (1990): Effectiveness of the Addition of Alkaline Materials at Surface Coal Mines in Preventing and Abating Acid Mine Drainage – Part 1 Geochemical Considerations. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 11:elektronisches Dokument.
• Cravotta, C. A., III, Brightbill, R. A. & Langland, M. J. (2010): Abandoned Mine Drainage in the Swatara Creek Basin, Southern Anthracite Coalfield, Pennsylvania, USA: 1. Stream Water Quality Trends Coinciding with the Return of Fish. – Mine Water Environ., 29(3):176–199, 13 Abb., 1 Tab.; doi:10.1007/s10230-010-0112-6.
• Cravotta, C. A., III & Geroni, J. N. (2013): Effects of CO₂ Degassing on pH and Fe(II) Oxidation Rates in Coal Mine Effluents. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 949–954, 2 Abb., 2 Tab.; Golden (International Mine Water Association).
• Cravotta, C. A., III & Hilgar, G. M. (2000): Considerations for Chemical Monitoring at Coal Mines. – In: Kleinmann, R. L. P. (ed) Prediction of Water Quality at Surface Coal Mines. – p. 195–218, 5 Abb.; Morgantown (National Mine Land Reclamation Center).
• Cravotta, C. A., III & Kirby, C. S. (2004): Acidity and Alkalinity in Mine Drainage – Practical Considerations. Paper presented at the 2004 National Meeting of the American Society of Mining and Reclamation and the 25th West Virginia Surface Mine Drainage Task Force, April 18–24, 2004. – p. 334–365, 7 Abb., 2 Tab.; Lexington (ASMR).
• Cravotta, C. A., III, Means, B. P., Arthur, W., McKenzie, R. M. & Parkhurst, D. L. (2015): AMDTreat 5.0+ with PHREEQC Titration Module to Compute Caustic Chemical Quantity, Effluent Quality, and Sludge Volume. – Mine Water Environ., 34(2):136–152, doi:10.1007/s10230-014-0292-6.
• Cravotta, C. A., III, Parkhurst, D. L., Means, B. P., McKenzie, R. M. & Arthur, W. (2010): Using the Computer Program AMDTreat with a PHREEQC Titration Module to Compute Caustic Quantity, Effluent Quality, and Sludge Volume. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 111–115, Sydney, NS (Cape Breton University Press).
• Cravotta, C. A., Sherrod, L., Galeone, D. G., Lehman, W. G., Ackman, T. E. & Kramer, A. (2017): Hydrological and Geophysical Investigation of Streamflow Losses and Restoration Strategies in an Abandoned Mine Lands Setting. – Environ. Eng. Geosci., 23(4):243–273, doi:10.2113/gseegeosci.23.4.243.
• Cravotta, C. A., III & Trahan, M. K. (1999): Limestone drains to increase pH and remove dissolved metals from acidic mine drainage. – Appl. Geochem., 14:581–606, 10 Abb., 4 Tab.; doi:10.1016/S0883-2927(98)00066-3.
• Cravotta, C. A., III & Ward, S. (2008): Downflow Limestone Beds for Treatment of Net-Acidic, Oxic, Iron-Laden Drainage from a Flooded Anthracite Mine, Pennsylvania, USA: 1. Field Evaluation. – Mine Water Environ., 27(2):67–85, 5 Abb., 2 Tab.; doi:10.1007/s10230-008-0029-5.
• Cravotta, C. A., III, Ward, S. & Hammarstrom, J. (2008): Downflow Limestone Beds for Treatment of Net-Acidic, Oxic, Iron-Laden Drainage from a Flooded Anthracite Mine, Pennsylvania, USA: 2. Laboratory Evaluation. – Mine Water Environ., 27(2):86–99, 3 Abb., 3 Tab.; doi:10.1007/s10230-008-0031-y.
• Cravotta, C. A., III & Watzlaf, G. R. (2002): Design and Performance of Limestone Drains to Increase pH and Remove Metals from Acidic Mine Drainage. – In: Naftz, D., Morrison, S. J., Davis, J. A. & Fuller, C. C. (eds): Handbook of Groundwater Remediation Using Permeable Reactive Barriers – Applications to Radionuclides, Trace Metals, and Nutrients. – p. 19–66, 10 Abb., 4 Tab.; Amsterdam (Academic Press); doi:10.1016/B978-012513563-4/50006-2.
• Cravotta III, C. A. (2024): Geochemical modeling to understand and mitigate aquatic contamination by abandoned mine drainage. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 91–97; Morgantown (International Mine Water Association).
• Cravotta III, C. A. (2025): Water-Quality Modeling Tools to Evaluate Attenuation of Dissolved Constituents by Precipitation and Adsorption Reactions During Treatment of Acid Mine Drainage. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 326–332; Braga (International Mine Water Association).
• Cravotta III, C. A., Tasker, T. L. & Hedin, B. C. (2024): Laboratory and field observations inform geochemical models of treatment strategies to recover rare-earth elements from acid mine drainage. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 98–104; Morgantown (International Mine Water Association).
• Craw, D. (2001): Tectonic controls on gold deposits and their environmental impact, New Zealand. – J. Geochem. Explor., 73(1):43–56, doi:10.1016/s0375-6742(01)00171-6.
• Craw, D., Cavanagh, J., Druzbicka, J., Harding, J. S., Kerr, G., Pope, J. & Trumm, D. (2015): A Geoenvironmental Model for Orogenic Gold Deposits to Predict Potential Environmental Effects. – Mine Water Environ., 34(4):388–403, doi:10.1007/s10230-015-0358-0.
• Craw, D., Kerr, G., Malloch, K. & McLachlan, C. (2017): Storage Of Arsenic-rich Gold Mine Tailings As Future Resources: New Zealand Experience. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 350–357, Lappeenranta (Lappeenranta University of Technology).
• Craw, D., Rufaut, C. & Pillai, D. (2023): Evolution of Alkaline Mine Drainage and Unique Biodiversity on Soil-Free Mine Substrates, Southern New Zealand. – Mine Water Environ., 42(1):3–23, doi:10.1007/s10230-023-00913-x.
• Craw, D., Rufaut, C., Pillai, D. & Kerr, G. (2022): Rehabilitation of Extreme Chemical Substrates on Mine Sites Without Soil in a Semiarid Climate, New Zealand. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 59–64; (International Mine Water Association).
• Crawford, J. (1999): Geochemical Modelling – A Review of Current Capabilities and Future Directions. – SNV Report, 262:1–39.
• Craze, B. (1980): Mine Waste Pollution Control at Captains Flat, New South Wales. – In: Trudinger, P. A., Walter, M. R. & Ralph, B. J. (eds): Biogeochemistry of ancient and modern environments. – p. 705–712, 6 Abb., 3 Tab.; Berlin (Springer); doi:10.1007/978-3-662-26582-6_77.
• Creelman, R. A. (1975): Bougainville copper—further considerations on the problem of mining waste disposal. – Geoforum, 6(3-4):254–257, doi:10.1016/0016-7185(75)90029-9.
• Crespilho, F. N. (2013): Nanobioelectrochemistry. – 137 p., Heidelberg (Springer).
• Cresswell, J. (2016): The geology of Saint Helena, Ascension Island and Tristan da Cunha. – Deposits Magazine, 45:17–23, 46 Abb.
• Creveling, H. F., de Paz, J. F., Baladi, J. Y. & Schoenhals, R. J. (1975): Stability characteristics of a single-phase free convection loop. – J. Fluid Mech., 67(1):65–84, 10 Abb., 1 Tab.; doi:10.1017/S0022112075000171.
• Criado, M. V., Fernandez Pinto, V. E., Badessari, A. & Cabral, D. (2005): Conditions that regulate the growth of moulds inoculated into bottled mineral water. – Int. J. Food Microbiol., 99(3):343–9, doi:10.1016/j.ijfoodmicro.2004.10.036.
• Cripps, J. C., Deaves, A. P., Bell, F. G. & Culshaw, M. G. (1988): Geological Controls on the Flow of Groundwater into Underground Excavations. – Proceedings, 3rd International Mine Water Congress, Melbourne:77–86, 2 Abb., 2 Tab.
• Cristina, A. G. & Alfonso, S. C. (2002): Environmental control made in fifty three opencast mines of the Basque country: attention to acoustic and water contamination. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1109–1115, 1 Abb.; 2 Tab.; Heidelberg (Springer).
• Crittenden, J. C., Trussell, R. R., Hand, D. W., Howe, K. J. & Tchobanoglous, G. (2012): MWH’s Water Treatment: Principles and Design, 3rd edn. – 1920 p., Hoboken (Wiley); doi:10.1002/9781118131473.
• Croall, J. G. (2017): Novel Approach to Acid Pit Lake Treatment and Management. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 495–501, Lappeenranta (Lappeenranta University of Technology).
• Croghan, W. & Egeghy, P. P. (2003): Methods of Dealing with Values Below the Limit of Detection using SAS. Paper presented at the Southeastern SAS User Group, St. Petersburg, FL, September 22–24, 2003. – p. 1–5.
• Cromey, C. J., Nickell, T. D., Black, K. D., Provost, P. G. & Griffiths, C. R. (2002): Validation of Fish Farm Waste Resuspension Model by Use of a Particulate Tracer Discharge from a Point Source in a Coastal Environmen. – Estuaries, 25(5):916–929, 8 Abb., 3 Tab.; doi:10.1007/BF02691340.
• Crooks, J. & Thorn, P. (2016): A sustainable approach to managing the treatment of mine waters associated with historic mining. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1303–1309, Freiberg (TU Bergakademie Freiberg).
• Crosta, G. B. & Clague, J. J. (2009): Dating, triggering, modelling, and hazard assessment of large landslides. – Geomorphology, 103(1):1–4, doi:10.1016/j.geomorph.2008.04.007.
• Crouch, D. P. (1993): Water Management in Ancient Greek Cities. – 380 p., 126 Abb., 11 Tab.; New York (Oxford Univ. Press).
• Croville, J.-L., Cantet, J. & Saby, S. (2011): Water Treatments. – In: Dege, N. (ed) Technology of Bottled Water, 3rd edn. – p. 141–174, Chichester (Wiley-Blackwell); doi:10.1002/9781444393330.ch5.
• Crow, D. R. (1994): Principles and applications of electrochemistry, 4th edn. – 282 p., Boca Raton (Chapman & Hall).
• Croxford, S. J., England, A. & Jarvis, A. P. (2004): Application of the PHREEQC geochemical Computer Model during the Design and Operation of UK Mine Water Treatment Schemes. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 125–134, 8 Tab.; Newcastle upon Tyne (University of Newcastle).
• Crozier, T., Paszkowski, D., Parent, G., Cook, D., Mann, V., Mendoza, C., Provost, H., Martin, A. J., Helsen, J., Bain, J., Blowes, D., Gaspar, C. & Russell, J. (2018): Permeable Reactive Barrier Feasibility Assessment at Goldcorp’s Red Lake Gold Mines: Hydrogeological, Geochemical and Geotechnical Design Considerations. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 579–584; (Tshwane University of Technology).
• Cruden, D. M. & Varnes, D. J. (1996): Landslide Types and Processes. – Transp. Res. Bord Spec. Rep., 247:36–75, 42 Abb., 6 Tab.
• Crundwell, F. K. (2013): The dissolution and leaching of minerals – Mechanisms, myths and misunderstandings. – Hydrometallurgy, 139:132–148, doi:10.1016/j.hydromet.2013.08.003.
• Crundwell, F. K. (2014): The mechanism of dissolution of minerals in acidic and alkaline solutions: Part I — A new theory of non-oxidation dissolution. – Hydrometallurgy, 149:252–264, doi:10.1016/j.hydromet.2014.06.009.
• Crundwell, F. K. (2014): The mechanism of dissolution of minerals in acidic and alkaline solutions: Part II Application of a new theory to silicates, aluminosilicates and quartz. – Hydrometallurgy, 149:265–275, doi:10.1016/j.hydromet.2014.07.003.
• Crundwell, F. K. (2014): The mechanism of dissolution of minerals in acidic and alkaline solutions: Part III. Application to oxide, hydroxide and sulfide minerals. – Hydrometallurgy, 149:71–81, doi:10.1016/j.hydromet.2014.06.008.
• Crush, J. (1989): Customary Rights and Compound Control in Late Colonial Swaziland. – South African Sociological Review, 2(1):37–51, 1 Tab.
• Crusius, J., Pieters, R., Leung, A., Whittle, P., Pedersen, T., Lawrence, G. A. & McNee, J. J. (2003): Tale of two pit lakes: Initial results of a three-year study of the Main Zone and Waterline pit lakes near Houston, British Columbia, Canada. – Min. Eng., 55(2):43–48, 7 Abb.
• Cruz Barrientos, D. A., Benavente Zolezzi, O. M., Navarrete-Calvo, Á. A. & Sánchez-Yáñez, C. E. (2025): Physico-chemical characterisation of pit lakes using Google Earth Engine: Chilean case study. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 939–944; Braga (International Mine Water Association).
• CSIRO & Prosser, I. P. (2011): Water – science and solutions for Australia. – 178 p., Collingwood (CSIRO Publishing).
• Csővári, M., Berta, Z., Csicsák, J., Hideg, J. & Varhegyi, A. (2004): Case Study: Remediation of a former Uranium Mining/Processing Site in Hungary. – In: Prokop, G., Younger, P. L. & Roehl, K. E. (eds): Conference Papers 35. – p. 81–100, 17 Abb., 5 Tab.; Wien (Umweltbundesamt).
• Csővári, M., Éberfalvi, J., Földing, G. & Bakk, L. (2007): Remediation of the former Lead-Zinc Ore Mine and the Mine Water Treatment on the Site (Gyöngyösoroszi, Hungary): Water in Mining Environments. – 159–163 p., 6 Abb., 3 Tab.; Cagliari (Mako Edizioni).
• Cudeiro Cudeiro, O., Rodríguez Díez, R. & Torano Álvarez, J. (1999): Evolution of the Permeability in the Rock Mass related to Mining Works. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 21–25, 11 Abb., 2 Tab.; Sevilla (International Mine Water Association).
• Cuenca, M. C., Hooper, A. J. & Hanssen, R. F. (2013): Surface deformation induced by water influx in the abandoned coal mines in Limburg, The Netherlands observed by satellite radar interferometry. – J. Appl. Geophys., 88:1–11, 9 Abb.; doi:10.1016/j.jappgeo.2012.10.003.
• Cui, D. & Yu, J. (2014): Research on Forecast Method of Multi-source Information of Water Disaster in Coal Mine. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 322–325, Xuzhou (International Mine Water Association).
• Cui, F., Wu, Q., Lin, Y., Zeng, Y. & Zhang, K. (2018): Damage Features and Formation Mechanism of the Strong Water Inrush Disaster at the Daxing Co Mine, Guangdong Province, China. – Mine Water Environ., 37(2):346–350, doi:10.1007/s10230-018-0530-4.
• Cui, M., Hou, E., Feng, D., Che, X., Xie, X. & Hou, P. (2025): Identification of the Water Inrush Source Based on the Deep Learning Model for Mines in Shaanxi, China. – Mine Water Environ.:1–16, doi:10.1007/s10230-024-01021-0.
• Cui, M., Jang, M., Cannon, F. S., Na, S., Khim, J. & Park, J. K. (2013): Removal of dissolved Zn(II) using coal mine drainage sludge: Implications for acidic wastewater treatment. – J. Environ. Manage., 116:107–112, 4 Abb.; doi:10.1016/j.jenvman.2012.12.013.
• Cui, Y.-F., Zhou, X.-J. & Guo, C.-X. (2017): Experimental study on the moving characteristics of fine grains in wide grading unconsolidated soil under heavy rainfall. – J. Mt. Sci., 14(3):417–431, 12 Abb., 3 Tab.; doi:10.1007/s11629-016-4303-x.
• Cukrowska, E., Lusilao-Makiese, J., Tutu, H., Chimuka, L. & Weiersbye, I. (2015): Biogeochemical Cycle of Mercury in Wetlands Ecosystem Affected by Gold Mining in a Semi-arid area. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Cukrowska, E. M., Lusilao-Makiese, J., Tessier, E., Amouroux, D. & Weiersbye, I. (2010): Mercury speciation in gold-mining environments – determination and development of predictive models for transformation, transport, immobilisation and retardation. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 335–339, 3 Abb., 3 Tab.; Sydney, NS (Cape Breton University Press).
• Cukrowska, E. M., Ochieng, L., Tutu, H. & Chimuka, L. (2018): Speciation Analysis of Colloidal Silica in Acidic Conditions. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 103–108; (Tshwane University of Technology).
• Cukrowska, E. M. & Tutu, H. (2008): Assessment of the Mobility of Toxic Elements in Gold Mine Polluted Land – Column Leaching and Computer Modelling. – Proceedings, 10th International Mine Water Association Congress:367–370.
• Cukrowska, E. M., Tutu, H., Chimuka, L. & Mbanga, O. (2017): Mercury Accumulation and Bio-transportation in Wetlands Biota Affected by Gold Mining -Modelling and Remediation. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 312–319, Lappeenranta (Lappeenranta University of Technology).
• Cull, S., Cravotta, C. A., Klinges, J. G. & Weeks, C. (2014): Spectral masking of goethite in abandoned mine drainage systems: Implications for Mars. – Earth and Planetary Science Letters, 403:217–224, doi:10.1016/j.epsl.2014.06.045.
• Cullimore, D. R. (1999): Microbiology of Well Biofouling: Sustainable Well Series 3. – 456 p., Boca Raton (Lewis).
• Cullimore, D. R. (1999): Microbiology of Well Biofouling (PDF-Version): Sustainable Well Series 3. – 456 p., Boca Raton (Lewis).
• Cullimore, D. R. (2008): Practical manual of groundwater microbiology: Sustainable water well Series, 2nd edn. – 376 p., Boca Raton (CRC Press).
• Culshaw, M. G. (1975): The Rockfalls of James Valley, St. Helena – A Preliminary Report giving a summary of Recommendations, 75/10. – 9 p., 4 Abb., 1 Tab.; London (Institute of Geological Sciences – Geophysical Division – Engineering Geology Unit).
• Culshaw, M. G., McCann, D. M. & Donnelly, L. J. (2000): Impacts of abandoned mine workings on aspects of urban development. – Trans. Inst. Min. Metall. Sect. A, 109:A132–A139.
• Cumbie, D. H. & McKay, L. D. (1999): Influence of diameter on particle transport in a fractured shale saprolite. – J. Contam. Hydrol., 37(1-2):139–157, 7 Abb., 1 Tab.
• Cumming, G., Fidler, F. & Vaux, D. L. (2007): Error bars in experimental biology. – J. Cell Biology, 177(1):7–11, 7 Abb., 1 Tab.; doi:10.1083/jcb.200611141.
• Cummings, D. E., March, A. W., Bostick, B., Spring, S., Caccavo, F., Fendorf, S. & Rosenzweig, R. F. (2000): Evidence for Microbial Fe(III) Reduction in Anoxic, Mining-impacted Lake Sediments (Lake Coeur D’Alene, Idaho). – Appl. Environ. Microbiol., 66(1):154–162.
• Cunningham, H. M. & Pontefract, R. (1971): Asbestos Fibres in Beverages and Drinking Water. – Nature, 232(5309):332–333, doi:10.1038/232332a0.
• Cunningham, S. D., Shann, J. R., Crowley, D. E. & Anderson, T. A. (1997): Phytoremediation of Contaminated Water and Soil. – ACS Symp. Ser., 664:2–17, doi:10.1021/bk-1997-0664.ch001.
• Curelea, D., Georgescu, D., Aurelian, F. & Popescu, C. (2005): Environmental impact evaluation of uranifer waste dumps from mining explorations – Barzava mine. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 703–712, Heidelberg (Springer).
• Curran, G. (2017): Social licence, corporate social responsibility and coal seam gas: framing the new political dynamics of contestation. – Energy Policy, 101:427–435, doi:10.1016/j.enpol.2016.10.042.
• Curtis, G. P., Kohler, M. & Davis, J. A. (2009): Comparing Approaches for Simulating the Reactive Transport of U(VI) in Ground Water. – Mine Water Environ., 28(2):84–93, 7 Abb., 1 Tab.; doi:10.1007/s10230-009-0064-x.
• Curtright, A. E. & Giglio, K. (2012): Proceedings and Recommendations from a Roundtable on Feasibility and Challenges. Coal Mine Drainage for Marcellus Shale Natural Gas Extraction, Pittsburgh, December 14, 2011 2011. RAND – Environment, Energy, and Economic Development, Santa Monica, 47 S.
• Cusack, C. C. & Mihelci, J. R. (1999): Sediment Toxicity from Copper in the Torch Lake (MI) Great Lakes Area of Concern. – J. Gt. Lakes Res., 25(4):735–743, doi:10.1016/S0380-1330(99)70773-2.
• Custodio, E. (1978): Las minas de captacion de agua en el macizo volcanico de Famara (Lanzarote, Islas Canarias). Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1169–1194; Maracena (Asociación Nacional de lngenieros de Minas).
• Custodio, E. (2002): Aquifer overexploitation: what does it mean? – Hydrogeol. J., 10(2):254–277, 9 Abb., 1 Tab.; doi:10.1007/s10040-002-0188-6.
• Cutaia, L., Massacci, P. & Sappa, G. (1999): Environmental Impact Minimization Technique by Reuse of Mine Waste and Tailings. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 697–702, 9 Abb., 2 Tab.; Sevilla (International Mine Water Association).
• Cutright, B. L. (1979): Water use possibilities in abandoned iron mines. – Misc. Pap. Geol. Nat. Hist. Surv., 79-3:1–13, 2 Abb., 3 Tab.
• Cvetkovic, V. (2000): Colloid-Facilitated tracer transport by steady random ground-water flow. – Phys. Fluids, 12(9):2279–2294, 4 Abb.; doi:10.1063/1.1287515.
• Czegka, W., Hanisch, C., Junge, F., Zerling, L. & Baborowski, M. (2005): Changes in Uranium concentration in the Weisse Elster River as a mirror of the Remediation in the former WISMUT mining area. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 875–884, Heidelberg (Springer).
• Cziglina, V. (1982): Damage of subterranean mine-water raised at Tatabánya coal mines to the environment, necessary measurements of the environmental pollution control, and the evaluation of experience so far obtained. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, C:27–34.
• Czolbe, P., Kretzschmar, H.-J., Klafki, M. & Heidenreich, H. (1992): Strömungszellen im gefluteten Salzschacht. – N. Bergbautech., 22(6):213–218, 10 Abb.
• Czop, M. & Motyka, J. (2005): Origin of sulphates in the water inflows to Zn-Pb “Pomorzany” mine (Olkusz Zn-Pb ore district, S Poland): Mine Water 2005 – Mine Closure. – 189–194 p., 5 Abb.; Oviedo (University of Oviedo).
• Czop, M., Motyka, J. & Szuwarzyński, M. (2007): Environmental Impact of the AMD buffering Process on the Groundwater Quality in the Trzebionka Zinc-Lead Mine Vicinity (South Poland). – In: Cidu, R. & Frau, F. (eds): Water in Mining Environments. – p. 59–63, 3 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Czop, M., Motyka, J. & Szuwarzyński, M. (2008): Chemical Composition of the Extremely Alkaline Water within “Górka” Pit Lake (Chrzanow Region, South Poland). – Proceedings, 10th International Mine Water Association Congress:559–562.
• Czub, G. & McLachlan, M. S. (2004): Bioaccumulation Potential of Persistent Organic Chemicals in Humans. – Environ. Sci. Technol., 38(8):2406–2412, doi:10.1021/es034871v.
• Czurda, K. (1978): Sedimentologische Analyse und Ablagerungsmodell der miozänen Kohlenmulden der oberösterreichischen Molasse. – Jb. Geol. B.-A., 121(1):123–154, 21 Abb., 2 Tab.
• D. I. N. Deutsches Institut für Normung e.V. DIN 18 130 – Baugrund. – Berlin (Beuth).
• D. I. N. Deutsches Institut für Normung e.V. (1966): DIN 66001 Sinnbilder für Datenfluß- und Programmabläufe. –.
• D. I. N. Deutsches Institut für Normung e.V. (1984): DIN 38404-C6 Deutsche Einheitsverfahren zur Wasser-, Abwasser- und Schlammuntersuchung – Physikalische und physikalisch-chemische Kenngrößen – Bestimmung der Redox-Spannung. – 8 p.
• D. I. N. Deutsches Institut für Normung e.V. (1985): DIN 66 161 – Partikelgrößenanalyse: 12/85. – 3 p., Berlin (Beuth).
• D. I. N. Deutsches Institut für Normung e.V. (1985): DIN 38402-13 Deutsche Einheitsverfahren zur Wasser-, Abwasser- und Schlammuntersuchung – Allgemeine Angaben (Gruppe A) – Probenahme aus Grundwasserleitern. – 14 p.
• D. I. N. Deutsches Institut für Normung e.V. (1987): DIN 51527-1 Prüfung von Mineralölerzeugnissen – Bestimmung polychlorierter Biphenyle (PCB). – 4 p.
• D. I. N. Deutsches Institut für Normung e.V. (1993): DIN EN 27888 Wasserbeschaffenheit – Bestimmung der elektrischen Leitfähigkeit (ISO 7888:1985); Deutsche Fassung EN 27888:1993 –8p.
• D. I. N. Deutsches Institut für Normung e.V. (1994): DIN 1304 – Allgemeine Formelzeichen: 1994-03. – 28 p., Berlin (Beuth).
• D. I. N. Deutsches Institut für Normung e.V. (1995): DIN 38404-C10 Physikalische und pysikalisch-chemische Stoffkenngrößen – Teil 10: Calcitsättigung eines Wassers. – 34 p.
• D. I. N. Deutsches Institut für Normung e.V. (2002): DIN 2848 – Flansch-Rohre aus Stahl und Flansch-Formstücke aus Stahl und Gusseisen mit Auskleidung. –.
• D. I. N. Deutsches Institut für Normung e.V. (2005): DIN EN 872 Deutsche Einheitsverfahren zur Wasser-, Abwasser- und Schlammuntersuchung – Summarische Wirkungs- und Stoffkenngrößen (Gruppe H) – Bestimmung suspendierter Feststoffe — Verfahren durch Abtrennung mittels Glasfaserfilter (H 33). – 15 p.
• D. I. N. Deutsches Institut für Normung e.V. (2009): DIN 38404-C5 Deutsche Einheitsverfahren zur Wasser-, Abwasser- und Schlammuntersuchung – Physikalische und physikalisch-chemische Kenngrößen – Bestimmung des pH-Werts. – 24 p.
• D. I. N. Deutsches Institut für Normung e.V. (2011): DIN 5008 – Schreib- und Gestaltungsregeln für die Textverarbeitung. – 70 p., 7 Abb.; Berlin (Beuth).
• D. I. N. Deutsches Institut für Normung e.V. (2012): DIN 19260 pH-Messung – Allgemeine Begriffe. – 4 p.
• D. I. N. Deutsches Institut für Normung e.V. (2012): DIN 38404-C10 Physikalische und pysikalisch-chemische Stoffkenngrößen – Teil 10: Berechnung der Calcitsättigung eines Wassers (C 10). – 23 p.
• D. I. N. Deutsches Institut für Normung e.V. (2013): DIN 38402-62 Deutsche Einheitsverfahren zur Wasser-, Abwasser- und Schlammuntersuchung – Allgemeine Angaben (Gruppe A) – Plausibilitätskontrolle von Analysendaten durch Ionenbilanzierung. – 10 p.
• d’Abele, M. C. (2020): Cacher le genre par la contrainte pour dire l’indicible – du lipogramme de Perec au «lipogenre» de Garréta [Hide gender through constraint to express the unspeakable – from Perec’s lipogram to Garreta’s “lipogenre”]. – Rev. Ital. Etudes Fr.,(10):12, doi:10.4000/rief.6173.
• d’Obyrn, K., Połeć, M. & Postawa, A. (2017): Use Of Water From The WVII-16 Leak In The Wieliczka Salt Mine (Poland). – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 276–281, Lappeenranta (Lappeenranta University of Technology).
• d’Obyrn, K. & Postawa, A. (2022): Main Key Heritage Adit (Sztolnia Dziedziczna) in Zabrze, Upper Silesian Coal Basin, Poland. – Mine Water Environ., 41(2):573–582, doi:10.1007/s10230-022-00862-x.
• D’Souza, G., Miller, D., Semmens, K. & Smith, D. (2004): Mine Water Aquaculture as an Econornic Development Strategy – Linking Coal Mining, Fish Farming, Water Conservation and Recreation. – J. Appl. Aquacult., 15(1-2):159–173, 6 Abb., 1 Tab.; doi:10.1300/J028v15n01_08.
• Da Gama, E. M. (2010): Experimental Verification Of Equations For Determining The Flow Of Water In Rock Discontinuities. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 653–657, Sydney, NS (Cape Breton University Press).
• Da Pelo, S., Cidu, R., Caboi, R., Musu, E., Frau, F. & Lattanz, P. (2005): Evaluation of the potential release of toxic elements from gold ores and cyanidation tailings in a high sulphidation mining district: Mine Water 2005 – Mine Closure. – 37–44 p., 4 Abb., 4 Tab.; Oviedo (University of Oviedo).
• Da Rosa, C. D. & Lyon, J. S. (1997): Golden dreams, poisoned streams – How Reckless Mining Pollutes America’s Waters, and How We Can Stop It. – Washington (Mineral Policy Center).
• da Silva, R. P., Fonseca, R. M. F., Araújo, J. F. & Gmitrowicz-Iwan, J. (2025): Reactive Barriers for Mine Waters Treatment: an Approach using Alternative and Nature-Based Materials. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 615–620; Braga (International Mine Water Association).
• da Silva, T., Feijão, D. & Reis, A. (2010): Using Multi-parameter Flow Cytometry to Monitor the Yeast Rhodotorula glutinis CCMI 145 Batch Growth and Oil Production Towards Biodiesel. – Appl. Biochem. Biotechnol., 162(8):2166–2176, doi:10.1007/s12010-010-8991-3.
• Dabiri, M. D. & Ward, Y. (2012): Mass-Balance Modelling as a Planning Tool for Water Quality Management at Mine Closure, Premier Gold Project (PGP), Boliden Limited. – 1–12 [USB flash drive] p., 7 Abb., 5 Tab.; Ottawa (Proceedings 9th International Conference on Acid Rock Drainage (ICARD)).
• Dabrowski, J., Oberholster, P. J., Dabrowski, J. M., Le Brasseur, J. & Gieskes, J. (2013): Chemical characteristics and limnology of Loskop Dam on the Olifants River (South Africa), in light of recent fish and crocodile mortalities. – Water SA, 39(5):675–686, 10 Abb., 3 Tab.; doi:10.4314/wsa.v39i5.12.
• Daenecke, R., Johannssen, K., Kums, H., Oswald, K.-D. & Merkel, G. (1999): The Application of Geosynthetics in the Rehabilitation of Tailings Ponds at WISMUT GmbH. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 625–630, 17 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Dagan, G. & Bear, J. (1968): Solving the Problem of Local Interface Upconing in a Coastal Aquifer by the Method of Small Perturbations. – J. Hydraul. Res., 6(1):15–44, doi:10.1080/00221686809500218.
• Daggett, E. (1888): The Russell Process in its Practical Application and Economic Results. – Trans. Am. Inst. Min. Eng., 16:362–495, 7 Abb., 46 Tab., 2 Taf.
• Dahl, A. L. (1984): Oceania’s Most Pressing Environmental Concerns. – Ambio, 13(5/6):296–301, 7 Abb.
• Dahlkamp, F. J. (1993): Uranium ore deposits. – 460 p., Berlin (Springer); doi:10.1007/978-3-662-02892-6.
• Dai, S., Vaillancourt, F. H., Maaroufi, H., Drouin, N. M., Neau, D. B., Snieckus, V., Bolin, J. T. & Eltis, L. D. (2002): Identification and analysis of a bottleneck in PCB biodegradation. – Nat. Struct. Biol., 9(12):934–939, doi:10.1038/nsb866.
• Dai, S., Wong, C. S., Qiu, J., Wang, M., Chai, T., Fan, L. & Yang, S. (2014): Enantioselective accumulation of chiral polychlorinated biphenyls in lotus plant (Nelumbonucifera spp.). – J. Hazard. Mater., 280:612–618, doi:10.1016/j.jhazmat.2014.08.034.
• Daily, W., Ramirez, A., Binley, A. & LaBrecque, D. (2005): Electrical Resistance Tomography – Theory and Practice. – In: Butler, D. K. (ed) Near-Surface Geophysics. – p. 525–550, Houston (Society of Exploration Geophysicists); doi:10.1190/1.9781560801719.ch17.
• Dakos, Z., Kupka, D., Kovarik, M., Jablonovska, K., Kristufek, V. & Achimovicova, M. (2012): Secondary iron minerals present in AMD sediments from Smolnik abandoned mine. – Nova Biotechnol. Chim., 11(2):87–92, doi:10.2478/v10296-012-0009-9.
• Dalasile, P.-k. (2018): Hydrogeological study of geological features in the groundwater system of Tweefontein 360KT farm, Limpopo Province. – 90 p., MSc, University of the Witwatersrand; Johannesburg.
• Dale, C. J. & Jogand, H. (2022): A Holistic Approach to Water and Salt Management in Mining : Biological Treatment Solution to Allow Direct Discharge of Excess Water Instead of Brine Production Through Reverse Osmosis treatment. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 65–69; (International Mine Water Association).
• Dalrymple, J. B., Blong, R. J. & Conacher, A. J. (1968): An hypothetical nine unit landsurface model. – Z. Geomorph., 12:60–76, 1 Abb., 9 Taf.
• Dalvand, A., Gholami, M., Joneidi, A. & Mahmoodi, N. M. (2011): Dye Removal, Energy Consumption and Operating Cost of Electrocoagulation of Textile Wastewater as a Clean Process. – Acta Hydrochim. Hydrobiol., 39(7):665–673, 9 Abb., 1 Tab.
• Daly, R. A. (1927): The Geology of Saint Helena Island. – Proceedings of the American Academy of Arts and Sciences, 62(2):31–92, 5 Abb., 6 Tab., 25 Plat.; doi:10.2307/25130104.
• Daly, R. A., Manger, G. E. & Clark jr, S. P. (1966): Density of Rocks: Handbook of physical constants 4. – 19–26 p., 5 Tab.; Boulder, Colo. (Geological Society of America); doi:10.1130/MEM97-p19.
• Dama-Fakir, P., Coleman, T., Yungwirth, G. & Wille, P. (2024): Mine Water Pinch - increasing reuse/recycle efficiency while optimising water treatment on a mine sites. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 105–110; Morgantown (International Mine Water Association).
• Dama-Fakir, P., Sithole, Z., van Niekerk, A. M., Dateling, J., Maree, J. P., Rukuni, T., Mtombeni, T., Ruto, S., Zikalala, N., Hughes, C., Wurster, A. & Saunders, B. (2017): Mine water treatment technology selection tool: Users’ Guide, TT 711/17. – (Report Nr. 978-0-6392-0032-3). – 86 p., Johannesburg (Water Research Commission).
• Dama-Fakir, P. & Toerien, A. (2009): Evaporation Rates on Brine Produced during Membrane Treatment of Mine Water. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 666–670, 3 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Damons, R. E. & Petersen, F. W. (2002): An Aspen Model for the Treatment of Acid Mine Water. – Eur. J. Miner. Process. Environ. Prot., 2(2):69–81, 7 Abb., 4 Tab.
• Damuchali, A. M., Asadollahfardi, G. & Khodadadi, A. (2012): Effective Parameter Predictions in Metals Transport from the Zanjan Zinc Mine Tailings using PHREEQC. – Mine Water Environ., 31(4):339–343, 9 Abb., 3 Tab.; doi:10.1007/s10230-012-0201-9.
• Danckwerts, P. V. (1953): Continuous flow systems: Distribution of residence times. – Chem. Eng. Sci., 2(1):1–13, doi:10.1016/0009-2509(53)80001-1.
• Dandurand, G., Maire, R., Ortega, R., Deves, G., Lans, B., Morel, L., Perroux, A. S., Vanara, N., Bruxelles, L., Jaillet, S., Billy, I., Martinez, P., Ghaleb, B. & Valla, F. (2011): X-ray fluorescence microchemical analysis and autoradiography applied to cave deposits: speleothems, detrital rhythmites, ice and prehistoric paintings. – Geomorphologie,(4):407–426.
• D'Angelo, E. M., Mahmud, M. D. A. & Unrine, J. M. (2023): Concerns with Passive Anaerobic Bioreactors for Selenium Removal from Coal Slurry Liquid Wastes. – Mine Water Environ., 42(1):40–49, doi:10.1007/s10230-023-00921-x.
• Dangles, O., Malmqvist, B. & Laudon, H. (2004): Naturally acid freshwater ecosystems are diverse and functional: evidence from boreal streams. – Oikos, 104(1):149–155.
• Daniel, J. A., Harries, J. R. & Ritchie, I. M. (1980): Temperature Distributions in an Overburden Dump Undergoing Pyritic Oxidation. – In: Trudinger, P. A., Walter, M. R. & Ralph, B. J. (eds): Biogeochemistry of ancient and modern environments. – p. 630–636, 3 Abb.; Berlin (Springer); doi:10.1007/978-3-662-26582-6_70.
• Daniele, L., Cannatelli, C., Buscher, J. T. & Bonatici, G. (2019): Chemical composition of Chilean bottled waters: Anomalous values and possible effects on human health. – Sci. Total Environ., 689:526–533, doi:10.1016/j.scitotenv.2019.06.165.
• Daniels, A. & Pelleter, U. (2016): Drilling Rescue Boreholes in the Chinese Coal Industry. – Veröff. Dt. Bergbau-Mus. Bochum, 212:163–173.
• Daniels, N. K., Sullivan, N. & Bowman, J. (2016): Comparing Acid and Metal Loading Before and After Stream Capturing Subsidence Closure. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 644–651, Freiberg (TU Bergakademie Freiberg).
• Danner, P. (2015): Görings Geologen in der Ostmark – „Bodenforschung“ in Österreich für den Vierjahresplan von 1936 bis 1939 – eine Archivstudie. – 8. Erbe-Symposium, 109:1–121, 55 Abb., 3 Anl.
• Dano, E., Neziri, A. & Halili, J. (2016): Distribution of Polychlorinated Biphenyls and Organochlorinated Pesticides in the Albanian Part of the Drin and Buna Rivers. – J. Environ. Prot. Ecol., 17(1):102–107, 4 Abb.
• Daraz, U., Li, Y., Ahmad, I., Iqbal, R. & Ditta, A. (2023): Remediation technologies for acid mine drainage – Recent trends and future perspectives. – Chemosphere, 311 doi:10.1016/j.chemosphere.2022.137089.
• Darcy, H. P. G. (1856): Les fontaines publiques de la ville de Dijon – Exposition et application des principes a suivre et des formules a employer dans les questions de distribution d’eau – Ouvrage terminé par un appendice relatif aux fournitures d’eau de plusieurs villes au filtrage des eaux à la fabrication des tuyaux de fonte, de plomb, de tole et de bitume. – 647 p., Paris (Dalmont).
• Darvall, A. W. D. (1971): The Control of Water at Western Deep Levels, Limited. – S. Afr. J. Sci., 67:224–237.
• Darwin, C. R. (1839): Narrative of the surveying voyages of His Majesty’s Ships Adventure and Beagle between the years 1826 and 1836, describing their examination of the southern shores of South America, and the Beagle’s circumnavigation of the globe – Journal and remarks. 1832-1836: III. – London (Henry Colburn).
• Darwin, C. R. (1891): St. Helena. Geological Observations on the Volcanic Islands and Parts of South America visited during the Voyage of H.M.S “Beagle”. – p. 83–109, 3 Abb.; New York (Appleton and Company).
• Das, B. K. & Bhattacharya, J. (2010): Carbon drought and its effects on the biochemical events in a chemo-bioreactor treating Acid Mine Drainage. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 39–43, Sydney, NS (Cape Breton University Press).
• Das, B. K. & Bhattacharya, J. (2013): Process sustenance in an organic carbon exhausted chemo-bioreactor by sweetmeat waste dosing. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 263–268, 6 Abb.; Golden (International Mine Water Association).
• Das, B. K., Roy, A., Koschorreck, M., Mandal, S. M., Wendt-Potthoff, K. & Bhattacharya, J. (2009): Occurrence and role of algae and fungi in acid mine drainage environment with special reference to metals and sulfate immobilization. – Water Res., 43(4):883–94, doi:10.1016/j.watres.2008.11.046.
• Das, R., Ali, M. E., Hamid, S. B. A., Ramakrishna, S. & Chowdhury, Z. Z. (2014): Carbon nanotube membranes for water purification – A bright future in water desalination. – Desalination, 336:97–109, doi:10.1016/j.desal.2013.12.026.
• Das, S., Mondal, D. P., Dasgupta, R. & Prasad, B. K. (1999): Mechanisms of material removal during erosion-corrosion of an Al-SiC particle composite. – Wear, 236(1-2):295–302.
• Dashko, R. & Korotkov, A. (2002): Risk Assessment for Underground Disposal of Radioactive Wastes in Clay Strata. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 135–140, 2 Tab.; Heidelberg (Springer).
• Dassargues, A. (1997): Interpretation and modelling of multi-tracer tests in heterogenious geological media. – IAHS-AISH Publication, 244:217–225, 5 Abb., 2 Tab.
• Dassargues, A., Batelaan, O. & Anceau, A. The First Potentiometric Map. – Groundwater, n/a(n/a) doi:10.1111/gwat.13123.
• Dasypodius, P. (1536): Dictionarium latinogermanicum, 2 edn. – 489 p., Straßburg (Rihel).
• Datel, J. V. & Ekert, V. (2008): Environmental Impact of Mine Water from Chemical Extraction and Underground Uranium Mining – Straz pod Ralskem, Czech Republic. – Proceedings, 10th International Mine Water Association Congress:197–200.
• Dathe, E. (1892): Geologische Beschreibung der Umgebung von Salzbrunn mit 1 geolog. Specialkt. d. Umgebg v. Salzbrunn sowie 2 Kartenntaf. u. 4 Profilen im Text. – Abh. Königl. Preuss. Geol. L.-A., NF 13:1–157, 4 Abb., 1 Karte, 2 Taf. .
• Daughney, C. J., Châtellier, X., Chan, A., Kenward, P., Fortin, D., Suttle, C. A. & Fowle, D. A. (2004): Adsorption and precipitation of iron from seawater on a marine bacteriophage (PWH3A-P1). – Marine Chemistry, 91(1-4):101–115, 3 Abb., 1 Tab.; doi:10.1016/j.marchem.2004.06.003.
• David, K., Timms, W., Baker, A. & McGeeney, D. (2018): Water Sources to Support Swamp Ecosystems near Underground Mining Development. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 808–814; (Tshwane University of Technology).
• Davidson, S. & O’Hara, E. (2015): Mine Water Balance for a Semi-Arid Climate – Overcoming Challenges to Maintain Operations. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Davidson, W. H. (1990): Wildflowers for Reclamation. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 11:elektronisches Dokument.
• Davies, A. W. (1982): Protection against Inrushes in the United Kingdom. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:74–90, 4 Abb.
• Davies, G., Butler, D., Mills, M. & Williams, D. (1997): A survey of ferruginous minewater impacts in the Welsh coalfields. – Water Environ. Manage., 11(2):140–146.
• Davies, G. E. & Calvin, W. M. (2017): Quantifying Iron Concentration in Local and Synthetic Acid Mine Drainage: A New Technique Using Handheld Field Spectrometers. – Mine Water Environ., 36(2):299–309, doi:10.1007/s10230-016-0399-z.
• Davies, H., Weber, P., Lindsay, P., Craw, D. & Pope, J. (2011): Characterisation of acid mine drainage in a high rainfall mountain environment, New Zealand. – Sci. Total Environ., 409(15):2971–2980, doi:10.1016/j.scitotenv.2011.04.034.
• Davies, M., Figueroa, L., Wildeman, T. & Bucknam, C. (2016): The Oxidative Precipitation of Thallium at Alkaline pH for Treatment of Mining Influenced Water. – Mine Water Environ., 35(1):77–85, doi:10.1007/s10230-015-0349-1.
• Davies, N. (1999): Geosynthetic Clay Liners in Mining Applications. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 631–635, 2 Abb.; Sevilla (International Mine Water Association).
• Davies, T., Long, P. & Dunn, R. (2012): Horden Passive Mine Water Treatment Scheme – A collaborative partnership delivering a sustainable solution to the legacy of mine closures on the North East coastline. – 203–205 p., Lancaster (UK Water Projects).
• Davis, A. (2003): A Screening-Level Laboratory Method to Estimate Pit Lake Chemistry. – Mine Water Environ., 22(4):194–205, 9 Abb., 6 Tab.
• Davis, A., Anderson, J. & Byrns, C. (1998): Methods to differentiate between groundwater solute sources. – 54–61 p., 7 Abb.; Princeton (Proceedings 15th Annual National Meeting – American Society for Surface Mining and Reclamation).
• Davis, A. & Lengke, M. (2013): New Insights on Factors Controlling Pit Lake Chemistry. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 955–960, 6 Abb.; Golden (International Mine Water Association).
• Davis, A., Lengke, M., Collord, J. & Sims, N. (2021): Predicted Post-Closure Aqueous Geochemistry at the Cortez Hills Underground Mine, Nevada, USA. – Mine Water Environ., 40(3):639–656, doi:10.1007/s10230-021-00771-5.
• Davis, A., Lengke, M., Sims, N. & Roth, M. (2024): A Review of Viable Mineral Precipitates in Pit Lake Modeling. – Mine Water Environ., 43(2):340–367, doi:10.1007/s10230-024-00989-z.
• Davis, A., Sims, N., Metheny, M., Whitehead, C. & Zhan, G. (2022): Is Treatment of Mine Dewatering Water Necessary Prior to Rapid Infiltration Basin Recharge? A Case Study. – Mine Water Environ., 41(1):58–73, doi:10.1007/s10230-021-00839-2.
• Davis, A., Whitehead, C., Lengke, M. & Collord, J. (2019): Acid-Base Accounting Tests in Combination with Humidity Cells Help to Predict Waste Rock Behavior. – Mine Water Environ., 38(3):467–487, doi:10.1007/s10230-019-00617-1.
• Davis, A., Whitehead, C., Sims, N., Collord, J. & Lengke, M. (2021): Random Mixing of Acid Generating and Neutralizing Waste Rock as a Management Strategy at the Gold Acres Mine, NV USA. – Mine Water Environ., 40(3):752–772, doi:10.1007/s10230-021-00790-2.
• Davis, A. D., Roggenthen, W. M., Stetler, L. D., Hladysz, Z. J. & Johnson, C. S. (2009): Post-closure flooding of the Homestake Mine at Lead, South Dakota. – Min. Eng., 61(3):43–47, 4 Abb., 2 Tab.
• Davis, A. D., Stetler, L. D., Roggenthen, W. M., Hladysz, Z. J. & Salve, R. (2009): Instrumentation of the Homestake Underground Laboratory for Drawdown Measurements During Dewatering. Paper presented at the SME Annual Meeting, Denver. – p. Preprint 09–113 1–4, 2 Abb.
• Davis, C. & Rosenblum, E. (2021): Sustainable Industrial Water Use: Perspectives, Incentives, and Tools. – 451 p., 13 Abb.; London (IWA Publishing); doi:10.2166/9781789060676.
• Davis, G. B., Barber, C. & Buselli, G. (1988): Borehole and Surface Geophysical Monitoring, and Simple Modelling of Groundwater Polluted by Waste Leachates. – Proceedings, 3rd International Mine Water Congress, Melbourne:261–270, 3 Abb., 3 Tab.
• Davis, G. B., Doherty, G. & Ritchie, A. I. M. (1986): A model of oxidation in pyritic mine wastes: part 2: comparison of numerical and approximate solutions. – Applied Mathematical Modelling, 10(5):323–329, doi:10.1016/0307-904X(86)90091-0.
• Davis, G. B. & Ritchie, A. I. M. (1986): A model of oxidation in pyritic mine wastes: part 1 equations and approximate solution. – Applied Mathematical Modelling, 10(5):314–322, doi:10.1016/0307-904X(86)90090-9.
• Davis, G. B. & Ritchie, A. I. M. (1987): A model of oxidation in pyritic mine wastes: part 3: import of particle size distribution. – Applied Mathematical Modelling, 11(6):417–422, doi:10.1016/0307-904X(87)90166-1.
• Davis, J. A. (2008): Modeling Uranium(VI) Retardation in Groundwater. – Proceedings, 10th International Mine Water Association Congress:263–266.
• Davis, J. A., Hyun, S. P., Fox, P. M. & Hayes, K. F. (2009): A Surface Complexation Modelling Approach for Uranium (vi) Transport in Groundwater. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 868–872, 2 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Davis, J. B., Knapp, R. A., Sinclair & K, W. (1979): Control of Seepage from Uranium Mill Tailings Ponds in the Elliot Lake Area: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 726–756 p., 19 Abb., 2 Tab.; San Francisco (Freeman).
• Davis, J. C. (2002): Statistics and Data Analysis in Geology, 3rd edn. – 656 p., New York (Wiley & Sons).
• Davis, M. W. (1994): Identification and remediation of a mine flooding problem in Rico, Dolores County, Colorado with a discussion on the use of tracer dyes. – Colorado Geol. Surv. Open File Rep., 91-1:15, 1 Tab.
• Davis, M. W. (1994): The use of tracer dyes for the identification of a mine flooding problem, Rico, Dolores County, Colorado. – Colorado Geol. Surv. Open File Rep., 91-2:1–20, 7 Abb., 1 Tab.
• Davis, R. V., O’Leary, K., Haynie, T. & Musale, D. (2012): Mine Wastewater Treatment Using Novel Processes: Water in Mineral Processing. – 311–370 p., 5 Abb., 3 Tab.; Littleton (SME).
• Davis, S. N., Campbell, D. J., Bentley, H. W. & Flynn, T. J. (1985): Ground Water Tracers: Cooperative Agreement CR-81003601-0. – 200 p., Dublin (National Ground Water Association).
• Davis, S. N., Thompson, G. M., Bentley, H. W. & Stiles, G. (1980): Ground Water Tracers – A Short Review. – Ground Water, 18(1):14–23, doi:10.1111/j.1745-6584.1980.tb03366.x.
• Davison, J. (1987): The Lambda Process – for Desulfurization of slurry Coal fines prior to Combustion. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 8:elektronisches Dokument, 3 Taf.
• Davison, J. (1987): The Theta Process – A Natural Solution for Acid Pollution. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 8:elektronisches Dokument, 4 Tab.
• Davison, J. (1989): The Application of the Theta IMPPS Technology for Acid Drainage Treatment. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 10:elektronisches Dokument, 10 Abb., 2 Tab.
• Davison, J. (1991): Bio-Carb and Wetlands – passive, affordable Acid Mine Drainage Treatment. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 12:elektronisches Dokument, 2 Anh.
• Davison, J. & Jones, S. (1990): Mine Drainage Bioremediation – The Evolution of the Technology from Microbes to Bio-Carb. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 11:elektronisches Dokument, 6 Abb.
• Davison, W. & Seed, G. (1983): The kinetics of the oxidation of ferrous iron in synthetic and natural waters. – Geochim. Cosmochim. Acta, 47(1):67–79, doi:10.1016/0016-7037(83)90091-1.
• Davodi, M., Esmaili-Sari, A. & Bahramifarr, N. (2011): Concentration of polychlorinated biphenyls and organochlorine pesticides in some edible fish species from the Shadegan Marshes (Iran). – Ecotoxicology and Environmental Safety, 74(3):294–300, doi:10.1016/j.ecoenv.2010.07.045.
• Daw, G. P., Fear, N. J., Jeffery, R. I. & Pollard, C. A. (1988): Hydrogeological Investigations and Ground Treatment for Shaft Sinking at Asfordby New Mine. – Proceedings, 3rd International Mine Water Congress, Melbourne:683–692, 6 Abb., 1 Tab.
• Daw, G. P. & Pollard, C. A. (1986): Grouting for Ground Water Control in Underground Mining. – Int. J. Mine Water, 5(4):1–40, 16 Abb., 5 Tab.
• Dawkins, R. (2007): Das egoistische Gen, 2nd edn. – 530 p., Heidelberg (Springer Spektrum); doi:10.1007/978-3-642-55391-2.
• Dawood, I. & Aubertin, M. (2014): Effect of Dense Material Layers on Unsaturated Water Flow Inside a Large Waste Rock Pile – A Numerical Investigation. – Mine Water Environ., 33(1):24–38, 10 Abb., 2 Tab.; doi:10.1007/s10230-013-0251-7.
• Dawson, J. W. (1983): The published work of Kurt Gödel: an annotated bibliography. – Notre Dame J. Formal Logic, 24(2) doi:10.1305/ndjfl/1093870315.
• Day, B. A. & Nightingale, H. I. (1984): Relationships Between Ground-Water Silica, Total Dissolved Solids, and Specific Electrical Conductivity. – Ground Water, 22(1):80–85, doi:10.1111/j.1745-6584.1984.tb01479.x.
• Day, R. A. & Sakaduski, N. (2011): Scientific English – A guide for scientists and other professionals, 3rd edn. – 225 p., Santa Barbara (Greenwood).
• Day, S. & Kennedy, C. (2015): Setting ARD Management Criteria for Mine Wastes with Low Sulfide and Negligible Carbonate Content. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Day, T. J. (1976): On the Precision of Salt Dilution Gauging. – J. Hydrology, 31:293–306, 3 Abb., 4 Tab.
• Day, T. J. (1977): Field Procedures and Evaluation of a Slug Dilution Gauging Method in Mountain Streams. – J. Hydrol. New Zealand, 16(2):113–133, 8 Abb., 8 Tab.
• de Azevedo e Silva, C. E., Azeredo, A., Lailson-Brito, J., Torres, J. P. M. & Malm, O. (2007): Polychlorinated biphenyls and DDT in swordfish (Xiphias gladius) and blue shark (Prionace glauca) from Brazilian coast. – Chemosphere, 67(9):S48–S53, doi:10.1016/j.chemosphere.2006.05.089.
• de Beer, M. & Maree, J. (2010): Acid Mine Water Reclamation using the ABC Process. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 115–119, Sydney, NS (Cape Breton University Press).
• de Beer, M., Mathews, E., Krueger, D., Maree, J. P., Mbhele, N., Phalanndwa, M. & Novhe, O. (2008): Limestone Neutralisation of Arsenic-Rich Effluent from a Gold Mine. – Mine Water Environ., 27(1):46–51, 7 Abb., 5 Tab.; doi:10.1007/s10230-007-0023-3.
• De Blasio, F. V. (2011): Introduction to the physics of landslides : lecture notes on the dynamics of mass wasting. – 408 p., Dordrecht (Springer).
• De Blasio, F. V. & Medici, L. (2017): Microscopic model of rock melting beneath landslides calibrated on the mineralogical analysis of the Köfels frictionite. – Landslides, 14(1):337–350, 10 Abb., 4 Tab.; doi:10.1007/s10346-016-0700-z.
• de Borst, R. (2002): Fracture in quasi-brittle materials: a review of continuum damage-based approaches. – Engineering Fracture Mechanics, 69(2):95–112.
• de Carvalho Filho, C. A., Silva, C. F. d., Moreira, R. M., Dutra, P. H., Magalhães Ferreira, V. V., Fleming, P. M. & de Aquino Branco, O. E. (2012): Influence of acid mine drainage on river water quality in the vicinity of the Osamu Utsumi uranium mine, Caldas-Minas Gerais, Brazil: International Mine Water Association Symposium. – 685–686 p., Bunbury (Edith Cowan University).
• de Castro, M. D. L. & Priego-Capote, F. (2007): Ultrasound-assisted crystallization (sonocrystallization). – Ultrason. Sonochem., 14:717–724, doi:10.1016/j.ultsonch.2006.12.004.
• de Dinis, M. L. & Fiúza, A. (2005): Simulation of Liberation and Transport of Radium from Uranium Tailings. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 609–618, Heidelberg (Springer).
• de Dinis, M. L. & Fiúza, A. (2008): Modelling and Assessment of Radionuclides Differential Transport in Groundwater. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium, Mining and Hydrogeology. – p. 247–258, Heidelberg (Springer); doi:10.1007/978-3-540-87746-2_33.
• De G. Solms, R. L. (1993): The Flooding of Western Deep Levels No 1 Shaft. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 237–295, 25 Abb., 2 Tab.; Chililabombwe (Konkola Division).
• De Giudici, G., Da Pelo, S., Lorrai, M., Musu, E., Fanfani, L., Ricci, C. & Cama, J. (2007): Arsenopyrite Surface Reactivity: A laboratory Investigation on pH Role: Water in Mining Environments. – 419–422 p., 2 Abb., 2 Tab.; Cagliari (Mako Edizioni).
• De Graaff, L. & Seijmonsbergen, H. (1993): Die eiszeitliche Prozessfolge und Aspekte der jungquartären Talbildung und Hangentwicklung im Walgau; (Exkursion D am 15. April 1993). – Jber. Mitt. oberrhein. geol. Ver., 75:99–125, 8 Abb., 1 Tab.
• De Gregori, I., Fuentes, E., Rojas, M., Pinochet, H. & Potin-Gautier, M. (2003): Monitoring of copper, arsenic and antimony levels in agricultural soils impacted and non-impacted by mining activities, from three regions in Chile. – J. Environ. Monit., 5(2):287–295, doi:10.1039/B211469K.
• De Jesus, A. S. M. (1985): On the behaviour of radium in tailings dams and environmental waters in the Witwatersrand (South Africa) gold/uranium mining area. – Proceedings, 2nd International Mine Water Association Congress, 2:633–645.
• de la Cuadra e Irizar, L. & Prado Calzado, J. (1978): El desague en la mineria espanola. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1157–1167; Maracena (Asociación Nacional de lngenieros de Minas).
• de la Torre, M. L., Grande, J. A., Graiño, J., Gómez, T. & Cerón, J. C. (2011): Characterization of AMD Pollution in the River Tinto (SW Spain). Geochemical Comparison Between Generating Source and Receiving Environment. – Water Air Soil Pollut., 216(1):3–19, doi:10.1007/s11270-010-0510-1.
• de la Torre, M. L., Grande, J. A., Santisteban, M., Valente, T. M., Borrego, J. & Salguero, F. (2014): Statistical Contrast Analysis of Hydrochemical Parameters Upstream of the Tidal Influence in two AMD-Affected Rivers. – Mine Water Environ., 33(3):217–227, 6 Abb., 3 Tab.; doi:10.1007/s10230-013-0258-0.
• de la Torre, M. L., Grande, J. A., Valente, T. M., Perez-Ostale, E., Santisteban, M., Aroba, J. & Ramos, I. (2016): Definition of redox and pH influence in the AMD mine system using a fuzzy qualitative tool (Iberian Pyrite Belt, SW Spain). – Environ. Sci. Pollut. Res., 23(6):5451–5458, doi:10.1007/s11356-015-5718-6.
• de la Torre, M. L., Grande, J. A., Valente, T. M., Santisteban, M., Perez-Ostale, E. & Sanchez-Rodas, D. (2017): A Statistical Determination of the Transit Speed of Pollutants in a Water Reservoir Affected by Acid Mine Drainage from the Iberian Pyrite Belt. – Mine Water Environ., 36(1):34–38, doi:10.1007/s10230-016-0390-8.
• de la Vergne, J. (2014): Hard Rock Miner’s Handbook, 5 edn. – 314 p., 13 Abb., 98 Tab.; Edmonton (Stantec Consulting).
• De Ladurantaye-Noel, M. & Laliberté, M. (2024): Removal of selenium by biological reduction and surface complexation: removal efficiencies and speciation results. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 120–125; Morgantown (International Mine Water Association).
• De Ladurantaye-Noël, M., Laliberté, M., Gadbois, A. & Oliphant, D. S. (2025): Breaking the Toxicity Barrier: A Gold Mine's Journey to Sustainable Wastewater Treatment. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 97–101; Braga (International Mine Water Association).
• De Laguna, W. (1970): Tracer aids interpretation of pumping test. – Water Resour. Res., 6(1):172–183, doi:10.1029/WR006i001p00172.
• De Las Cuevas, C. & Pueyo, J. J. (1995): The influence of mineralogy and texture in the water content of rock salt formations – Its implications in radioactive waste disposal. – Appl. Geochem., 10(3):317–327, 5 Abb., 4 Tab.
• de las Heras, J. G. & de Vega, J. A. R. (1999): Dissolution Mining and environmental Effects in Polanco (Cantabria – Spain). – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 807–814, 8 Abb.; Sevilla (International Mine Water Association).
• de Loe, R. C., Murray, D. & Brisbois, M. C. (2016): Perspectives of natural resource sector firms on collaborative approaches to governance for water. – J. Clean. Prod., 135:1117–1128, doi:10.1016/j.jclepro.2016.06.166.
• de los Hoyos, C. R., Marrero, D. A., Sitjá y Balbastro, J. M., Declercq, J. & Bowell, R. J. (2018): Remediation Options For Wind-remobilised Pb-Zn Old Tailings: An Example From An 80-year Pb-Zn-Ag Mine in NW-Argentina. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 501–506; (Tshwane University of Technology).
• De Lucia, M. & Kühn, M. (2013): Coupling R and PHREEQC: Efficient Programming of Geochemical Models. – Energy Procedia, 40:464–471, doi:10.1016/j.egypro.2013.08.053.
• de M. Vasconcelos, F., Woodhull, J. W., Gimber, C. C. & Fontes, G. L. (2012): Surface Water Treatment Plant for Mn, Ni and Cu at Morro da Mina, Brazil. – 1–12 [USB flash drive] p., 6 Abb., 9 Tab.; Ottawa (Proceedings 9th International Conference on Acid Rock Drainage (ICARD)).
• de Moel, P. J., van der Helm, A. W. C., van Rijn, M., van Dijk, J. C. & van der Meer, W. G. J. (2013): Assessment of calculation methods for calcium carbonate saturation in drinking water for DIN 38404-10 compliance. – Drinking Water Eng. Sci., 6(2):115–124, 5 Abb., 6 Tab.; doi:10.5194/dwes-6-115-2013.
• de Oliveira Ribeiro, M. I. V., Braga, J. K., Rodriguez, R. P. & Sancinetti, G. P. (2020): Effects of Hydraulic Retention Time, COD/SO(4)(2-)Ratio, Influent Iron Concentration, and Sulfate Kinetics on Treatment of a Synthetic Acid Mine Drainage. – Mine Water Environ., 39(4):851–858, doi:10.1007/s10230-020-00715-5.
• De Rance, C. E. (1882): The Water Supply of England and Wales – Its Geology, Underground Circulation, Surface Distribution, and Statistics. – 623 p., London (Stanford).
• de Serres, M. (1823): Voyage dans le Tyrol et une partie de la Bavière, pendant l’année 1811. – 460 p., Paris (Nepveu).
• de Sousa, E. R. (2012): Groundwater modelling meets geochemistry: Building the bridge between FEFLOW and PHREEQC with IFMPhreeqc: International Mine Water Association Symposium. – 473–480 p., Bunbury (Edith Cowan University).
• de Vent, I. (2016): Bergbaufolgen in den Niederlanden – die Rolle der Zeit. – Veröff. Dt. Bergbau-Mus. Bochum, 217:127–131.
• De Vente, C. P. (1993): Water Occurrences and Dewatering Practice at Nkana Division. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 220–236, 5 Abb., 2 Tab.; Chililabombwe (Konkola Division).
• de Vicq, R., Albuquerque, T., Fonseca, R. & Garcia Praça Leite, M. (2020): Catastrophe Vulnerability and Risk Mapping in the Iron Quadrangle, Brazil – Preliminary Results in the Rio das Velhas Watershed. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 13–19; (International Mine Water Association).
• de Villiers, S. & de Wit, M. J. (2007): Sources of river water radiogenic strontium – Examples from the Achaean granite dominated catchments of Swaziland. – S. Afr. J. Geol., 110(2–3):349–366, doi:10.2113/gssajg.110.2-3.349.
• De Visscher, G., Haseldonckx, M. & Flameng, W. (2006): Fluorescent microsphere technique to measure cerebral blood flow in the rat. – Nature protocols, 1(4):2162–70, doi:10.1038/nprot.2006.332.
• de Voogt, P. & Brinkman, U. A. T. (1989): Production, properties and usage of polychlorinated biphenyls. – In: Kimbrough, R. D. & Jensen, A. A. (eds): Halogenated biphenyls, terphenyls, naphthalenes, dibenzodioxins and related products, 2nd edn. – p. 3–45, 10 Abb., 27 Tab.; Amsterdam (Elsevier); doi:10.1016/B978-0-444-81029-8.50005-9.
• de Vries, A. H. (1989): The overall accuracy of the measurement of flow. – In: Bos, M. G. (ed) Discharge measurement structures. – p. 356–367, 17 Abb., 1 Tab.; Wageningen (International Institute for Land Reclamation and Improvement).
• de Vries, J. & Simmers, I. (2002): Groundwater recharge: an overview of processes and challenges. – Hydrogeol. J., 10(1):5–17, doi:10.1007/s10040-001-0171-7.
• de Wet, B., Genthe, B., Musvoto, C., Roberts, D., Moyo, E., Archer, E., Magwedegwede, F., John, J., Nortje, K., Hill, L., Haywood, L., van Schoor, M., Walters, M., Osman, M., Funke, N., Oberholster, P., Ntshosho, P., Garland, R., Oelofse, S., Masindi, V., de Lange, W. & Stafford, W. (2019): A CSIR perspective on South Africa’s post-mining landscape. – (Report Nr. stelgen16928). – 56 p., Pretoria (CSIR).
• de Wet, L. D. & Sidu, S. (2013): Water Quality and Compliance Monitoring of Treated Underground and Surface Water at the Grootvlei Proprietary Mines and the Blesbokspruit Wetland, Springs, South Africa. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 825–830, 1 Tab.; Golden (International Mine Water Association).
• Deák, G., Mihai, S., Deák, t. E. & Oancea, I. (2007): How to Prevent the Risk of Surface Water Intrusion in the old Praid Salt Mines (Romania): Water in Mining Environments. – 65–69 p., 8 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Deák, G., Mihai, S., Deák, S. E. & Oancea, I. (2007): Addressing the Risk of Surface Water Intrusion in Old Romanian Salt Mines. – Mine Water Environ., 26(4):251–255, 8 Abb., 1 Tab.; doi:10.1007/s10230-007-0011-7.
• Deák, J., Kerbolt, T. & Szlabóczky, P. (1982): The Effect of Lithologic Heterogeneity on the Transmissivity of sandy Layers among Lignite Seams. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:184–191, 3 Abb., 1 Tab.
• Deakin, L., Docking, M., Graf, C., Jones, J., Joshua, S., McKerahan, T., Ottmar, M., Stevens, A., Wates, E. & Wyatt, D. (2014): Best Practice Guidelines on Publishing Ethics – A Publisher’s Perspective. – 53 p., Hoboken (Wiley & Sons).
• Dean, D. M., Fricke, J. R., Riese, A. C., Moore, T. J. & Brown, A. R. (2022): Passive Treatment of Circumneutral Mine Drainage from the St. Louis Mine Tunnel, Rico CO: Part 2—Vertical Biotreatment Train Pilot Study. – Mine Water Environ., 41(4):871–885, doi:10.1007/s10230-022-00857-8.
• Dean, J., Alkhazraji, B. & Sapsford, D. (2021): Alternative Reagents for the Treatment of Pb-Zn Mine Drainage in Wales. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 109–114; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Dean, R. M. (1978): Mining in the Southern Africa Region. – Unpubl. Report for to the Congress on development Needs and Opportunities for Cooperation in Southern Africa – Annex B Mining (Report Nr. afr-C-1424). – 57 p., Washington (United States Agency for International Development).
• Deb, D., Deshpande, V. N. & Das, K. C. (2008): Assessment of Water Quality around Surface Coal Mines using Principal Component Analysis and Fuzzy Reasoning Techniques. – Mine Water Environ., 27(3):183–193, 8 Abb., 6 Tab.; doi:10.1007/s10230-008-0030-z.
• Deb, P. K. (2014): An Introduction to Mine Hydrogeology: Springer Briefs in Water Science and Technology. – 54 p., Cham (Springer); doi:10.1007/978-3-319-02988-7.
• Debnath, A. K., Basu, D., Pandey, V. K. & Agarawal, M. (2013): Mine Void as Freshwater Reservoir – An Eco-Friendly Concept of Coal India Limited. Paper presented at the World Mining Congress, Montreal. – 4 Abb., 7 Tab.; (CIMM).
• Deck, O., Verdel, T. & Salmon, R. (2009): Vulnerability Assessment of Mining Subsidence Hazards. – Risk Anal., 29(10):1381–1394, doi:10.1111/j.1539-6924.2009.01238.x.
• Decker, D. L. & Tyler, S. W. (1999): Evaluation of flow and solute transport parameters for heap leach recovery materials. – J. Environ. Qual., 28(2):543–555, doi:10.2134/jeq1999.00472425002800020020x.
• Deckert, H., Kriebs, K., Münch, M., Streb, C., Wieber, G. & Malm, F. (2011): Erstellung einer Geothermiepotenzialanalyse für das Saarland. – 184 p., Bingen (Institut für geothermisches Ressourcenmanagement).
• Declercq, J., De Los Hoyos, C., Griffith, R. & Bowell, R. (2018): The Challenges of Predictive Numerical Calculation within Hypersaline Brines: Examples from Lithium Brines. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 321–327; (Tshwane University of Technology).
• Declercq, J., Tait, D. & Bowell, R. (2016): Modeling Cyanide Degradation in Heap Leach Systems: From Laboratory to Reality. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 417–424, Freiberg (TU Bergakademie Freiberg).
• Deemer, B. R., Henderson, S. M. & Harrison, J. A. (2015): Chemical mixing in the bottom boundary layer of a eutrophic reservoir: The effects of internal seiching on nitrogen dynamics. – Limnol. Oceanogr., 60(5):1642–1655, 7 Abb., 1 Tab.; doi:10.1002/lno.10125.
• Deen, S. G., Bondici, V. F., Essilfie-Dughan, J., Hendry, M. J. & Barbour, S. L. (2018): Biotic and Abiotic Sequestration of Selenium in Anoxic Coal Waste Rock. – Mine Water Environ., 37(4):825–838, doi:10.1007/s10230-018-0546-9.
• Defossez, A.-J., Londe, L., Cabon, F. & Roux, P. (2013): Hydrogeological Aspects during Closure of an Underground LPG Storage. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1205–1210, 4 Abb.; Golden (International Mine Water Association).
• Dege, E. (1964): Der Kohlenbergbau auf Spitzbergen. – Polarforschung, 34(1/2):268–273, 1 Abb.
• Dege, N. (2011): Technology of Bottled Water. – 446 p., Chichester (Wiley-Blackwell); doi:10.1002/9781444393330.
• Degering, D., Schlenker, S. & Unterricker, S. (2003): Forest Soil Development as investigated by Radioisotope Distributions. – Wiss. Mitt. Inst. Geol., 24:27–36, 4 Abb., 4 Tab.
• Degner, T. (2003): Prognose von geochemischen Auswirkungen der Nachnutzung stillgelegter Bergbau-Stollen-Systeme am Beispiel des Freiberger Grubenreviers. – 145 p., Freiberg (Dissertation TU Bergakademie Freiberg).
• DeHay, K. L. (2003): Assessment and Comparison of 1976-77 and 2002 Water Quality in Mineshafts in the Picher Mining District, Northeastern Oklahoma and Southeastern Kansas. – Water Resour. Investig. Rep., WRI 03–4248:65, 6 Abb., 2 Tab., 2 Anh.
• DeHay, K. L., Andrews, W. J. & Sughru, M. P. (2004): Hydrology and Ground-Water Quality in the Mine Workings within the Picher Mining District, Northeastern Oklahoma, 2002–03. – U. S. Geol. Surv. Sci. Investig. Rep., 2004-5043:62, 24 Abb., 4 Tab., 4 Anh.; doi:10.3133/sir20045043.
• Dehmer, J. (2004): A short report of the investigations made on the facies of German coal deposits. – Int. J. Coal Geol., 58:41– 51, 6 Abb., 3 Tab.; doi:10.1016/j.coal.2003.06.003.
• Dehnert, J., Neitzel, P., Döring, U., Lankau, R., Schneider, P., Freyer, K. & Kuhn, K. (2003): Bestimmung geeigneter Förderraten bei der Grundwasserprobennahme mithilfe von Partikel- und Radonmessungen. – Grundwasser,(2):91–102, 7 Abb., 2 Tab.
• Dehnert, J., Nestler, W., Freyer, K. & Treutler, H.-C. (1999): Messung der Infiltrationsgeschwindigkeit von Oberflächenwasser mit Hilfe des natürlichen Isotops Radon-222. – Grundwasser, 4(1):18–30, 9 Abb., 2 Tab.
• Dehoust, G., Wiegmann, K., Fritsche, U., Stahl, H., Jenseit, W., Herold, A., Cames, M. & Gebhardt, P. (2005): Beitrag der Abfallwirtschaft zum Klimaschutz – Umweltstudie: Forschungsbericht 205 33 314 UBA-FB III. – 65 p., 12 Abb., 42 Tab.; Berlin (RT Reprotechnik).
• Deichmann, N. & Giardini, D. (2009): Earthquakes Induced by the Stimulation of an Enhanced Geothermal System below Basel (Switzerland). – Seismological Research Letters, 80:784–798, doi:10.1785/gssrl.80.5.784.
• Deissmann, G., Kistinger, S. & Plüger, W. L. (1997): Geochemical assessment of passive treatment methods for acid mine waters from a flooded uranium mine – Abstract. – Open-File Rep. US Geol. Surv., OF 97-0496:19.
• del Olmo, C., Montero, J. & Valls, D. (2025): Hydrogeological investigation and mine design to prevent the mining impact of the future exploitation of Lithium “Valdeflorez Project” to El Calerizo aquifer (Cáceres, Spain). Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 621–627; Braga (International Mine Water Association).
• Delaney, K. B. & Evans, S. G. (2011): Rockslide Dams in the Northwest Himalayas (Pakistan, India) and the Adjacent Pamir Mountains (Afghanistan, Tajikistan), Central Asia. – In: Reitner, J., Trauth, M. H., Stüwe, K. & Yuen, D. (eds): Lecture notes in earth sciences. – p. 205–242, 23 Abb.; Berlin (Springer).
• Delaune, R. D. & Reddy, K. R. (2005): Redox Potential. – In: Hillel, D., et al. (eds): Encyclopedia of Soils in the Environment 3. – p. 366–371, 5 Abb., 1 Tab.; (Academic Press).
• Delgado, J. L. (2005): Rehabilitation of Meirama Pit Lake: Mine Water 2005 – Mine Closure. – 267–272 p., 5 Abb., 5 Tab.; Oviedo (University of Oviedo).
• Deligiannakis, Y., Georgiou, Y., Mouzourakis, E. & Konstantinou, I. (2015): Low-Cost Carbon-Based Materials for Selective Removal of As(III) from Waste Waters. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–8 [electronic document], Santiago/Chile (Gecamin).
• Deline, P., Hewitt, K., Reznichenko, N. & Shugar, D. (2015): Rock Avalanches onto Glaciers. – In: Davies, T. & Shroder Jr., J. F. (eds): Landslide Hazards, Risks and Disasters. – p. 263–319, 15 Abb., 3 Tab.; Amsterdam (Elsevier); doi:10.1016/b978-0-12-396452-6.00009-4.
• Delistraty, D. (2013): Ecotoxicity and risk to human fish consumers of polychlorinated biphenyls in fish near the Hanford Site (USA). – Sci. Total Environ., 445-446:14–21, doi:10.1016/j.scitotenv.2012.12.028.
• Delle Sitea, A. (2001): Factors Affecting Sorption of Organic Compounds in Natural Sorbent/Water Systems and Sorption Coefficients for Selected Pollutants. A Review. – J. Phys. Chem. Ref. Data, 30(1):187–439, doi:10.1063/1.1347984.
• Delzell, E., Doull, J., Giesy, J., Mackay, D., Munro, I. & Williams, G. (1994): Polychlorinated biphenyls. – Regul. Toxicol. Pharm., 20(1, Part 2):S187–S307, doi:10.1016/S0273-2300(05)80021-2.
• Demčák, Š. & Bálintová, M. (2016): Study of Inorganic Pollutants Removal from Acid Mine Drainage by Hemp Hurds. – Sel. Sci. Pap. – J. Civ. Eng., 11(2):129–134, doi:10.1515/sspjce-2016-0025.
• Demchak, J., McDonald Jr, L. M. & Skousen, J. G. (2002): Water Quality from Underground Coal Mines in Northern West Virginia (1968-2000). – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 23:1–13 [CD–ROM], 2 Abb., 5 Tab.
• Demchak, J., Skousen, J. G., Bryant, G. & Ziemkiewicz, P. (2000): Comparison of Water Quality from Fifteen Underground Coal Mines in 1968 and 1999: Icard 2000. – Denver (Proceedings 5th International Conference of Acid Rock Drainage (ICARD)).
• Demchak, J., Skousen, J. G. & McDonald, L. M. (2004): Longevity of Acid Discharges from Underground Mines Located above the Regional Water Table. – J. Environ. Qual., 33(2):656–668, 6 Abb., 6 Tab.
• Demers, I., Benzaazoua, M., Mbonimpa, M., Bouda, M., Bois, D. & Gagnon, M. (2015): Valorisation of acid mine drainage treatment sludge as remediation component to control acid generation from mine wastes, part 1: Material characterization and laboratory kinetic testing. – Miner. Eng., 76:109–116, doi:10.1016/j.mineng.2014.10.015.
• Demetriades, A. (2010): General ground water geochemistry of Hellas using bottled water samples. – J. Geochem. Expl., 107(3):283–298, doi:https://doi.org/10.1016/j.gexplo.2010.10.012.
• Demetriades, A. (2010): Use of measurement uncertainty in a probabilistic scheme to assess compliance of bottled water with drinking water standards. – J. Geochem. Expl., 107(3):410–422, doi:https://doi.org/10.1016/j.gexplo.2010.11.001.
• Demin, O. A. & Dudeney, A. W. L. (2003): Nitrification in Constructed Wetlands Treating Ochreous Mine Water. – Mine Water Environ., 22(1):15–21, 8 Abb., 1 Tab.; doi:10.1007/s102300300003.
• Demirer, T., Kaleli, Ş. & Şimşek, U. (2000): Çanakkale Dümrek Göleti sulama suyu kalitesi ve kullanılma sorunlarının belirlenmesi [Irrigation water quality of Çanakkale Dümrek Dam and usability problems]. – Selçuk Univ. Ziraat Fak. Derg., 14(24):11–17.
• Demková, L., Árvay, J., Bobuľská, L., Hauptvogl, M. & Michalko, M. (2019): Activity of the soil enzymes and moss and lichen biomonitoring method used for the evaluation of soil and air pollution from tailing pond in Nižná Slaná (Slovakia). – J Environ Sci Health A Tox Hazard Subst Environ Eng, 54(6):485–497, doi:10.1080/10934529.2019.1567158.
• Demopoulos, G. P., Zinck, J. M. M. & Kondos, P. D. (1997): Multiple stage precipitation of heavy metals from acidic aqueous solution. Us Patent 5,672,280, 30.9.1997.
• Dempsey, B. A. & Jeon, B.-H. (2001): Characteristics of sludge produced from passive treatment of mine drainage. – Geochem.-Explor. Environ. Anal., 1:89–94, 5 Abb., 5 Tab.; doi:10.1144/geochem.1.1.89.
• Dempsey, B. A., Roscoe, H. C., Ames, R., Hedin, R. & Jeon, B.-H. (2001): Ferrous oxidation chemistry in passive abiotic systems for the treatment of mine drainage. – Geochemistry: Exploration, Environment, Analysis, 1(1):81–88, doi:10.1144/geochem.1.1.81.
• Den Hond, E., Roels, H. A., Hoppenbrouwers, K., Nawrot, T., Thijs, L., Vandermeulen, C., Winneke, G., Vanderschueren, D. & Staessen, J. A. (2002): Sexual maturation in relation to polychlorinated aromatic hydrocarbons: Sharpe and Skakkebaek’s hypothesis revisited. – Environ. Health Perspect., 110(8):771–776, doi:10.1289/ehp.02110771.
• Denby, B., Hassani, F. P. & Scoble, M. J. (1982): The Influence of Water on the Shear Strength of Coal Measures Rocks and Discontinuities in Surface Mining. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:334–345, 1 Abb., 3 Tab.
• Denby, B. & Scoble, M. J. (1985): The Influence of Groundwater Pressure on Mine Slope Stability Analysis. – Proceedings, 2nd International Mine Water Association Congress, 1:191–202, 5 Abb.
• Denckmann, A. (1901): Geologische Untersuchung der Wolkersdorfer Quelle bei Frankenberg in Hessen. – Z. f. prakt. Geol., 9:1–9, 5 Abb.
• Dendle, P. (2006): Cryptozoology in the medieval and modern worlds. – Folklore, 117(2):190–206, doi:10.1080/00155870600707888.
• Deng, A.-P., Kolář, V., Ulrich, R. & Fránek, M. (2002): Direct competitive ELISA for the determination of polychlorinated biphenyls in soil samples. – Anal. Bioanal. Chem., 373:685–690, doi:10.1007/s00216-002-1311-1.
• Deng, J., Xu, Y., Cheng, H., Li, J., Zhou, G. & Zhang, C. (2018): Experimental Study of Removal of Organic Matters from Alkaline Uranium Leaching Solution with Ultrafiltration. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 109–113; (Tshwane University of Technology).
• Deng, Y., Nordstrom, D. K. & Blaine McCleskey, R. (2011): Fluoride geochemistry of thermal waters in Yellowstone National Park: I. Aqueous fluoride speciation. – Geochim. Cosmochim. Acta, 75(16):4476–4489, doi:10.1016/j.gca.2011.05.028.
• Deng, Y. & Zhao, R. (2015): Advanced Oxidation Processes (AOPs) in Wastewater Treatment. – Curr. Pollut. Rep., 1(3):167–176, doi:10.1007/s40726-015-0015-z.
• Dengel, I. P. (1932): Eine Beschreibung Tirols aus dem Jahre 1471. – Veröff. Mus. Ferdinandeum, 12:205–232.
• Denholm, C., Lamagna, N. & Busler, S. (2024): Datashed: an online tool for managing AMD treatment systems and restoration of impacted watersheds. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 126–129; Morgantown (International Mine Water Association).
• DeNicola, D. M. & Stapleton, M. G. (2002): Impact of acid mine drainage on benthic communities in streams: the relative roles of substratum vs. aqueous effects. – Environ. Pollut., 119(3):313–315, 4 Abb., 6 Tab.; doi:10.1016/S0269-7491(02)00106-9.
• Denicola, T. A. (2024): Navigating difficult site constraints to facilitate ecological recovery of an impaired watershed. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 130–135; Morgantown (International Mine Water Association).
• Denková, Z. (2019): Miners’ Folk Art in the Collections of Slovak Mining Museum. – Muzeologia a Kulturne Dedicstvo –Museology and Cultural Heritage, 7(2):137–151.
• Dennis, I. & Dennis, R. (2015): A Source Apportionment Methodology for South African Gold Mines. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Dennis, I. & Dennis, R. (2017): Financial Modelling For Mine Discharge Treatment Options. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 649–655, Lappeenranta (Lappeenranta University of Technology).
• Dennis, R. & Dennis, I. (2016): Open Pit Mine Flooding Prognosis making use of Analytical Element Modelling in Fractured Hard Rock. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1141–1148, Freiberg (TU Bergakademie Freiberg).
• Dennis, R. & Dennis, I. (2017): Spring Flow Estimation After Mine Flooding In A Dolomitic Compartment. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 656–663, Lappeenranta (Lappeenranta University of Technology).
• Dennis, R., Dennis, I., Mokadem, N. & Smit, S. (2020): Investigate the possible reduction of mine water ingress by introducing tree plantations: Case study of Cooke 4 mine (South Africa). – J. Afr. Earth Sci., 161:103660, doi:10.1016/j.jafrearsci.2019.103660.
• Dennis, S. R., Dennis, I. & Johnstone, A. (2013): Mine flooding prognosis making use of EPANET. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 961–966, 8 Abb.; Golden (International Mine Water Association).
• Dennison, F. E. (2002): Constructed Wetlands for the Treatment of British Mine Drainage Waters – A Biogeochemical Approach. – 282 p., PhD, University of Wales; Bangor.
• Dent, J., Barnes, A., Gersten, B., Roberts, M., Williams, T. & Eckhardt, T. (2021): Laboratory Testing To Determine The Effectiveness Of Capping And Risk Of Long-term Metal Release From Mine Waste At The Abandoned Abbey Consols Lead-Zinc Mine, Wales, UK. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 115–121; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Dent, J., Pearce, S., Malam, C., Barnes, A., Roberts, M. & Mueller, S. (2023): Review Of Laboratory Methodologies To Determine The Sorption And Release Of Metals Related To The Interaction Of Mine Drainage Water With Natural Media (Peat, Till And Bedrock). A Case Study From A Base Metal Mine In Arctic Finland. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 135–141; (International Mine Water Association).
• Dent, J., Pearce, S., Savage, R., Marsden, J., Schultz, R., Williams, T., Stanley, P., Roberts, M., Barnes, A. & Gersten, B. (2023): Optimising Circum-Neutral Mine Drainage Treatment By Implementing High Shear Degassing Into A Sustainable Active Treatment System. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 129–134; (International Mine Water Association).
• Dent, J., Rötting, T. & Williams, M. (2016): 3D geological modelling for geo-environmental characterization of mineral deposits and pragmatic management of geochemical risks. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1246–1248, Freiberg (TU Bergakademie Freiberg).
• Dent, J., Rötting, T. & Williams, M. (2016): Effects of scale of kinetic tests on leachate chemistry prediction. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 337–345, Freiberg (TU Bergakademie Freiberg).
• Dent, J., Williams, M. & Draba, B. (2018): Bespoke Field Columns To Assess Hexavalent Chromium Risk For Refinement Of Mine Closure Plans. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 3–8; (Tshwane University of Technology).
• Department of Mineral Resources (2014): South Africa’s Mineral Industry 2012/2013, 30th edn. – 223 p., 87 Abb., 130 Tab.; Pretoria.
• Department of Water Affairs (2013): Assessment of the Water Quantity and Quality of the Witwatersrand Mine Voids, 5.2. – (Report Nr. DWA Report № P RSA 000/00/16512/2). – 185 p., Johannesburg.
• Department of Water Affairs and Forestry (1996): South African Water Quality Guidelines – Volume 1 Domestic Use, 2 edn. – 175 p., Pretoria (Department of Water Affairs and Forestry).
• Department of Water Affairs and Forestry (1996): South African Water Quality Guidelines – Volume 4 Agricultural Use : Irrigation, 2 edn. – 180 p., Pretoria (Department of Water Affairs and Forestry).
• Department of Water Affairs and Forestry (1996): South African Water Quality Guidelines – Volume 8 Field Guide, 2nd edn. – 58 p., Pretoria (Department of Water Affairs and Forestry).
• Department of Water Affairs and Forestry South Africa (2009): Vaal River System: Large bulk water supply reconciliation strategy: second stage reconciliation strategy (March 2009). – (Report Nr. P RSA C000/00/4406/08). – 90 p., Pretoria (Department of Water Affairs and Forestry).
• Department of Water and Sanitation (DWS) (2018): National Water and Sanitation Master Plan – Ready for the Future and Ahead of the Curve: 1–3. – 68, 259, 63 p., Pretoria (Department of Water and Sanitation (DWS)).
• Deppe, M., McKnight, D. M. & Blodau, C. (2009): Effects of Short-Term Drying and Irrigation on Electron Flow in Mesocosms of a Northern Bog and an Alpine Fen. – Environ. Sci. Technol., 44(1):80–86, doi:10.1021/es901669z.
• Derakhshani, J. (1999): Kupfer und Lapislazuli in Text und Archäologie [Copper and Lapis Lazuli in Old Texts and Archaeology]: Ein Beitrag für die Publikation Türkis und Azur. Kieselkeramik im Orient und Okzident. – Kassel (Staatliche Museen Kassel).
• Derham, J., Dhonau, N. B. & Wright, G. R. (1999): Mine Closure Planning in Ireland: Water Aspects. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 143–148, Sevilla (International Mine Water Association).
• Derraik, J. G. B. (2002): The pollution of the marine environment by plastic debris – a review. – Mar. Pollut. Bull., 44:842–852, doi:10.1016/S0025-326X(02)00220-5.
• DeSa, T. C., Brown, J. F. & Burgos, W. D. (2010): Laboratory and Field-scale Evaluation of Low-pH Fe(II) Oxidation at Hughes Borehole, Portage, Pennsylvania. – Mine Water Environ., 29(4):239–247, 7 Abb., 2 Tab.; doi:10.1007/s10230-010-0105-5.
• Desbarats, A. J., Parsons, M. B. & Percival, J. B. (2015): Arsenic mobility in mildly alkaline drainage from an orogenic lode gold deposit, Bralorne mine, British Columbia. – Appl. Geochem., 57:45–54, doi:10.1016/j.apgeochem.2014.11.015.
• Desbarats, A. J., Percival, J. B. & Venance, K. E. (2016): Trace element mobility in mine waters from granitic pegmatite U-Th-REE deposits, Bancroft area, Ontario. – Appl. Geochem., 67:153–167, doi:10.1016/j.apgeochem.2016.02.010.
• Desborough, G. A. (1992): Ion exchange capture of copper, lead, and zinc in acid-rock drainages of Colorado using natural clinoptilolite; preliminary field studies. – Open-File Rep. US Geol. Surv., OF 92-0614:16, 7 Abb., 2 Tab.; doi:10.3133/ofr92614 .
• Desch, C. H. (1938): Henry Louis Le Chatelier, 1850–1936 (Obituary). – Obit. Not. Fell. R. Soc., 1938(2):250–259, 1 Abb.
• Desforges, J.-P., Hall, A., McConnell, B., Rosing-Asvid, A., Barber, J. L., Brownlow, A., De Guise, S., Eulaers, I., Jepson, P. D., Letcher, R. J., Levin, M., Ross, P. S., Samarra, F., Víkingson, G., Sonne, C. & Dietz, R. (2018): Predicting global killer whale population collapse from PCB pollution. – Science, 361(6409):1373–1376, doi:10.1126/science.aat1953.
• DeSisto, S. L., Parsons, M. B. & Jamieson, H. E. (2010): Using Hydrogeochemical Data to Improve Remediation of Historical Gold Mine Tailings in Nova Scotia. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 575–579, Sydney, NS (Cape Breton University Press).
• Desmau, M., Simister, R., Baldwin, S. A. & Nielsen, G. (2024): Correction: Metal(loid)s Removal Response to the Seasonal Freeze-Thaw Cycle in Semi-passive Pilot Scale Bioreactors (Vol 91, September 2024). – Mine Water Environ., 43(4):758–758, doi:10.1007/s10230-024-01010-3.
• Desmau, M., Simister, R., Baldwin, S. A. & Nielsen, G. (2024): Metal(loid)s Removal Response to the Seasonal Freeze-Thaw Cycle in Semi-passive Pilot Scale Bioreactors. – Mine Water Environ., 43(3):474–490, doi:10.1007/s10230-024-00999-x.
• Destrigneville, C., Castet, S., Munoz, M., Courjault Radé, P., Ghorbel, M., Souissi, R., Souissi, F., Ben Mammou, A. & Abdeljaouad, S. (2010): Are abandoned mine tailings of Northern Tunisia a source of metal contamination in surface water? – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 579–583, Sydney, NS (Cape Breton University Press).
• Dettrick, D., Barnett, B., Grace, D. & Toki, H. (2012): Post-closure mining pit lake water quality modelling: International Mine Water Association Symposium. – 517–524 p., Bunbury (Edith Cowan University).
• Dettrick, D., Bourgeot, N., Costelloe, J., Yuen, S. & Arora, M. (2019): The Effect of Particle Size on Mine Waste Sulfide Oxidation Rates and Conceptual Treatment Costs. – Mine Water Environ., 38(4):735–745, doi:10.1007/s10230-019-00641-1.
• Deul, M. & Mihok, E. A. (1967): Mine Water Research – Neutralization. – Bur. Mines Rep. Invest., 6987:1–24, 18 Abb., 3 Tab.
• Deusner, C. (2003): Entwicklung einer Technologie zur langzeitstabilen Biologischen Reinigung schwermetallbelasteter Bergbauwässer. – 174 p., 68 Abb., 38 Tab.; Dresden (Unveröff. Dissertation Techn. Univ. Dresden).
• Deutsche Bank und Disconto-Gesellschaft (1933): Tagesordnung für die ordentliche Generalversammlung. – NN.
• Deutsche Forschungsgemeinschaft (1998): Empfehlungen der Kommission „Selbstkontrolle in der Wissenschaft“ – Vorschläge zur Sicherung guter wissenschaftlicher Praxis. – Nn.
• Deutscher Bundestag (2004): Gesetz zur Änderung dienst- und arbeitsrechtlicher Vorschriften im Hochschulbereich. – Nn.
• Deutscher Verein des Gas- und Wasserfaches (2011): Grundsätze der Grundwasserprobennahme aus Grundwassermessstellen. – DVGW Technische Regel – Arbeitsblatt, DVGW W 112 (A):33, 3 Abb., 3 Anh.
• Deutsches Patent- und Markenamt (2004): Verfahren zur konvektiven Energiegewinnung und Vorrichtungen zur Durchführung des Verfahrens. – Nn.
• Deutsches Patent- und Markenamt (2006): Kostenmerkblatt – Gebühren und Auslagen des Deutschen Patent- und Markenamts und des Bundespatentgerichts. – Nn.
• Dev, S. & Bhattacharya, J. (2013): Sulfate Reduction Performance of Sulfate Reducing Bacteria Using Marine Waste Extract as Nitrogen Source. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 325–330, 3 Abb., 1 Tab.; Golden (International Mine Water Association).
• Dev, S. & Bhattacharya, J. (2014): Sulfate Reduction and Growth Kinetics of Sulfate Reducing Bacteria While Using Marine Waste Extract as Nitrogen Source. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 636–639, Xuzhou (International Mine Water Association).
• Dev, S. & Bhattacharya, J. (2014): Use of Marine Waste Extract as a Nitrogen Source for Biological Sulfate Reduction: Development of a Suitable Alternative. – Mine Water Environ., 33(4):362–371, doi:10.1007/s10230-014-0283-7.
• Devleeschouwer, X., Choopani, A. & Declercq, P.-Y. (2022): Ground Deformations Observed for Three Decades (1992–2022) above Old and Deep Coal Mines Reused for Deep Gas Storage Sites (Wallonia, Belgium) Using PS-InSAR Time-series. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 71–79; (International Mine Water Association).
• Devoy, C. A., Wrong, L. A., Collins, K. & Mathur, S. (2018): Former Galmoy Mines Tailings Restoration Project. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 9–16; (Tshwane University of Technology).
• Dewailly, E., Nantel, A., Weber, J. P. & Meyer, F. (1989): High levels of PCBs in breast milk of Inuit women from arctic Quebec. – Bull. Environ. Contam. Toxicol., 43(5):641–646, doi:10.1007/BF01701981.
• Dey, M., Connelly, R. J., Czajewski, K., Harding, W., Barnes, A., Bowell, R. J. & Cashen, K. (2013): The remediation and closure of the former Garryard and Gortmore sites within the historic Silvermines district Ireland. Paper presented at the Eighth International Seminar on Mine Closure, Cornwall. – p. 319–330, 6 Abb., 2 Tab.; (Australian Centre for Geomechanics).
• Dey, M., Sadler, P. J. K. & Williams, K. P. (2003): A novel approach to mine water treatment. – Land Contam. Reclam., 11(2):253–258, 2 Abb., 3 Tab.; doi:10.2462/09670513.822.
• Dey, M., Williams, K. & Coulton, R. (2007): Treatment of arsenic rich Waters by the HDS Process: Water in Mining Environments. – 165–169 p., 1 Abb., 5 Tab.; Cagliari (Mako Edizioni).
• Deysel, L.-M. & Vermeulen, P. D. (2015): A Detailed ABA Study of the Coal-Bearing Formations in the Waterberg Coalfield, Limpopo Province, South Africa. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Dhal, B., Das, N. N., Pandey, B. D. & Thatoi, H. N. (2011): Environmental Quality of the Boula-Nuasahi Chromite Mine Area in India. – Mine Water Environ., 30(3):191–196, 1 Abb., 5 Tab.; doi:10.1007/s10230-010-0134-0.
• Dhansay, T., Musekiwa, C., Ntholi, T., Chevallier, L., Cole, D. & De Wit, M. J. (2017): South Africa’s geothermal energy hotspots inferred from subsurface temperature and geology. – S. Afr. J. Sci., 113(11/12) 4 Abb., 1 Tab.; doi:10.17159/sajs.2017/20170092.
• Dharmadhikari, D. M., Vanerkar, A. P. & Barhate, N. M. (2005): Chemical oxygen demand using closed microwave digestion system. – Environ. Sci. Technol., 39(16):6198–6201, 1 Abb., 5 Tab.
• Dharmappa, H. B., Sivakumar, M. & Singh, R. N. (1995): Wastewater Minimization and Reuse in Mining Industry in Illawarra Region: Water resources at risk. – IMWA.11–22 p., 5 Abb., 3 Tab.; Denver (American Institute of Hydrology).
• Dhonau, N. B. & Wright, G. R. (1998): Zinc-Lead Mines in Ireland: Approaches to Groundwater Control and Protection: Mine Water and Environmental Impacts 2. – 279–290 p., 1 Abb.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Di Bella, G., Licata, P., Bruzzese, A., Naccari, C., Trombetta, D., Lo Turco, V., Dugo, G., Richetti, A. & Naccari, F. (2006): Levels and congener pattern of polychlorinated biphenyl and organochlorine pesticide residues in bluefin tuna (Thunnus thynnus) from the Straits of Messina (Sicily, Italy). – Environment International, 32(6):705–710, doi:10.1016/j.envint.2006.02.001.
• Diamantino, C., Carvalho, E. & Pinto, R. (2016): Water resources monitoring and mine water control in Portuguese old uranium mines. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 745–752, 9 Abb., 4 Tab.; Freiberg (TU Bergakademie Freiberg).
• Diamantino, C., Martins, C. & Carvalho, E. (2025): An Overview of Active and Passive Mine Water Treatment at Urgeiriça Uranium Legacy Mine (Portugal). Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 714–720; Braga (International Mine Water Association).
• Diamantopoulou, M. J., Antonopoulos, V. Z. & Papamichail, D. M. (2005): The Use of a Neural Network Technique for the Prediction of Water Quality Parameters of Axios River in Northern Greece. – Eur. Water, 11/12:55–62, 4 Abb., 2 Tab.
• Diamond, M. L., Melymuk, L., Csiszar, S. A. & Robson, M. (2010): Estimation of PCB stocks, emissions, and urban fate: will our policies reduce concentrations and exposure? – Environ. Sci. Technol., 44(8):2777–83, doi:10.1021/es9012036.
• Diamond, R., van Staden, C. & Dippenaar, M. (2024): Tracing Mine Water Flows in a Dolomite Quarry, South Africa, Using Hydrochemistry and Stable Isotopes. – Mine Water Environ., 43(2):278–293, doi:10.1007/s10230-024-00980-8.
• Diaz, E., Custodio, E. & Galofre, A. (1978): Influencia de la mineria potasica catalana en la calidad del agua del rio Llobregat (Barcelona). Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 989–1011; Maracena (Asociación Nacional de lngenieros de Minas).
• Diaz Goebes, M. & Younger, P. L. (2004): A Simple Analytical Model for Interpretation of Tracer Tests in Two-Domain Subsurface Flow Systems. – Mine Water Environ., 23(3):138–143, 2 Abb., 3 Tab.
• Diaz-Puga, M. A., Pulido-Bosch, A., Vallejos, A., Sola, F., Daniele, L., Simon, M. & Garcia, I. (2021): Impact of Mine Leachates on a Carbonate Aquifer (SE Spain). – Mine Water Environ., 40(1):225–234, doi:10.1007/s10230-020-00703-9.
• Diaz-Vanegas, C., Casiot, C., Lin, L., De Windt, L., Djibrine, A., Malcles, A., Héry, M., Desoeuvre, A., Bruneel, O., Battaglia-Brunet, F. & Jacob, J. (2021): Performances of a semi-passive field-pilot for bioremediation of As-rich Acid Mine Drainage at the Carnoulès mine (France). Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 122–128; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Diaz-Vanegas, C., Casiot, C., Lin, L., De Windt, L., Héry, M., Desoeuvre, A., Bruneel, O., Battaglia-Brunet, F. & Jacob, J. (2022): Performance of Semi-passive Systems for the Biological Treatment of High-As Acid Mine Drainage: Results from a Year of Monitoring at the Carnoules Mine (Southern France). – Mine Water Environ., 41(3):679–694, doi:10.1007/s10230-022-00885-4.
• Dick, W. J. & Commission of, C. (1914): Conservation of Coal in Canada with Notes on the Principal Coal Mines. – 212 p., Toronto (Bryant).
• Dickerson, A. S., Ransome, Y. & Karlsson, O. (2019): Human prenatal exposure to polychlorinated biphenyls (PCBs) and risk behaviors in adolescence. – Environment International, 129:247–255, doi:10.1016/j.envint.2019.04.051.
• Dickin, R., Mills, R., Bright, D. & Runnells, J. (2010): Assessment of Atlin-Ruffner Abandoned Mine, BC, Canada. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 467–471, Sydney, NS (Cape Breton University Press).
• Dickin, R. C., Mills, R. & Freed, R. (2008): Hydrogeological Data Collection at Canadian Arctic Mines in Permafrost. – Proceedings, 10th International Mine Water Association Congress:437–440.
• Dickman, S. (1991): Uranium mining’s legacy. – Natur, 352(6330):8.
• Dickson, W. & Brodin, Y.-W. (1995): Strategies and methods for freshwater liming. – In: Henrikson, L. & Brodin, Y. W. (eds): Liming of Acidified Surface Waters: A Swedish Synthesis. – p. 81–124, Berlin (Springer); doi:10.1007/978-3-642-79309-7_4.
• Diduch, M., Polkowska, Z. & Namiesnik, J. (2011): Chemical quality of bottled waters: a review. – J. Food Sci., 76(9):R178–96, doi:10.1111/j.1750-3841.2011.02386.x.
• Diedrich, T., Fix, P. & Foster, A. (2017): Mineralogical Characterization of Weathered Outcrops as a Tool for Constraining Water Chemistry Predictions during Project Planning. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 712–719, Lappeenranta (Lappeenranta University of Technology).
• Diehl, H. & Markuszewski, R. (1985): Studies on fluorescein—II – The solubility and acid dissociation constants of fluorescein in water solution. – Talanta, 32(2):159–165, 8 Abb., 3 Tab.; doi:10.1016/0039-9140(85)80049-7.
• Diels, L., Geets, J., Dejonghe, W., van Roy, S., Vanbroekhoven, K., Szewczyk, A. & Malina, G. (2005): Heavy metal immobilization in groundwater by in situ bioprecipitation: comments and questions about carbon source use, efficiency and sustainability of the process: Mine Water 2005 – Mine Closure. – 355–360 p., 1 Tab.; Oviedo (University of Oviedo).
• Diem, H. (1963): Beiträge zur Fischerei Nordtirols. – Veröff. Tiroler Landes-Mus. Ferdinandeum, 43:5–132, 11 Abb.
• Dienemann, C., Dienemann, H., Stolz, L. & Dudel, E. G. (2005): Verwendung von Algen und submersen kalzifizierenden Wasserpflanzen zur Aufbereitung neutraler bis basischer uranhaltiger Wässer. – Wiss. Mitt. Inst. Geol., 28:27–32, 6 Abb.
• Dienemann, H., Dienemann, C., Brackhage, C., Dudel, E. G., Rotsche, J. & Weiske, A. (2006): Radium-226 und Uran-238 in Sedimenten im Abstrom einer Uranbergbauhinterlassenschaft – Abschätzungen der Perspektiven und Grenzen von Sedimentationsgräben. – Wiss. Mitt. Inst. Geol., 31:79–84, 6 Abb.
• Dienemann, H., Dienemann, C. & Dudel, E. G. (2005): Influence of allochthonous plant litter on the fixation of Uranium in sediments. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 149–158, Heidelberg (Springer).
• Dienert, M. F. (1913): Remarques au sujet des expériences avec la fluorescéine. – Comptes rendus hebdomadaires des séances de l’Académie des sciences, 157(7-12):660–661.
• Diersch, H.-J., Luo, J. & Rühaak, W. (2010): Numerische Strömungs- und Massentransportmodellierung im Bereich des ehemaligen Kalibergbaus Staßfurt. – Exkurs.f. u. Veröffentl. DGG, 244:179–188, 11 Abb., 2 Tab.
• Dietrich, G., Kalle, K., Krauss, W. & Siedler, G. (1980): General Oceanography – An Introduction, 2nd edn. – New York (Wiley).
• Dietrich, O., Fahle, M., Kaiser, T. & Steidl, J. (2019): Eine Lysimeter-Studie zu Auswirkungen unterschiedlicher Grundwasser-Steuerregime auf den Bodenwasserhaushalt eines grundwassernahen Standorts. – Hydrol. Wasserbewirtsch., 63(1):6–18, 6 Abb., 4 Tab.; doi:10.5675/HyWa_2019.1_1.
• Dietz, H. K. O. (1982): Apects of Advanced Grouting during Shaft Sinking in South Africa. – Int. J. Mine Water, 1(2):19–28, 7 Abb., 2 Tab.
• Dietz, J. (2024): Active treatment of high strength acid mine drainage at a clay mine and coal refuse sites. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 136–138; Morgantown (International Mine Water Association).
• Dietz, S., Lessmann, D. & Boehrer, B. (2012): Contribution of Solutes to Density Stratification in a Meromictic Lake (Waldsee/Germany). – Mine Water Environ., 31(2):129–137, 6 Abb., 3 Tab.; doi:10.1007/s10230-012-0179-3.
• Dieu, B. (2001): Application of the SCADA system in wastewater treatment plants. – ISA Trans., 40(3):267–281, doi:10.1016/S0019-0578(00)00053-7.
• Dieu, B., Garrett, M. T., Ahmad, Z. & Young, S. (1995): Applications of automatic control systems for chlorination and dechlorination processes in wastewater treatment plants. – ISA Trans., 34(1):21–28, doi:10.1016/0019-0578(94)00041-J.
• Digby Wells & Associates (Pty) Ltd. Co (2012): Draft Scoping Report for the Immediate and Short Term Interventions for the Treatment of Acid Mine Drainage (AMD) in the Western, Central and Eastern Basins of the Witwatersrand Gold Fields. – (Report Nr. DEA Ref 12/1220/2403). – 166 p., 20 Abb., 49 Tab., 14 Anl., 23 Pläne; Randburg (Digby Wells & Associates (Pty) Ltd. Co).
• Digges La Touche, G., Balding, B., Keenan, B. & Digges La Touche, S. (2018): Sinkhole Development on Mine Flooding. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 585–590; (Tshwane University of Technology).
• Digges La Touche, G. & Brookes, F. (2018): Ecohydrology in Mine Water Studies. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 328–331; (Tshwane University of Technology).
• Digges La Touche, G. & Cottrell, M. (2017): The Application of Discrete Fracture Network Models to Mine Groundwater Studies. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 548–555, Lappeenranta (Lappeenranta University of Technology).
• Digges La Touche, G., Culshaw, H. & Lansley, R. (2011): Probabilistic modelling for tailings remediation and restoration: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 217–220 p., Aachen (RWTH Aachen University).
• Digges La Touche, G., Nazaruk, S., Booth, T., Demmer, T., Nickman, A. & Cammack, J. (2025): The application of quantitative risk assessment to assessing the impact of tailings management facilities on groundwater resources. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 525–529; Braga (International Mine Water Association).
• Digges La Touche, G. & Preene, M. (2011): The potential use of ground energy in the mining industry – exploration to closure: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 161–166 p., Aachen (RWTH Aachen University).
• Digges La Touche, G., Sraj, N. & Yungwirth, G. (2013): The application of ecohydrology to mine water impact assessment. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 117–117, Golden (International Mine Water Association).
• Dijkstra, A. F. & de Roda Husman, A. M. (2014): Bottled and Drinking Water. – In: Motarjemi, Y. & Lelieveld, H. (eds): Food Safety Management. – p. 347–377, San Diego (Academic Press); doi:10.1016/B978-0-12-381504-0.00014-7.
• Dikio, E. D., Mzulwini, P. A., Dikio, C. W. & Mtunzi, F. M. (2013): Evaluation of Fluoride and Hydrogen Ions Concentrations in Commercial Bottled Drinking Water in South Africa. – Asian J. Chem., 25(5):2569–2572, doi:10.14233/ajchem.2013.13467.
• Dildar, J., Manzi, M. S. D., Abiye, T., Gomo, S., Rapetsoa, M. K. & Drennan, G. (2023): Groundwater Circulation in the Shallow Crystalline Aquifer of Tharisa Mine, South Africa: Evidence from Environmental Isotopes and Near-Surface Geophysics. – Water, 15(16) doi:10.3390/w15162876.
• Dill, H. G. (1995): Heavy mineral response to the progradation of an alluvial fan: implications concerning unroofing of source area, chemical weathering and palaeo-relief (Upper Cretaceous Parkstein fan complex, SE Germany). – Sedimentary Geology, 95(1-2):39–56, 6 Abb., 4 Tab.; doi:10.1016/0037-0738(94)00096-D.
• Dill, H. G. (1998): A review of heavy minerals in clastic sediments with case studies from the alluvial-fan through the nearshore-marine environments. – Earth-Sci. Rev., 45(1-2):103–132, 13 Abb., 5 Tab.
• Dill, H. G. (2009): Pyrometallurgical relics of Pb-Cu-Fe deposits in south-eastern Germany: An exploration tool and a record of mining history. – J. Geochem. Explor., 100(1):37–50, 11 Abb., 4 Tab.; doi:10.1016/j.gexplo.2008.04.001.
• Dill, S., Cowan, J., Wood, A. & Bowell, R. J. (1998): A Review of Sulfate Removal Options from Mine Waters: Mine Water and Environmental Impacts 2. – 329–342 p., Johannesburg (Proceedings International Mine Water Association Symposium).
• Dill, S., Du Preez, L., Graff, M. & Maree, J. (1994): Biological sulphate removal from acid mine drainage utilizing producer gas as carbon- and energy source – Process limitations and their resolution. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:631–641, 5 Abb., 1 Tab.
• Dillenardt, J. & Kranz, K. (2010): Geologisch-Hydrogeologische Kartierung im Alten Tiefen Fürstenstolln zur geothermischen Grubenwassernutzung im Schloss Freudenstein, Freiberg. – 56 p., TU Bergakademie Freiberg, 44 Abb., 7 Tab., 9 Anl.; Freiberg.
• Diller, J. S. (1883): Notes on the Geology of the Troad. – Science, II(30):255–258.
• Dillman, D. A., Smyth, J. D. & Christian, L. M. (2014): Internet, phone, mail, and mixed-mode surveys – The tailored design method, 4th edn. – 509 p., Hoboken (Wiley).
• Dimitrakopoulos, D. & Grigorakou, E. (2004): Aquatic Balance of Vegoritis Lake, West Macedonia, Greece, ralated to Mining Activity. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 201–207, 3 Abb., 3 Tab.; Newcastle upon Tyne (University of Newcastle).
• Dimitrakopoulos, D., Grigorakou, E. & Koumantakis, J. (2000): Groundwater modelling of the South lignite field, West Macedonia, Greece. – Proceedings, 7th International Mine Water Association Congress:519–529, 7 Abb., 2 Fig.
• Dimitrakopoulos, D. & Koumantakis, J. (2008): Hydrogeological Conditions in Amynteon Open Lignite Mine and Design of Dewatering Measures. – Proceedings, 10th International Mine Water Association Congress:65–68.
• Dimitrakopoulos, D., Koumantakis, J., Heliadis, Z. & Poutios, G. (1997): Development of a Groundwater Management System and Methods of Artifical Recharge, in Areas with open pit Exploitations – Case of the South Field Open Pit, West Macedonia, Greece. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:341–351, 4 Abb.
• Dimitrakopoulos, D., Louloudis, G. & Koumantakis, J. (1991): Environmental Impacts in Relation to the Ground Water in Open Lignite Mines of P.P.C.; Greece. – Proceedings, 4th International Mine Water Association Congress, 2:243–254, 5 Abb.
• Dimitrakopoulos, D., Vasileiou, E., Stathopoulos, N. & Dimitrakopoulou, S. (2016): Estimation of the qualitative characteristics of post mining lakes in different lignite fields in Greece. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 219–226, Freiberg (TU Bergakademie Freiberg).
• Dimitrova, R., Pol, S., Webb, S. & Fernando, H. J. S. (2012): Simulations of double-diffusive convection in narrow containers. – Eng. Comput. Mech., 165(2):131–145, doi:10.1680/eacm.10.00027.
• Din, I., Khan, S., Hesham, A. E. L., Irum, S. & Daqiang, C. (2023): Mine Wastewater Treatment with Upflow Anaerobic Fixed Film Reactors. – Mine Water Environ., 42(2):340–347, doi:10.1007/s10230-023-00929-3.
• Dinardo, O., Kondos, P. D., MacKinnon, D. J., McCready, R. G. L., Riveros, P. A. & Skaff, M. (1991): Study on Metals Recovery/Recycling from Acid Mine Drainage Phase Ia: Literature Survey: MEND 3.21.1a. – 48+11 p., 5 Abb., 4 Tab.; Ottawa (The Mine Environment Neutral Drainage [MEND] Program).
• Dinelli, E. (1995): Stream sediments and stream waters as tracers of the environmental impact of sulphur mine wastes (Savio Valley, Romagna-Marche Apennines, northern-central Italy). – Mineralogica et Petrographica Acta, 38:89–112.
• Dinelli, E., Lima, A., De Vivo, B., Albanese, S., Cicchella, D. & Valera, P. (2010): Hydrogeochemical analysis on Italian bottled mineral waters: Effects of geology. – J. Geochem. Expl., 107(3):317–335, doi:https://doi.org/10.1016/j.gexplo.2010.06.004.
• Dinelli, E., Lucchini, F., Fabbri, M. & Cortecci, G. (2001): Metal distribution and environmental problems related to sulfide oxidation in the Libiola copper mine area (Ligurian Apennines, Italy). – J. Geochem. Explor., 74(1-3):141–152.
• Dinelli, E., Perkins, W. T., Pearce, N. J. G. & Hartley, S. (2007): Treatment of acidic Mine Drainage at Libiola Mine, Liguria, Italy: Water in Mining Environments. – 171–175 p., 4 Abb.; Cagliari (Mako Edizioni).
• Dinelli, E. & Tateo, F. (2002): Different types of fine-grained sediments associated with acid mine drainage in the Libiola Fe-Cu mine area (Ligurian Apennines, Italy). – Appl. Geochem., 17(8):1081–1092, 4 Abb., 4 Tab.; doi:10.1016/S0883-2927(02)00009-4.
• Ding, J., Dong, D., Hu, Z., Ji, Y. & Wei, Z. (2022): Numerical Simulations of How Staged Dewatering and Mining Influence Surface Subsidence. – Mine Water Environ., 41(4):1124–1136, doi:10.1007/s10230-022-00903-5.
• Ding, J., Dong, D., Hu, Z., Wei, Z. & Zhang, L. (2023): A Study of Interbedded Groundwater Contamination in a Mining Area and the Process of Grouting Composite Failure. – Mine Water Environ., 42(4):590–604, doi:10.1007/s10230-023-00958-y.
• Ding, L., Zhang, Z., Li, B., Qi, S., Liu, H. & Liu, S. (2024): Feasibility Investigation of Geothermal Energy Heating System in Mining Area: Application of Mine Cooling and Aquifer Thermal Energy Exploitation Technique. – Energies, 17(5):1168.
• Ding, Z. W. & Sun, Q. Y. (2021): Effects of flooding depth on metal(loid) absorption and physiological characteristics of Phragmites australis in acid mine drainage phytoremediation. – Environ. Technol. Inno., 22 doi:10.1016/j.eti.2021.101512.
• Dinger, J. S., Cumbie, D. H. & Davidson, B. (2006): Assessing Water-Supply Potential of Abandoned Underground Coal Mines in Eastern Kentucky. – Kentucky Geol. Surv. Rep. Investig. Ser. XII, 12:1–36, 27 Abb., 5 Tab.
• Dinger, J. S., Wunsch, D. R. & Kemp, J. E. (1990): Occurrence of Ground Water in Mine Spoil, a renewable Resource: Star Fire Tract, Eastern Kentucky. Paper presented at the West Virginia Surface Mine Drainage Task Force Symposium, Charleston. – p. 171–179, 15 Abb., 2 Tab.; Morgantown (West Virginia University Publication Services).
• Dingley, K. (2018): Assessing and Mitigating Risk to Mining – Can we “Future Proof” the Industry? Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 865–870; (Tshwane University of Technology).
• Dinkel, W., Frechen, F.-B. & Schier, W. (2010): Anaerobes Reinigungsverfahren zur Behandlung von schwermetall- und sulfathaltigen Industrieabwässern. – Wiss. Mitt. Inst. Geol., 42:87–94.
• Diodato, D. M. & Parizek, R. R. (1988): Unsaturated fluid flow in mine spoil; investigative methods leading to a quantitative characterization. – Bur. Mines Inf. Circ., IC-9183:240–247, Refs: 8; illus. incl. 2 tables.
• Diodato, D. M. & Parizek, R. R. (1994): Unsaturated hydrogeologic properties of reclaimed coal strip mines. – Ground Water, 32(1):108–118, Refs: 23; illus. incl. 1 table; doi:10.1111/j.1745-6584.1994.tb00618.x.
• Dionne, J. (1999): Mining Site Rehabilitation Requirements as stipulated in the Mining Act. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 751–758, 1 Tab.; Sevilla (International Mine Water Association).
• Dipova, N. & Doyuran, V. (2006): Characterization of the Antalya (Turkey) tufa deposits. – Carbonate Evaporite, 21(2):144–160.
• Dirks, P. H. G. M. & Berger, L. R. (2013): Hominin-bearing caves and landscape dynamics in the Cradle of Humankind, South Africa. – J. Afr. Earth Sci., 78:109–131, doi:10.1016/j.jafrearsci.2012.09.012.
• Dirks, P. H. G. M., Placzek, C. J., Fink, D., Dosseto, A. & Roberts, E. (2016): Using 10Be cosmogenic isotopes to estimate erosion rates and landscape changes during the Plio-Pleistocene in the Cradle of Humankind, South Africa. – J. Hum. Evol., 96:19–34, doi:10.1016/j.jhevol.2016.03.002.
• Dirks, P. H. G. M., Roberts, E. M., Hilbert-Wolf, H., Kramers, J. D., Hawks, J., Dosseto, A., Duval, M., Elliott, M., Evans, M., Grun, R., Hellstrom, J., Herries, A. I. R., Joannes-Boyau, R., Makhubela, T. V., Placzek, C. J., Robbins, J., Spandler, C., Wiersma, J., Woodhead, J. & Berger, L. R. (2017): The age of Homo naledi and associated sediments in the Rising Star Cave, South Africa. – Elife, 6 14 Abb., 10 Tab.; doi:10.7554/eLife.24231.
• Dittler, E. (1916): Mennige aus Biberwier in Tirol. – Zentralbl. Mineral., Geol. Paläontol.:521.
• Dittmar, C., Oßendoth, V. & Schulze, K.-D. (2013): Are European companies ready for Big Data? – 81 p., 46 Abb., 9 Tab.; Issy-les-Moulineaux (Groupe Steria SCA).
• Divine, C., Griffin, A., Christoffersen, L., Preston, K. & DeDycker, P. (2013): Tracer Testing to Evaluate Tailing Pile Hydrogeologic Characteristics to Support Closure and Reclamation. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 967–972, 4 Abb.; Golden (International Mine Water Association).
• Divine, C. E. & McDonnell, J. J. (2005): The future of applied tracers in hydrogeology. – Hydrogeol. J., 13(1):255–258, doi:10.1007/s10040-004-0416-3.
• Divya, O. & Mishra, A. K. (2008): Understanding the concept of concentration-dependent red-shift in synchronous fluorescence spectra: Prediction of lambda(SFS)(max) and optimization of Deltalambda for synchronous fluorescence scan. – Anal. Chim. Acta., 630(1):47–56, doi:10.1016/j.aca.2008.09.056.
• Diz, H. R. (1997): Chemical and Biological Treatment of Acid Mine Drainage for the Removal of Heavy Metals and Acidity. – 89 p., Virginia Polytechnic Institute and State University; Blacksburg.
• Diz, H. R. (1998): The Selective Oxide System™: Acid Drainage Treatment that avoids the Formation of Sludge. – Mine Water Environ., 17(1):1–7, 3 Abb.
• Diz, H. R., Novak, J. T. & Rimstidt, J. D. (1999): Iron Precipitation Kinetics in Synthetic Acid Mine Drainage. – Mine Water Environ., 18(1):1–14, 6 Abb., 3 Tab.
• Dizhi, Z. (1987): Control of Structures on vertical Replenishment of Groundwater in Fourth Mine: Hydrogeology of Coal Basins. – 429–443 p., 8 Abb., 3 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Djabri, L., Hani, A., Mania, J. & Guefaifia, O. (1997): Water Quality of an Aquifer Situated in a Semi Arid Region El-Malabiod Case Study (NE Algeria). – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:471–481, 8 Abb., 4 Tab.
• Djokic, I., Letic, G., Cekic, M., Nuhovic, S., Canic, V. & Djokic, N. (2008): Restoration and Revitilization of the Abandoned “Suvo Rudiste” Mine Site on Kopaonik, Incorporating Collection, Treatment and Multipurpose Use of the Mine Waters. – Proceedings, 10th International Mine Water Association Congress:135–138, 5 Abb., 2 Tab.
• Djuric, N. (2008): Ending the 100 Years Salt Water Industrial Exploitation in Mineral Salt Site in Tuzla. – Proceedings, 10th International Mine Water Association Congress:???
• do Amaral, J., Weiler, J., Broadhurst, J. L. & Schneider, I. A. H. (2017): The Use of Static and Humidity Cell Tests to Assess the Effectiveness of Coal Waste Desulfurization on Acid Rock Drainage Risk. – Mine Water Environ., 36(3):429–435, doi:10.1007/s10230-017-0435-7.
• Do, H. H., Trinh, V. Q. & Frör, O. (2018): To Invest Or Not To Invest? – A Valuation Of Public Benefits From Mine Water Treatment In Ha Long, Vietnam. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 871–877; (Tshwane University of Technology).
• do Nascimento, M. M. P. F., Moreira, C. A., Duz, B. G. & da Silveira, A. J. T. (2022): Geophysical Diagnosis of Diversion Channel Infiltration in a Uranium Waste Rock Pile. – Mine Water Environ., 41(3):704–720, doi:10.1007/s10230-022-00878-3.
• Dobchuk, B., Scott, P., Weber, P., Christensen, D. & Mhando, Y. (2015): Case study of Geita Gold Mine – An Example of Proactive AMD Mitigation Performance. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Dobler, L. (1999): Der Einfluß der Bergbaugschichte im Ostharz auf die Schwermetalltiefengradienten in historischen Sedimenten und die fluviale Schwermetalldispersion in den Einzugsgebieten von Bode und Selke im Harz. – 120 p., 22 Abb., 41 Tab., 9 Kart., 24 Anh.; Halle (unveröff. Diss. Univ. Halle-Wittenberg).
• Doblicka, C. (1852): Tirols Mineralien. – 120 p., Wien (Gerold).
• Dobner, A., Streit, R., Exler, H. J., Viernstein, M., Gudden, H., Waldner, W. F., Hadamitzky, E., Weinelt, W., Lagally, U. & Weinig, H. (1987): Der Bergbau in Bayern. – Geol. Bavarica, 91:216, 63 Abb., 27 Tab., 8 Taf., 2 Beil.
• Dobrzhinetskaya, L. F., Schweinehage, R., Massonne, H.-J. & Green, H. W. (2002): Silica precipitates in omphacite from eclogite at Alpe Arami, Switzerland: evidence of deep subduction. – J. metamorphic Geol., 20(5):481–492, 6 Abb., 4 Tab.
• Dobrzyński, D. (1995): Aluminium solubility in acid waters of the abandoned open pyrite mine at Wieściszowice (Rudawy Janowickie Mts., West Sudetes). – Geol. Q., 39(2):241–254.
• Dobson, E. A. (1987): Using Underground Anthracite Mine Pools for Municipal Water Supplies – Case Study – Mt. Carmel, Pennsylvania. Paper presented at the Annual Eastern Regional Ground Water Conference, Burlington, July 14–16, 1987. – p. 759–770, 5 Abb.; Dublin (National Water Well Association).
• Dockrey, J. & Mattson, B. (2016): Effects of pH on the Arrhenius Paradigm. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 299–305, Freiberg (TU Bergakademie Freiberg).
• Dodds, J. E., Daly, E. P. & Cullen, K. T. (1994): Relationship Between Mining and Groundwater Within the Dolomites of Ireland. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:185–195, 3 Abb., 1 Tab.
• Dodds, W. K. & Whiles, M. R. (2020): Responses to Stress, Toxic Chemicals, and Other Pollutants in Aquatic Ecosystems. – In: Dodds, W. K. & Whiles, M. R. (eds): Freshwater Ecology (Third Edition). – p. 453–502, United States (Academic Press); doi:10.1016/B978-0-12-813255-5.00016-8.
• Dodoo, D. K., Essumang, D. K. & Jonathan, J. W. A. (2013): Accumulation profile and seasonal variations of polychlorinated biphenyls (PCBs) in bivalves Crassostrea tulipa (oysters) and Anadara senilis (mussels) at three different aquatic habitats in two seasons in Ghana. – Ecotoxicology and Environmental Safety, 88:26–34, doi:10.1016/j.ecoenv.2012.10.013.
• Dodoo, D. K., Essumang, D. K., Jonathan, J. W. A. & Bentum, J. K. (2012): Polychlorinated biphenyls in coastal tropical ecosystems: Distribution, fate and risk assessment. – Environmental Research, 118:16–24, doi:10.1016/j.envres.2012.07.011.
• Doebner, O. G. (1876): Constitution der Diphenyldisulfosäure und ihrer Umwandlungsprodukte. – Berichte Dtsch. Chem. Ges., 9(1):129–131, doi:10.1002/cber.18760090139.
• Doepker, R. D. (1991): The Interrelation of Factors Influencing the Dissolution Metals in Columns of Mine Tailings. – Mine Water Environ., 10(1-4):43–56, 1 Abb., 5 Tab.
• Doepker, R. D. (1994): Column Leach Study III: Effect Sampling Location, Sampling Methods, and Chemical Abatement Treatments on the Dissolution of Metals in Gold-Copper Mine Tailings. – Mine Water Environ., 13(1):1–25, 11 Abb., 4 Tab.
• Doepker, R. D. & Drake, P. L. (1991): Laboratory Study of Submerged Metal-Mine Tailings 1: Effect of Solid-Liquid Contact Time and Aeration on Contaminant Concentrations. – Mine Water Environ., 10(1-4):29–41, 1 Abb., 6 Tab.
• Doepker, R. D. & O’Connor, W. K. (1991): Column Leach Study I: Heavy Metal Dissolution Characterisitics from Selected Copper mine Tailings. – Mine Water Environ., 10(1-4):57–71, 9 Tab.
• Doepker, R. D. & O’Connor, W. K. (1991): Column Leach Study II: Heavy Metal Dissolution Characterisitics from Selected Lead-Zinc Mine Tailings. – Mine Water Environ., 10(1-4):73–92, 9 Tab.
• Doherty, J. (1990): The interpretation of pump-test data from a disused underground mine. – J. Hydrol., 114(1-2):109–123, 7 Abb., 2 Tab.
• Dohmen, M. (2006): Informationssysteme für die Rohstoffgewinnungsindustrie. – Wiss. Mitt. Inst. Geol., 31:253–261, 8 Abb.
• Dold, B. (2003): Dissolution Kinetics of Schwertmannite and Ferrihydrite in Oxidized mine Samples and their Detection by Differential X-ray Diffraction (DXRD). – Appl. Geochem., 18(10):1531–1540, 7 Abb., 4 Tab.
• Dold, B. (2014): Submarine Tailings Disposal (STD) – A Review. – Minerals, 4(3):642–666, doi:10.3390/min4030642.
• Dold, B. (2015): On-Land or Submarine Tailings Disposal? – Pros and Cons. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–7 [electronic document], Santiago/Chile (Gecamin).
• Dold, B. (2015): Pre-mining Characterization of Ore Deposits – What Information Do We Need to Increase Sustainability of the Mining Process? – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–7 [electronic document], Santiago/Chile (Gecamin).
• Dold, B. (2017): Acid rock drainage prediction: A critical review. – J. Geochem. Explor., 172:120–132, doi:10.1016/j.gexplo.2016.09.014.
• Dold, B. & Fontbote, L. (2002): A mineralogical and geochemical study of element mobility in sulfide mine tailings of Fe oxide Cu–Au deposits from the Punta del Cobre belt, northern Chile. – Chem. Geol., 189:135–163, 14 Abb., 3 Tab.
• Dold, B. & Fontboté, L. (2001): Element cycling and secondary mineralogy in porphyry copper tailings as a function of climate, primary mineralogy, and mineral processing. – J. Geochem. Explor., 74:3–55, 15 Abb., 4 Tab., 3 Anh.
• Dold, B., Fontboté, L. & Wildi, W. (1999): Detection and Distribution of ferric Oxyhydroxides and Oxyhydroxide Sulfates in Sulfide Mine Tailings, their Importance to selective Metal Retention and acid Production. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 525–526, 2 Abb.; Sevilla (International Mine Water Association).
• Dold, B. & Spangenberg, J. E. (2005): Sulfur Speciation and Stable Isotope Trends of Water-Soluble Sulfates in Mine Tailings Profiles. – Environ. Sci. Technol., 39(15):5650–5656, doi:10.1021/es040093a.
• Dold, B., Wade, C. & Fontboté, L. (2007): Water Management for Acid Mine Drainage Control at the polymetallic Deposit of Cerro de Pasco, Peru: Water in Mining Environments. – 423–426 p., 2 Abb.; Cagliari (Mako Edizioni).
• Dold, B. S. (1999): Mineralogical and geochemical changes of copper flotation tailings in relation to their original composition and climatic setting : implications for acid mine drainage and element mobility. – Terre et Environnement, 18:230, doi:10.13097/archive-ouverte/unige:98275.
• Dolegowska, S., Galuszka, A. & Migaszewski, Z. M. (2021): Significance of the long-term biomonitoring studies for understanding the impact of pollutants on the environment based on a synthesis of 25-year biomonitoring in the Holy Cross Mountains, Poland. – Environ. Sci. Pollut. Res., 28(9):10413–10435, doi:10.1007/s11356-020-11817-6.
• Doležal, F., Kulhavý, Z., Švihla, V., Čmelík, M. & Fučík, P. (2007): Uncertainty in Estimating Runoff and Water Quality Characteristics in Agricultural Catchments and Tile Drainage Systems. Paper presented at the Uncertainties in the ‘monitoring-conceptualisation-modelling’ sequence of catchment research, Luxembourg. – p. 7–13, 2 Abb., 3 Tab.; Paris (International Hydrological Programme (IHP) of the United Nations Educational Scientific and Cultural Organization (UNESCO),).
• Dolnicar, S., Grün, B., Leisch, F. & Schmidt, K. (2013): Required Sample Sizes for Data-Driven Market Segmentation Analyses in Tourism. – J. Travel Res., 53(3):296–306, doi:10.1177/0047287513496475.
• Dolníček, Z., René, M., Hermannová, S. & Prochaska, W. (2014): Origin of the Okrouhlá Radouň episyenite-hosted uranium deposit, Bohemian Massif, Czech Republic: fluid inclusion and stable isotope constraints. – Mineralium Deposita, 49(4):409–425, 10 Abb., 3 Tab.; doi:10.1007/s00126-013-0500-5.
• Dombeck, G. D., Perry, M. W. & Phinney, J. T. (1998): Mass balance on water column trace metals in a free-surface-flow-constructed wetlands in Sacramento, California. – Ecol. Eng., 10(4):313–339, 7 Abb., 6 Tab.
• Dombrowski, H. J. (1964): Sporenuntersuchungen in den Solen des Steinkohlenbezirks an der Ruhr. – Z. dt. geol. Ges., 116(1):96–101, 1 Abb., 2 Taf.; doi:10.1127/zdgg/116/1964/96.
• Domenech, C., de Pablo, J. & Ayora, C. (2002): Oxidative dissolution of pyritic sludge from the Aznalcóllar mine (SW Spain). – Chem. Geol., 190(1-4):339–353.
• Domingue, C., Lemieux, J. M., Grenon, M., Molson, J., Therrien, R., Lajoie, P. L. & Blessent, D. (2019): Numerical Evaluation of Grouting Scenarios for Reducing Water Inflows from Major Faults in Underground Excavations. – Mine Water Environ., 38(3):497–506, doi:10.1007/s10230-019-00589-2.
• Donaldson, E. C. (1964): Subsurface Disposal of Industrial Wastes in the United States. – Bur. Mines Inf. Circ., IC-8212:1–34, 3 Abb., 2 Tab.
• Doncel, P. P., Kotyrba, A., Cesca, S., Sokola-Szewiola, V., Konicek, P., Kajzar, V., Schreiber, J., Contrucci, I., Jirankova, E. & Dominique, P. (2023): PostMinQuake: Seismicity of selected closed European hard coal mines during flooding. – Z. Dt. Ges. Geowiss., 173(4):533–549, doi:10.1127/zdgg/2023/0341.
• Dong, D., Gao, Y., Lin, G. & Zhang, Y. (2019): Hydrochemical Characteristics Analysis and Water Source Recognition for the Mixed Mine Water: A Case Study of the Jinggezhuang Mining Area. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 342–348; Perm, Russia (Perm State University).
• Dong, D., Lin, G., Lin, Y.-F. F., Zhao, M. & Li, K. (2016): Evaluating Induced Fractures Between a Large Artificial Lake and an Aquifer-Coal Seam System: A Case Study in Tangshan Coal Mine, China. – Mine Water Environ., 35(2):253–260, doi:10.1007/s10230-014-0319-z.
• Dong, D., Lin, Y. F., Lin, G., Zhao, M. & Hou, F. (2014): A Water-Inrush Risk Assessment Based on Geographic Information System/Analytic Hierarchy Process Analysis—Case Study of the Shanghaimiao Coal Mine, China. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 25–30, Xuzhou (International Mine Water Association).
• Dong, D., Liu, L., Hua, X. & Lu, Y. (2007): Comparison of lead, cadmium, copper and cobalt adsorption onto metal oxides and organic materials in natural surface coatings. – Microchem J., 85(2):270–275, doi:10.1016/j.microc.2006.06.015.
• Dong, D., Sun, W. & Xi, S. (2012): Optimization of Mine Drainage Capacity Using FEFLOW for the No. 14 Coal Seam of China’s Linnancang Coal Mine. – Mine Water Environ., 31(4):353–366, 12 Abb., 4 Tab.; doi:10.1007/s10230-012-0210-8.
• Dong, D. & Wu, Q. (2025): Comprehensive Study on the Electrical Characteristics and Full-Spectrum Tracing of Water Sources in Water-Rich Coal Mines. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 969–974; Braga (International Mine Water Association).
• Dong, D., Zhao, M., Lin, G., Zhao, W., Zhang, K. & Li, N. (2016): Optimization of Water Pumping and Injection for Underground Coal Gasification in the Meiguiying Mine, China. – Mine Water Environ., 35(3):398–404, doi:10.1007/s10230-016-0389-1.
• Dong, D. L., Chen, Z. Y., Lin, G., Li, X., Zhang, R. M. & Ji, Y. (2019): Combining the Fisher Feature Extraction and Support Vector Machine Methods to Identify the Water Inrush Source: A Case Study of the Wuhai Mining Area. – Mine Water Environ., 38(4):855–862, doi:10.1007/s10230-019-00637-x.
• Dong, Q. & Yan, G. (2014): The Significance of Multistage Shear-permeate Feature of the Hard Clay and Experimental Methods. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 200–204, Xuzhou (International Mine Water Association).
• Dong, S., Liu, Q. & Wang, H. (2016): Advances in Techniques and Equipment of Mine Water Prevention and Control in China. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1124, Freiberg (TU Bergakademie Freiberg).
• Dong, S. & Liu, Z. (2018): Coal Mine Water Hazard Accurate Detection and Efficient Control Technology. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 815–819; (Tshwane University of Technology).
• Dong, S., Wang, H., Liu, Q. & Chai, R. (2014): Technical Status of Mine Water Control in China and Its Development Strategy. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 19–24, Xuzhou (International Mine Water Association).
• Dong, S., Wang, H., Liu, Z. & Shi, X. (2013): Practical Technologies and Equipment for Preventing and Controlling Coal Mine Water Hazards in China. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 831–836, 4 Abb.; Golden (International Mine Water Association).
• Dong, S. N., Wang, H., Guo, X. M. & Zhou, Z. F. (2021): Characteristics of Water Hazards in China’s Coal Mines: A Review. – Mine Water Environ., 40(2):325–333, doi:10.1007/s10230-021-00770-6.
• Dong, S. N., Zhang, W. Z., Zhou, W. F., Chai, R., Wang, H., Zhao, C. H., Dong, X. L. & Wang, Q. M. (2021): Discussion on Some Topical Issues of Water Prevention and Control in Coal Mines. – Mine Water Environ., 40(2):547–552, doi:10.1007/s10230-021-00773-3.
• Dong, S. N., Zheng, L. W., Tang, S. L. & Shi, P. Z. (2020): A Scientometric Analysis of Trends in Coal Mine Water Inrush Prevention and Control for the Period 2000-2019. – Mine Water Environ., 39(1):3–12, doi:10.1007/s10230-020-00661-2.
• Dong, S. N., Zhou, W. F. & Wang, H. (2021): Introduction to Special Issue on Mine Water Inrushes: Risk Assessment, Mitigation, and Prevention. – Mine Water Environ., 40(2):321–323, doi:10.1007/s10230-021-00782-2.
• Dong, Z., Li, F., Beheshti, B., Mickelson, A., Panero, M. & Anid, N. (2016): Autonomous real-time water quality sensing as an alternative to conventional monitoring to improve the detection of food, energy, and water indicators. – J. Environ. Stud. Sci., 6(1):200–207, doi:10.1007/s13412-016-0383-8.
• Donglin, D., Wenjie, S. & Sha, X. (2012): Water-inrush Assessment Using a GIS-based Bayesian Network for the 12-2 Coal Seam of the Kailuan Donghuantuo Coal Mine in China. – Mine Water Environ., 31(2):138–146, 6 Abb., 5 Tab.; doi:10.1007/s10230-012-0178-4.
• Donnelly, L. J. (2000): Reactivation of geological faults during mining subsidence from 1859 to 2000 and beyond. – Trans. Inst. Min. Metall. Sect. A, 109:A179–A190.
• Donnelly, P. K., Hegde, R. S. & Fletcher, J. S. (1994): Growth of PCB-Degrading Bacteria on Compounds from Photosynthetic Plants. – Chemosphere, 28(5):981–988, doi:10.1016/0045-6535(94)90014-0.
• Donner, J. (2009): Aufbereitung schwefelwasserstoffhaltiger Wässer durch katalytische Oxidation an porphyrinmodifizierten kohlenstoffhaltigen Materialien. – 158 p., Dissertation, TU Dresden, 59 Abb., 21 Tab.; Dresden.
• Donovan, J. J. & Frysinger, K. W. (1997): Delineation of Preferred-flow Paths by Response to Transient Lagoon Exfiltration. – Ground Water, 35(6):990–996.
• Donovan, J. J., Frysinger, K. W., Maher, T. P. & Reese, M. (1995): Hydrogeochemical Transport Behavior within Surface Mine Backfill receiving Alkaline Leakage. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 16:elektronisches Dokument, 8 Abb.
• Donovan, J. J., Leavitt, B. R. & Werner, E. (2003): Long-term changes in water chemistry as a result of mine flooding in closed mines of the Pittsburgh Coal Basin, USA. – Publ. Australas. Inst. Min. Metall., 3/2003(Sixth International Conference - Acid Rock Drainage, 2003):869–875.
• Donovan, J. J. & Perry, E. F. (2019): Mine Flooding History of a Regional Below-Drainage Coalfield Dominated by Barrier Leakage (1970–2014). – Geofluids, 2019:Article ID 5703108, 11 Abb., 3 Tab.; doi:10.1155/2019/5703108.
• Doppler, G., Heissig, K. & Reichenbacher, B. (2006): Die Gliederung des Tertiars im süddeutschen Molassebecken. – Newsl. Stratigr., 41(1-3):359–375, 3 Tab., 1 Taf.; doi:10.1127/0078-0421/2005/0041-0359.
• Doppler, G., Kroemer, E., Rögner, K., Wallner, J., Jerz, H. & Grottenthaler, W. (2011): Quaternary Stratigraphy of Southern Bavaria. – Quat. Sci. J., 60(2-3):329–365, 5 Abb., 5 Tab.; doi:10.3285/eg.60.2-3.08.
• Dore, A. J., Sobik, M. & Migala, K. (1999): Patterns of precipitation and pollutant deposition in the western Sudete mountains, Poland. – Atmos. Environ., 33(20):3301–3312, doi:10.1016/S1352-2310(98)00294-5.
• Dorey, R. (1999): Management of current and contingent Liability through Mine Waste Management. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 773–779, 1 Abb.; Sevilla (International Mine Water Association).
• Dorey, R. & Breckenridge, L. (2013): Mine Waste Geochemistry Assessment, Corani Project, Puno, Peru. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 331–336, 3 Abb.; Golden (International Mine Water Association).
• Dorfmann, W. (1995): Von Bremsbergen und Silbergassen. – Berg – Alpenvereinsjahrbuch, 119:33–41, 4 Abb.
• Doria Mde, F., Pidgeon, N. & Hunter, P. R. (2009): Perceptions of drinking water quality and risk and its effect on behaviour: a cross-national study. – Sci. Total Environ., 407(21):5455–64, doi:10.1016/j.scitotenv.2009.06.031.
• Döring, A. (2015): Removing of High Flows of Acid Water from Disused Mines in Johannesburg. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–8 [electronic document], Santiago/Chile (Gecamin).
• Döring, M. (1993): Unterirdische Wasserkraftwerke im Bergbau. – Wasserwirtschaft, 83(5):272–278, 6 Abb.
• Dorland, E., van den Berg, L. J. L., Brouwer, E., Roelofs, J. G. M. & Bobbink, R. (2005): Catchment liming to restore degraded, acidified heathlands and moorland pools. – Restoration Ecology, 13(2):302–311.
• Dorman, D. M. & Nairn, R. W. (2023): Effect of Time and Mineralogy on Sorption Capacity of Mine Drainage Passive Treatment Residuals: Is Sustainable Reuse Possible? Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 142–147; (International Mine Water Association).
• Dorman, D. M. & Nairn, R. W. (2024): Effect of source water chemical composition on the mineralogical and chemical properties of resulting iron oxide precipitates in coal and hard-rock mining influenced waters. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 139–144; Morgantown (International Mine Water Association).
• Dörpfeld, W. (1902): Troja und Ilion – Ergebnisse der Ausgrabungen in den vorhistorischen und historischen Schichten von Ilion 1870 – 1894: 1-2. – 652 p., 455 Abb., 48 Beil.; Osnabrück (Zeller).
• Dorren, L. & Maier, B. (2001): GIS basierte Felssturz-Modellierung auf regionalem Maßstab im Montafon (Vorarlberg, Österreich). – Vorarlberger Naturschau – Forschen und Entdecken, 9:227–236, 7 Abb., 1 Tab.
• D'Orsay, L. (2023): Passive Treatment of Acid Mine Drainage from a Sulphidic Coalfield. –.
• dos Anjos, V. E., Rohwedder, J. R., Cadore, S., Abate, G. & Grassi, M. T. (2014): Montmorillonite and vermiculite as solid phases for the preconcentration of trace elements in natural waters: Adsorption and desorption studies of As, Ba, Cu, Cd, Co, Cr, Mn, Ni, Pb, Sr, V, and Zn. – Appl. Clay Sci., 99:289–296, doi:10.1016/j.clay.2014.07.013.
• dos Reis, G. R. D., de Oliveira, J. C. & Silva, M. (2021): Integrated Risk Management in Mining Waste Facilities. – Mine Water Environ., 40(1):6–15, doi:10.1007/s10230-021-00750-w.
• dos Santos, C. J. (2020): The biblical age of judges without the letter ’g’: translation of Book VII of the lipogram De aetatibus mundi et hominis by Fulgentius the Mythographer. – Archai, 30:16, doi:10.14195/1984-249x_30_23.
• Doss, R. B. B. (2024): Ongoing case study, Berry Branch selenium pilot treatment system using sulfur modified iron, former Hobet Surface Mine, Lincoln County, WV. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 145–148; Morgantown (International Mine Water Association).
• Doswald, C. (1996): „Erzwege“ – Eisenerztransport in der vorindustriellen Schweiz. – In: Jockenhövel, A. (ed) Bergbau, Verhüttung und Waldnutzung im Mittelalter. Auswirkungen auf Mensch und Umwelt. – p. 151–172, 6 Abb.; Stuttgart (Steiner).
• Doswald, C. (2012): „Erzwege“ – Eisenerztransport in der vorindustriellen Schweiz. – Bergknappe, 121(2):3–16, 14 Abb.
• Dotsika, E., Poutoukis, D., Raco, B. & Psomiadis, D. (2010): Stable isotope composition of Hellenic bottled waters. – J. Geochem. Expl., 107(3):299–304, doi:https://doi.org/10.1016/j.gexplo.2010.07.002.
• Double, M. L. & Bissonnette, G. K. (1980): Enumeration of Coliforms from Streams containing acid Mine Water. – J. Water Pollut. Control Fed., 52(7):1947–1952, 3 Abb.
• Doughty, C. (1999): Investigation of Conceptual and Numerical Approaches for Evaluating Moisture, Gas, Chemical, and Heat Transport in Fractured Unsaturated Rock. – J. Contam. Hydrol., 38(1-3):69–106.
• Doughty, C., Pruess, K., Benson, S. M., Freifeld, B. M. & Gunter, W. D. (2004): Hydrological and geochemical monitoring for a CO₂ sequestration pilot in a brine formation: LBNL-55104. – 1–15 p., 14 Abb.; Alexandria (Proceedings 3rd National Conference on Carbon Sequestratio).
• Douglas, G., Wendling, L., Usher, K. & Woods, P. (2011): Application of Hydrotalcites for Remediation of Beverley In-Situ Recovery Uranium Mine Barren Lixiviant. – 148.1–148.5 p., 2 Abb., 2 Tab.; Makuhari (Proceedings GLOBAL 2011).
• Douglas, G. B., Butt, C. R. M. & Gray, D. J. (2011): Geology, geochemistry and mineralogy of the lignite-hosted Ambassador palaeochannel uranium and multi-element deposit, Gunbarrel Basin, Western Australia. – Miner. Deposita, 46:761–787, 17 Abb., 7 Tab.; doi:10.1007/s00126-011-0349-4.
• Douglas, G. B., Wendling, L. A. & Pleysier, R. (2009): Hydrotalcite Formation for Contaminant Removal from Mining Wastewaters. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 407–414, 6 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Douglas, G. B., Wendling, L. A., Pleysier, R. & Trefry, M. G. (2010): Hydrotalcite Formation for Contaminant Removal from Ranger Mine Process Water. – Mine Water Environ., 29(2):108–115, 5 Abb., 2 Tab.; doi:10.1007/s10230-010-0106-4.
• Douglas, G. E., John, D. M., Williamson, D. B. & Reid, G. (1998): The aquatic algae associated with mining areas in Peninsula Malaysia and Sarawak: their composition, diversity and distribution. – Nova Hedwigia, 67(1-2):189–211, 9 Abb., 4 Tab.
• Douglas, J. Y. (2015): The reader’s brain – How neuroscience can make you a better writer. – 219 p., Cambridge (Cambridge University Press).
• Douglas, M., Clark, I. D., Raven, K. & Bottomley, D. (2000): Groundwater mixing dynamics at a Canadian Shield mine. – J. Hydrol., 235(1–2):88–103, doi:10.1016/S0022-1694(00)00265-1.
• Douglass, J. & Schilling, J. G. (2000): Systematics of three-component, pseudo-binary mixing lines in 2D isotope ratio space representations and implications for mantle plume-ridge interaction. – Chem. Geol., 163(1-4):1–23, doi:10.1016/s0009-2541(99)00070-4.
• Doulati, A. F., Marandi, R., Marandi, A., Mirhabibi, A. R. & Baafi, E. (2005): Effects of pH and biomass concentrations in the removal of selenite from acid mine drainage by Aspergillus niger as biosorbent in Sarcheshmeh porphyry copper mine: Mine Water 2005 – Mine Closure. – 51–55 p., 3 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Doulati, A. F., Shafaei, S. Z., Baafi, E., Badii, K., Marandi, R. & Singh, R. (2005): A two-dimensional model for non-linear ion exchange processes in acid mine drainage environments: Mine Water 2005 – Mine Closure. – 451–457 p., 11 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Doulati, A. F., Singh, R., Baafi, E., Shafaei, S. Z. & Marandi, A. (2005): Modelling of ferric iron complexation and precipitation reactions associated with acid mine drainage environments: Mine Water 2005 – Mine Closure. – 481–488 p., 5 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Doulati Ardejani, F., Karami, G. H., Assadi, A. B. & Dehghan, R. A. (2008): Hydrogeochemical Investigations of the Shour River and Groundwater Affected by Acid Mine Drainage in Sarcheshmeh Porphyry Copper Mine. – Proceedings, 10th International Mine Water Association Congress:235–238.
• Doulati Ardejani, F., Malakooti, S. J., Shafaei, S. Z. & Shahhosseini, M. (2014): A Numerical Multi-Component Reactive Model for Pyrite Oxidation and Pollutant Transportation in a Pyritic, Carbonate-Rich Coal Waste Pile in Northern Iran. – Mine Water Environ., 33(2):121–132, 10 Abb., 3 Tab.; doi:10.1007/s10230-014-0275-7.
• Doulati Ardejani, F., Sadeghiamirshahidi, M., Singh, R. N., Kish, T. E. & Reed, S. M. (2013): Prediction of the Groundwater Rebound Process in a Backfilled Open Cut Mine Using an Artificial Neural Network. – Mine Water Environ., 32(4):251–257, 6 Abb.; doi:10.1007/s10230-013-0243-7.
• Doulati Ardejani, F., Shafaei, S. Z., Moradzadeh, A., Marandi, R., Kakaei, R. & Shokri, B. J. (2008): Environmental Problems Related to Pyrite Oxidation from an Active Coal Washing Plant, Alborz Sharghi, Iran. – Proceedings, 10th International Mine Water Association Congress:239–242.
• Doulati Ardejani, F., Shafaei, S. Z., Shahhoseiny, M., Singh, R. & Arab-Amiri, A. R. (2011): Water quality investigations in the vicinity of an active coal washing plant in Zirab, Mazandaran province, northern Iran: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 11–16 p., Aachen (RWTH Aachen University).
• Doulati Ardejani, F., Singh, R., Baafi, E., Shafaei, S. Z. & Aryafar, A. (2007): Prediction of post-mining Groundwater Recovery Pattern in an unconfined Aquifer to predict Opencast Mine Backfill Settlement: Water in Mining Environments. – 325–329 p., 5 Abb.; Cagliari (Mako Edizioni).
• Doulati Ardejani, F., Singh, R., Marandi, R. & Baafi, E. (2007): A three dimensional Finite Volume Model for Acid Mine Drainage Simulation in Opencast Mine Backfill: Water in Mining Environments. – 331–335 p., 3 Abb.; Cagliari (Mako Edizioni).
• Doulati Ardejani, F. & Singh, R. N. (2004): Two-Dimensional Simulation of Pyrite Oxidation and pollutant Transport in backfilled Open Cut Coal Mines. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 121–132, 10 Abb., 3 Tab.; Newcastle upon Tyne (University of Newcastle).
• Doulati Ardejani, F., Singh, R. N., Baafi, E. & Porter, I. (2003): A Finite Element Model to: 1. Predict Groundwater Inflow to Surface Mining Excavations. – Mine Water Environ., 22(1):31–38, 7 Abb., 2 Tab.; doi:10.1007/s102300300005.
• Doulati Ardejani, F., Singh, R. N., Baafi, E. & Porter, I. (2003): A Finite Element Model to: 2. Simulate Groundwater Rebound Problems in Backfilled Open Cut Mines. – Mine Water Environ., 22(1):39–44, 10 Abb.
• Doupé, R. G. & Lymbery, A. J. (2005): Environmental Risks Associated with Beneficial End Uses of Mine Lakes in Southwestern Australia. – Mine Water Environ., 24(3):134–138, 1 Tab.; doi:10.1007/s10230-005-0084-0.
• Dove, P. M. & Rimstidt, J. D. (1985): The Solubility and Stability of Scorodite, FeAsO4.2H₂O. – Am. Mineral., 70(7-8):838–844, 6 Abb., 3 Tab.
• Doveton, J. H. (2018): Mathematical Minerals: A History of Petrophysical Petrography. – In: Daya Sagar, B. S., Cheng, Q. & Agterberg, F. (eds): Handbook of Mathematical Geosciences: Fifty Years of IAMG. – p. 467–481, Cham (Springer); doi:10.1007/978-3-319-78999-6_24.
• Dow – Water and Process Solutions (2013): FILMTEC™ Reverse Osmosis Membranes – Technical Manual: Form No. 609-00071-1009. – 181 p., Midland (Dow).
• Dowdall, M., Vicat, K., Frearson, I., Gerland, S., Lind, B. & Shaw, G. (2004): Assessment of the radiological impacts of historical coal mining operations on the environment of Ny-Alesund, Svalbar. – J. Environ. Radioact., 71(2):101–114, 5 Abb., 5 Tab.
• Dowling, J., Atkin, S., Beale, G. & Alexander, G. (2004): Development of the Sleeper Pit Lake. – Mine Water Environ., 23(1):2–11, 17 Abb., 1 Tab.; doi:10.1007/s10230-004-0038-y.
• Dowling, J., Beale, G. & Bloom, J. (2013): Designing a Large Scale Pit Slope Depressurization System at Bingham Canyon. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 119–124, 4 Abb., 1 Tab.; Golden (International Mine Water Association).
• Dowling, J., Zimmerlund, B., Kennealy, J. & van den Berg, E. (2013): An Integrated Model for Mine Dewatering at the Bagdad Mine. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 125–131, 3 Abb.; Golden (International Mine Water Association).
• Down, R. D. & Lehr, J. H. (2005): Environmental Instrumentation and analysis Handbook. – 1080 p., Hoboken (Wiley); doi:10.1002/0471473332.
• Downing, B. W. & Mills, C. (1998): Quality Assurance/Quality Control for Acid Mine Drainage. – 1 p., 7 Abb.
• Doyama, K., Iwasaki, Y., Hamai, T., Yasutaka, T. & Tomiyama, S. (2024): Assessing the cost and applicability of passive treatment and risk-based point-of-use management for 26 legacy mine drainages. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 149–150; Morgantown (International Mine Water Association).
• Doyle, A. & Aumônier, J. (2003): Alchemy for beginners: social concepts surrounding the artisanal-scale smelting of ochre obtained from mine water treatment. – Land Contam. Reclam., 11(2):301–307, doi:10.2462/09670513.829.
• Doyle, A., O’Connor, P., Harrington, D., Roche, W. & Johnstone, N. (2007): International Partnership addressing Heritage Potential and Remediation of Mine Drainage Impacts on the River Avoca (Ireland) and at Amlwch (Wales): Water in Mining Environments. – 177–180 p., Cagliari (Mako Edizioni).
• Doyle, A. & Palmer, L. (2004): Spoil Heap Leachate Remediation: Some Social Considerations. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 69–74, Newcastle upon Tyne (University of Newcastle).
• Doyle, F. J., Bhatt, H. G. & Rapp, J. R. (1974): Analysis of Pollution Control Costs: EPA-670/2-74-009. – 437 p., zahlr. Abb., zahlr. Tab.; Washington (U.S. Environmental Protection Agengy).
• Doyle, G. A. & Runnells, D. D. (1997): Physical limnology of existing mine pit lakes. – Min. Eng., 49(12):76–80, 5 Abb., 1 Tab.
• Doyle, M. G., Ovejero, G., Videira, J. C. & Vázquez, J. (1999): History of the enviromental Aspects of the Las Cruces Project (Pyrite Belt, Spain). – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 135–141, 9 Abb., 4 Tab.; Sevilla (International Mine Water Association).
• Doyle, S. & Figueroa, L. (2022): Removal of Molybdenum from Mining-Impacted Water by Sorption onto Manganese-Rich Sludge. – Mine Water Environ., 41(3):721–730, doi:10.1007/s10230-022-00893-4.
• Doyle, S. & Figueroa, L. (2024): Electrolytic manganese removal from acid rock drainage. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 151–156; Morgantown (International Mine Water Association).
• Drabick, F. (1970): Der frühere Kupfererzbergbau bei Sommerkahl im Spessart. – Der Aufschluss, 21(5):163–168.
• Drabkowski, E. F. (1993): Water quality impacts at abandoned hardrock mines. – Water Sci. Technol., 28(3-5):399–407.
• Dracos, T. M. (2010): Biocidal – Confronting the Poisonous Legacy of PCBs. – 294 p., Boston (Beacon).
• Dragisic, V. (1991): The Characteristics of Mine Waters in Copper Deposit of Bor (East Serbia). – Proceedings, 4th International Mine Water Association Congress, 1:31–38, 4 Abb., 3 Tab.
• Dragisic, V., Vrvic, M., Milenic, D. & Miladinovic, B. (1999): Mine Waters and Waters of Copper Deposit Tailing Disposals of Serbia and environmental Protection. Hydrogeochemical Aspect. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 527–533, 3 Abb., 4 Tab.; Sevilla (International Mine Water Association).
• Drazin, P. G. (2002): Introduction to Hydrodynamic Stability: Cambridge texts in applied mathematics 32, 1 edn. – 258 p., 78 Abb.; Cambridge (Cambridge University Press).
• Drebenstedt, C. (2016): Financial Calculation of Long Term Tasks in Mine Water Management. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 54–62, Freiberg (TU Bergakademie Freiberg).
• Drebenstedt, C., Agafonov, Y. & Fedorov, G. (2016): Research and development of waste waters vibroacoustic purification methods for mining enterprises. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 859–866, Freiberg (TU Bergakademie Freiberg).
• Drebenstedt, C. & Struzina, M. (2008): Overburden Management for Formation of Internal Dumps in Coal Mines. Paper presented at the First International Seminar on the Management of Rock Dumps, Stockpiles and Heap Leach Pads, Perth, 5–6 March. – p. 139–146; Perth (Australian Centre for Geomechanics).
• Dreiseitl, H., Grau, D. & Leppert, S. (2005): New waterscapes – planning, building and designing with water. – 176 p., zahlr. Abb., zahlr. Tab.; Basel (Birkhäuser); doi:10.1007/3-7643-7875-1.
• Drenzek, N. J., Eglinton, T. I., Wirsen, C. O., May, H. D., Wu, Q., Sowers, K. R. & Reddy, C. M. (2001): The Absence and Application of Stable Carbon Isotopic Fractionation during the Reductive Dechlorination of Polychlorinated Biphenyls. – Environ. Sci. Technol., 35:3310–3313, doi:10.1021/es010547t.
• Drew, G. (1997): Blinman Mine Historic Site. – MESA J., 7:33–36, 13 Abb.
• Dreybrodt, W. (1988): Processes in Karst Systems – Physics, Chemistry, and Geology: Springer Series in Physical Environment 4. – 288 p., 184 Abb.; Heidelberg (Springer); doi:10.1007/978-3-642-83352-6.
• Dreyer, T. O. M. & Falt, L.-M. (1993): Facies analysis and high-resolution sequence stratigraphy of the Lower Eocene shallow marine Ametlla Formation, Spanish Pyrenees. – Sedimentology, 40(4):667–697, doi:10.1111/j.1365-3091.1993.tb01355.x.
• Drinker, C. K., Warren, M. F. & Bennett, G. A. (1937): The Problem of Possible Systemic Effects from Certain Chlorinated Hydrocarbons. – J. Ind. Hyg. Toxicol., 19(7):283–299, 5 Abb., 4 Tab.
• Drinker, P. (1947): Atmospheric trade wastes. – J. Chem. Educ., 24(10):498, doi:10.1021/ed024p498.
• Drinking Water Research Foundation (1999): Analysis of the February 1999 Natural Resources Defense Council Report on Bottled Water. – (Report Nr. July 1999). – 25 p., Alexandria (Drinking Water Research Foundation,).
• Drioli, E. & Macedonio, F. (2012): Membrane Operations in Water Treatment and Reuse. – In: Drelich, J., Hwang, J.-Y., Adams, J., Nagaraj, D. R., Sun, X. & Xu, Z. (eds): Water in Mineral Processing. – p. 105–113, 1 Abb.; Littleton (SME).
• Driscoll, C. T., Cirmo, C. P., Fahey, T. J., Blette, V. L., Bukaveckas, P. A., Burns, D. A., Gubala, C. P., Leopold, D. J., Newton, R. M., Raynal, D. J., Schofield, C. L., Yavitt, J. B. & Porcella, D. B. (1996): The experimental watershed liming study: Comparison of lake and watershed neutralization strategies. – Biogeochemistry, 32(3):143–174, 8 Abb., 7 Tab.
• Drizo, A., Frost, C. A., Grace, J. & Smith, K. A. (2000): Phosphate and Ammonium Distribution in a Pilot-scale Constructed Wetland with Horizontal Subsurface flow Using Shale as a Substrate. – Water Res., 34(9):2483–2490.
• Drobe, M., Schippers, A. & Vasters, J. (2016): Economic Potential for reprocessing Copper Mine Tailings in Chile. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1364–1365, Freiberg (TU Bergakademie Freiberg).
• Drobek, T., Altermann, W., Frei, M., Heckl, W. M., Kantioler, M., Müller, W., Stark, R. W., Strobel, J. & Wolkersdorfer, Ch. (2009): NanoPorO – Nano-Structure and Wetting Properties of Sedimentary Grains and Pore-Space Surface: Grain Mineralogy and Pore Morphology. – Geotechnologien – Science Report, 16:65–75, 9 Abb.
• Drobniewski, M., Balzer, I., Frankenhoff, H. & Witthaus, H. (2017): Mine Water Management in the Ruhr coalfield. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 183–188, Lappeenranta (Lappeenranta University of Technology).
• Drobniewski, M., Karus, C. & Löchte, J. (2018): Retreat to the Future: Shaping the Post-Mining Era. – Mine Water Environ., 37(4):866–867, doi:10.1007/s10230-018-0565-6.
• Drozdzewski, G., Hiss, M., Lehmann, F., Michel, G., Skupin, K., Staude, H., Thiermann, A., Dahm-Arens, H. & Finke, W. (1995): Geologie im Münsterland. – 195 p., 50 Abb., 6 Tab., 1 Anl.; Krefeld (Geologisches Landesamt Nordrhein-Westfalen).
• Drummond, A. B. & Hammond, A. M. (2018): Regional Mine Water Treatment Plant – Tolled Treatment Financial Analysis and Viability. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 993–998; (Tshwane University of Technology).
• Drummond, G. B. (1979): More on Calculation of Mean pH Values. – Anesth. Analg., 58(1):63.
• Drury, L. (1998): Mine Water Management by Aquifer Injection Engineering: Mine Water and Environmental Impacts 1. – 25–30 p., 2 Abb.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Drury, L. (1999): Challenges in Mine Development and Closure in the Australasian Region. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 725–727, Sevilla (International Mine Water Association).
• Drury, W. J. (1999): Treatment of acid mine drainage with anaerobic solid-substrate reactors. – Water Environ. Res., 71(6):1244–1250, 11 Abb., 1 Tab.; doi:10.2175/106143096X122375.
• Drury, W. J. (2000): Modeling of Sulfate Reduction in Anaerobic Solid Substrate Bioreactors for Mine Drainage Treatment. – Mine Water Environ., 19(1):19–29, 3 Abb.
• Druzbicka, J. & Craw, D. (2015): Metalloid Attenuation from Runoff Waters at an Historic Orogenic Gold Mine, New Zealand. – Mine Water Environ., 34(4):417–429, doi:10.1007/s10230-014-0316-2.
• Druzbicka, J., Rufaut, C. & Craw, D. (2015): Evaporative Mine Water Controls on Natural Revegetation of Placer Gold Mines, Southern New Zealand. – Mine Water Environ., 34(4):375–387, doi:10.1007/s10230-014-0303-7.
• Dryburgh, P. A., Norton, P. J. & Scott, W. B. (1991): A Source of Manganese Pollution in Appalachian Coal Shales. – Proceedings, 4th International Mine Water Association Congress, 1:39–45, 3 Abb., 2 Tab.
• Du, F., Ni, X., Yan, J., Wang, W. & Zhang, Y. (2024): Predicting Water Abundance in the Strata Surrounding Coal Seams Based on the Hydrodynamic Evolution of Groundwater. – Mine Water Environ., 43(4):742–757, doi:10.1007/s10230-024-01009-w.
• Du, J., Liu, Y. Y., Zhang, X. Q., Qiu, M. Y., Zhang, L. Y. & Fan, Y. N. (2013): Fe⁰/Zn0 PRB Technology for the Remediation of PCBs Contaminated Groundwater. – Appl. Mech. Mater., 295-298:1364–1367, 3 Abb., 1 Tab.; doi:10.4028/www.scientific.net/AMM.295-298.1364.
• Du, L., Liu, S., Wei, J., Zhu, N. & Zhou, X. (2014): Application of Integrated Geophysics Method for Detecting Collapse Column in Some Coal Mines. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 340, Xuzhou (International Mine Water Association).
• Du Plessis, A., Harmse, T. & Ahmed, F. (2014): Quantifying and Predicting the Water Quality Associated with Land Cover Change: A Case Study of the Blesbok Spruit Catchment, South Africa. – Water, 6(10):2946–2968, doi:10.3390/w6102946.
• du Plessis, H. M. (1983): Using Lime Treated Acid-Mine Water for Irrigation. – Water Sci. Technol., 15(2):145–154, 5 Abb., 3 Tab.; doi:10.2166/wst.1983.0030.
• du Preez, K. (2021): Mintek’s Integrated cloSURE™ Technology for Treatment of Acid Mine Drainage. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 129–135; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• du Preez, K., Gericke, M. & Maharajh, D. (2018): The Impact of Sulphide Concentration on Microbial Activity in a Biological Sulphate Reduction Process. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 114; (Tshwane University of Technology).
• du Preez, K. & Marumo, M. (2024): Feasibility of the scale-up of a semi-passive biological Sulfate Reduction Process Treating High Sulfate Mine-Influenced Water. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 157–162; Morgantown (International Mine Water Association).
• Du Preez, L. A., Maree, J. P. & Jackson-Moss, C. A. (1991): Biological Sulphate Removal from Mining Effluents Utilizing Producer Gas as Energy Source. – Proceedings, 4th International Mine Water Association Congress, 2:255–264, 5 Abb., 3 Tab.
• Du Rietz, G. E. (1954): Die Mineralbodenwasserzeigergrenze als Grundlage einer natürlichen Zweigliederung der nord- und mitteleuropäischen Moore. – Vegetatio, 5/6(1):571–585, doi:10.1007/BF00299611.
• Du, T., Bogush, A., Edwards, P., Stanley, P. & Campos, L. C. (2021): Algae Bioaccumulation Capacity for Metals in Acid Mine Drainage (AMD) – A Case Study in Frongoch Mine, the UK. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 136–138; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• du Toit, A. L. (1928): Borehole water supplies in the Union of South Africa. – Civil Engineering = Siviele Ingenieurswese, 1928(1):74–133.
• du Toit, I., Jansen, H. & Johnstone, A. (1998): Assessing Groundwater Quality Trends after Mine Closure – The South African Situation: Mine Water and Environmental Impacts 2. – 359–365 p., 2 Abb., 1 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Du Toit, W. H. & Sonnekus, C. J. (2014): An Explanation of the 1: 500 000 General Hydrogeological Map – Nelspruit 2530. – 136 p., 106 Abb., 13 Tab.; Pretoria (Department of Water Affairs).
• Du, W. & Peng, S. (2019): Aquifer Variation Characteristics of Coal Overlying Strata by Time-lapse Resistivity Monitoring. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 652–655; Perm, Russia (Perm State University).
• Duah, A. A. (2010): Sustainable Utilisation of Table Mountain Group Aquifers. – 167 p., PhD, University of the Western Cape; Cape Town.
• Duan, L., Lin, R., Deng, S., Jin, H. & Cai, R. (2004): A novel IGCC system with steam injected H2/O2 cycle and CO₂ recovery. – Energy Convers. Manage., 45(6):797–809.
• Duan, X. L., Ma, F. S., Gu, H. Y., Guo, J., Zhao, H. J., Liu, G. W. & Liu, S. Q. (2022): Identification of Mine Water Sources Based on the Spatial and Chemical Characteristics of Bedrock Brines: A Case Study of the Xinli Gold Mine. – Mine Water Environ., 41:126–142, doi:10.1007/s10230-021-00810-1.
• Duan, Z., Moller, N. & Weare, J. H. (1992): An equation of state for the CH₄-CO₂-H₂O system: I. Pure systems from 0 to 1000°C and 0 to 8000 bar. – Geochim. Cosmochim. Acta, 56:2605–2617, 14 Abb., 8 Tab., 1 Anh.
• Duane, M. J., Pigozzi, G. & Harris, C. (1997): Geochemistry of some deep gold mine waters from the western portion of the Witwatersrand Basin, South Africa. – J. Afr. Earth Sci., 24(1-2):105–123, 6 Abb., 2 Tab.; doi:10.1016/S0899-5362(97)00030-4.
• Duarte, J. C., Estrada, P., Beaumont, H., Sitima, M. & Pereira, P. (1990): Biotreatment of Tailings for Metal recovery. – Int. J. Mine Water, 9(1-4):193–206, 4 Abb., 3 Tab.; doi:10.1007/BF02503692.
• Duarte, R. A. & Ladeira, A. C. (2011): Study of Manganese Removal from Mining Effluent: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 297–300 p., Aachen (RWTH Aachen University).
• Dube, G., Mello, T., Vadapalli, V., Coetzee, H., Tegegn, K., Lusunzi, R., Moja, S., Malatji, M., Sinthumule, M. E. & Ramatsekisa, R. (2021): Full-scale Reducing And Alkalinity Producing System (RAPS) For The Passive Remediation Of Polluted Mine Water From A Flooded Abandoned Underground Coal Mine, Carolina, South Africa. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 352–358; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Dube, M. G., Ramasenya, K. & Van Zweel, N. (2019): The Use of Passive Treatment Systems To Remediate AMD from Abandoned Coal Mines, EMalahleni, South Africa – Column Experiments. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 167–174; Perm, Russia (Perm State University).
• Dubinchuk, V., Fröhlich, K. & Gonfiantini, R. (1989): Isotope hydrology: Investigating groundwater contamination – Environmental isotopes are used to study serious pollution problems. – IAEA Bulletin, 31(1):24–27, 3 Abb., 2 Tab.
• Dubois, C., Quinif, Y., Baele, J. M., Barriquand, L., Bini, A., Bruxelles, L., Dandurand, G., Havron, C., Kaufmann, O., Lans, B., Maire, R., Martin, J., Rodet, J., Rowberry, M. D., Tognini, P. & Vergari, A. (2014): The process of ghost-rock karstification and its role in the formation of cave systems. – Earth-Sci. Rev., 131:116–148, doi:10.1016/j.earscirev.2014.01.006.
• Duchnowska, M. (2022): Mining-Induced Anthropogenic Transformations of the Wielka Kopa Massif—Case Study of Rudawy Janowickie, the Sudetes. – Sustainability-Basel, 14(2) doi:10.3390/su14020874.
• Duchrow, G. (2001): Kali und Kohlensäure in einem – ein Kapitel südthüringische Kalibergbaugeschichte: Heft 1. – 64 p., 39 Abb.; Sondershausen (Sondershäuser Hefte zur Geschichte der deutschen Kali-Industrie).
• Dudek, F. (2009): Quellkartierung und hydrochemische Untersuchung des Teisenberg- und Sulzberggebiets (Kombinierte Diplomarbeit und Kartierung). – 122 p., Diplom, Ludwig-Maximilians-Universität München, 35 Abb., 15 Tab., 14 Anl.; München.
• Dudel, G. E., Brackhage, C., Dienemann, H., Mkandawire, M. & Weiske, A. (2004): Capacity of natural Attenuation of Trace Contaminants from Uranium Mine Tailing Waters in nature-like constructed Wetlands. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 25–33, 3 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Dudeney, A. W. L., Chan, B. K. C., Bouzalakos, S. & Huisman, J. L. (2012): Management of waste and wastewater from mineral industry processes, especially leaching of sulphide resources: state of the art. – Int. J. Min. Reclam. Environ., 27(1):2–37, doi:10.1080/17480930.2012.696790.
• Dudeney, A. W. L., Neville, K. J., Tarasova, I., Heath, A. O. D. & Smith, S. R. (2004): Utilisation of ochreous Sludge as a Soil Amendment. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 31– 40, 4 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Dudeney, B., Demin, O. & Tarasova, I. (2003): Control of ochreous deposits in mine water treatment. – Land Contam. Reclam., 11(2):259–266, doi:10.2462/09670513.823.
• Dudgeon, B. (1997): Mine Water Management Study for the Lake Cowal Gold Project, NSW Australia. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:273–282, 3 Abb., 2 Tab.
• Dudgeon, B. (1999): Mine-Related Impacts on Water Supplies for Developing Communities: Case Study in the Philippines. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 495–499, 2 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Dudgeon, B. & Younger, P. (2003): The hydrogeochemical evolution of groundwater inflow to ventilated underground voids. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 391–400, 6 Abb.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Dudgeon, B. A. & Dudgeon, C. R. (1994): The Importance of Geological Investigations in Modelling the Effects of Dewatering Open Pit Mines – A Case Study. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:453–466, 6 Abb.
• Dudgeon, C. R. (1985): Unconfined non-darcy flow near open-pit mines. – Proceedings, 2nd International Mine Water Association Congress, 1:443–454.
• Dudgeon, C. R. (1988): Achievments in Mine Water Management and Research – General Report. – Proceedings, 3rd International Mine Water Congress, Melbourne:693–697.
• Dudgeon, C. R. (1991): Fracture Distribution and Permeability Around Ore Bodies in a Dolomite Aquifer. – Proceedings, 4th International Mine Water Association Congress, 1:47–59, 9 Abb.
• Dudgeon, C. R. (1994): Baseline Data Requirements for Assessing and Predicting Environmental Effects of Open Pit Mining. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:387–400, 6 Abb.
• Dudgeon, C. R. (1997): Problems in Separating the Effects of Drought and Mine De-watering in a Farming Area Surrounding a Limestone Mine. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:221–233, 5 Abb.
• Dudgeon, C. R. (1998): Relative Contributions of Near-Mine and regional Aquifer Properties to Water Table Lowering near Open-Pit Mines: Mine Water and Environmental Impacts 2. – 249–258 p., 4 Abb., 1 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Dudgeon, C. R. & Kalf, F. R. P. (2000): Contaminant transport from proposed Jabiluka mine uranium tailings paste repositories – conceptual description. – Proceedings, 7th International Mine Water Association Congress:103–114, 3 Abb.
• Dudgeon, C. R. & Kalf, F. R. P. (2002): Contaminant transport from proposed Jabiluka mine uranium tailings paste repositories – 10,000 year dispersion and dilution analysis. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 107–114, 5 Abb.; Heidelberg (Springer).
• Dudgeon, C. R. & Waite, T. D. (1999): Disposal of Uranium Tailings as Paste. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 305–310, Sevilla (International Mine Water Association).
• Duester, L., Vink, J. P. M. & Hirner, A. V. (2008): Methylantimony and -arsenic Species in Sediment Pore Water Tested with the Sediment or Fauna Incubation Experiment. – Environ. Sci. Technol., 42(16):5866–5871, doi:10.1021/es800272h.
• Duffus, J. H. (2002): “Heavy Metals” – A meaningless term? – Pure Appl. Chem., 74(5):793–807, 3 Abb., 4 Tab.; doi:10.1351/pac200274050793.
• Dufresne, A. (2014): An Overview of Rock Avalanche-Substrate Interactions. – In: Sassa, K., Canuti, P. & Yin, Y. (eds): Landslide Science for a Safer Geoenvironment 1. – p. 345–349, 3 Abb.; Heidelberg (Springer International Publishing); doi:10.1007/978-3-319-04999-1_49.
• Dufresne, A. & Davies, T. R. (2009): Longitudinal ridges in mass movement deposits. – Geomorphology, 105(3-4):171–181, doi:10.1016/j.geomorph.2008.09.009.
• Dufresne, A., Prager, C. & Bosmeier, A. (2016): Insights into rock avalanche emplacement processes from detailed morpho-lithological studies of the Tschirgant deposit (Tyrol, Austria). – Earth Surf. Proc. Land., 41(5):587–602, 13 Abb., 1 Tab.; doi:10.1002/esp.3847.
• Dufresne, A., Prager, C. & Clague, J. J. (2015): Complex Interactions of Rock Avalanche Emplacement with Fluvial Sediments: Field Structures at the Tschirgant Deposit, Austria. – In: Lollino, G., et al. (eds): Engineering Geology for Society and Territory – Volume 2. – p. 1707–1711, (Springer); doi:10.1007/978-3-319-09057-3_333.
• Dufresne, K., Neculita, C., Brisson, J. & Genty, T. (2015): Metal Retention Mechanisms in Pilot-Scale Constructed Wetlands Receiving Acid Mine Drainage. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–8 [electronic document], Santiago/Chile (Gecamin).
• Dufresne, M. W. (1995): Falconbridge’s Raglan Project. Paper presented at the Sudbury ’95 – Mining and the Environment, Sudbury. – p. 249–255, 2 Abb.; Ottawa (Canmet).
• Duggan, L. A., Wildeman, T. R. & Updegraff, D. M. (1992): The Aerobic Removal of Manganese from Mine Drainage by an Algal Mixture Containing Cladophora. Paper presented at the National Meeting of the American Society for Surface Mining and Reclamation, Duluth. – p. 241–248, 2 Abb.; 1 Tab.
• Duigan, C. A., Allott, T. E. H., Bennion, H., Lancaster, J., Monteith, D. T., Patrick, S. T., Ratcliffe, J. & Seda, J. M. (1996): The Anglesey Lakes, Wales, UK – a Conservation Resource. – Aquat. Conserv.-Mar. Freshw. Ecosyst., 6(1):31–55.
• Duinker, J. C. (1986): The role of small, low density particles on the partition of selected PCB congeners between water and suspended matter (North Sea area). – Neth. J. Sea Res., 20(2):229–238, doi:10.1016/0077-7579(86)90045-1.
• Duis, K. & Oberemm, A. (2000): Sensitivity of early life stages of vendace, Coregonus albula, to acid pH in postmining lakes: An experimental approach. – Environ. Toxicol., 15(3):214–224, doi:10/c2wp28.
• Duis, K. & Oberemm, A. (2000): Survival and sublethal responses of early life stages of pike exposed to low pH in artificial post-mining lake water. – J. Fish Biol., 57(3):597–613, doi:10.1111/j.1095-8649.2000.tb00263.x.
• Duke, C. L., Roback, R. C., Reimus, P. W., Bowman, R. S., McLing, T. L., Baker, K. E. & Hull, L. C. (2007): Elucidation of Flow and Transport Processes in a Variably Saturated System of Interlayered Sediment and Fractured Rock Using Tracer Tests. – Vadose Zone J., 6(4):855–867, 8 Abb., 3 Tab.; doi:10.2136/vzj2006.0102.
• Dülfer, K., Korn, H.-E. & Uhde, K. (1981): Gebräuchliche Abkürzungen des 16. – 20. Jahrhunderts. – Veröffentlichungen der Archivschule Marburg, 1:1–93.
• Dulias, R. (2016): The Impact of Mining on the Landscape – A Study of the Upper Silesian Coal Basin in Poland doi:10.1007/978-3-319-29541-1.
• Dulinski, M., Grabczak, J. & Zuber, A. (2000): Stable isotopes and hydrochemical data as a tool for identifying the origin of waters appearing in the Klodawa Salt Mine (Poland). – Proceedings, 7th International Mine Water Association Congress:530–535, 2 Abb.
• Dumakude, S. K. (2023): Assessment of Groundwater Ingress Into Mine Workings from the Deep-Seated Fractured Rock Aquifer in the Bushveld Igneous Complex at Dishaba Mine. – 99 p., MSc, University of the Free State; Bloemfontein.
• Dumpleton, S., Robins, N. S., Walker, J. A. & Merrin, P. D. (2001): Mine water rebound in South Nottinghamshire: risk evaluation using 3-D visualization and predictive modelling. – Q. J. Eng. Geol. Hydrogeol., 34(3):307–319, 6 Abb., 3 Tab.; doi:10.1144/qjegh.34.3.307.
• Dunbar, D. & Pieters, R. (2008): Modeling a Physical Mechanism for Removal of Trace Elements from Pit Lake Surface Waters. – Proceedings, 10th International Mine Water Association Congress:563–566.
• Dundon, P. J., Humphreys, D. & Hebblewhite, B. (1988): Roof Depressurization for Total Extraction Mining Trials Collie Basin, Western Australia. – Proceedings, 3rd International Mine Water Congress, Melbourne:743–752, 7 Abb., 1 Tab.
• Dunlap, C. E., Bouse, R. & Flegal, A. R. (2000): Past leaded gasoline emissions as a nonpoint source tracer in riparian systems: A study of river inputs to San Francisco Bay. – Environ. Sci. Technol., 34(7):1211–1215.
• Dunne, R. (2012): Water Water Everywhere and Not a Drop to Drink, Nor Do I Know Its Whereabouts: Water in Mineral Processing. – 1–15 p., 2 Abb.; Littleton (SME).
• Dunnington, L., Mahoney, M., Prestbo, K. & Butler, B. (2024): Mining-Influenced Water Treatment Technology Demonstration Program lessons learned from two EPA Superfund sites. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 163–167; Morgantown (International Mine Water Association).
• Dupalová, T., Sracek, O., Vencelides, Z. & Žák, K. (2012): The origin of thermal waters in the northeastern part of the Eger Rift, Czech Republic. – Appl. Geochem., 27(3):689–702, 9 Abb., 5 Tab.; doi:10.1016/j.apgeochem.2011.11.016.
• Duplessis, G. H. & Swartz, J. A. (1992): Tubular Reverse-Osmosis Treatment of Secunda Mine Water – A Pilot-Plant Investigation. – Water Sci. Technol., 25(10):193–201, doi:10.2166/wst.1992.0247.
• Duquène, L., Vandenhove, H., Tack, F., Avoort, E. v. d., Wannijn, J. & Hees, M. v. (2005): Phytoavailability of uranium: influence of plant species and soil characteristics. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 469–476, Heidelberg (Springer).
• Durán, A. P., Rauch, J. & Gaston, K. J. (2013): Global spatial coincidence between protected areas and metal mining activities. – Biol. Conserv., 160:272–278, 2 Abb., 3 Tab.; doi:10.1016/j.biocon.2013.02.003.
• Durand, J. F. (2012): The impact of gold mining on the Witwatersrand on the rivers and karst system of Gauteng and North West Province, South Africa. – J. Afr. Earth Sci., 68:24–43, doi:10.1016/j.jafrearsci.2012.03.013.
• Durand, J. F., Meeuvis, J. & Fourie, M. (2010): The threat of mine effluent to the UNESCO status of the Cradle of Humankind World Heritage Site. – TD J. Transdiscipl. Res. S. Afr., 6(1):73–92, 2 Abb., 2 Tab.
• Duren, S. M. & McKnight, D. M. (2013): Wetland Photochemistry as a Major Control on the Transport of Metals in an Acid Mine Drainage Impacted Watershed. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 973–975, 3 Abb.; Golden (International Mine Water Association).
• Duric, N. (1991): Lavel of Water Content of the Salt Deposits in the Tuzla Basin. – Proceedings, 4th International Mine Water Association Congress, 1:25–30, 1 Abb.
• Duricová, A., Prepilková, V., Salva, J., Mordácová, M., Schwarz, M., Samesová, D., Vanek, M., Veverková, D. & Ponist, J. (2024): Influence of Different Conditions on the Sorption of Potentially Toxic Elements by Selected Sorbents: A Review. – Mine Water Environ., 43(4):588–622, doi:10.1007/s10230-024-01013-0.
• Durjava, M. K., ter Laak, T. L., Hermens, J. L. & Struijs, J. (2007): Distribution of PAHs and PCBs to dissolved organic matter: high distribution coefficients with consequences for environmental fate modeling. – Chemosphere, 67(5):990–7, doi:10.1016/j.chemosphere.2006.10.059.
• Durkee, F. W. (1896): Action of Water of the Hubb Coal Mine Upon Cast Iron. – Am. Chem. J., 18(10):849–858, 2 Tab.
• Durov, S. A. (1948): Klassifikacija prinodnych vodi graficeskoje izobrazenie ich sostava [Classification of natural waters and graphic representation of their composition]. – Doklady Akad. Nauk SSSR, 59(1):87–90, 1 Abb.
• Durston, K. J. (1979): Open Pit Dewatering at Pine Point: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 275–303 p., 6 Abb., 5 Tab.; San Francisco (Freeman).
• Dušan, B., Jozef, K., Igor, S., Peter, M., Pavel, L., Daniel, P., Jarmila, B. & Daniel, M. (2010): Mineral waters in Slovakia — Evaluation of chemical composition stability using both historical records and the most recent data. – J. Geochem. Expl., 107(3):382–390, doi:https://doi.org/10.1016/j.gexplo.2010.06.009.
• Dushenkov, S., Vasudev, D., Kapulnik, Y., Gleba, D., Fleisher, D., Ting, K. C. & Ensley, B. (1997): Removal of Uranium from Water Using Terrestrial Plants. – Environ. Sci. Technol., 31(12):3468–3474, 9 Abb., 2 Tab.
• Duthe, D. M., Mahoney, J. J., Shchipansky, A. A. & Terrell, C. L. (2011): Assessment of the Process of Pit Lake Formation and Associated Geochemistry in Open Pits – Mupane Gold Mine, Botswana: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 511–516 p., Aachen (RWTH Aachen University).
• Duval, W., Batur, C. & Zhong, H. (2003): Flow Field Measurement of Mixing Driven by Buoyancy. Paper presented at the 41st Aerospace Sciences Meeting and Exhibit, Reno, 6 – 9 January 2003. – p. AIAA 2003–1158 1 – 9; Reston (American Institute of Aeronautics and Astronautics ).
• Dvofacek, J., Malikova, P., Sousedikova, R., Heviankova, S., Rys, P. & Osickova, I. (2022): Water production as an option for utilizing closed underground mines. – J. S. Afr. I. Min. Metall., 122(10):1–7, doi:10.17159/2411-9717/1439/2022.
• Dvorácek, J., Vidlár, J., Šterba, J., Heviánková, S., Vanek, M. & Bartak, P. (2012): Economics of mine water treatment. – J. S. Afr. Inst. Min. Metall., 112:157–159, 1 Abb., 1 Tab.
• Dy, E., Tufa, K., Fisher, E., Liu, Z.-S. S., Morin, K., O'Kane, M., O'Hearn, T., Huang, C. & Wei, Q. (2021): The Relationships Between Negative Pore-water Potential, Water Content, Relative Humidity and Sulfide Oxidation in Waste Rock -- a Case Study. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 139–144; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Dye, P. J. & Weiersbye, I. (2010): The Mine Woodlands Project in the Witwatersrand Basin, South Africa: research strategy and progress. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 471–475, Sydney, NS (Cape Breton University Press).
• Dyunin, V. I. & Vsevolozhskii, V. A. (1996): Analysis of regularities in the hydrodynamics of deep stratified systems. – Moscow University Geology Bulletin C/c Of Vestnik- Moskovskii Universitet Geologiia, 51(3):50–57, 3 Abb., 1 Tab.
• Dzimbanhete, V. L., Hegg, F., Alakangas, L., Karlsson, T., Peinerud, E., Paulsson, O. & Aiglsperger, T. (2023): Uranium Sources And Mobility At An Iron Ore Mine Site In Northern Sweden. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 148–153; (International Mine Water Association).
• Dzombak, D. A. & Morel, F. M. M. (1990): Surface Complexation Modeling – Hydrous Ferric Oxide. – 393 p., New York (Wiley); doi:10.1016/S0016-7037(97)81467-6.
• Dzwairo, B. & Mujuru, M. (2017): Assessment of Impacts of Acid Mine Drainage on Surface Water Quality of Tweelopiespruit Micro-Catchment, Limpopo Basin. – In: Tutu, H. (ed) Water Quality. – p. 337–359, 21 Abb., 1 Tab.; London (IntechOpen); doi:10.5772/65810.
• Earle, J. & Callaghan, T. (1998): Impacts of Mine Drainage on Aquatic Life, Water Uses, and Man-Made Structures. – In: The Pennsylvanian Department of Environmental Protection (ed) Coal mine drainage prediction and pollution prevention in Pennsylvania. – p. 4–1–4–10, 1 Abb., 3 Tab.; Harrisburg (Pennsylvanian Bureau of Mining and Reclamation).
• Earley, D. (2023): Effect of Temperature on Arsenic Treatment and Mobility in Mine Influenced Water. – Mine Water Environ., 42(2):211–219, doi:10.1007/s10230-023-00931-9.
• Earth Sciences Research Laboratory (1998): Earth Manual – Part I, 3 edn. – 329 p., 157 Abb.; Denver (U.S. Department of the Interior).
• Earthworks (2012): U.S. Copper Porphyry Mines – The track record of water quality impacts resulting from pipeline spills, tailings failures and water collection and treatment failures. – 33 p., Washington (Earthworks).
• Earthworks & Oxfam America (2004): Dirty Metals – Mining, Communities and the Environment. – 33 p., 7 Abb., 2 Tab.; Washington, Boston (Earthworks and Oxfam America).
• Eary, L. E., Gluski, H., Mueller, S., Duke, K., Wickham, M. & Castendyk, D. (2017): Sulfide Oxidation Kinetics in Low-Sulfur Tailings. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 737–744, Lappeenranta (Lappeenranta University of Technology).
• Eary, T. (2015): Using Oxygen Consumption Rates as a Guide to Scale Up Laboratory Kinetic Data to Field Conditions. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• East, D. & Fernandez, R. (2021): Managing Water to Minimize Risk in Tailings Storage Facility Design, Construction, and Operation. – Mine Water Environ., 40(1):36–41, doi:10.1007/s10230-020-00720-8.
• Eastoe, C. J. (1978): Fluid Inclusion Study of Panguna-Porphyry-Copper-Deposit, Bougainville, Papua-New-Guinea. – Econ. Geol., 73(5):721–748, doi:10.2113/gsecongeo.73.5.721.
• Eastoe, C. J. (1979): The formation of the Panguna Porphyry copper deposit, Bougainville, Papua New Guinea: with an appendix on the Frieda porphyry copper prospect, New Guinea. – PhD, University of Tasmania; Hobart.
• Eastoe, C. J. (1982): Physics and Chemistry of the Hydrothermal System at the Panguna Porphyry Copper-Deposit, Bougainville, Papua New-Guinea. – Econ. Geol., 77(1):127–153, doi:10.2113/gsecongeo.77.1.127.
• Eastoe, C. J. (1983): Sulfur Isotope Data and the Nature of the Hydrothermal Systems at the Panguna and Frieda Porphyry Copper-Deposits, Papua-New-Guinea. – Econ. Geol., 78(2):201–213, doi:10.2113/gsecongeo.78.2.201.
• Eastoe, C. J. & Eadington, P. J. (1986): High-Temperature Fluid Inclusions and the Role of the Biotite Granodiorite in Mineralization at the Panguna Porphyry Copper-Deposit, Bougainville, Papua-New-Guinea. – Econ. Geol., 81(2):478–483, doi:10.2113/gsecongeo.81.2.478.
• Easton, D. F. (2002): Schliemann’s Excavations at Troia 1870-1873: Studia Troica – Monographien. – 419 p., 194 Taf., 13 Beil.; Mainz (Zabern).
• Easton, D. F., Hawkins, J. D., Sherratt, A. G. & Sherratt, E. S. (2002): Troy in recent perspective. – Anatolian Studies, 52:75–109, 11 Abb.; doi:10.2307/3643078 .
• Ebel, H. F., Bliefert, C. & Greulich, W. (2006): Schreiben und Publizieren in den Naturwissenschaften, 5. edn. – 672 p., Weinheim (Wiley-VCH).
• Ebel, T., Krause, W., Jünger, A., Oppelt, L., Wunderlich, T., Raithel, F., Grab, T. & Fieback, T. (2025): Comparison of Optimised Models for the Investigation of Heating Potentials in Abandoned Mines Using Mine Water. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 273–278; Braga (International Mine Water Association).
• Ebel, T., Oppelt, L., Wunderlich, T., Grab, T. & Fieback, T. (2023): Development of an Improved Model to Investigate Heating Potentials in Abandoned Mines Utilising Mine Water. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 154–158; (International Mine Water Association).
• Ebeling, W. (1986): Betriebserfahrungen mit dem Wurzelraumverfahren. – Schriftenr. WAR, 26:31–49, 6 Abb., 1 Tab.
• Ebihara, M. & Miura, T. (1996): Chemical characterisitcs of the Cretaceous-Tertiary boundary layer at Gubbio, Italy. – Geochim. Cosmochim. Acta, 60(24):5133–5144.
• Ebner, F. (2000): Metallogenese im Norischen Composite Terrane der Ostalpen. – Mitt. Österr. Geol. Ges., 91 (1998):117–126, 2 Abb., 1 Tab.
• Ebster, M., Hessenberger, E., Holdermann, C.-S., Kasper, M., Keiler, B., Pfeifer, K., Plangg, G., Rhomberg, R., Stocker, K. & Walser, C. (2011): Netza, Monigg und Sasarscha – Traditionelle Berglandwirtschaft in Gortipohl: Montafoner Schriftenreihe 23. – 384 p., Schruns (Eigenverlag Stand Montafon).
• Eby, G. N. (2004): Principles of environmental geochemistry. – 514 p., Long Grove (Waveland Press).
• Eccarius, B. (1998): Groundwater monitoring and isotope investigation of contaminated wastewater from an open pit mining lake. – Environ. Geosci., 5(4):156–161, Refs: 13; illus. incl. 1 table.
• Ece, O. I. & Coban, F. (1994): Geology, occurrence, and genesis of Eskisehir sepiolites, Turkey. – Clays Clay Miner., 42(1):81–92, 11 Abb., 2 Tab.
• Eckart, M., Gzyl, G., Kories, H., Metz, M., Rengers, R. & Paul, M. (2007): Das Boxmodell-Konzept – Von der modellbasierten Flutungskonzeption des Wismut-Standorts Ronneburg zur Anwendung in der deutschen Steinkohle. – Internationales Bergbausymposium WISMUT 2007:439–446, 7 Abb.
• Eckart, M. & Klinger, C. (2015): Erfahrungen aus der Weiterentwicklung von Modellkonzepten für Grubenflutungen bei der Deutschen Steinkohle sowie für Internationale Anwendungsfälle. – In: Paul, M. (ed) Sanierte Bergbaustandorte im Spannungsfeld zwischen Nachsorge und Nachnutzung – WISSYM 2015. – p. 107–116, 5 Abb., 1 Tab.; Chemnitz (Wismut GmbH).
• Eckart, M., Klinger, C., Dennis, I. & Dennis, R. (2016): Coupled reactive mass transport for the East Rand Basin. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1175–1182, Freiberg (TU Bergakademie Freiberg).
• Eckart, M., Kories, H., Rengers, R. & Unland, W. (2004): Appplication of a numerical model to facilitate mine water management in large coal fields in Germany. – In: Dia, A. (ed) mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 209–218, 11 Abb.; Newcastle upon Tyne (University of Newcastle).
• Eckart, M., Kories, H. & Rüterkamp, P. (2012): Anwendungsorientierte Prognoseverfahren zur Einstellung und Erhaltung von Dichteschichtungen in gefluteten Grubenräumen – Abschlussbericht. – Unpubl. Report for RAG AG (Report Nr. Forschungsvorhaben 37010000). – 230 p., Essen (DMT GmbH & Co. KG).
• Eckart, M., Kories, H., Rüterkamp, P., Kaul, V. & Bems, C. (2011): Flow- and Heat-Transport-Simulation with an optimized discretization of the geological structure model. – In: Rüde, T. R., Freund, A. & Wolkersdorfer, Ch. (eds): Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – p. 167–170, Aachen (RWTH Aachen University).
• Eckart, M., Rüterkamp, P., Klinger, C., Kories, H. & Gzyl, G. (2010): Qualitätsentwicklung der Grubenwässer bei der Flutung von Steinkohlen- und Erzbergwerken. – Wiss. Mitt. Inst. Geol., 42:123–132, 9 Abb.
• Eckart, M. & Unland, W. (2000): Numerical model for water managment at complicate underground workings. – Proceedings, 7th International Mine Water Association Congress:536–543, 2 Abb.
• Ecke, H., Menad, N. & Lagerkvist, A. (2003): Carbonation of municipal solid waste incineration fly ash and the impact on metal mobility. – J. Environ. Engineering, 129(5):435–440, doi:10.1061/(ASCE)0733-9372(2003)129:5(435).
• Eckenbrecher, G. v. (1875): Die Lage des Homerischen Troja. – 63 p., 1 Anl., 2 Kart.; Düsseldorf (Buddens).
• Eckhart, E. & Riepler, F. (2004): Sicherungsmaßnahmen in den Altbergbauen Nassereith (Tirol) und Schlaining (Burgenland) unter besonderer Berücksichtigung der hydrogeologischen Verhältnisse. – In: Meier, G., et al. (eds): 4. Altbergbau-Kolloquium – Tagungsband. – p. 154–170, 15 Abb.; Essen (Glückauf).
• Edelhoff, D., Peter, C., Kunz, J. & Pollmann, H.-D. (2019): Tunnelbau trifft Bergbau – Besondere technische Herausforderungen bei der Projektierung und Planung des Grubenwasserkanals Ibbenbüren. – GeoResources, 4:39–44, 5 Abb.
• Edenborn, H. M. & Brickett, L. A. (2001): Bacteria in Gel Probes: Comparison of the Activity of Immobilized Sulfate-reducing Bacteria with in Situ Sulfate Reduction in a Wetland Sediment. – J. Microbiol. Methods, 46(1):51–62.
• Edmunds, W. M. & Gaye, C. B. (1997): Naturally High Nitrate Concentrations in Groundwaters from the Sahel. – J. Environ. Qual., 26:1231–1239, 10 Abb., 2 Tab.
• Edmunds, W. M. & Shand, P. (2008): Natural Groundwater Quality. – 488 p., (Wiley-Blackwell).
• Edraki, M., Baumgartl, T., Mulligan, D., Fegan, W. & Munawar, A. (2017): Geochemical characteristics of rehabilitated tailings and associated seepages at Kidston gold mine, Queensland, Australia. – Int. J. Min. Reclam. Environ.:1–15, doi:10.1080/17480930.2017.1362542.
• Edward, C. J., Smart, M. & Harrison, S. T. L. (2017): Recycling Bioremediated Cyanidation Tailings Wastewater Within The Biooxidation Circuit For Gold Recovery: Impact On Process Performance And Water Management. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 990–997, Lappeenranta (Lappeenranta University of Technology).
• Edwards, A. M. C. (1973): The variation of dissolved constituents with discharge in some Norfolk rivers. – J. Hydrol., 18(3):219–242, doi:10.1016/0022-1694(73)90049-8.
• Edwards, J. S. (1991): Potential hazards resulting from the presence of methane dissolved in groundwater. – Proceedings, 4th International Mine Water Association Congress, 1:223–231, 2 Abb.
• Edwards, K. J., Bond, P. L., Druschel, G. K., McGuire, M. M., Hamers, R. J. & Banfield, J. F. (2000): Geochemical and biological aspects of sulfide mineral dissolution: lessons from Iron Mountain, California. – Chem. Geol., 169:383–397, 11 Abb.
• Edwards, M. G. (1985): Two-dimensional numerical modelling of inflows to a drift through multilayered permeability ground. – Proceedings, 2nd International Mine Water Association Congress, 1:455–466.
• Edwards, M. G. & Lloyd, J. W. (1992): Pumping test data interpretation and drift inflow assessment by finite-difference radial modelling. – Mine Water Environ., 11(1):15–34, 9 Abb.
• Edwards, P. (2021): Mine Water and the Environment in Wales. – Mine Water Environ., 40(4):813–814, doi:10.1007/s10230-021-00813-y.
• Edwards, P. & Potter, H. (2007): The Cwm Rheidol Metal Mines Remediation Project – Phase 1. – In: Cidu, R. & Frau, F. (eds): Water in Mining Environments. – p. 181–185, 2 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Edwards, P., Williams, T. & Stanley, P. (2016): Surface water management and encapsulation of mine waste to reduce water pollution from Frongoch Mine, Mid Wales. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 546–553, Freiberg (TU Bergakademie Freiberg).
• Edwards, P. J., Murphy, J. F., Jones, J. I., Morgan, C., Walsh, R. P. D. & Gething, J. (2021): Assessment of the Chemical and Ecological Recovery of the Frongoch Stream Following Remediation at Frongoch Lead and Zinc Mine, Mid Wales. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 145–150; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Edwards, R. W. & Stoner, J. H. (1990): Acid Waters in Wales: Monographiae Biologicae 66. – 337 p., Dordrecht (Kluwer); doi:10.1007/978-94-009-1894-8.
• Edwards, S. J. & Kjellerup, B. V. (2013): Applications of biofilms in bioremediation and biotransformation of persistent organic pollutants, pharmaceuticals/personal care products, and heavy metals. – Appl. Microbiol. Biotechnol., 97(23):9909–9921, doi:10.1007/s00253-013-5216-z.
• Effner, S. A., Vandersluis, G. D. & Straskraba, V. (1995): Pressure Grouting of Fractured Bedrock to Control Acid Mine Drainage: Water resources at risk. – IMWA.142–147 p., Denver (American Institute of Hydrology).
• Efimov, V., Chalov, S., Timofeev, I. & Kosheleva, N. (2019): Impact Of Coal Mining Activities On The Surface Water Quality (Case Study Of Tugnui River Basin, Russia). Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 349–356; Perm, Russia (Perm State University).
• Eftimi, R. & Amataj, S. (2003): The assessment of the fracture zone of Valias coal mine in Albania, using the single well point dilution method of a radioactive tracer. – RMZ – Materials and Geoenvironment, 50(1):109–112, 5 Abb., 1 Tab.
• Egal, M., Casiot, C., Morin, G., Bruneel, O. & Elbaz-Poulichet, F. (2008): Kinetic Controls on Iron and Arsenic Precipitation in Acid Mine Drainage (Carnoulès, France). – Proceedings, 10th International Mine Water Association Congress:267–270.
• Egboka, B. C. E. (1987): Hydrogeological and hydrogeotechnical Constraints in Coal Mining at Enugu Area of Nigeria: Hydrogeology of Coal Basins. – 237–249 p., 5 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Egboka, B. C. E. & Uma, K. O. (1985): Acid Mine Drainage Problems in Enugu Coal Mines of Anambra State, Nigeria. – Proceedings, 2nd International Mine Water Association Congress, 1:1–11, 4 Abb., 4 Tab.
• Eger, P. (1994): Wetland treatment for trace metal removal from mine drainage: The importance of aerobic and anaerobic processes. – Water Sci. Technol., 29(4):249–, 2 Abb., 3 Tab.
• Eger, P., Jones, P. & Green, D. (2015): Solving Mine Water Problems with Peat-based Sorption Media. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Eger, P. & Kairies Beatty, C. L. (2013): Constructed Wetland Treatment Systems for Mine Drainage – Can They Really Provide Green and Sustainable Solutions? – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 545–550, 3 Abb.; Golden (International Mine Water Association).
• Eger, P., Melchert, G. & Wagner, J. R. (2000): Using passive treatment systems for mine closure – A good approach or a risky alternative? – Min. Eng., 52(9):78–83, 3 Abb., 2 Tab.
• Egg, E. (1987): Das alte Bergbauland Tirol. – Österr. Kalender Berg, Hütte u. Energie, 33:116–127, 4 Abb.
• Egg-Schwaz, E. (1954): Süddeutsche Kunst im mittelalterlichen Tirol. – Zeitschrift für Kunstgeschichte, 17(2):163–184, 9 Abb.
• Egorova, D., Kir'yanova, T., Pyankova, A., Anan'ina, L. & Plotnikova, E. (2021): Selective pressure of biphenyl/polychlorinated biphenyls on the formation of aerobic bacterial associations and their biodegradative potential. – Folia Microbiol (Praha), 66(4):659–676, doi:10.1007/s12223-021-00873-1.
• Egorova, D. O. & Buzmakov, S. A. (2020): Carcinogenic and teratogenic status of human population and polychlorinated biphenyls contaminations of soils and biota (European pied flycatcher) in a Perm (Western Ural, Russia). – Environ Geochem Health, 42(12):4299–4311, doi:10.1007/s10653-020-00615-1.
• Egorova, D. O., Gorbunova, T. I., Pervova, M. G., Kir'yanova, T. D., Demakov, V. A., Saloutin, V. I. & Chupakhin, O. N. (2020): Biodegradability of hydroxylated derivatives of commercial polychlorobiphenyls mixtures by Rhodococcus-strains. – J. Hazard. Mater., 400:123328, doi:10.1016/j.jhazmat.2020.123328.
• Egorova, D. O., Shumkova, E. S., Demakov, V. A. & Plotnikova, E. G. (2010): Degradation of chlorinated biphenyls and products of their bioconversion by Rhodococcus sp. B7a strain. – Applied Biochemistry and Microbiology, 46(6):592–598, doi:10.1134/s0003683810060062.
• Ehinger, S., Janneck, E., Martin, M., Glombitza, F., Pinka, J. K. T. & Arnold, I. (2010): ProMine – Nano-particle products from new mineral resources in Europe. – Wiss. Mitt. Inst. Geol., 42:71–76.
• Ehlers, J., Astakhov, V., Gibbard, P. L., Mangerud, J. & Svendsen, J. I. (2013): Late Pleistocene in Eurasia. – 235 p., Amsterdam (Elsevier); doi:10.1016/B978-0-444-53643-3.00117-5.
• Ehlers, J. r. (2011): Das Eiszeitalter: Spektrum, 1. Aufl. edn. – 363 p., Heidelberg.
• Ehlers, M. M., van Zyl, W. B., Pavlov, D. N. & Müller, E. E. (2004): Random survey of the microbial quality of bottled water in South Africa. – Water SA, 30(2):203–210, doi:10.4314/wsa.v30i2.5065.
• Ehrlich, H. L., Newman, D. K. & Kappler, A. (2015): Ehrlich’s Geomicrobiology, 6th edn. – Boca Raton (CRC Press); doi:10.1201/b19121.
• Eibner, C. (1993): Urzeitliche Bergbautechnik in den Ostalpen. – In: Steuer, H. & Zimmermann, U. (eds): Montanarchäologie in Europa – Berichte zum Internationalen Kolloquium „Frühe Erzgewinning und Verhüttung in Europa“. – p. 83–88, 1 Abb.; Sigmaringen (Thorbecke).
• Eicher, U. (1987): Die spätglazialen sowie die frühpostglazialen Klimaverhältnisse im Bereiche der Alpen: Sauerstoffisotopenkurven kalkhaltiger Sedimente. – Geogr. Helv., 42(2):99–104, 3 Abb.; doi:10.5194/gh-42-99-1987.
• Eichhorn, P. (2012): Erzaufbereitung Rammelsberg – Entstehung, Betrieb, Vergleich. Förderverein Weltkulturerbe Rammelsberg Goslar/Harz e.V., Clausthal-Zellerfeld, 185.
• Eichinger, L., Bauer, M., Deiglmayr, W., Heidinger, M., Heinrichs, G., Loosli, H. H., Mair, C., Oster, H., Selg, M. & Osenbrück, K. (2002): Aus der praktischen Anwendung von Tracern und Isotopen. – Wiss. Mitt. Inst. Geol., 19:45–52, 9 Abb.
• Eilu, P. (2012): Introduction. – Special paper – Geological Survey of Finland, 53:6–12, 4 Abb., 2 Tab.
• Eilu, P. (2012): Mineral deposits and metallogeny of Fennoscandia. – Special paper – Geological Survey of Finland, 53:1–401, 248 Abb., 105 Tab.
• Eilu, P. (2015): Chapter 5.1 – Overview on Gold Deposits in Finland. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 377–410, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00015-7.
• Eilu, P., Ahtola, T., Äikäs, O., Halkoaho, T., Heikura, P., Hulkki, H., Iljina, M., Juopperi, H., Karinen, T., Kärkkäinen, N., Konnunaho, J., Kontinen, A., Kontoniemi, O., Korkiakoski, E., Korsakova, M., Kuivasaari, T., Kyläkoski, M., Makkonen, H., Niiranen, T., Nikander, J., Nykänen, V., Perdahl, J. A., Pohjolainen, E., Räsänen, J., Sorjonen-Ward, P., Tiainen, M., Tontti, M., Torppa, A. & Västi, K. (2012): Metallogenic Areas in Finland. – Special paper – Geological Survey of Finland, 53:207–342, 90 Abb., 43 Tab.
• Eilu, P., Boyd, R., Hallberg, A., Korsakova, M., Krasotkin, S., Nurmi, P. A., Ripa, M., Stromov, V. & Tontti, M. (2012): Mining history of Fennoscandia. – Special paper – Geological Survey of Finland, 53:19–32, 3 Abb., 4 Tab.
• Eilu, P., Sorjonen-Ward, P., Nurmi, P. & Niiranen, T. (2003): A Review of Gold Mineralization Styles in Finland. – Econ. Geol., 98(7):1329–1353, doi:10.2113/gsecongeo.98.7.1329.
• Einaudi, M. T., Hedenquist, J. W. & Inan, E. E. (2003): Sulfidation State of Fluids in Active and Extinct Hydrothermal Systems: Transitions from Porphyry to Epithermal Environments. – In: Simmons, S. F. & Graham, E. (eds): Volcanic, Geothermal, and Ore-Forming Fluids: Rulers and Witnesses of Processes Within the Earth 10. – p. 285–313, Littleton (Society of Economic Geologists).
• Einbinder, N. & Nolin, C. (2012): No Means NO. – Altern. J., 38(6):52–57.
• Einhorn, J. W. (1998 [1970]): Spiritalis unicornis – Das Einhorn als Bedeutungsträger in Literatur und Kunst des Mittelalters, 2nd edn. – 685 p., München (Fink).
• Einsiedl, F. & Małoszewski, P. (2005): Tracer Tests in Fractured Rocks with a new Fluorescent dye – Pyrene-1,3,6,8-tetra Sulphonic acid (PTS). – Hydrol. Sci. J.-J. Sci. Hydrol., 50(3):543–554, 5 Abb., 2 Tab.
• Einsiedl, F. & Mayer, B. (2005): Sources and Processes Affecting Sulfate in a Karstic Groundwater System of the Franconian Alb, Southern Germany. – Environ. Sci. Technol., 39(18):7118–7125, doi:10.1021/es050426j.
• Einsiedl, F., Stichler, W. & Małoszewski, P. (2002): Untersuchung hydrodynamischer Prozesse eines Karstsystems unter Verwendung natürlicher und künstlicher Tracer. – Wiss. Mitt. Inst. Geol., 19:95–102, 5 Abb.
• Einstein, A. (1906): Eine neue Bestimmung der Moleküldimension. – Ann. Phys., 324((4)19):289–305, doi:10.1002/andp.19063240204.
• Einstein, A. (1926): Die Ursache der Mäanderbildung der Flußläufe und des sogenannten Baerschen Gesetzes. – Naturwissenschaften, 14(11):223–224, 3 Abb.
• Eisen, N., Schlömann, M. & Schopf, S. (2016): Bioleaching of indium-bearing sphalerite under underground mining temperatures. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1058–1059, Freiberg (TU Bergakademie Freiberg).
• Eisendle-Flöckner, U. & Hilberg, S. (2015): Hard rock aquifers and free-living nematodes – an interdisciplinary approach based on two widely neglected components in groundwater research. – Ecohydrology, 8(3):368–377, doi:10.1002/eco.1516.
• Ekberg, C. (2002): Uncertainties Connected with Geochemical Modelling of Waste Disposal in Mines. – Mine Water Environ., 21(1):45–51, 4 Abb., 5 Tab.
• Ekblom, S., Sartz, L. & Bäckström, M. (2017): Treatment of Historical Mining Waste using different Incineration Ashes. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1125–1132, Lappeenranta (Lappeenranta University of Technology).
• Eklund, M. & Hakansson, K. (1997): Distribution of cadmium, copper and zinc emitted from a Swedish copperworks, 1750-1900. – J. Geochem. Explor., 58(2-3):291–299, Refs: 23; 2 tables.
• Ekmekci, M., Açıkel, Ş. & Sümer, Ü. (2016): Stable Isotope Techniques as a Tool in Hydrogeological Conceptualisation of Ayazmant Mine Site (NW Turkey). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 127–134, Freiberg (TU Bergakademie Freiberg).
• Ekmekci, M. & Yazıcıgil, H. (2016): Progressive Sinkhole Occurrence Induced By Dewatering Activities in a Large Lignite Mine (SE Turkey). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 486–493, Freiberg (TU Bergakademie Freiberg).
• El Aallaoui, A., El Ghorfi, M., El Ghali, A., Taha, Y., Benzaazoua, M. & Hakkou, R. (2025): Geo-Environmental Characterization of Coal Mine Waste Rock: Assessing its Potential to Generate Acid Mine Drainage. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 975–980; Braga (International Mine Water Association).
• El Adnani, M., Plante, B., Benzaazoua, M., Hakkou, R. & Bouzahzah, H. (2016): Tailings Weathering and Arsenic Mobility at the Abandoned Zgounder Silver Mine, Morocco. – Mine Water Environ., 35(4):508–524, doi:10.1007/s10230-015-0370-4.
• El Amari, K. & Hibti, M. (2020): A Comparison Between Kinetic Test Results and Natural Weathering: The Abandoned Kettara Mine Tailings Pond. – Mine Water Environ., 39(1):157–161, doi:10.1007/s10230-019-00642-0.
• El houfy, F. z., Dekayir, A., Rouai, M. & Ech-charef, A. (2025): Geochemical characterization of tailing, pit lake sediment and waters using PHREEQC in Nador abandoned mine (Morocco). Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 195–200; Braga (International Mine Water Association).
• El Idrysy, H. (2017): Similarities in Mine Water Management Challenges in Permafrost and Desert Climates: Two Case Studies. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 124–131, Lappeenranta (Lappeenranta University of Technology).
• El idrysy, H., Kirillov, N., Harding, W. & Hurban, G. (2023): Use Of Evaporation Ponds In The Mining Industry. How Necessary And Effective Is This In Various Parts Of The World. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 227–232; (International Mine Water Association).
• Elander, P., Lindvall, M. & Hakansson, K. (1998): MiMi – Prevention and control of pollution from mining waste products: State-of-the-art-report MiMi 1998:2. – 29 p., Linköping (MiMi Print).
• Elders, J. (2001): Characterizing the Evolution of Acid Rock Drainage within an Overburden Dump: Loy Yang, Australia. – 1–10 [CD–ROM] p., 5 Abb.; Belo Horizonte (Proceedings IMWA Symposium Belo Horizonte).
• El-Din, M. Z., Elsayed, K., Al-Sherbini M., S. & Harith, M. A. (2007): Photostability of Uranine Via Crossed-Beam Thermal Lens Technique. Paper presented at the Modern Trends in Physics Research. – p. 231–237, 9 Abb.; (American Institute of Physics).
• Electric Power Research Institute (EPRI) (2010): Interlaboratory Validation Study of Environmental Protection Agency Method 1668A for Analysis of PCB Congeners in Water, 1, 2. – (Report Nr. 1016277, 1021505). – 80, 688 p., Palo Alto (Electric Power Research Institute).
• Elfers, H. (2004): Informationssysteme Hydrogeologische Karten des Geologischen Dienstes NRW. – Wiss. Mitt. Inst. Geol., 25:23–24.
• Elfving, P., Panas, I. & Lindqvist, O. (1996): In situ Air Study on the Initial Sulphition and Carbonation of Ca(OH)2 and CaO by SO2 Polluted Air. – Atmos. Environ., 30(23):4085–4089.
• El-Gayar, D. A., El-Shazly, A. H., El-Taweel, Y. A. & Sedahmed, G. H. (2010): Effect of electrode pulsation on the rate of simultaneous electrochemical recovery of copper and regeneration of ferric salts from dilute solutions. – Chem. Eng. J., 162(3):877–882, doi:10.1016/j.cej.2010.06.027.
• Elgeti, T. (2016): Haftungsrisiken der öffentlichen Hand bei verlassenen Grubenauen und Tagesöffnungen. – Veröff. Dt. Bergbau-Mus. Bochum, 217:64–72.
• Elghali, A., Benzaazoua, M., Bussière, B. & Genty, T. (2019): Spatial Mapping of Acidity and Geochemical Properties of Oxidized Tailings within the Former Eagle/Telbel Mine Site. – Minerals, 9(3):180, doi:10.3390/min9030180.
• Elias, H.-G. & Mülhaupt, R. (2015): Plastics, General Survey, 1. Definition, Molecular Structure and Properties. – In: Ley, C. & Elvers, B. (eds): Ullmann’s Encyclopedia of Industrial Chemistry. – p. 1–70, Weinheim (Wiley‐VCH); doi:10.1002/14356007.a20_543.pub2.
• Elina, A. V. (2009): In Situ Treatment of Acid Mine Drainage by Sulphate Reducing Bacteria. – p. 1–8 [electronic document], 3 Abb., 1 Tab.; Skellefteå (Proceedings Securing the Future 2009 & 8th ICARD).
• Elkins, T. H. (1956): East Germany’s changing Brown Coal Industry. – Geography, 41(3):192–195.
• Ellenberg, H. (1968): Wege der Geobotanik zum Verständnis der Pflanzendecke. – Naturwissenschaften, 55(10):462–470, 5 Abb.; doi:10.1007/BF00599703.
• Elliot, T., Chadha, D. S. & Younger, P. L. (2001): Water quality impacts and palaeohydrogeology in the Yorkshire Chalk aquifer, UK. – Q. J. Eng. Geol. Hydrogeol., 34(4):385–398, 8 Abb., 2 Tab.
• Elliot, T. & Younger, P. L. (2007): Hydrochemical and isotopic tracing of mixing dynamics and water quality evolution under pumping conditions in the mine shaft of the abandoned Frances Colliery, Scotland. – Appl. Geochem., 22(12):2834–2860, doi:10.1016/j.apgeochem.2007.07.007.
• Elliot, T. & Younger, P. L. (2014): Detection of mixing dynamics during pumping of a flooded coal mine. – Ground Water, 52(2):251–63, doi:10.1111/gwat.12057.
• Elliot, T., Younger, P. L. & Chadha, D. S. (1998): The future sustainability of groundwater resources in East Yorkshire: past and present perpectives. Paper presented at the Hydrology in a Changing Environment, Exeter. – p. 21–31; (Proceedings International Symposium British Hydrological Society).
• Elliott, L. C. M. & Liu, L. (2001): Predicting Acid Generation – Do You Know Which Test to Use? – A Review of Commonly Used Test Methods and Discussion of Test Limitations and Modifications Using Case Studies. – Proc. Conf. on Environmentally Responsible Mining in Southern Africa, 2:4A–19–4A–27, 1 Abb., 3 Tab.
• Ellis, D. V., Poling, G. & Pelletier, C. (1995): Potential for Retrofitting STD. – Mar. Geores. Geotechnol., 13(1-2):201–233, doi:10.1080/10641199509388284.
• Ellis, R. W. & Eslick, L. (1997): Variation and range of mercury uptake into plants at a mercury-contaminated abandoned mine site. – Bull. Environ. Contam. Toxicol., 59(5):763–769, Refs: 17; 2 tables.
• Ellison, J. M. (1994): The Past We Inherit the Future We Build: Abandoned Mines and Minewater pollution. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:705–714, 3 Tab.
• Elmas, A. & Meric, E. (1998): The seaway connection between the Sea of Marmara and the Mediterranean; tectonic development of the Dardanelles. – Int. Geol. Rev., 40(2):144–162, Refs: 65; illus. incl. sects., sketch maps.
• Elmas, A. & Yigitbas, E. (2001): Ophiolite empalcement by strike-slip tectonics between the Pontide Zone and the Sakarya Zone in northwestern Anatolia, Turkey. – Int. J. Earth Sciences (Geol. Rundsch.), 90(2):257–269, 2 Abb.; doi:10.1007/s005310000129.
• Elmore, S. A. & Weston, E. H. (2020): Predatory Journals: What They Are and How to Avoid Them. – Toxicologic Pathology, 48(4):607–610, doi:10.1177/0192623320920209.
• El-Naas, M. H., Al-Zuhair, S., Al-Lobaney, A. & Makhlouf, S. (2009): Assessment of electrocoagulation for the treatment of petroleum refinery wastewater. – J. Environ. Manage., 91(1):180–185, 11 Abb., 1 Tab.; doi:10.1016/j.jenvman.2009.08.003.
• El-Naggar, M. Y. & Finkel, S. E. (2013): Live Wires – Discoveries of microbial communities that transfer electrons between cells and across relatively long distances are launching a new field of microbiology. – The Scientist, 27(5):38–43.
• Eloff, E., Greben, H. A., Maree, J. P., Radebe, B. V. & Gomes, R. E. (2003): Biological sulphate removal using hydrogen as the energy source. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 99–108, 3 Abb., 5 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Elorza, J. & Garcia, G. F. (1998): Palaeoenvironmental implications and diagenesis of inoceramid shells (Bivalvia) in the mid-Maastrichtian beds of the Sopelana, Zumaya and Bidart sections (coast of the Bay of Biscay, Basque Country). – Palaeogeogr. Palaeoclimatol. Palaeoecol., 141(3-4):303–328, Refs: 82; illus. incl. strat. cols., 3 tables, sketch map.
• Elorza Tenreiro, F. J., Flórez, F., Paredes, C., Calle, Ó., Nita, R., Mazadiego, L., Llames, J. F., Pérez, E., Vives, L., Carrera, J., Muñoz, A., de Vicente, G., Casquet, C., Vela, A. & Bajos, C. (1999): A DFN hydrogeological Simulation for the El Berrocal granitic Batholit. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 325–335, 14 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Elorza, T. J. & Ferragut, C. L. (1985): A finite element approximation of nonlinear flow in porous media. – Proceedings, 2nd International Mine Water Association Congress, 1:467–477.
• Elsner, M. (2010): Stable isotope fractionation to investigate natural transformation mechanisms of organic contaminants: principles, prospects and limitations. – J. Environ. Monit., 12(11):2005–2031, doi:10.1039/c0em00277a.
• Elsner, M. & Imfeld, G. (2016): Compound-specific isotope analysis (CSIA) of micropollutants in the environment – current developments and future challenges. – Curr. Opin. Biotechnol., 41:60–72, doi:10.1016/j.copbio.2016.04.014.
• Elster, D., Fischer, L., Hann, S., Goldbrunner, J., Schubert, G., Berka, R., Hobiger, G., Legerer, P. & Philippitsch, R. (2018): Österreichs Mineral- und Heilwässer. – 442 p., 251 Abb., 128 Tab., 1 Anh.; Wien (Geologische Bundesanstalt).
• Elyaziji, A., Khalil, A., Hakkou, R., Benzaazoua, M. & Alansari, A. (2016): Assessment of Trace Elements in Soils and Mine Water Surrounding a Closed Manganese Mine (Anti Atlas, Morocco). – Mine Water Environ., 35(4):486–496, doi:10.1007/s10230-016-0397-1.
• Emamjomeh, M. M. & Sivakumar, M. (2009): Review of pollutants removed by electrocoagulation and electrocoagulation/flotation processes. – J. Environ. Manage., 90:1663–1679, 2 Abb., 1 Tab.; doi:10.1016/j.jenvman.2008.12.011.
• Embile, R., Walder, I., Madai, F., Móricz, F., Rzepka, P. & Walder, P. (2016): Grain Size Effects on Mine Water Quality and Acid/Neutral Rock Drainage Production in Kinetic Testing Using Recsk Porphyry Skarn Cu–Zn Deposit Rocks. – Mine Water Environ., 35(4):421–434, doi:10.1007/s10230-015-0369-x.
• Embile, R. F., Walder, I. F. & Mahoney, J. J. (2019): Multicomponent reactive transport modeling of effluent chemistry using locally obtained mineral dissolution rates of forsterite and pyrrhotite from a mine tailings deposit. – Adv. Water Resour., 128:87–96, doi:10.1016/j.advwatres.2019.04.008.
• Embile, R. J. & Walder, I. (2025): Groundwater and surface water quality around an existing mine: From current conditions to mine closure. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 702–707; Braga (International Mine Water Association).
• Embleton-Hamann, C. (2022): Landscapes and landforms of Austria: World geomorphological landscapes. – 496 p., Cham, Switzerland (Springer); doi:10.1007/978-3-030-92815-5.
• Emelogu, E. S., Pollard, P., Robinson, C. D., Smedes, F., Webster, L., Oliver, I. W., McKenzie, C., Seiler, T. B., Hollert, H. & Moffat, C. F. (2013): Investigating the significance of dissolved organic contaminants in aquatic environments: Coupling passive sampling with in vitro bioassays. – Chemosphere, 90(2):210–219, doi:10.1016/j.chemosphere.2012.06.041.
• Emiliani, C. (1971): Paleotemperatures variations across the Plio-Pleistocene boundary. – Science, 171:60–62.
• Emilio, C. (2007): Groundwater in volcanic hard rocks. – In: Krásný, J. & Sharp, J. M. (eds): Groundwater in Fractured Rocks. – p. 95–108, 1 Tab.; London (CRC Press); doi:10.1201/9780203945650.ch5.
• Emmrich, H. (1855): Beitrag zur Kenntniss der Südbayerischen Molasse. – Jb. k.-k. geol. R.-A., 6(III):433–444, 7 Abb.
• Emrich, G. H. & Merritt, G. L. (1969): Effects of Mine Drainage on Ground Water. – Groundwater, 7(3):27–32, doi:10.1111/j.1745-6584.1969.tb01281.x.
• Enany, P., Shevchenko, O. & Drebenstedt, C. (2021): Experimental Evaluation of Airlift Performance for Vertical Pumping of Water in Underground Mines. – Mine Water Environ., 40(4):970–979, doi:10.1007/s10230-021-00807-w.
• Enderle, G. J. & Friedrich, K. (1995): East-German Uranium Miners (Wismut) – Exposure Conditions and Health Consequences. – Stem Cells, 13(Suppl. 1):78–89, 9 Abb., 2 Tab.
• Endres, R. (1999): Alexander von Humboldt in Franken. – Mitt. Fränkische Geogr. Ges., 46:9–26.
• Enever, J. R., Dean, A. K., Thilo, A. & Forster, I. (1988): The Application of Production Testing to the Assessment of Potential Water Flows in Coal Seams. – Proceedings, 3rd International Mine Water Congress, Melbourne:221–230, 9 Abb., 1 Tab.
• Engel, F. V. A. (1963): Beiträge zur Normung der Wehre für die Abflussmessung in offenen Gerinnen. – Schweizer. Bauz., 81(43):745–753, 10 Abb., 3 Tab.; doi:10.5169/seals-66898.
• Engesgaard, P., Hojberg, A. L., Hinsby, K., Jensen, K. H., Laier, T., Larsen, F., Busenberg, E. & Plummer, L. N. (2004): Transport and time lag of chlorofluorocarbon gases in the unsaturated zone, Rabis Creek, Denmark. – Vadose Zone J., 3(4):1249–1261, 8 Abb., 2 Tab.
• Engewald, G.-R. & Krümmer, H. (1994): Georgius Agricola, 2nd edn. – 164 p., 35 Abb.; Stuttgart (Teubner); doi:10.1007/978-3-322-95384-1.
• Engle, M. A., Goff, F., Jewett, D. G., Reller, G. J. & Bauman, J. B. (2007): Application of environmental groundwater tracers at the Sulphur Bank Mercury Mine, California, USA. – Hydrogeol. J., 16(3):559–573, doi:10.1007/s10040-007-0240-7.
• English, P. W. (1998): Qanats and Lifeworlds in Iranian Plateau Villages. – Transformation of Middle Eastern Natural Environments: Legacies and Lessons, 103:187–205, 5 Abb.
• Engström, K., Olausson, L. & Esbensen, K. H. (2019): Experimental Evaluation of Surface Water Sampling Variability for Environmental Monitoring in Iron Ore Operations. – Mine Water Environ., 38(2):353–365, doi:10.1007/s10230-019-00598-1.
• Enning, D. & Garrelfs, J. (2014): Corrosion of Iron by Sulfate-Reducing Bacteria – New Views of an Old Problem. – Appl. Environ. Microbiol., 80(4):1226–1236, 4 Abb.; doi:10.1128/aem.02848-13.
• Enomoto, C. B., Coleman, J. L., Jr., Haynes, J. T., Whitmeyer, S. J., McDowell, R. R., Lewis, J. E., Spear, T. P. & Swezey, C. S. (2012): Geology of the Denovian Marcellus shale Valley and Ridge Province, Virginia and West Virginia – A field trip Guidebook for the American Association of Petroleum Geologists Eastern Section Meeting. – U. S. Geol. Surv. Open File Rep., 2012-1194:1–48, doi:10.3133/ofr20121194.
• Entenmann, W. (1998): Hydrogeologische Untersuchungsmethoden von Altlasten. – 373 p., 152 Abb., 49 Tab.; Heidelberg (Springer); doi:10.1007/978-3-642-80406-9.
• Environment Agency (1997): Use and Design of Oil Separators in Surface Water Drainage Systems. – Pollution prevention guidelines, PPG 3:1–4.
• Environment Agency (2012): Guidance on the discharge of small quantities of substances for scientific purposes – Horizontal guidance H1 – Annex J, V2 February 2012 edn. – 18 p., 1 Abb., 1 Tab.; Bristol (Environment Agency).
• Environment Agency (2019): 2021 River Basin Management Plan – Mine waters challenge. – 18 p., 12 Abb.
• Environment Canada (1997): Scientific Justification – Polychlorinated Biphenyls – Candidate Substance for Management Under Track 1 of the Toxic Substances Management Policy. In: Canada, E. (ed). vol En40-230/1· 1997E, Ottawa, 16.
• Environment Canada (2005): The inspector’s field sampling manual, 2 edn. – 250 p., Ottawa (Environment Canada).
• Environment Canada (2010): 2010 Pulp and Paper Environmental Effects Monitoring (EEM) Technical Guidance Document. – 490 p., Ottawa (Government of Canada).
• Environmental Law Alliance Worldwide (2010): Guidebook for Evaluating Mining Project EIAs. – 110 p., 8 Abb.; Eugene (Environmental Law Alliance Worldwide).
• Environmental Protection Agency of Ireland (1997): Integrated Pollution Control Licensing – BATNEEC Guidance Note for the Extraction of Minerals. – 28 p., 4 Tab., 3 Anh.; Wexford (Environmental Protection Agency).
• ep Durch fünf Stufen Filterkies. – Nn.
• Eppinger, R. G. & Fuge, R. (2009): Natural Low-pH Environments Unaffected by Human Activity Preface. – Appl. Geochem., 24(2):189–190, doi:10.1016/j.apgeochem.2008.11.020.
• Eppink, F. V., Trumm, D., Weber, P., Olds, W., Pope, J. & Cavanagh, J. E. (2020): Economic Performance of Active and Passive AMD Treatment Systems Under Uncertainty: Case Studies from the Brunner Coal Measures in New Zealand. – Mine Water Environ., 39(4):785–796, doi:10.1007/s10230-020-00710-w.
• Epstein, J. (1940): Let there be sculpture. – 393 p., New York (G. P. Putnam's Sons).
• Equator Principles Association (2006): The Equator Principles – A financial industry benchmark for determining, assessing and managing social and environmental risk in project financing. – 11 p., London (Equator Principles Association).
• Eraso, A. (1978): Correccion de laderas arcillosas mediante la ejecucion de pantallas drenantes subterraneas. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1323–1329; Maracena (Asociación Nacional de lngenieros de Minas).
• Ercker v. Schreckenfels, L. (1565): Vom Rämelsbergk vnd desselbigen Berckwergks ein kurtzer bericht. Durch einen wohl erfahrnen vnd Vorsuchten desselbigen Berckwergks etlichen seinen guten Freunden vnd Liebhabern der Berckwerge zu ehren vnd nutz gestellet [VOm Rãmels=||bergk vnd desselbigen || Berckwergks/ ein kurtz||er bericht.|| Durch einen wohl er=||fahrnen vnd Vorsuchten desselbigen || Berckwergks/ etlichen seinen guten || Freunden vnd Liebhabern der || Berckwerge zu ehren vnd || nutz gestellet.||]. – ohne Paginierung (56) p., Erfurt (Georg Baumann d.Ä.).
• Ercumen, A., Gruber, J. S. & Colford, J. M. (2014): Water Distribution System Deficiencies and Gastrointestinal Illness: A Systematic Review and Meta-Analysis. – Environmental Health Perspectives, 122(7):651–660, doi:doi:10.1289/ehp.1306912.
• Erdogan, I. G., Fosso-Kankeu, E., Ntwampe, S., Waanders, F., Hoth, N. & Rand, A. (2019): Acid rock drainage prediction of metalliferous soils from O’Kiep, Namaqualand, South Africa: A Humidity Cell Test assessment. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 613–618; Perm, Russia (Perm State University).
• Erdogan, I. G., Fosso-Kankeu, E., Ntwampe, S. K. O., Waanders, F. B., Hoth, N. & Rand, A. (2019): Groundwater as an alternative source to irregular surface water in the O’Kiep area, Namaqualand, South Africa. – Phys. Chem. Earth, 114:8, doi:10.1016/j.pce.2019.09.003.
• Erdogan, I. G., Fosso-Kankeu, E., Ntwampe, S. K. O., Waanders, F. B., Hoth, N., Rand, A. & Farrar, T. J. (2019): Households water quality in O’Kiep-South Africa and community perception of related health risks. – Desalin. Water Treat., 167:145–155, doi:10.5004/dwt.2019.24576.
• Erdogan, I. G., Mekuto, L., Ntwampe, S. K. O., Fosso-Kankeu, E. & Waanders, F. B. (2019): Metagenomic profiling dataset of bacterial communities of a drinking water supply system (DWSS) in the arid Namaqualand region, South Africa: Source (lower Orange River) to point-of-use (O’Kiep). – Data Brief, 25:8, doi:10.1016/j.dib.2019.104135.
• Eren, M. (2007): Genesis of tepees in the Quaternary hardpan calcretes, Mersin, S Turkey. – Carbonate Evaporite, 22(2):123–134.
• Erentöz, C. & Ternek, Z. (1968): Les sources thermominérales de la turquie et l’étude de l’énergie géothermique [Türkiye’de termomineral kaynaklar ve jeotermik enerji etüdleri]. – Bulletin of the Mineral Research and Exploration Institute of Turkey, 70:1–59, 5 Abb., 3 Tab., 5 Taf.
• Erentöz, C. & Ternek, Z. (1968): Türkiye’de termomineral kaynaklar ve jeotermik enerji etüdleri [Les sources thermominérales de la turquie et l’étude de l’énergie géothermique]. – Maden Tetkik ve Arama Enstitüsü dergisi [Bulletin of the Mineral Research and Exploration Institute of Turkey], 70:1–58, 5 Abb., 3 Tab., 5 Taf.
• Erhart, D., Berger, B., Niederstätter, H., Gassner, C., Schennach, H. & Parson, W. (2012): Frequency data for 17 Y-chromosomal STRs and 19 Y-chromosomal SNPs in the Tyrolean district of Reutte, Austria. – Int. J. Legal. Med., 126(6):977–978, doi:10.1007/s00414-012-0751-1.
• Erickson, J., Mahayasa, M. & Haws, N. (2025): Surface Runoff Observations at Rock Covered Overburden Stockpiles and Implications to Hydrologic Modeling. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 189–194; Braga (International Mine Water Association).
• Erickson, J. P. & Breckenridge, J. L. (2025): Investigation of a Heap Leach Facility leak using Finite Element Seepage Analysis. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 234–240; Braga (International Mine Water Association).
• Erickson, P. M., Kleinmann, R. L. P., Posluszny, E. T. & Leonard-Mayer, P. J. (1982): Hydrogeochemistry of a large mine pool. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:27–42, 7 Abb., 2 Tab.
• Erickson, P. M., Ladwig, K. J. & Kleinmann, R. L. P. (1985): Acid-Mine Drainage from Inactive Eastern Coal Operations. – Environ. Geochem. Health, 7(1):16–25, doi:10.1007/bf01875046.
• Ericsson, B. & Hallmans, B. (1996): Treatment of saline wastewater for zero discharge at the Debiensko coal mines in Poland. – Desalination, 105(1-2):115–123, 7 Abb.; doi:10.1016/0011-9164(96)00065-3.
• Eriksson, G. P. & Altermann, W. (1998): An overview of the geology of the Transvaal Supergroup dolomites (South Africa). – Environ. Geol., 36(1):179–188, doi:10.1007/s002540050334.
• Eriksson, J. F. & Truswell, K. A. (1974): Stratotypes from the Malmani Subgroup north-west of Johannesburg, South Africa. – S. Afr. J. Geol., 77(3):211–222, doi:10.10520/AJA10120750_1280.
• Eriksson, L., Johansson, E., Wold, N. K., Wikström, C. & Wold, S. (2008): Design of Experiments – Principles and Applications, 3rd edn. – 425 p., (Umetrics AB).
• Eriksson, N. & Destouni, G. (1997): Combined effects of dissolution kinetics, secondary mineral precipitation, and preferential flow on copper leaching from mining waste rock. – Water Resour. Res., 33(3):471–483, doi:10.1029/96WR03466.
• Eriksson, N., Gupta, A. & Destouni, G. (1997): Comparative analysis of laboratory and field tracer tests for investigating preferential flow and transport in mining waste rock. – J. Hydrol., 194(1-4):143–163, 5 Abb., 3 Tab.
• Eriksson, N., Mueller, S., Forsgren, A., Sjöblom, Å., Martin, A., O’Kane, M., Eary, L. E. & Aronsson, A. (2017): Developing Closure Plans Using Performance Based Closure Objectives: Aitik Mine (Northern Sweden). – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 822–829, Lappeenranta (Lappeenranta University of Technology).
• Eriksson, P. G., Altermann, W. & Hartzer, F. J. (2006): The Transvaal Supergroup and its Precursors. – In: Johnson, M. R., Anhaeusser, C. R. & Thomas, R. J. (eds): The geology of South Africa. – p. 237–260, 11 Abb., 2 Tab.; Pretoria (Council for Geoscience).
• Eriksson, P. G., Rautenbach, C. J. d., Wright, D. T., Bumby, A. J., Catuneanu, O., Mostert, P. & vanderNeut, M. (2009): Possible evidence for episodic epeiric marine and fluvial sedimentation (and implications for palaeoclimatic conditions), c. 2.3–1.8 Ga, Kaapvaal craton, South Africa. – Palaeogeography, Palaeoclimatology, Palaeoecology, 273(1-2):153–173, doi:10.1016/j.palaeo.2008.12.013.
• Eriksson, P. G., Schweitzer, J. K., Bosch, P. J. A., Schereiber, U. M., Van Deventer, J. L. & Hatton, C. J. (1993): The transvaal sequence: an overview. – Journal of African Earth Sciences (and the Middle East), 16(1-2):25–51, doi:10.1016/0899-5362(93)90160-r.
• Erismann, T. H. & Abele, G. (2001): Dynamics of Rockslides and Rockfalls. – 316 p., 120 Abb., 10 Tab.; Wien u.a. (Springer).
• Erkan, E. (1977): Die permischen Uranvorkommen der Steiermark. – Mitt. Abt. Geol. Paläont. Bergb. Landesmus. Joanneum, 38 5 Abb., 5 Tab.
• Ermann, O. (1951): Die wichtigsten Erz- und Minerallagerstätten des Spessarts. – Der Aufschluss, 2(2):20–23.
• ERMITE Consortium, Younger, P. L. & Wolkersdorfer, Ch. (2004): Mining Impacts on the Fresh Water Environment: Technical and Managerial Guidelines for Catchment Scale Management. – Mine Water Environ., 23(Supplement 1):S2–S80, 28 Abb., 6 Tab.; doi:10.1007/s10230-004-0028-0.
• Ernesto, M. (2005): Paleomagnetism of the Post-Paleozoic Alkaline Magmatism in the Brazilian Platform: Questioning the Mantle Plume Model. – In: Comin-Chiaramonti, P. & Gomes, C. B. (eds): Mesozoic to Cenozoic Alkaline Magmatism in the Brazilian Platform. – p. 689–705, 4 Abb., 2 Tab.; São Paulo (Edusp/Fapesp).
• Ernst, W. (1965): Ökologisch-Soziologische Untersuchungen der Schwermetall-Pflanzengesellschaften Mitteleuropas unter Einschluß der Alpen. – Abh. Landesmus. Naturkd. Münster Westfalen, 27(1):1–54.
• Ernst, W. (1972): Schwermetallresistenz und Mineralstoffhaushalt. – Forschungsberichte des Landes Nordrhein-Westfalen, 2251:3–38, 37 Tab.; doi:10.1007/978-3-663-19653-2.
• Ernst, W., Mathys, W. & Janiesch, P. (1975): Physiologische Grundlagen der Schwermetallresistenz – Enzymaktivitäten und organische Säuren. – Forschungsberichte des Landes Nordrhein-Westfalen, 2496:3–38, 8 Abb., 16 Taf.
• Ernst, W. H. O. (1974): Schwermetallvegetation der Erde: Geobotanica selecta V. – 194 p., 45 Abb., 100 Tab.; Stuttgart (Gustav Fischer).
• Ernst, W. H. O. (1996): Bioavailability of heavy metals and decontamination of soils by plants. – Appl. Geochem., 11(1 & 2):163–167, 4 Abb.; doi:10.1016/0883-2927(95)00040-2.
• Erol, O. (1972): Truva Çevresinin Foto-Jeomorfolojik Haritasi [A photogeomorphological map of the Troy area]. – Jeomorfoloji Dergisi [Geomorphology Bulletin], 4(4):9–20, 1 Kart.
• Erschbamer, B. & Wallnöfer, S. (2007): Vegetation at the Upper Timberline: Plant Ecophysiology – Trees at their Upper Limit 5. – 67–78 p., Amsterdam (Springer).
• Erten-Unal, M. & Wixson, B. G. (1999): Biotreatment and Chemical Speciation of Lead and Zinc Mine/Mill Wastewater Discharges in Missouri, U.S.A. – Water Air Soil Pollut., 116(3-4):501–522, 7 Abb., 6 Tab.
• Ertl, R. F. & Ertl, S. (1974): Die bemerkenswertesten Lazulithvorkommen in Österreich. – Der Aufschluss, Sonderheft, 25(10):526–530, illus.
• Erzherzog, R. (1893): Die österreichisch-ungarische Monarchie in Wort und Bild – Tirol und Vorarlberg. – 600 p., 212 Abb.; Wien (K.K. Hof- u. Staatsdr.).
• Esbrí, J. M. & Higueras, P. (2005): Mercury Contents in Waters from the Valdeazogues Watershed (Almadén, Spain). Paper presented at the Mine Water 2005 – Mine Closure, Oviedo. – p. 155–160, 5 Abb., 1 Tab.; (University of Oviedo).
• Escher von der Linth, A. (1846): Geognostische Beobachtungen über einige Gegenden des Vorarlbergs. – N. Jb. Min. Geogn. Geol. Petr., 1846:421–442, 4 Fig.
• Esenli, F. & Kumbasar, I. (1998): X-ray diffraction intensity ratios I(111)/I(311) of natural heulandites and clinoptilolites. – Clays Clay Miner., 46(6):679–686, Refs: 33; illus. incl. 4 tables, sketch map.
• Eskelinen, R., Ronkanen, A.-K., Rossi, P., Isokangas, E., Marttila, H. & Kløve, B. (2015): A Review of Stable Water Isotope Studies done in Finland. https://www.researchgate.net/publication/277580220_A_review_of_stable_water_isotope_studies_done_in_Finland Accessed 2017-05-07.
• Eskola, P. (1914): Om Sambandet Mellan Kemisk och Mineralogisk Sammanslättning hos Orijärvitraktens Metamorfa Bergarter [On the Relations between the Chemical and Mineralogical Composition in the Metamorphic Rocks of the Orijärvi Region]. – Bull. Comm. géol. de Finlande, 44:1–145, 5 Abb., 31 Tab.
• Esposito, M., Canzanella, S., Lambiase, S., Scaramuzzo, A., La Nucara, R., Bruno, T., Picazio, G., Colarusso, G., Brunetti, R. & Gallo, P. (2020): Organic pollutants (PCBs, PCDD/Fs, PAHs) and toxic metals in farmed mussels from the Gulf of Naples (Italy): Monitoring and human exposure. – Regional Studies in Marine Science, 40:101497, doi:10.1016/j.rsma.2020.101497.
• Esser, A., Schettgen, T. & Kraus, T. (2020): Assessment of a potential PCB exposure among (former) underground miners by hydraulic fluids. – J. Toxicol. Environ. Heal. A, 83(6):219–232, 4 Abb., 5 Tab.; doi:10.1080/15287394.2020.1742261.
• Essington, M. E. (2004): Soil and Water Chemistry – An Integrative Approach. – 534 p., Boca Raton (Taylor & Francis).
• Esterhuisen, A. (2001): Sterkfontein – Early hominid evolution in the Cradle of Humankind. –.
• Esteves, A. M., Factor, G., Vanclay, F., Gotzmann, N. & Moreira, S. (2017): Adapting social impact assessment to address a project’s human rights impacts and risks. – Environ. Impact Assess. Rev., 67:73–87, doi:10.1016/j.eiar.2017.07.001.
• Esteves da Silva, J. C., Machado, A. A., Oliveira, C. J. & Pinto, M. S. (1998): Fluorescence quenching of anthropogenic fulvic acids by Cu(II), Fe(III) and UO2²⁺. – Talanta, 45(6):1155–65.
• Estoppey, N., Omlin, J., Schopfer, A., Esseiva, P., Vermeirssen, E. L. M., Delémont, O. & De Alencastro, L. F. (2015): Low density polyethylene (LDPE) passive samplers for the investigation of polychlorinated biphenyl (PCB) point sources in rivers. – Chemosphere, 118:268–276, doi:10.1016/j.chemosphere.2014.09.032.
• Etale, A., Jobin, M. & Siegrist, M. (2018): Tap versus bottled water consumption: The influence of social norms, affect and image on consumer choice. – Appetite, 121:138–146, doi:10.1016/j.appet.2017.11.090.
• Etale, A., Tutu, H. & Drake, D. (2015): Mesoporous Silica Nanoparticles for the Adsorptive Removal of Cu(II), Mn(II), and U(VI) from Acid Mine Drainage. – Mine Water Environ., 34(2):231–240, doi:10.1007/s10230-014-0311-7.
• Etgen, J., Ritter, N. R. & Sarni, W. (2021): The business value of water education to corporations. – In: Davis, C. & Rosenblum, E. (eds): Sustainable Industrial Water Use: Perspectives, Incentives, and Tools. – p. 385–394, 5 Abb.; London (IWA Publishing); doi:10.2166/9781789060676_0385.
• Ethem, M. Y. (1981): Turkish lead-zinc deposits. – World Mining, 34(6):104–105, illus. incl. 2 tables.
• Ethier, M.-P., Bussière, B., Aubertin, M. & Broda, S. (2016): A 3D numerical model to assess the performance of the reclamation measures for an abandoned mine site. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 660–667, Freiberg (TU Bergakademie Freiberg).
• Ettner, D. C. (1999): Pilot Scale constructed Wetland for the Removal of Nickel from Tailings Drainage, Southern Norway. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 207–211, 3 Abb., 4 Tab.; Sevilla (International Mine Water Association).
• Ettner, D. C. (2007): Passive Mine Water Treatment in Norway: Water in Mining Environments. – 187–191 p., 3 Abb., 2 Tab.; Cagliari (Mako Edizioni).
• Eugster, H. P. & Jones, B. F. (1979): Behavior of major solutes during closed-basin brine evolution. – American Journal of Science, 279:609–631, 25 Abb., 1 Tab.
• Eulenberger, S., Jenk, U. & Paul, M. (2017): Flooding of the Uranium Mine at Königstein/Saxony – Current Status and Monitoring Conducted. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 296–302, Lappeenranta (Lappeenranta University of Technology).
• Europäische Parlament und der Rat der Europäischen, U. (2006): Richtlinie 2006/118/EG des Europäischen Parlaments und des Rates vom 12. Dezember 2006 zum Schutz des Grundwassers vor Verschmutzung und Verschlechterung. – Amtsblatt der Europäischen Union, L 372:19–31.
• European Commission (2000): Directive 2000/60/EC of the European Parliament and of the Council of 23 October 2000 establishing a framework for Community action in the field of water policy. – Off. J. Eur. Communities, L 372:1–72, 2 Abb.
• European Commission (2006): Directive 2006/118/EC of the European Parliament and of the Council of 12 December 2006 on the protection of groundwater against pollution and deterioration. – Official Journal of the European Communities, L 372:19–31, 4 Anh.
• European Commission (2009): Management of Tailings and Waste-Rock in Mining Activities. – 511 p., Luxembourg (European Commission).
• European Commission (2013): Richtlinie 2013/39/EU des Europäischen Parlaments und des Rates vom 12. August 2013 zur Änderung der Richtlinien 2000/60/EG und 2008/105/EG in Bezug auf prioritäre Stoffe im Bereich der Wasserpolitik Text von Bedeutung für den EWR. – Off. J. Eur. Communities, L 226:1–17, 2 Anl.
• European Commission (2024): Regulation (EU) 2024/1252 of the European Parliament and of the Council of 11 April 2024 establishing a framework for ensuring a secure and sustainable supply of critical raw materials and amending Regulations (EU) No 168/2013, (EU) 2018/858, (EU) 2018/1724 and (EU) 2019/1020 (Text with EEA relevance). – Off. J. Eur. Communities, L 2024/1252:1–67, 5 Anl.
• European Innovation Partnership on Raw Materials (2016): Raw Materials Scoreboard. – 104 p., Luxembourg (Publications Office of the European Union); doi:10.2873/686373.
• Evaluation Office of UN Environment (2019): Terminal Evaluation of the UN Environment Project “Best Practices for PCB Management in the Mining Sector of South America” – Final Report. – (Report Nr. GEF ID: 3814). – 97 p., Nairobi (UN Environment Programme).
• Evangelou, V. P. (1995): Pyrite Oxidation and its Control – Solution Chemistry, Surface Chemistry, Acid Mine Drainage (AMD), Molecular Oxidation Mechanisms, Microbial Role, Kinetics, Control, Ameliorites and Limitations, Microencapsulation. – 293 p., Boca Raton (CRC Press).
• Evangelou, V. P. (1998): Environmental Soil and Water Chemistry: Principles and Applications. Wiley, 592.
• Evangelou, V. P. & Zhang, Y. L. (1995): A Review – Pyrite Oxidation Mechanisms and Acid-Mine Drainage Prevention. – Crit. Rev. Environ. Sci. Technol., 25(2):141–199, 23 Abb.; doi:10.1080/10643389509388477.
• Evans, A. D., Craw, D., Shannon, J. L., Hattersley, J., Grant, L. J. C., Coggon, R. M. & Teagle, D. A. H. (2025): Water compositional evolution around a historic asbestos mine, Troodos mountains, Cyprus. – Appl. Geochem., 185:106387, doi:10.1016/j.apgeochem.2025.106387.
• Evans, A. M. (1993): Ore Geology and Industrial Minerals – An Introduction, 3rd edn. – 344 p., Malden (Blackwell).
• Evans, D. (1991): Chemical and physical partitioning in contaminated stream sediments in the River Ystwyth, Mid-Wales. – Environ Geochem Health, 13(2):84–92, doi:10.1007/BF01734299.
• Evans, G. V. (1980): DISCUSSION OF “Ground-Water Tracers — A Short Review”, by Stanley N. Davis, Glenn M. Thompson, Harold W. Bentley and Gary Stiles, January-February 1980 issue, v. 18, no. 1, pp. 14–23. – Ground Water, 18(6):632–632, doi:10.1111/j.1745-6584.1980.tb03658.x.
• Evans, G. V. (1983): Tracer techniques in hydrology. – Int. J. AppI. Radiat. lsot., 34(1):451–475, doi:10.1016/0020-708X(83)90144-8.
• Evans, J., Morgan, R. & Coulton, R. (2020): The Effects Of Using Hydrogen Peroxide To Provide An Improved HDS Process. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 152–157; (International Mine Water Association).
• Evans, S. G. (2011): Natural and artificial rockslide dams: Lecture notes in earth sciences. – 642 p., Berlin (Springer).
• Everest, T., Tasli, T. C., Akbulak, C. & Sungur, A. (2017): Ecological Risk Assessment for Protected Areas: Case of Troia Historical National Park, Çanakkale – Turkey. – Fresenius Environ. Bull., 26(12):7463–7472, 7 Abb., 1 Tab.
• Everett, B., Effner, S., Kaminsky, J. & Kramer, D. (2013): Hydrogeologic Characterization and Numerical Modeling of Groundwater Inflow to Support Feasibility Studies for Underground Mining – a Case Study in the Southeast Idaho Phosphate District. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 133–138, 2 Abb., 1 Tab.; Golden (International Mine Water Association).
• Everett, D. J., du Plessis, J. & Gussman, H. W. (1993): The Treatment of Underground Mine Waters for the Removal of Calcium and Sulphates by a GYP-CIX Process. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 463–491, 6 Abb., 2 Tab.; Chililabombwe (Konkola Division).
• Everett, J. D. (1860): On a method of reducing observations of underground temperatures – With its Application to the Monthly Mean Temperatures of Underground Thermometers at the Royal Edinburgh Observatory. – Trans. R. Soc. Edin., 22(2):429–439, 10 Tab.
• Evers, M. (2006): Sintflut aus Matsch. – Der Spiegel,(41).
• Eversen, C. S. (2001): The water balance of a first order catchment in the montane grasslands of South Africa. – J. Hydrol., 241:110–123, 8 Abb., 3 Tab.
• Ewert, W. F., Heerten, G. & Lersow, M. (2008): Using Geosynthetics for Safety Mine Closure, Closure of Mining and Milling Residues and for Groundwater Protection. – Proceedings, 10th International Mine Water Association Congress:139–142.
• Exel, R. (1993): Die Mineralien und Erzlagerstätten Österreichs – Vorkommen, Verwendung und wirtschaftliche Bedeutung, Geologie der Lagerstätten, Geschichte der mineralogischen Erforschung Österreichs, Sammlungswesen und Mineralienhandel mit Lexikon der Mineralien Österreichs. – 447 p., Wien (Eigenverlag R. Exel).
• Exel, R. (1998): Lagerstättenkundliche und montanhistorische Erhebungen über den Erzbergbau in Südtirol (Provinz Bozen, Italien). – Berichte der Geologischen Bundesanstalt, 42:131, 38 Abb., 11 Tab.
• Exner, C. (1952): Zur Geologie und Petrographie des Radhausberg-Unterbaustollens bei Badgastein. – Tschermaks Min. Petr. Mitt., 3(1):79–81.
• Expert Team of the Inter-Ministerial Committee (2010): Mine Water Management in the Witwatersrand Gold Fields with Special Emphasis on Acid Mine Drainage – Report to the Inter-Ministerial Committee on Acid Mine Drainage. – 128 p., 23 Abb., 14 Tab.; Pretoria (Council for Geoscience).
• Eybl, J., Völkl, G., Szivatz, W., Maschler, H., Ehrendorfer, T., Luger, K., Kaiser, K., Huemer, H., Stromberger, B., Mair, G. & Mathis, C. (2005): Quellbeobachtung im Hydrographischen Dienst in Österreich. – Mitt. hydrogr. Zentralbüro, 70.
• Eynatten, H. v. & Gaupp, R. (1999): Provenance of Cretaceous synorogenic sandstones in the Eastern Alps: constraints from framework petrography, heavy mineral analysis and mineral chemistry. – Sedimentary Geology, 124:81–111, 20 Abb., 1 Tab.
• Eyre, J. M. (1991): An investigation of water flow paths and tracing techniques undertaken at Littleton Colliery. – Min. Sci. Technol., 12(1):89–96, Refs: 7; illus; doi:10.1016/0167-9031(91)91573-Z.
• Ezeigbo, H. I. & Ezeanyim, B. N. (1993): Environmenal Pollution from Coal Mining Activities in the Enugu Area Anambka State Nigeria. – Mine Water Environ., 12(1-4):53–61, 3 Abb., 2 Tab.
• Ezekwe, I. C., Ezekwe, A. S. & Chima, G. N. (2013): Metal Loadings and Alkaline Mine Drainage from Active and Abandoned Mines in the Ivo River Basin Area of Southeastern Nigeria. – Mine Water Environ., 32(2):97–107, 2 Abb., 8 Tab.; doi:10.1007/s10230-013-0220-1.
• Ezhilan, B., Gao, W., Pei, A., Rozen, I., Dong, R. F., Jurado-Sanchez, B., Wang, J. & Saintillan, D. (2015): Motion-based threat detection using microrods: experiments and numerical simulations. – Nanoscale, 7(17):7833–7840, doi:10.1039/c4nr06208f.
• Ezzy, T. R. & Fortuna, J. (2020): Using Data Science and Machine Learning to Improve Site Hydrogeological Conceptual Models. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 206–211; (International Mine Water Association).
• Fabbri, A. G., Gaal, G. & McCammon, R. B. (2002): Deposit and Geoenvironmental Models for Resource Exploitation and Environmental Security. NATO Advanced Study Institute on Deposit and Geoenvironmental Models for Resource Exploitation and Environmental Security, Matráháza, 6–19 September 1998. Springer-Science+Business Media, 532 S.
• Fabbri, D., Marynowski, L., Fabiańska, M. J., Zatoń, M. & Simoneit, B. R. T. (2008): Levoglucosan and Other Cellulose Markers in Pyrolysates of Miocene Lignites: Geochemical and Environmental Implications. – Environ. Sci. Technol., 42(8):2957–2963, doi:10.1021/es7021472.
• Fabian, D., Aplin, A. C. & Younger, P. L. (2005): Geochemical performance of a reducing and alkalinity-producing system (RAPS) for the passive treatment of acidic mine drainage at Bowden Close, United Kingdom. – In: Loredo, J. & Pendás, F. (eds): Mine Water 2005 – Mine Closure. – p. 383–387, 6 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Fabian, D., Jarvis, A. P., Younger, P. L. & Harries, N. D. (2006): A Reducing and Alkalinity Producing System (RAPS) for Passive Treatment of Acidic, Aluminium Rich Mine Waters: CL:AIRE Technology Demonstration Project Report TDP5. – 38 p., 15 Abb., 6 Tab.
• FactoryWisskomm (2022): Handlungsperspektiven für die Wissenschaftskommunikation. – 93 p., Berlin (Bundesministerium für Bildung und Forschung (BMBF) Referat Wissenschaftskommunikation).
• Fadda, S., Fiori, M., Grillo, M., Matzuzzi, C. & Valera, P. (2002): Arsenic contamination of natural origin in stream sediments of Lake Mulargia Reservoir, Southern Sardinia. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1053–1061, 3 Abb.; 1 Tab.; Heidelberg (Springer).
• Fadeeva, T., Chaikovskiy, I. & Chirkova, E. (2019): The Biota In The Brine Discharge Area of Ludmilinskaya Well (Solikamsk, Russia). Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 656–659; Perm, Russia (Perm State University).
• Fadiran, A. O., Dlamini, C. L. & Thwala, J. M. (2014): Environmental Assessment of Acid Mine Drainage Pollution on Surface Water Bodies around Ngwenya Mine, Swaziland. – Journal of Environmental Protection, 05(02):164–173, doi:10.4236/jep.2014.52020.
• Fahlqvist, A. L., Bäckström, M., Sartz, L. & Allard, B. (2013): Removal of uranium from a neutral mine water using uncoated and iron oxyhydroxide coated iron tailings. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 551–556, 4 Abb., 1 Tab.; Golden (International Mine Water Association).
• Fahlqvist, L., Sartz, L. & Bäckström, M. (2012): Removal of zinc and lead from a neutral mine water using iron tailings and iron oxyhydroxide coated iron tailings. – In: McCullough, C. D., Lund, M. A. & Wyse, L. (eds): International Mine Water Association Symposium. – p. 584 A–584 G, 5 Abb., 1 Tab.; Bunbury (Edith Cowan University).
• Fairbridge, R. W. (1995): Eolianites and Eustasy – Early Concerts on Darwins Voyage of HMS Beagle. – Carbonate Evaporite, 10(1):92–101, doi:10.1007/bf03175244.
• Fairen, A. G., Fernandez-Remolar, D., Dohm, J. M., Victor, R. B. & Ricardo, A. (2004): Inhibition of carbonate synthesis in acidic oceans on early Mars. – Nature, 431:423–426, 3 Abb., 1 Tab.
• Fairgray, M. E., Webster-Brown, J. G. & Pope, J. (2020): Testing Geochemical Predictions of Trace Element Toxicity and Bioavailability at a Rehabilitated Mine Site. – Mine Water Environ., 39(1):75–92, doi:10.1007/s10230-019-00644-y.
• Fakih, S., Podinovskaia, M., Kong, X., Collins, H. L., Schaible, U. E. & Hider, R. C. (2008): Targeting the Lysosome: Fluorescent Iron(III) Chelators To Selectively Monitor Endosomal/Lysosomal Labile Iron Pools. – J. Med. Chem., 51(15):4539–4552, 12 Abb., 1 Tab.; doi:10.1021/jm8001247.
• Fakudze, P. N. (2000): Mining and the Environment in Swaziland. Paper presented at the Pan-African Conference on Sustainable Integrated Coastal Management, Maputo, 18–25 July 1998. – p. 241–245, 2 Tab.; Paris (UNESCO).
• Fala, O., Molson, J., Aubertin, M. & Bussière, B. (2005): Numerical Modelling of Flow and Capillary Barrier Effects in Unsaturated Waste Rock Piles. – Mine Water Environ., 24(4):172–185, 15 Abb., 3 Tab.; doi:10.1007/s10230-005-0093-z.
• Falagán, C., Sánchez-España, J., Yusta, I. & Johnson, D. B. (2016): New insights into the microbiology of meromictic acidic pit lakes in the Iberian Pyrite Belt (Spain). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 192–198, Freiberg (TU Bergakademie Freiberg).
• Falagán, C., Smail, I., Grail, B. M. & Johnson, D. B. (2016): Microbial communities in passive remediation systems at three abandoned coal mine sites in the United Kingdom. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 796–803, Freiberg (TU Bergakademie Freiberg).
• Falagas, M. E., Kouranos, V. D., Arencibia-Jorge, R. & Karageorgopoulos, D. E. (2008): Comparison of SCImago journal rank indicator with journal impact factor. – Faseb J., 22:2623–2628, 2 Tab.; doi:10.1096/fj.08-107938.
• Falayi, T. & Ntuli, F. (2014): Removal of heavy metals and neutralisation of acid mine drainage with un-activated attapulgite. – J. Ind. Eng. Chemistry, 20(4):1285–1292, doi:10.1016/j.jiec.2013.07.007.
• Falbesoner, H. (1887): Der Fernpass und seine Umgebung in Bezug auf das Glacialphänomen. – 41 p., Wien (Pichler).
• Falck, W. E. (1991): Two modified versions of the speciation code PHREEQE for modeling macromolecule-proton/cation interaction. – nuclear science and technology, 8(EUR 13202):1–32, 10 Abb.
• Falck, W. E. & Wymer, D. (2005): Uranium in phosphate fertilizer production. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 857–866, Heidelberg (Springer).
• Fan, G. & Zhang, D. (2015): Mechanisms of Aquifer Protection in Underground Coal Mining. – Mine Water Environ., 34(1):95–104, doi:10.1007/s10230-014-0298-0.
• Fan, G., Zhang, D., Zhang, S. & Zhang, C. (2018): Assessment and Prevention of Water and Sand Inrush Associated with Coal Mining Under a Water-filled Buried Gully: A Case Study. – Mine Water Environ., 37(3):565–576, doi:10.1007/s10230-017-0487-8.
• Fan, J., Zhang, P., Wu, R. & Guo, L. (2014): Evaluating Deformation and Failure of Underground Panel’s Roof Using Electric Data. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 330–334, Xuzhou (International Mine Water Association).
• Fan, X., Guan, X., Ma, J. & Ai, H. (2009): Kinetics and corrosion products of aqueous nitrate reduction by iron powder without reaction conditions control. – J. Environ. Sci., 21(8):1028–1035, 6 Abb., 1 Tab.; doi:10.1016/S1001-0742(08)62378-5.
• Fancher, B. R. (2024): Sandy Creek restoration – the tale of two acid mine drainage treatment systems. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 168–175; Morgantown (International Mine Water Association).
• Fanfani, L., Biddau, R., Lecca, G. & Murgia, F. (2008): AQUAGRID: A Problem Solving Platform for Contaminated Groundwater (A case Study in a Mining Area in Sardinia). – Proceedings, 10th International Mine Water Association Congress:513–516.
• Fanfani, L., Frincu, M. & Utzeri, D. (2008): Safe Management of Mining Waste and Waste Facilities. A Coordination Action in the Programme of Scientific Support to Policies of European Union. – Proceedings, 10th International Mine Water Association Congress:517–520.
• Fanfani, L., Zuddas, P. & Chessa, A. (1997): Heavy metals speciation analysis as a tool for studying mine tailings weathering. – J. Geochem. Explor., 58(2-3):241–248, 3 Abb., 3 Tab.
• Fang, J. & Xu, G. (2014): Calculation of Working Face Water Inflow with Large Well Method -Taking the First-mining Face of 12308 in Selian Coal Mine as an Example. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 117, Xuzhou (International Mine Water Association).
• Fang, P. (2014): Application of the Advanced Curtain Grouting Technology to Drifting in Soft Rock in Water-Rich Bed. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 221–224, Xuzhou (International Mine Water Association).
• Fang, P., Xu, Y., Wang, X. & Gao, C. (2014): Treatment Practice for Controlling Water Damage in the Annular Space of Shaft Freezing Hole. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 555–561, Xuzhou (International Mine Water Association).
• Fang, X. & Tang, S. (2014): Research on Hydrogeological Features of Underground Hot Water and Prediction of Yield of Well of the Mianhuakeng Uranium Deposits. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 118, Xuzhou (International Mine Water Association).
• Fanget, B., Najib, H., Dumas, D. & Mietton, M. (2009): Optimization of streamflow measurements by the dilution of the food colorant E110 [Optimisation de la mesure de débit par dilution du colorant alimentaire E110]. – Hydrol. Sci. J.-J. Sci. Hydrol., 54(3):474–483, doi:10.1623/hysj.54.3.474.
• Fannin, R. J. & Slangen, P. (2014): On the distinct phenomena of suffusion and suffosion. – Géotech. Lett., 4(4):289–294, doi:10.1680/geolett.14.00051.
• Fant, K. (1995): Alfred Nobel – Idealist zwischen Wissenschaft und Wirtschaft. – 459 p., 37 Abb.; Basel (Springer); doi:10.1007/978-3-0348-6368-1.
• Fantin, V., Scalbi, S., Ottaviano, G. & Masoni, P. (2014): A method for improving reliability and relevance of LCA reviews: the case of life-cycle greenhouse gas emissions of tap and bottled water. – Sci. Total Environ., 476-477:228–41, doi:10.1016/j.scitotenv.2013.12.115.
• Farahnaz, I., Abfertiawan, M. S., Syafila, M., Handajani, M., Gunawan, F. & Djali, F. (2023): Metals Distribution in River Sediment from Open-Pit Coal Mine Activity. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 159–165; (International Mine Water Association).
• Farahnaz, I., Sonny Abfertiawan, M., Syafila, M. & Handajani, M. (2025): Phytoremediation Potential of Aquatic Plants in a Tropical River Basin: Metals Bioaccumulation and Translocation from Mine Water. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 40–45; Braga (International Mine Water Association).
• Farey, J. (1811): General View of the Agriculture and Minerals of Derbyshire – with Observations on the Means of their Improvement – Drawn up for the Consideration of the Board of Agriculture and Internal Improvement: I. – 532 p., 5 Anl.; London (B. McMillan).
• Farid, I., Zouari, K., Trabelsi, R. & Kallali, A. R. (2014): Application of environmental tracers to study groundwater recharge in a semi-arid area of Central Tunisia. – Hydrol. Sci. J.-J. Sci. Hydrol., 59(11):2072–2085, doi:10.1080/02626667.2013.863424.
• Fariña, J. M., Castilla, J. C. & Ojeda, F. P. (2003): The “Idiosyncratic” Effect of a “Sentinel” Species on Contaminated Rocky Intertidal Communities. – Ecol. Appl., 13(6):1533–1552, 5 Abb., 4 Tab.; doi:10.1890/02-5216.
• Farkas, I. (1985): Water Control at the Bakony Bauxite Mines Company. – Proceedings, 2nd International Mine Water Association Congress, 1:157–167, 7 Abb.
• Farkas, I. (1994): Water Quality Control Related to Abandoning of Deep Bauxite Mines. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:787–797, 4 Abb.
• Farkas, I. (2000): Karst aquifer restoration after abandonment of bauxite mines at Nyirad region, and conclusions. – Proceedings, 7th International Mine Water Association Congress:238–247, 4 Abb.
• Farley, M. E., Hughes, M. L., Stoertz, M. W. & Wanner, N. S. (1999): Hydraulic Sealing of an abandoned up-dip Drift Mine for AMD Treatment: An 18-year Post-Audit. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 20:elektronisches Dokument, 6 Abb., 1 Tab.
• Farmer, I. W. & Jennings, D. H. (1983): Effect of Strata Permeability on the Radial Hydrostatic Pressures on Mine Shaft Linings. – Int. J. Mine Water, 2(3):17–24, 3 Abb., 2 Tab.
• Farmer, J. C., Fix, D. V., Mack, G. V., Poco, J. F., Nielsen, J. K., Pekala, R. W. & Richardson, J. H. (1995): Capacitive Deionization of Seawater. – Proceedings Pacific Rim Environmental Conference (LLNL Preprint), UCRL-JC-121958:1–12, 6 Abb.; doi:10.2172/125000.
• Farmer, N. & Blew, D. (2009): Fluorescent Dye Tracer Tests at the Malad Gorge State Park. – Idaho Department of Water Resources Open File Report:23, 17 Abb.
• Farmer, N. & Blew, D. (2012): Fluorescent Dye Tracer Tests and Hydrogeology near the Malad Gorge State Park (Meyer, Conklin and Riddle Wells). – Idaho Department of Water Resources Open File Report:1–74, 32 Abb., 7 Tab.
• Farnsworth, C. E., Griffis, S. D., Wildman, J. R. A. & Hering, J. G. (2009): Hydrous Manganese Oxide Doped Gel Probe Sampler for Measuring In Situ Reductive Dissolution Rates. 2. Field Deployment. – Environ. Sci. Technol., 44(1):41–46, doi:10.1021/es901572h.
• Farnsworth, C. E. & Hering, J. G. (2011): Inorganic Geochemistry and Redox Dynamics in Bank Filtration Settings. – Environ. Sci. Technol., 45(12):5079–5087, doi:10.1021/es2001612.
• Fárová, K., Jelének, J., Kopacková-Strnadová, V. & Kycl, P. (2019): Comparing DInSAR and PSI Techniques Employed to Sentinel-1 Data to Monitor Highway Stability: A Case Study of a Massive Dobkovičky Landslide, Czech Republic. – Remote Sens., 11(22) doi:10.3390/rs11222670.
• Farr, G., Busby, J., Wyatt, L., Crooks, J., Schofield, D. I. & Holden, A. (2021): The temperature of Britain’s coalfields. – Q. J. Eng. Geol. Hydrogeol., 54(3):qjegh2020–109, doi:10.1144/qjegh2020-109.
• Farrenkopf, M. & Siemer, S. (2020): Bergbausammlungen in Deutschland. – doi:10.1515/9783110683080.
• Fatria, F., Syarif, A., Zikri, A. & Rusnadi, I. (2023): Utilization of Acid Mining Waste Water as to Alternative Energy Source with Galvanic Cell. Paper presented at the Proceedings of the 6th FIRST 2022 International Conference (FIRST-ESCSI 2022). – p. 128–137.
• Faulkner, B. B., Wyatt, E. G., Chermak, J. A. & Miller, F. K. (2005): The Largest Acid Mine Drainage Treatment Plant in the World. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 26:1–10, 7 Abb., 2 Tab.
• Faulstich, L., Griffin, S., Nasim, M. J., Masood, M. I., Ali, W., Alhamound, S., Omran, Y., Kim, H., Kharma, A., Schäfer, K.-H., Lilischkis, R., Montenarh, M., Keck, C. & Jacob, C. (2017): Nature’s Hat-trick: Can we use sulfur springs as ecological source for materials with agricultural and medical applications? – Int. Biodeterior. Biodegrad., 119:678–686, doi:10.1016/j.ibiod.2016.08.020.
• Fauville, A., Mayer, B., Frommichen, R., Friese, K. & Veizer, J. (2004): Chemical and isotopic evidence for accelerated bacterial sulphate reduction in acid mining lakes after addition of organic carbon: laboratory batch experiments. – Chem. Geol., 204(3-4):325–344, doi:10.1016/j.chemgeo.2003.11.010.
• Fawang, Z., Junye, Z. & Jichao, S. (1991): Origin Analysis of Groundwater Hydrogeochemical Facies in Pingdingshan Coal Mine Area, Henan Province, China. – Proceedings, 4th International Mine Water Association Congress, 1:133–142, 5 Abb., 3 Tab.
• Fawcett, R. J., Hibberd, S. & Singh, R. N. (1984): An Appraisal of Mathematical Models to predict Water Inflows into underground Coal Workings. – Int. J. Mine Water, 3(2):33–54, 5 Abb.
• Fawcett, R. J., Hibberd, S. & Singh, R. N. (1986): Analytic Calculations of Hydraulic Conductivities above Longwall Coal Faces. – Int. J. Mine Water, 5(1):45–60, 6 Abb., 1 Tab.
• Faybishenko, B., Doughty, C., Steiger, M., Long, J. C. S., Wood, T. R., Jacobsen, J. S., Lore, J. & Zawislanski, P. T. (2000): Conceptual model of the geometry and physics of water flow in a fractured basalt vadose zone. – Water Resour. Res., 36(12):3499–3520, 17 Abb., 7 Tab.; doi:10.1029/2000WR900144.
• Faz, A., Aracil, E., Martínez-Pagán, P., Acosta, J. A., Martínez-Martínez, S., Maruri, U. & Martínez-Segura, M. A. (2005): Geochemical and geophysical techniques application to characterize a mining silt pond from Cartagena- Union (Murcia): potential pollution pathways: Mine Water 2005 – Mine Closure. – 295–302 p., 11 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Feasby, D. G., Chambers, D. B., Fernandez Rubio, R., Gascó Montes, J. M. & Hynes, T. P. (1999): Environmental Impact and Reclamation Planning following the April 25, 1998 accidental Tailings Release at the Boliden Apirsa Mine at Aznalcóllar, Spain. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 279–290, 5 Tab.; Sevilla (International Mine Water Association).
• Featherstone, A. M. & O’Grady, B. V. (1997): Removal of Dissolved Copper and Iron at the Freshwater-Saltwater Interface of an Acid Mine Stream. – Mar. Pollut. Bull., 34(5):332–337, 4 Abb., 1 Tab.
• Fechner, H. (1900–1902): Geschichte des Schlesischen Berg- und Hüttenwesens in der Zeit Friedrich’s des Großen, Friedrich Wilhelm’s II. und Friedrich Wilhelm’s III. 1741 bis 1806 – Nach den Acten des Geheimen Staatsarchivs, des Handelsministeriums, des Staatsarchivs und des Oberbergamtes zu Breslau. – Zeitschrift für das Berg-, Hütten- und Salinen-Wesen im Preussischen Staate, 48–50:48:279–401; 49:1–86,243–288,383–446,487–569; 50:140–228,243–310,415–506,691–796.
• Fecht, M., Höfle, B., Starnberger, R. & Kaser, G. (2004): Eine Karte der aktuellen Verdunstung für das Tirol Atlas Gebiet anhand von Landnutzungs- und Vegetationsdaten. In: Tirol Atlas. http://tirolatlas.uibk.ac.at/topics/water/evaporation.html.de.
• Fedderke, J. W. (2013): The objectivity of national research foundation peer review in South Africa assessed against bibliometric indexes. – Scientometrics, 97(2):177–206, 3 Abb., 11 Tab.; doi:10.1007/s11192-013-0981-0.
• Fédoroff, M. & Lefèvre, G. (2005): Sorption mechanisms and models. Their influence on transport calculation. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 207–216, Heidelberg (Springer).
• Fedotov, S., Bashkirtseva, I. & Ryashko, L. (2002): Simple stochastic model for laminar-to-turbulent subcritical transition. – Annual Research Briefs, 2002:397–404, 4 Abb.
• Fehse, K.-U. (2004): Zur Sorption von Zink-Ionen an natürliche und technische Sorbentien unter Berücksichtigung des Feststoff:Lösung-Verhältnisses. – 138 p., 52 Abb., 22 Tab.; Halle-Wittenberg (unveröff. Diss. Uni Halle-Wittenberg).
• Feinstein, A. R. (1979): On Central Tendency and the Meaning of Mean for pH Values*. – Anesth. Analg., 58(1):1–3.
• Feistel, R. (2010): TEOS-10: A New International Oceanographic Standard for Seawater, Ice, Fluid Water, and Humid Air. – Int. J. Thermophys., 33(8-9):1335–1351, doi:10.1007/s10765-010-0901-y.
• Feitzinger, G., Günther, W. & Brunner, A. (1998): Bergbau- und Hüttenaltstandorte im Bundesland Salzburg. – 214 p., Salzburg (Land Salzburg).
• Feke, S. (1982): Intermediate-Layer Dewatering and graphical Programming of its Operation. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:429–442, 4 Abb.
• Felegy, E. W., Johnson, L. H. & Westfield, J. (1948): Acid mine-water in the anthracite region of Pennsylvania. – Bur. Mines Tech. Paper, 710:49, 13 Abb., 11 Tab.
• Felipe, E., José, L. B., Souza, C., Cordeiro, J. G. N. & Ladeira, A. C. (2025): Ion exchange to recover Rare Earth Elements from acid mine drainage. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 758–764; Braga (International Mine Water Association).
• Felix, M. & Berger, H.-J. (2010): Geologie und Bergbaufolgen im Steinkohlerevier Lugau/Oelsnitz. – Geoprofil, 13:1–175.
• Felix, M., Eckart, M. & Görne, S. (2010): Das Grubenwasseranstiegsmodell im Steinkohlerevier Lugau/Oelsnitz. – Geoprofil, 13:99–104.
• Felix, M., Möllmann, G., Wagner, S. & Görne, S. (2010): Zur geothermischen Nutzbarkeit des Grubenwassers im Bergbaurevier Lugau/Oelsnitz. – Geoprofil, 13:169–175, 8 Abb.
• Félix, O. I., Csavina, J., Field, J., Rine, K. P., Sáez, A. E. & Betterton, E. A. (2015): Use of lead isotopes to identify sources of metal and metalloid contaminants in atmospheric aerosol from mining operations. – Chemosphere, 122:219–226, doi:10.1016/j.chemosphere.2014.11.057.
• Fellehner, M. (2003): Der Hauptdolomit als Grundwasserspeicher in den Nördlichen Kalkalpen. – 88 p., Philipps-Universität Marburg, 53 Abb., 4 Tab., 28 Anl.; Marburg.
• Fellows, P. A. (1937): Sealing Projects – Sharply Reduce Stream Pollution From Abandoned Mines. – Coal Age, 42:158–161, 13 Abb., 2 Tab.
• Fenchel, W., Gies, H., Gleichmann, H. D., Hellmund, W., Hentschel, H., Heyl, K. E., Hüttenhain, H., Langenbach, U., Lippert, H.-J., Lusznat, M., Meyer, W., Pahl, A., Rao, M. S., Reichenbach, R., Stadler, G., Vogler, H. & Walther, H. W. (1985): Sammelwerk Deutsche Eisenerzlagerstätten – I. Eisenerze im Grundgebirge (Varistikum) – 1. Die Sideriterzgänge im Siegerland-Wied-Distrikt. – Geol. Jb., D 77:3–517, 128 Abb., 38 Tab., 30 Taf., 1 Kart.
• Fenchel, W., Gleichmann, H. D. & Reichenbach, R. (1985): Florz-Füsseberger Gangzug. – Geol. Jb., D 77:286–304, 7 Abb.
• Feng, C., Zhou, J., Wang, X., Liu, P., Li, W. & Pang, X. (2025): Response mechanism of antimony to sulfate in soil-water system of Xikuangshan mining area in Hunan Province. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1070–1071; Braga (International Mine Water Association).
• Feng, D., Aldrich, C. & Tan, H. (2000): Treatment of acid mine water by use of heavy metal precipitation and ion exchange. – Miner. Eng., 13(6):623–642, 16 Abb., 5 Tab.; doi:10.1016/S0892-6875(00)00045-5.
• Feng, F., Du, W., Peng, S. & Xing, Z.-g. (2017): Study on Evolution of Mining-induced Crack of Rock Mass Considering Hydromechanical Coupling Effects Based on Stabilized Nano CT Scan. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 572–579, Lappeenranta (Lappeenranta University of Technology).
• Feng, Q., Li, T., Qian, B., Zhou, L., Gao, B. & Yuan, T. (2014): Chemical Characteristics and Utilization of Coal Mine Drainage in China. – Mine Water Environ., 33(3):276–286, 8 Abb., 4 Tab.; doi:10.1007/s10230-014-0271-y.
• Feng, Q., Li, T., Qian, B., Zhou, L., Gao, B. & Yuan, T. (2014): Erratum to: Chemical Characteristics and Utilization of Coal Mine Drainage in China. – Mine Water Environ., 33(3):287–288, 1 Abb.; doi:10.1007/s10230-014-0280-x.
• Feng, Z., Zhu, S., Martins de Godoi, D. R., Samia, A. C. S. & Scherson, D. (2012): Adsorption of Cd²⁺ on Carboxyl-Terminated Superparamagnetic Iron Oxide Nanoparticles. – Anal. Chem., 84(8):3764–3770, 7 Abb., 3 Tab.; doi:10.1021/ac300392k.
• Fenton, J. D. (2015): Calculating flow over rectangular sharp-edged weirs. – Alternative Hydraulics Paper, 6:1–14, http://johndfenton.com/Papers/Calculating-flow-over-rectangular-sharp-edged-weirs.pdf.
• Ferancová, A., Hattuniemi, M. K., Sesay, A. M., Raty, J. P. & Virtanen, V. T. (2017): Complexation of Ni(II) by Dimethylglyoxime for Rapid Removal and Monitoring of Ni(II) in Water. – Mine Water Environ., 36(2):273–282, doi:10.1007/s10230-016-0402-8.
• Ferancová, A., Hattuniemi, M. K., Sesay, A. M., Räty, J. P. & Virtanen, V. T. (2016): Electrochemical Monitoring of Nickel(II) in Mine Water. – Mine Water Environ., 35(4):547–552, doi:10.1007/s10230-015-0357-1.
• Ferguson, B. K., Deul, M. & Dougherty, M. (1992): Criteria for abandoned mine reclamation; regional planning to develop project guidelines in the Blacklick Creek watershed, Pennsylvania. – Special Publication – United States. Bureau of Mines, 1992:16, Refs: 14; illus. incl. 2 tables, sketch map.
• Ferguson, C. C. (1999): Assessing Risks from Contaminated Sites: Policy and Practice in 16 European Countries. – Land Contam. Reclam., 7(2):87–108.
• Ferket, H. L. W., Laenen, B. J. M. & Van Tongeren, P. C. H. (2011): Transforming flooded coal mines to large-scale geothermal and heat storage reservoirs: what can we expect?: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 171–176 p., Aachen (RWTH Aachen University).
• Fernandes, G. W., Goulart, F. F., Ranieri, B. D., Coelho, M. S., Dales, K., Boesche, N., Bustamante, M., Carvalho, F. A., Carvalho, D. C., Dirzo, R., Fernandes, S., Galetti, P. M., Millan, V. E. G., Mielke, C., Ramirez, J. L., Neves, A., Rogass, C., Ribeiro, S. P., Scariot, A. & Soares-Filho, B. (2016): Deep into the mud: ecological and socio-economic impacts of the dam breach in Mariana, Brazil. – Natureza & Conservação, 14(2):35–45, doi:10.1016/j.ncon.2016.10.003.
• Fernandes, H. M., Gomiero, L. A., Peres, V., Franklin, M. R. & Simoes Filho, F. F. (2008): Critical analysis of the waste management performance of two uranium production units in Brazil – Part II: Caetite production center. – J. Environ. Manage., 88(4):914–25, doi:10.1016/j.jenvman.2007.04.022.
• Fernandes, H. M., Lamego Simoes Filho, F. F., Perez, V., Franklin, M. R. & Gomiero, L. A. (2006): Radioecological characterization of a uranium mining site located in a semi-arid region in Brazil. – J. Environ. Radioact., 88(2):140–157, doi:10.1016/j.jenvrad.2006.01.006.
• Fernandes, R., Barroso, A., Gomes, P., Araujo, J., de Vicq, R., Antunes, I. M., Fonseca, R. & Valente, T. M. (2024): Effect of different sources and local conditions in the post-mining contamination by acid mine drainage: three case studies in Iberian Peninsula (SW Europe). Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 176–181; Morgantown (International Mine Water Association).
• Fernández Aller, R. (1978): Control y tratamiento de aguas residuales en mineria. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1027–1048; Maracena (Asociación Nacional de lngenieros de Minas).
• Fernández Aller, R. (1978): El agua en la mineria de la hulla – estudio de una zona piloto. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1013–1025; Maracena (Asociación Nacional de lngenieros de Minas).
• Fernandez, M. A., Hernandez, L. M., Gonzalez, M. J. & Tabera, M. C. (1992): Organochlorinated compounds and selected metals in waters and soils from Doñana National Park (Spain). – Water Air Soil Pollut., 65(3):293–305, doi:10.1007/BF00479893.
• Fernández Rubio, R. (2004): Sustainable mining – Environmental assets. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 251–271, 37 Abb.; Newcastle upon Tyne (University of Newcastle).
• Fernández Rubio, R., Fábregas, A. L., Baquero Ubeda, J. C. & Lorca Fernández, D. (1998): Underground Mining Drainage, State of the Art: Mine Water and Environmental Impacts 1. – 87–112 p., 15 Abb.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Fernández Rubio, R., Grandchamp, C., Rezende, M. L. d., Fernández Lorca, D. & Bertachini, A. C. (2009): Dewatering at the Capão Xavier Iron Open Pit Mine (Minas Gerais, Brazil). – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 149–161, 28 Abb; Pretoria (Document Transformation Technologies).
• Fernández Rubio, R., Lazarim, H. A., Fernández Lorca, D. & Ribeiro, V. V. (2013): Surface water control in the bauxite mines of Porto Trombetas (Pará, Brazil). – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 837–842, 9 Abb.; Golden (International Mine Water Association).
• Fernandez Rubio, R., Sastre, J. L., Casas, J., Fernandez Lorca, S. & Singh, R. (1985): Mine dewatering design in surface mining to improve the quality of ground water. – Proceedings, 2nd International Mine Water Association Congress, 2:931–941.
• Fernández Rubio, R. & Williams, R. E. (2021): IMWA’s Early History (1978–1985). – Mine Water Environ., 40(3):562–566, doi:10.1007/s10230-021-00785-z.
• Fernández-Álvarez, J. P., Álvarez-Álvarez, L. & Díaz-Noriega, R. (2016): Groundwater Numerical Simulation in an Open Pit Mine in a Limestone Formation Using MODFLOW. – Mine Water Environ., 35(2):145–155, doi:10.1007/s10230-015-0334-8.
• Fernández-Arrojo, C., Llamas, J. F. & Canoira, L. (2005): PAHs Behaviour associated to coal mining environments: Mine Water 2005 – Mine Closure. – 561 p., Oviedo (University of Oviedo).
• Fernández-Martínez, R., Galán Pilar, M., Petit-Domínguez, M. D., Ordóñez, A., Loredo, J. & Rucandio, M. I. (2005): A rapid and robust method for the organic mercury determination in Hg mine waters: Mine Water 2005 – Mine Closure. – 655–660 p., 2 Abb., 4 Tab.; Oviedo (University of Oviedo).
• Fernandez-Rojo, L., Casiot, C., Desoeuvre, A., Braungardt, C., Torres, E., Pape, P. L., Morin, G., Tardy, V., Resongles, E. & Delpoux, S. (2016): Iron and arsenic removal rates in a continuous flow reactor treating As-rich acid mine drainage (AMD). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 874–880, Freiberg (TU Bergakademie Freiberg).
• Fernandez-Rubio, R. (1979): Drainage of Coal and Lignite Mines: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 492–506 p., San Francisco (Freeman).
• Fernandez-Rubio, R. (2015): Conga mining project (Cajamarca, Peru) – International expertise of the water component. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–15 [electronic document], Santiago/Chile (Gecamin).
• Fernandez-Rubio, R. (2021): OBITUARY Dr. Jacek Libicki 1934-2021. – Mine Water Environ., 40(4):1073–1075, doi:10.1007/s10230-021-00823-w.
• Fernandez-Rubio, R. (2021): OBITUARY Professor Raghu Nath Singh. – Mine Water Environ., 40(4):1076–1078, doi:10.1007/s10230-021-00816-9.
• Fernández-Rubio, R. (1982): Investigations about the origin of water inflow at Reocin Mine (Santander, Spain). – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, ABCD Supplementary volume:101–120, 17 Abb.
• Fernández-Rubio, R. (1986): Water Problems in Spanish Coal Mining. – Int. J. Mine Water, 5(3):13–28, 6 Abb., 5 Tab.
• Fernández-Rubio, R. (1996): Water Problems in Karst Mining Environment – An approach: Engineering in Karst. – 7 p., Portoroz (Proceedings International Mine Water Association Workshop).
• Fernández-Rubio, R. (2001): Vladimir Straskraba: 1934-2001. – Mine Water Environ., 20(1):39–40, 1 Abb.; doi:10.1007/s10230-001-8078-z.
• Fernández-Rubio, R. (2001): Vladimir Straskraba’s Contribution to the Mine Water Literature. – Mine Water Environ., 20(2):52–54, doi:10.1007/s10230-001-8082-3.
• Fernández-Rubio, R., Benavente Herrera, J., López Egea, A., Pulido Bosch, A., Tobes González, M. A., Valle Cardenete, M. & Yagüe Ballester, A. El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works. SIAMOS-78, Granada, 1978. Asociación Nacional de lngenieros de Minas, Maracena, 1353 S.
• Fernández-Rubio, R., Botín, J. A. & Lavandeira, A. (1983): Hydrogeological Investigation and Drainage Infrastructure at Underground Zinc and Lead Troya Mine (Gipuzkoa, Spain). – Int. J. Mine Water, 2(3):39–56, 20 Abb.
• Fernández-Rubio, R. & Carvalho, P. (1993): Surface Water Inflow Reduction at the Underground Neves-Corvo mine, Portugal. – Mine Water Environ., 12(1-4):11–20, 8 Abb.
• Fernandez-Rubio, R., Carvalho, P. & Real, F. (1988): Mining-Hydrological Characteristics of the Underground Copper Mine of Neves-Corvo, Portugal. – Proceedings, 3rd International Mine Water Congress, Melbourne:49–63, 10 Abb., 1 Tab.
• Fernández-Rubio, R. & del Olmo, A. G. (1995): Mining Drainage and Water Supply under Sustainable Constraints: Water resources at risk. – IMWA.23–31 p., 7 Abb.; Minneapolis (American Institute of Hydrology).
• Fernández-Rubio, R. & Fernandez Lorca, D. (1993): Mine Water drainage. – Mine Water Environ., 12(1-4):107–130, 22 Abb., 1 Tab.
• Fernandez-Rubio, R., Fernandez Lorca, S. & Esteban Arlegui, J. (1986): Abandono de Minas Impacto Hidrologico [Hydrological Impacts of Mine Abandonment]. – Unpubl. Report for Ministerio de Industria y Energia & Ministerio de Eoucacion y Ciencia 267 p., Madrid (Instituto Geologico y Minero de España E.T.S. de Ingenieros de Minas).
• Fernández-Rubio, R., Fernández-Lorca, S. & Esteban Arlegui, J. (1987): Preventive Techniques for Controlling Acid Water in Underground Mines by Flooding. – Int. J. Mine Water, 6(3):39–52, 11 Abb.; doi:10.1007/BF02498104.
• Fernández-Rubio, R. & Lorca Fernández, D. (2010): Artificial recharge of groundwater in mining. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 77–81, Sydney, NS (Cape Breton University Press).
• Fernández-Rubio, R. & Sastre, J. L. (1978): Secado del mineral limonitico de los yacimientos de Sierra Menera (Teruel y Guadalajara, Espana). Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1207–1224; Maracena (Asociación Nacional de lngenieros de Minas).
• Fernández-Rubio, R. & Singh, R. N. (1983): Slope Stabilisation Using Advance Dewatering Techniques in a Large Opencast Mine in North-Western Spain. – Int. J. Mine Water, 2(4):35–51, 12 Abb., 5 Tab.
• Fernández-Rubio, R., Vasconcelos Caldas, F., Lorca Fernández, D., Grandchamp, C. & Lobo de Razende, M. (2017): Capão Xavier Mine Water Drainage Management (Minas Gerais, Brazil). – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 254–260, Lappeenranta (Lappeenranta University of Technology).
• Fernández-Rubio, R. & Waterhouse, J. (2022): Stephen Hancock (1938–2022) OBITUARY. – Mine Water Environ., 41(2):595–596, doi:10.1007/s10230-022-00874-7.
• Fernández-Rubio, R. & Yagüe Ballester, A. (1978): Drenaje de una mina hasta nivel constante. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 741–749; Maracena (Asociación Nacional de lngenieros de Minas).
• Fernández-Torres, M. J., Randall, D. G., Melamu, R. & von Blottnitz, H. (2012): A comparative life cycle assessment of eutectic freeze crystallisation and evaporative crystallisation for the treatment of saline wastewater. – Desalination, 306:17–23, 8 Abb., 1 Tab.; doi:10.1016/j.desal.2012.08.022.
• Fernando, W. A. M., Ilankoon, I. M. S. K., Syed, T. H. & Yellishetty, M. (2018): Challenges and opportunities in the removal of sulphate ions in contaminated mine water: A review. – Miner. Eng., 117:74–90, doi:10.1016/j.mineng.2017.12.004.
• Ferrari, C. R., de Azevedo, H., Wisniewski, M. J. S., Rodgher, S., Roque, C. V. & Nascimento, M. R. L. (2015): An Overview of an Acidic Uranium Mine Pit Lake (Caldas, Brazil): Composition of the Zooplankton Community and Limnochemical Aspects. – Mine Water Environ., 34(3):343–351, doi:10.1007/s10230-015-0333-9.
• Ferreira, A. M., Cortesao, C., Castro, O. G. & Vale, C. (1990): Accumulation of metals and organochlorines in tissues of the oyster Crassostrea angulata from the Sado Estuary, Portugal. – Sci. Total Environ., 97/98:627–639, doi:10.1016/0048-9697(90)90266-w .
• Ferreira, S. & Waygood, C. (2009): A South African Case Study on Sediment Control Measures with the use of Silt Traps in the Coal Mining Industry. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 497–506, 8 Abb.; Pretoria (Document Transformation Technologies).
• Ferreiro Mählmann, R. & Morlok, J. (1992): Das Wettersteingebirge, Widerlager der allochthonen Inntaldecke, und die Ötztalmasse, Motor tertiärer posthumer NW-Bewegungen im Mieminger Gebirge (Nordtirol, Österreich). – Geol. Paläont. Mitt. Innsbruck, 18:1–34, 13 Abb.
• Ferrel, G. M. (1987): West Virginia Ground-Water Quality. – U. S. Geol. Surv. Open File Rep., 87-0761:9, doi:10.3133/ofr87761.
• Ferrier, A. C. & Clauson, S. (2022): Integrating Water Planning into Operational Mine Planning. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 81–82; (International Mine Water Association).
• Fetisova, N., Fetisov, V., Bachurin, B. & Imaikin, A. (2019): Natural Neutralization of Acid Mine Water in Carbonate Deposits of Kizel Coal Basin. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 719–724; Perm, Russia (Perm State University).
• Fetter, C. W. (2001): Applied Hydrogeology, 4th edn. – 598 p., Upper Saddle River (Prentice Hall).
• Fetter, C. W. (2014): Applied Hydrogeology, 4 – International Edition edn. – 610 p., Harlow (Pearson Education Limited).
• Fettweis, G. B. L. (1999): Plädoyer für Ludwig Lässl (+1561) als Verfasser des Schwazer Bergbuchs, wissenschaftlichen Autor und Beteiligten bei der Entstehung der Bergbauwissenschaften. – res montanarum, 22:10–25, 10 Abb., 7 Tab.
• Ficklin, W. H. & Mosier, E. L. (1999): Field Methods for Sampling and Analysis of Environmental Samples for Unstable and Selected Stable Constituents. – In: Plumlee, G. S. & Logsdon, M. J. (eds): The Environmental Geochemistry of Mineral Deposits 6A. – p. 249–264, 2 Abb., 3 Tab.; Littleton (Society of Economic Geologists); doi:10.5382/Rev.06.12.
• Ficklin, W. H., Plumlee, G. S., Smith, K. S. & McHugh, J. B. (1992): Geochemical classification of mine drainages and natural drainages in mineralized areas. – Proceedings, International Symposium on Water-Rock Interaction, 7:381–384, 2 Abb., 2 Tab.
• Fides, J. & Varga, M. (1987): Hydrogeology of the Dolina Mine Brown Coal Deposit at Velky Krtíš: Hydrogeology of Coal Basins. – 251–263 p., 2 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Fiedler, H., Lau, C., Schulz, S., Wagner, C., Hutzinger, O. & von der Trenck, K. T. (1995): Stoffbericht Polychlorierte Biphenyle (PCB). – Texte und Berichte zur Altlastenbearbeitung 16:1–131, 33 Abb., 45 Tab.
• Fiedor, J. N., Bostick, W. D., Jarabeck, R. J. & Farrell, J. (1998): Understanding the Mechanism of Uranium Removal from Groundwater by Zero-Valent Iron Using X-ray Photoelectron Spectroscopy. – Environ. Sci. Technol., 32(10):1466–1743, 7 Abb., 2 Tab.; doi:10.1021/es970385u.
• Field, A. (2013): Discovering Statistics Using SPSS – And sex and drugs and rock ’n’ roll, 4th edn. – London (SAGE Publications).
• Field, M. S. (2002): Efficient hydrologic tracer-test design for tracer-mass estimation and sample-collection frequency, 1. Method development. – Environ. Geol., 42(7):827–838, 3 Abb., 4 Tab.; doi:10.1007/s00254-002-0591-2.
• Field, M. S. (2002): Efficient hydrologic tracer-test design for tracer-mass estimation and sample-collection frequency, 2. Experimental results. – Environ. Geol., 42(7):839–850, 8 Abb., 7 Tab.; doi:10.1007/s00254-002-0592-1.
• Field, M. S. (2002): The QTRACER2 Program for Tracer-Breakthrough Curve Analysis for Tracer Tests in Karstic Aquifers and Other Hydrologic Systems: EPA/600/R-02/001. – 179 p., 51 Abb., 13 Tab.; Washington (U.S. Environmental Protection Agency – Office of Research and Development).
• Field, M. S. (2003): A review of some tracer-test design equations for tracer-mass estimation and sample-collection frequency. – Environ. Geol., 43(8):867–881, 4 Abb., 15 Tab.; doi:10.1007/s00254-002-0708-7.
• Field, M. S. (2003): Tracer-Test Planning Using the Efficient Hydrologic Tracer-Test Design (EHTD) Program: EPA/600/R-03/034. – 175 p., 32 Abb., 34 Tab.; Washington (U.S. Environmental Protection Agency – Office of Research and Development; National Center for Environmental Assessment).
• Field, M. S. (2005): Assessing Aquatic Ecotoxicological Risks Associated with Fluorescent Dyes Used for Water-Tracing Studies. – Environ. Eng. Geosci., 11(4):295–308, 17 Abb., 12 Tab.; doi:10.2113/11.4.295.
• Field, M. S. (2006): Tracer-Test Design for Losing Stream–Aquifer Systems. – Intern. J. Speleol., 35(1):25–36, 10 Abb., 6 Tab.
• Field, M. S. (2010): Simulating Drainage from a Flooded Sinkhole. – Acta Carsologica, 39(2):1–19.
• Field, M. S. (2011): Application of robust statistical methods to background tracer data characterized by outliers and left-censored data. – Water Res., 45(10):3107–3118, doi:10.1016/j.watres.2011.03.018.
• Field, M. S., Wilhelm, R. G., Quinlan, J. F. & Aley, T. J. (1995): An assessment of the potential adverse properties of fluorescent tracer dyes used for groundwater tracing. – Environ. Monit. Assess., 38(1):75–96, 1 Abb., 6 Tab.; doi:10.1007/BF00547128.
• Fielding, C. R. (1982): Sedimentology and stratigraphy of the Durham coal measures, and comparisons with other British coalfields. – 598 p., Durham University, 92 Abb., 3 Anl.; Durham.
• Fielding, C. R. & Johnson, G. A. L. (1987): Sedimentary structures associated with extensional fault movement from the Westphalian of NE England. – Spec. Publ. – Geol. Soc. London, 28(1):511–516, doi:10.1144/gsl.sp.1987.028.01.33.
• Figueroa, L. (2025): Electrochemical Treatment for Cyanide and Heavy Metal Removal from Gold Processing Wastewater. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 837–843; Braga (International Mine Water Association).
• Figueroa, L. & Doyle, S. (2024): Geochemical controls on mobilization of metals from tailings and implications for cover amendments. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 182–187; Morgantown (International Mine Water Association).
• Figueroa, L., Landkamer, L., Drennan, D., Sharp, J. & Lee, I. (2016): Sulfate reducing bioreactor longevity estimates based on substrate characterization and initial carbon release. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 952–956, Freiberg (TU Bergakademie Freiberg).
• Figueroa, L., Seyler, J. & Wildeman, T. (2004): Characterization of organic Substrates used for anaerobic Bioremediation of mining impacted Waters. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 43–52, 5 Abb., 5 Tab.; Newcastle upon Tyne (University of Newcastle).
• Figueroa, L. & Whysner, K. (2016): Opportunities for Zinc Compound Recovery from Mining Influenced Water. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1323–1327, Freiberg (TU Bergakademie Freiberg).
• Figueroa, L. & Wolkersdorfer, Ch. (2014): Electrochemical Recovery of Metals in Mining Influenced Water: State of the Art. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 627–631, 2 Abb.; Xuzhou (International Mine Water Association).
• Figueroa, L. A. (2017): Quantifying the Impact of Oxygen, Nitrate and Ferric Iron on Sulfate Reducing Bioreactor Design. Paper presented at the IMWA 2017 – Mine Water & Circular Economy, Lappeenranta. – p. 1402–1408; (Lappeenranta University of Technology).
• Figueroa, L. A., Honeyman, B. D. & Ranville, J. F. (2005): Coupled Microbial and Chemical Reactions in Uranium Bioremediation. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 183–190, Heidelberg (Springer).
• Fileccia, A. (2015): Some simple procedures for the calculation of the influence radius and well head protection areas (theoretical approach and a field case for a water table aquifer in an alluvial plain). – Acque Sotterranee – Ital- J. Groundwater, 4(3):7–23, 13 Abb., 3 Tab.; doi:10.7343/as-117-15-0144.
• Filer, C. (1990): The Bougainville Rebellion, The Mining Industry And The Process Of Social Disintegration In Papua New Guinea. – Canberra Anthropol., 13(1):1–39, doi:10.1080/03149099009508487.
• Filipovic, B. & Lazic, M. (1991): The Possibilities of Ground Water Recovery and Protection in the Period of Subsequent Exploitation of Bauxite Deposits in the Region of Vlasenica. – Proceedings, 4th International Mine Water Association Congress, 1:179–186, 3 Abb.
• Filiz, S., Tarcan, G. & Gemici, U. (2000): Geochemistry of the Germencik Geothermal Fields, Turkey: Sustaining geothermal energy into the 21st century – Proceedings, World Geothermal Congress 2000. – 1115–1120 p., 7 Abb., 5 Tab.; Kyushu - Tohoku (World Geothermal Congress).
• Fillhart, J. & Gutta, J. B. (2024): Lambert Run: a passive treatment approach to watershed remediation. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 188–192; Morgantown (International Mine Water Association).
• Findley, D. F., Monsell, B. C., Bell, W. R., Otto, M. C. & Chen, B. C. (1998): New capabilities and methods of the X-12-ARIMA seasonal-adjustment program. – J. Bus. Econ. Stat., 16(2):127–152, doi:10.1080/07350015.1998.10524743.
• Fink, W. (1906): Das Eisenglimmervorkommen am Gleißingerfels – ein Beitrag zur Geologie und Bergbaugeschichte des Fichtelgebirges. – Geogn. Jh., 19:153–167, 2 Abb.
• Finkenwirth, A. (1964): Die Versenkung der Kaliabwässer im hessischen Anteil des Werra-Kalireviers. – Z. dt. geol. Ges., 116(1):215–230, 6 Abb., 1 Tab., 1 Taf.; doi:10.1127/zdgg/116/1964/215.
• Finney, J. L. (2015): Water – A very short introduction: Very short introductions. – 140 p., Oxford (Oxford University Press).
• Fintra – Finnish Trade Organization Ltd (2016): Finnish Mining Cluster. Finpro, Fintra – Finnish Trade Organization Ltd. http://de.slideshare.net/FinproRy/finnish-mining-cluster Accessed 2016-07-05.
• Fiori, M., Granitzio, F. & Grillo, S. M. (2000): Preliminary results on heavy metals content in soils and water in an area with unexplored ephithermal porphyry occurences. – Proceedings, 7th International Mine Water Association Congress:127–136, 4 Abb., 2 Tab.
• Fiori, M., Grillo, S. M., Manca, M. G., Marcello, A., Matzuzzi, C. & Pretti, S. (1999): Spatial Distribution Patterns of Heavy Metals in Lake Bottom Sediments: an Example from the Mulargia Reservoir (Italy). – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 157–162, 6 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Fiori, M., Grillo, S. M. & Matzuzzi, C. (2002): Mobilisation of trace elements from an epithermal high sulphidation mineralization in the sediments of Sa Forada artificial lake, South-Sardinia, Italy. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1073–1080, 4 Abb.; 1 Tab.; Heidelberg (Springer).
• Firmani, G. (2024): Software Development of an Integrated Water Management Optimisation Model: the Roy Hill Mine Case Study Application. – Mine Water Environ., 43(1):41–52, doi:10.1007/s10230-023-00967-x.
• Firpo Vasquez, B. A., Schneider, I. A. H. & Trein, C. M. (2013): Fabricated Soil Using Coal Mine Waste. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 977–982, 2 Abb., 5 Tab.; Golden (International Mine Water Association).
• Fischer, D., Costley, S., Moloi, M., Jila, X. & Kbauoe, G. (2011): National Implementation Plan for the Stockholm Convention on Persistent Organic Pollutants – South Africa. – (Report Nr. August 2011). – 109 p., Pretoria (Ministry of Water and Environmental Affairs, Department of Environmental Affairs,).
• Fischer, H. B., List, E. J., Koh, R. C. Y., Imberger, J. & Brooks, N. H. (1979): Mixing in inland and coastal waters. – 483 p., San Diego (Academic Press).
• Fischer, J., Voigt, S., Schneider, J. W., Buchwitz, M. & Voigt, S. (2011): A selachian freshwater fauna from the Triassic of Kyrgyzstan and its implication for Mesozoic shark nurseries. – Journal of Vertebrate Paleontology, 31(5):937–953, 7 Abb., 3 Tab.; doi:10.1080/02724634.2011.601729.
• Fischer, J. R., Neebling, T. E. & Quist, M. C. (2012): Development and evaluation of a boat-mounted RFID antenna for monitoring freshwater mussels. – Freshw. Sci., 31(1):148–153, doi:10.1899/11-045.1.
• Fischer, M. (1982): Abflußmessungen mit Tracern nach dem Verdünnungsverfahren. – Beitr. Geol. Schweiz – Hydrol., 28(II):447–458, 6 Abb.
• Fischer, P. (2016): Ende des Steinkohlenbergbaus im Ruhrrevier – Zeitplan und Herausforderungen. – Veröff. Dt. Bergbau-Mus. Bochum, 217:173–179.
• Fischer, P. (2016): Umgang der RAG Deutsche Steinkohle mit alten Schächten und oberflächennahem Bergbau. – Veröff. Dt. Bergbau-Mus. Bochum, 217:46–50.
• Fiscor, S. (2008): Battelle Develops VEP to Remediate Acid Rock Drainage. – Eng. Min. J., 209(7):96–100, 6 Abb.
• Fisher, J. & Greenbank, L. (2000): The Rogerley Mine, Weardale County Durham, England. – Rocks and Minerals, 75(1):54–62, 16 Abb.
• Fisher, T. S. R. & Lawrence, G. A. (2006): Treatment of Acid Rock Drainage in a meromictic mine pit lake. – J. Environ. Engineering, 132:515–526, doi:10.1061/(ASCE)0733-9372(2006)132:4(515).
• Fishman, C. (2011): The big thirst – The secret life and turbulent future of water, 1st edn. – 388 p., New York (Free Press).
• Fishman, M. J. & Erdmann, D. E. (1971): Water analysis. – Anal. Chem., 43(5):356R–388r, doi:10.1021/ac60300a014.
• Fishman, M. J. & Erdmann, D. E. (1973): Water Analysis. – Anal. Chem., 45(5):361R–403R, doi:10.1021/ac50165a015.
• Fishman, M. J., Robinson, B. P. & Midgett, M. R. (1967): Water analysis. – Anal. Chem., 39(5):261–294, doi:10.1021/ac60249a008.
• Fitts, C. R. (2013): Groundwater science, 2nd edn. – 672 p., Amsterdam (Elsevier Academic Press).
• Fitzpatrick, A. (2012): Predictive Site-wide Water Quality Modelling as a Tool for Mine Planning and Permitting – A Recent Canadian Example. – 1–13 [USB flash drive] p., 8 Abb.; Ottawa (Proceedings 9th International Conference on Acid Rock Drainage (ICARD)).
• Fitzpatrick, M. (2022): Create GUI Applications with Python Qt6 – The hands-on guide to making apps with Python. – 805 p., (Independently published).
• Fitzpatrick, R. W. & Self, P. G. (1997): Iron Oxyhydroxides, Sulfides and Oxyhydroxysulfates as Indicators of Acid Sulfate Weathering Environments. – Advances in Geoecology, 30:227–240, 2 Abb., 2 Tab.
• Fitzsimons, O. & Courtney, R. (2022): Characterisation of Pb/Zn Tailings and Drainage Waters to Inform Post-Closure Water Treatment Strategies. – Mine Water Environ., 41(4):1118–1123, doi:10.1007/s10230-022-00898-z.
• Fix, P., Diedrich, T., Kennedy, C. & Day, S. (2015): Characterization of Weathering Products and Controls on Metal Mobility at a Cu-Ni-PGE Deposit. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Fix, P. F. (1955): Hydrocheochemical Exploration for Uranium. – U.S. Geol. Surv. Prof. Pap., 300:667–671, 4 Tab.
• Flanagan, D. M. (2023): Asbestos. U.S. Geological Survey, Mineral Commodity Summaries. – p. 1–2.
• Flanagan, N. E., Mitsch, W. J. & Beach, K. (1994): Predicting metal retention in a constructed mine drainage wetland. – Ecol. Eng., 3(2):135–159, 11 Abb., 4 Tab.
• Flatley, A. & Rutherfurd, I. (2023): Establishing Geomorphic Reference Criteria for Design of River Diversions Around Mine Pits in the Pilbara, Western Australia. – Mine Water Environ., 42(2):293–311, doi:10.1007/s10230-023-00937-3.
• Fleischhacker, E., Heißel, G., Kutzschbach, W. & Tentschert, E. (1996): Die Rolle der Geologie im neuen „Wasserversorgungskonzept für Tirol“. – Mitt. Österr. Geol. Ges., 87(1994):109–118, 6 Abb.
• Fleischhammel, P. & Menendez Lolo, J. A. (2010): Post-mining lakes – various types and their integration in river basin landscapes according to the European Water Framework Directive. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 533–537, Sydney, NS (Cape Breton University Press).
• Fleischmann, G. (1988): Die historischen Bergwerke von Laibstadt – Das Bergwerk der Herren von Heideck im Jahre 1448/49 –Heimatkundliche Streifzüge, 7:38–55, 9 Abb.
• Fleming, R. J. (2020): ##DO NOT USE IT SEES GOD AS THE CREATOR## The Rise and Fall of the Carbon Dioxide Theory of Climate Change. – 176 p., Cham (Springer Nature); doi:10.1007/978-3-030-16880-3.
• Flemming, H. C. & Wingender, J. (2010): The biofilm matrix. – Nat. Rev. Microbiol., 8(9):623–33, doi:10.1038/nrmicro2415.
• Fletcher, J. S. & Hegde, R. S. (1995): Release of phenols by perennial plant roots and their potential importance in bioremediation. – Chemosphere, 31(4):3009–3016, doi:10.1016/0045-6535(95)00161-Z.
• Fletcher, T. (1992): Drilling Exploration Boreholes Beyond 4000 m in South Afric. – Mine Water Environ., 11(4):43–52, 3 Abb.
• Fleurant, C. & Van der Lee, J. (2000): Stochastic modelling of tracer transport in three dimension. – IAHS-AISH Publication, 262:109–114, 5 Abb., 1 Tab.
• Florence, K. (2014): Mechanisms of the Removal of Metals from Acid and Neutral Mine Water under varying Redox Systems. – 203 p., PhD, Cardiff University; Cardiff.
• Florence, K. & Morgan, P. (2013): A Novel Electrochemical Process for Aqueous Oxidation of Acid Mine Drainage Using Advanced Power Electronics and Real time Control. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 557–561, 4 Abb., 1 Tab.; Golden (International Mine Water Association).
• Florence, K., Sapsford, D. J., Johnson, D. B., Kay, C. M. & Wolkersdorfer, Ch. (2016): Iron mineral accretion from acid mine drainage and its application in passive treatment. – Environ. Technol., 37(11):1428–1440, 7 Abb., 2 Tab.; doi:10.1080/09593330.2015.1118558.
• Florence, K., Sapsford, D. J. & Wolkersdorfer, Ch. (2015): Mechanisms of Iron Removal during Passive Treatment of AMD in a Vertical Flow Reactor. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin); doi:10.13140/RG.2.1.1463.9121.
• Florence, K. M. (2012): A vertical flow reactor for removal of iron from zinc-rich AMD: International Mine Water Association Symposium. – 687 p., Bunbury (Edith Cowan University).
• Florentin, F. (1953): Die letzte Betriebsperiode des Gasteiner- und Rauriser Goldbergbaus 1938 bis 1945. – Bad Gasteiner Badeblatt, 13-15:3–28, 11 Abb., 1 Kart.
• Flores, A. N. & Sola, F. M. (2010): Evaluation of Metal Attenuation from Mine Tailings in SE Spain (Sierra Almagrera): A Soil-Leaching Column Study. – Mine Water Environ., 29(1):53–67, 12 Abb., 9 Tab.; doi:10.1007/s10230-010-0099-z.
• Flores, H., Dogan, T. & Haske, J. (2024): Conservation and promotion of the Coal Mining Heritage as Europe’s Cultural legacy: Ruhr Area Examples. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 193–195; Morgantown (International Mine Water Association).
• Flores, H., Lorenz, S., Jackisch, R., Tusa, L., Contreras, I. C., Zimmermann, R. & Gloaguen, R. (2021): UAS-Based Hyperspectral Environmental Monitoring of Acid Mine Drainage Affected Waters. – Minerals, 11(2):182.
• Flores, H., Reker, B., Pawlik, M., Haske, B. & Rudolph, T. (2024): Hyperspectral UAS-sensing for tailing ponds monitoring: Towards responsible resource repurposing. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 196–202; Morgantown (International Mine Water Association).
• Flores, H., Rudolph, T. & Benndorf, J. (2025): Multi-Scale Characterization of Mine Waste in a Circular Economy: Challenges and Opportunities. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 351–356; Braga (International Mine Water Association).
• Flores, H., Rudolph, T. & Möllerherm, S. (2022): Hyperspectral Sensing To Boost Mine Waste Characterization And Water Monitoring. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 83–90; (International Mine Water Association).
• Flores, M., Nunez, J., Oyarzún, J., Freixas, G., Maturana, H. & Oyarzún, R. (2017): Surface water quality in a sulfide mineral-rich arid zone in North-Central Chile: Learning from a complex past, addressing an uncertain future. – Hydrol. Processes, 31(3):498–513, doi:10.1002/hyp.11086.
• Flower, R. J., Battarbee, R. W. & Appleby, P. G. (1987): The recent palaeolimnology of acid lakes in Galloway, south-west Scotland diatom analysis, pH trends, and the rôle of afforestation. – J. Ecol., 75(3):797–823, doi:10.2307/2260207.
• Floyd, S., Pawashe, C. & Sitti, M. (2009): Two-Dimensional Contact and Noncontact Micromanipulation in Liquid Using an Untethered Mobile Magnetic Microrobot. – IEEE Trans. Robot. Autom., 25(6):1332–1342, doi:10.1109/tro.2009.2028761.
• Flurl, M. (1792): Beschreibung der Gebirge von Bayern und der Pfalz. – Leutner:642.
• Flurl, M. (1796): Kundmachung (worin für Entdeckung von bisher noch nicht bekannten Steinkohlen-Flötzen oder Adern zwischen dem Lech und dem Inn Preise ausgesetzt werden) (dd. München d. 22. März 1796): Signatur: 2 Bavar. 960,XXVII,102. – 2 p., München (Steinkohlen-Gewerkschaft).
• Flury, M. & Wai, N. N. (2003): Dyes as Tracers for Vadose Zone Hydrology. – Rev. Geophys., 41(1):2.1–2.37, 20 Abb., 4 Tab.; doi:10.1029/2001RG000109.
• Flynn, C. M., Jr. (1984): Hydrolysis of inorganic iron(III) salts. – Chem. Rev., 84(1):31–41, doi:10.1021/cr00059a003.
• Flynn, H. C., Meharg, A. A., Bowyer, P. K. & Paton, G. I. (2003): Antimony bioavailability in mine soils. – Environ. Pollut., 124(1):93–100, 3 Abb., 2 Tab.
• Flynn, R., Hacini, Y., Schnegg, P.-A., Costa, R. & Diomande, K. A. (2006): Use of Tracer Tests and Geophysical Logging to Understand Solute and Micro-organism Tracer Responses in Monitoring Wells with Long Screen Intervals in a Gravel Aquifer. – Beitr. Hydrogeol., 55:5–20.
• Flynn, R. M. (2003): Virus transport and attenuation in perialpine gravel aquifers. – 178 p., Neuchâtel (unveröff. Dissertation).
• Flynn, R. M., Schnegg, P.-A., Costa, R., Mallen, G. & Zwahlen, F. (2005): Identification of zones of preferential groundwater tracer transport using a mobile downhole fluorometer. – Hydrogeol. J., 13(2):366–377, 9 Abb., 1 Tab.
• Fofonoff, N. P. (1985): Physical properties of seawater: A new salinity scale and equation of state for seawater. – Journal of Geophysical Research: Oceans, 90(C2):3332–3342, doi:10.1029/JC090iC02p03332.
• Fofonoff, N. P. & Millard Jr, R. C. (1983): Algorithms for computation of fundamental properties of seawater. – UNESCO Tech. Pap. Mar. Sci., 44:53, 13 Abb.
• Fogler, H. S. (2016): Elements of Chemical Reaction Engineering, 5th edn. – 957 p., Boston (Pearson Education).
• Földing, G., Éberfalvi, J., Csvari, M., Németh, G. & Csicsak, J. (2008): Post-closure Water Management Practice on the Former Uranium Mining Site in Hungary. – Proceedings, 10th International Mine Water Association Congress:201–204.
• Foley, G., Nicol, C. & Missen, J. (2012): Overview of managing groundwater and impacts at Loy Yang open cut: International Mine Water Association Symposium. – 31–36 p., Bunbury (Edith Cowan University).
• Fomichev, A. I., Curcija, C. D. & Bhandari, M. S. (2002): Study of Turbulent Natural Convection Flow in Rectangular Enclosure. – Laboratory Report CEERE UMASS (Center for Energy Efficiency and Renewable Energy).
• Fonnum, F. & Mariussen, E. (2009): Mechanisms involved in the neurotoxic effects of environmental toxicants such as polychlorinated biphenyls and brominated flame retardants. – Journal of neurochemistry, 111(6):1327–1347, doi:10.1111/j.1471-4159.2009.06427.x.
• Fonseca, R. M. F., Araújo, J. F. & da Silva, R. (2025): Monitoring, Control, and Prevention of Excess Hg in Acid Mine Drainage (AMD) in an Abandoned Metal Sulfides Mine (SW Portugal), using Nature-Based Solutions. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 536–542; Braga (International Mine Water Association).
• Fonshiynwa, M. M., Fuanya, C., Hoth, N., Ouabo, R. E., Tangko, T. E., Günther, J., Eseya, M. E. & Drebenstedt, C. (2024): Environmental impacts of artisanal and small-scale gold mining within Kambele and Pater gold mining sites, East Cameroon. – GeoJournal, 89(3):100, doi:10.1007/s10708-024-11093-8.
• Font, G., Mañes, J., Moltó, J. C. & Picó, Y. (1996): Current developments in the analysis of water pollution by polychlorinated biphenyls. – Journal of Chromatography A, 733(1):449–471, doi:10.1016/0021-9673(95)00972-8.
• Fontaine, R. C., Davis, A. & Fennemore, G. G. (2003): The Comprehensive Realistic Yearly Pit Transient Infilling Code (CRYPTIC): A Novel Pit Lake Analytical Solution. – Mine Water Environ., 22(4):187–193, 8 Abb., 2 Tab.; doi:10.1007/s10230-003-0021-z.
• Food and Agriculture Organization (FAO) & World Health Organisation (WHO) . – p.
• Food and Agriculture Organization (FAO) & World Health Organisation (WHO) . – p.
• Food and Agriculture Organization (FAO) & World Health Organisation (WHO) . – p.
• Food and Agriculture Organization (FAO) & World Health Organisation (WHO) . – p.
• Foppen, J. W., Seopa, J., Bakobie, N. & Bogaard, T. (2013): Development of a methodology for the application of synthetic DNA in stream tracer injection experiments. – Water Resour. Res., 49(9):5369–5380, doi:10.1002/wrcr.20438.
• Forberig, S. (2005): Technologie zur Erstellung hochgenauer digitaler Geländemodelle (DGM). – Wiss. Mitt. Inst. Geol., 28:107–109, 3 Abb.
• Forbes, C., Evans, M., Hastings, N. & Peacock, B. (2011): Statistical Distributions, 4th edn. – 212 p., Hoboken (Wiley).
• Forbes, C. F. & Showers, J. A. F. (1988): Mine Dewatering and Water Disposal Bendigo Goldfield. – Proceedings, 3rd International Mine Water Congress, Melbourne:415–424, 1 Abb., 3 Tab.
• Forbes, E., Trumm, D., Bell, D. & Pope, J. (2018): Comparison Of Diversion Well Substrates For The Treatment Of Acid Mine Drainage, Bellvue Mine, West Coast, New Zealand. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 116–120; (Tshwane University of Technology).
• Forchhammer, P. W. (1888): Erklärung der Ilias auf Grund der in der beigegebenen Originalkarte von Spratt und Forchhammer dargestellten topischen und physischen Eigenthümlichkeiten der troischen Ebene – ein Beitrag zur Erledigung der homerischen Frage, 2nd edn. – 162 p., Kiel Leipzig (Lipsius & Tischer).
• Ford, C. T. & Bayer, J. F. (1973): Treatment of ferrous acid mine drainage with activated carbon. – 123 p., Washington (U.S. Government Print. Office).
• Fordham, A. E., Robinson, G. M. & Blackwell, B. D. (2017): Corporate social responsibility in resource companies – Opportunities for developing positive benefits and lasting legacies. – Resour. Policy, 52:366–376, doi:10.1016/j.resourpol.2017.04.009.
• Fordham, A. E., Robinson, G. M. & Van Leeuwen, J. (2018): Developing community based models of Corporate Social Responsibility. – Extr. Ind. Soc., 5(1):131–143, doi:10.1016/j.exis.2017.12.009.
• Fordyce, S. (2021): Junee-Florentine (JF) Dye Tracing Extravaganza. – Caves Australia, 218(4):5–7.
• Foreman, J. W. (1970): Evaluation of pollution abatement procedures in Moraine State Park. – Papers Presented Before the Symposium on Coal Mine Drainage Research, 3:304–333, 20 Abb., 1 Tab.
• Foreman, J. W. (1971): Deep Mine Sealing. Paper presented at the 1st Acid Mine Drainage Workshop, Athens. – p. 19–45, 21 Abb.; Athens (Ohio University).
• Foreman, J. W. (1972): Evaluation of mine sealing in Butler County, Pennsylvania. – Papers Presented Before the Symposium on Coal Mine Drainage Research, 4:83–95, 4 Abb., 3 Tab.
• Foreman, J. W. (1974): A progress report evaluation of mine drainage abatement projects in western Pennsylvania. – Papers Presented Before the Symposium on Coal Mine Drainage Research, 5:128–132, 1 Tab.
• Foreman, J. W. (1998): Engineered Structures for sealing Underground Mines. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 19:elektronisches Dokument, 10 Abb.
• Forgáć, J., Streško, V. & Škvarka, L. (1995): Vyskyt toxickych prvkov v oblasti Banskej Stiavnice [Occurrence of toxic elements in the Banska Štiavnica area]. – Miner. Slovaca, 27(1):45–56, 9 Abb., 3 Tab.
• Forgeron, S. V. (2007): Managing Mine Water Quality and Flow in the 1A Mine Pool – Phase 1. – (Report Nr. Ref. 047437). – 80 p., Sydney/NS (Conestoga-Rovers & Associates).
• Forgeron, S. V. (2010): Protocols for the Remediation of Lands Impacted by Former Coal Mining Operations, Sydney Coalfield, Nova Scotia, Canada. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 621–625, Sydney, NS (Cape Breton University Press).
• Forgeron, S. V. & Hacquebard, P. A. (1979): A Review of the Sydney Coal Resources with Emphasis on the Harbour Seam, Cape Breton Development Corporation. – Nova Scotia Department of Mines, Open File Rep., 414:53, 12 Kart.
• Fornarelli, R., Mullett, M. & Ralph, D. (2013): Factors influencing nanofiltration of acid mine drainage. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 563–568, 4 Abb., 2 Tab.; Golden (International Mine Water Association).
• Forrester, D., King, M. & Hilchey, J. (2010): Remediation of the Gowrie Wash Plant. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 625–629, Sydney, NS (Cape Breton University Press).
• Forrester, D. & Noble, B. (2010): Overcoming the Pitfalls of abandoned mine workings in the Sydney Coalfield. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 629–633, Sydney, NS (Cape Breton University Press).
• Forssman, F. & de Jong, R. (2004): Detailtypografie – Nachschlagwerk für alle Fragen zu Schrift und Satz, 2 edn. – 408 p., Mainz (Schmidt).
• Förstemann, E. (1872): Altdeutsches namenbuch. – 870 p., Nordhausen (Förstemann).
• Förster, A. & Förster, H.-J. (2000): Crustal composition and mantle heat flow: Implications from surface heat flow and radiogenic heat production in the Variscan Erzgebirge (Germany). – J. Geophys. Res., 105(B12):27917–27938, 12 Abb., 3 Tab., 1 Anl.
• Förstner, U. (1981): Trace metals in fresh waters with particular reference to mine effluents: Handbook of strata-bound and stratiform ore deposits Part III Vol. 9. – 271–303 p., 5 Abb., 7 Tab.; Amsterdam (Elsevier).
• Förstner, U. & Grathwohl, P. (2007): Ingenieurgeochemie – Technische Geochemie – Konzepte und Praxis, 2nd edn. – 471 p., 160 Abb.; Berlin (Springer); doi:10.1007/978-3-540-39512-6.
• Forsyth, B., Day, S. & Omotoso, O. (2015): Geochemical Characteristics of Oil Sand Tailings and Bitumen Upgrading By-Products, Alberta, Canada. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Forsyth, B., Edraki, M. & Baumgartl, T. (2015): The Evolution of Tailings Seepage Chemistry at One of Australia’s Largest and Longest Operating Mines. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Fortes, J. C., Davila, J. M., Sarmiento, A. M., Luís, A. T., Santisteban, M., Diaz-Curie, J., Cordoba, F. & Grande, J. A. (2020): Corrosion of Metallic and Structural Elements Exposed to Acid Mine Drainage (AMD). – Mine Water Environ., 39(2):195–203, doi:10.1007/s10230-020-00681-y.
• Fortescue, J. A. C. (1992): Landscape geochemistry: retrospect and prospect—1990. – Appl. Geochem., 7(1):1–53, doi:10.1016/0883-2927(92)90012-r.
• Forth, R. A. (1999): The Stability and Contamination of some Tips and Tailings Dams in Northern England. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 87–91, 1 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Fortini, S., Lavanchy, F. & Meyer, T. (2004): Reaction Calorimetry in Supercritical Carbon Dioxide – Methodology Development. – Macromol. Mater. Eng., 289(8):757–762, 6 Abb., 1 Tab.; doi:10.1002/mame.200400077.
• Förtsch, G. & Meinholz, H. (2023): Polychlorierte Biphenyle (PCBs). Handbuch Betriebliche Kreislaufwirtschaft. – p. 427–439, 7 Abb.; Berlin, Heidelberg (Springer); doi:10.1007/978-3-662-63459-2_13.
• Fortuna, J., Waterhouse, J., Chapman, P. & Gowan, M. (2021): Applying Practical Hydrogeology to Tailings Storage Facility Design and Management. – Mine Water Environ., 40(1):50–62, doi:10.1007/s10230-020-00739-x.
• Fosso-Kankeu, E., Kaitano, R., Waanders, F. & Mulaba-Bafubiandi, A. F. (2014): Soil Quality in the Basin of Mine Effluents and the Potential of Alleviation of Metal Dispersion. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 374–378, Xuzhou (International Mine Water Association).
• Fosso-Kankeu, E., Kumar, N., Pandey, S. & Ray, S. (2019): Synthesis Of MoS2-Based Nanohybrid For Effective Removal Of Mercury From Aqueous Solution. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 175–178; Perm, Russia (Perm State University).
• Fosso-Kankeu, E., Manyatshe, A., Munyai, A. & Waanders, F. (2016): AMD formation and dispersion of inorganic pollutants along the main stream in a mining area. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 391–397, Freiberg (TU Bergakademie Freiberg).
• Fosso-Kankeu, E., Masindi, V., Maree, J., Mamba, B. & Nkambule, T. (2022): Effective Attenuation of AMD Pollution Potential Using By-product from Municipal Wastewater Treatment. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 91–97; (International Mine Water Association).
• Fosso-Kankeu, E., Mittal, H., Waanders, F. & Ray, S. S. (2016): Performance of synthesized hybrid hydrogel nanocomposite applied for the removal of metal ions from aqueous solutions. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 850–857, Freiberg (TU Bergakademie Freiberg).
• Fosso-Kankeu, E., Mukwevho, N., Kumar, N., Ray, S. & Waanders, F. (2019): PAHs In Coal Tar As Water Contaminants and Their Removal by Photocatalytic Degradation. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 179–183; Perm, Russia (Perm State University).
• Fosso-Kankeu, E., Mulaba-Bafubiandi, A. F., Barnard, T. & Campana, P. (2013): Indirect implication of bacterial proteins in the biouptake of metals from aqueous solution. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 843–848, 4 Abb.; Golden (International Mine Water Association).
• Fosso-Kankeu, E., Mulaba-Bafubiandi, A. F. & Barnard, T. G. (2012): Effective desorption of metals from loaded biomass using response surface methodology based on Box-Behnken design: International Mine Water Association Symposium. – 585–592 p., Bunbury (Edith Cowan University).
• Fosso-Kankeu, E., Mulaba-Bafubiandi, A. F., Mamba, B. B., Marjanovic, L. & Barnard, T. G. (2009): Optimising the Removal by b. Subtilis and b. Bacterium of Metals found around Mining Areas: Evaluation of the effect of Physical and Physiological Parameters. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 392–400, 8 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Fosso-Kankeu, E., Mulaba-Bafubiandi, A. F. & Mishra, A. K. (2014): Prospects for Immobilization of Microbial Sorbents on Carbon Nanotubes for Biosorption – Bioremediation of Heavy Metals Polluted Water. – In: Mishra, A. K. (ed) Application of nanotechnology in water research. – p. 39–61, Salem (Scrivener).
• Fosso-Kankeu, E., Mulaba-Bafubiandi, A. F., Tlou, G. & Piater, L. (2012): The next step in the bioremediation of heavy metal polluted water – development of suitable microbial-sorbent. – In: McCullough, C. D., Lund, M. A. & Wyse, L. (eds): International Mine Water Association Symposium. – p. 593–599, 3 Abb., 1 Tab.; Bunbury (Edith Cowan University).
• Fosso-Kankeu, E. & Redelinghuys, J. (2018): Bacterial Ecology Of Biofilms Sustaining Pollution By Acid Mine Drainage Near Mining Areas In Mpumalanga Province – South Africa. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 332–338; (Tshwane University of Technology).
• Fosso-Kankeu, E. & Waanders, F. (2014): Metal Ions Adsorption Affinity of Clayey Materials from the North West Province of South Africa. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 354–358, 3 Abb., 1 Tab.; Xuzhou (International Mine Water Association).
• Fosso-Kankeu, E., Waanders, F., Maloy, E. & Steyn, B. (2016): Reduction of salinity and hardness of water using copolymerized biopolymers. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 994–1001, Freiberg (TU Bergakademie Freiberg).
• Fosso-Kankeu, E., Waanders, F., Mulaba-Bafubiandi, A. & Sidu, S. (2015): Leachability of Suspended Particles in Mine Water and Risk of Water Contamination. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Fosso-Kankeu, E., Weideman, R., Moyakhe, D., Waanders, F. & Campbell, Q. (2019): Thermodynamic Study Of The Adsorption Performance Of Spent Coffee Beans For The Removal Of Cadmium From Coal Tailing Leachates. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 184–188; Perm, Russia (Perm State University).
• Fosso-Kankeu, E., Weideman, R., Moyakhe, D., Waanders, F. B., Le Roux, M. & Campbell, Q. P. (2019): Hydrothermal preparation of biochar from spent coffee grounds, and its application for the removal of cadmium from coal tailings leachate. – J. S. Afr. Inst. Min. Metall., 119(7):607–612, doi:10.17159/2411-9717/449/2019.
• Fosso-Kankeu, E., Wolkersdorfer, Ch. & Burgess, J. (2020): Recovery of Byproducts from Acid Mine Drainage Treatment. – 356 p., Salem (Scrivener); doi:10.1002/9781119620204.
• Foster, M. B. J. (1984): Steenkoppies and Zwartkrans Dolomite Compartments Preliminary Geological Report. – Unpubl. Report for Geohydrology, D. o. 13 p., 3 Abb.; Pretoria (Department of Water Affairs,).
• Fotieva, N. & Sammal, A. (1998): Design of Mine Working Support constructed in preliminary Grouted Rock Mass upon the Underground Water Pressure: Mine Water and Environmental Impacts 1. – 163–170 p., 4 Abb.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Fotieva, N. N., Bulychev, N. S. & Sammal, A. S. (1991): Design of Mine Working Monolith Lining upon the Action of Underground Waters. – Proceedings, 4th International Mine Water Association Congress, 2:41–51, 2 Abb.
• Fotieva, N. N., Bulychev, N. S. & Zalessky, K. E. (1997): Designing multi-layer linings of circular openings in watered transversely isotropic rock. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:363–369, 4 Abb.
• Fotieva, N. N., Sammal, A. S. & Bulychev, N. S. (1994): Determination of Working Support Safety Factor at Great Heads of Mine Water. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:23–27, 2 Abb.
• Foucher, S., Battaglia-Brunet, F., Ignatiadis, I. & Morin, D. (2001): Treatment by sulfate-reducing bacteria of Chessy acid-mine drainage and metals recovery. – Chem. Eng. Sci., 56(4):1639–1645.
• Fouépé, T. A., Takem, E. G., Kuitcha, D., Kringel, R., Fantong, Y. W., Ndjama, J. & Tejiobou, A. (2020): Hydrogeochemistry and groundwater flow mechanisms in shallow aquifer in Yaounde, Cameroon. – Water Supply, 20(4):1334–1348, doi:10.2166/ws.2020.050.
• Fourdrinoy, J., Dambrine, J., Petcu, M., Pierre, M. & Rousseaux, G. (2020): The dual nature of the dead-water phenomenology: Nansen versus Ekman wave-making drags. – Proc. Natl. Acad. Sci. U.S.A., 117(29):16770–16775, doi:10.1073/pnas.1922584117.
• Fourie, A. & Minnitt, R. C. A. (2016): Review of gold reef sampling and its impact on the mine call factor. – J. S. Afr. Inst. Min. Metall., 116:1001–1009, 9 Abb., 7 Tab.; doi:10.17159/2411-9717/2016/v116n11a2.
• Fourie, F. D. (2016): Estimating the Decant Rate from a Rehabilitated Opencast Colliery Using a Water Balance Approach. – Mine Water Environ., 35(2):199–213, doi:10.1007/s10230-015-0362-4.
• Fournier, R. O. (1977): Chemical geothermometers and mixing models for geothermal systems. – Geothermics, 5(1-4):51–40, 5 Abb.; doi:10.1016/0375-6505(77)90007-4.
• Fowell, S. J. & Peck, J. (1997): Data collected in Mongolia offer key clues to past climate. – EOS Trans. Am. Geophys. Union, 78(31):320–321.
• Fowkes, N., Hocking, G., Mason, D. P., Please, C. P., Kgatle, R., Yilmaz, H. & van der Merwe, N. (2015): Models for the effect of rising water in abandoned mines on seismic activity. – Int. J. Rock. Mech. Min., 77:246–256, 13 Abb., 1 Tab.; doi:10.1016/j.ijrmms.2015.04.011.
• Fowler, A. R. C. (1968): Mining at Transvaal Gold Mining Estates, Limited 1872—1967. – J. S. Afr. Inst. Min. Metall., 69:291–335, 7 Abb.
• Fox, D. L. (1999): Prediction of acid rock drainage (ARD) risk from sulphidic slates using GIS analysis of mineralogical, geochemical, magnetic and geological parameters – a test case in southern Nova Scotia. – 282 p., Halifax (unpubl. PhD Thesis Dalhousie University).
• Fox, R. E. & McGill, R. A. (1999): Mine Closure, environmental Auditing and Quality Management of Mines in the Northern Territory of Australia. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 729–735, 1 Abb.; Sevilla (International Mine Water Association).
• Fox, R. W. (1831): Ueber die mit der Tiefe zunehmende Temperatur der Grubenwässer in Cornwall. Auszug eines Schreibens von Hrn. Robert W. Fox in Falmouth an Hrn. Alexander von Humboldt. – Ann. Phys., 97(1):171–172, doi:10.1002/andp.18310970118.
• França, S. C. A., Andrade, L. S., Loayza, P. E. V. & Trampus, B. C. (2017): Water In Mining – Challenges For Reuse. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 445–452, Lappeenranta (Lappeenranta University of Technology).
• Francese, E. (2013): Usage of Reference Management Software at the University of Torino. – Ital. J. Lib. Arch. Inf. Sci., 4(2) doi:10.4403/jlis.it-8679.
• Francis, A. J. (2005): Biotransformation of uranium complexed with organic ligands. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 191–198, Heidelberg (Springer).
• Franco, N. B. & Balouskus, R. A. (1974): Electrochemical removal of heavy metals from acid mine drainage. – Environmental Protection Technology Series, EPA-670/2-74-023:86.
• Frank, H. (1979): Glazial übertiefte Täler im Bereich des Isar-Loisach-Gletschers. – Eiszeitalter u. Gegenwart, 29:77–99, 8 Abb., 1 Tab., 2 Taf.
• Frank, J. (2005): Determination of Arsenic and Arsenic Species in Ombrotrophic Peat Bogs from Finland. – 197 p., Heidelberg (unveröff. Diss. Univ. Heidelberg).
• Frank, N., Mangini, A. & Korfmann, M. (2002): 230Th/U dating of the Trojan ‘water quarries’. – Archaeometry, 44(2):305–314, 4 Abb., 1 Tab.; doi:10.1111/1475-4754.t01-1-00062.
• Frank, T. & Kedzierski, P. (2006): GPU accelerated Boolean operations for complex 3D GIS queries. – Wiss. Mitt. Inst. Geol., 31:331–338, 7 Abb.
• Frankfurt, H. G. (1986): On Bullshit. – Raritan Q. Rev., 6(2):81–100.
• Frankfurt, H. G. (2005): On Bullshit. – 67 p., Princeton (Princeton University Press).
• Frankiewicz, A. & Pucek, T. R. (2006): Hydrogeological and Hydrochemical Characteristics of the Partially Flooded Piaseczno Opencast Sulphur Mine in Southeastern Poland. – Mine Water Environ., 25(3):153–162, 3 Abb., 4 Tab.
• Franz, L. (1955): Der Fund von Biberwier. – Schlern-Schr., 111:69–75, 20 Abb.
• Franzblau, R. E. (2014): Metal ion adsorption onto bacteria-mineral composites. – 90 p., University of Windsor, 14 Abb., 6 Tab.; Windsor.
• Franzsen, S., Bonner, R. & Germishuizen, C. (2018): Estimation of Nanofiltration Solute Rejection in Reverse Osmosis Concentrate Treatment Processes. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 977–982; (Tshwane University of Technology).
• Fraser, C., Martin, A., Mueller, S. & Scott, J. (2017): Incorporating Climate Change Scenarios into Mine Design and Permitting Studies. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 373–380, Lappeenranta (Lappeenranta University of Technology).
• Fraser, C. & Stockwell, J. (2025): Flow and water quality observations from three mine rock lysimeters constructed at a coal mine in north-eastern British Columbia, Canada. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1077–1079; Braga (International Mine Water Association).
• Fraser, C. J. & Pitt, H. A. (1979): Artesian Dewatering Operations at Morwell Open Cut: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 362–382 p., 9 Abb.; San Francisco (Freeman).
• Frasl, G. (1953): Die beiden Sulzbachzungen (Oberpinzgau, Salzburg). – Jb. Geol. B.-A., 96(2):143–192, 1 Abb., 3 Taf.
• Frau, F., Ardau, C. & Asunis, I. (2007): Geochemistry of Lead at the old Mine Area of Baccu Locci (South-East Sardinia, Italy): Water in Mining Environments. – 427–432 p., 5 Abb.; Cagliari (Mako Edizioni).
• Frau, F., Ardau, C., Dore, E. & Lattanzi, P. (2012): Zn-Al sulphate layered double hydroxide for Mo uptake: International Mine Water Association Symposium. – 481–488 p., Bunbury (Edith Cowan University).
• Frau, F. & Cidu, R. (2010): Diel changes in water chemistry in the Baccu Locci stream (Sardinia, Italy) affected by past mining. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 339–343, Sydney, NS (Cape Breton University Press).
• Frau, F., Cidu, R. & Dadea, C. (2011): AMD generation from dissolution of secondary metal sulphate: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 301–306 p., Aachen (RWTH Aachen University).
• Frau, F., Podda, F., Da Pelo, S. & Ardau, C. (2013): Arsenic contamination in the Baccu Locci mine watershed (Sardinia, Italy) after remediation. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 983–988, 9 Abb.; Golden (International Mine Water Association).
• Frau, I., Korostynska, O., Mason, A. & Byrne, P. (2018): Comparison of Electromagnetic Wave Sensors with Optical and Low-frequency Spectroscopy Methods for Real-time Monitoring of Lead Concentrations in Mine Water. – Mine Water Environ., 37(3):617–624, doi:10.1007/s10230-018-0511-7.
• Frau, I., Wylie, S., Byrne, P., Cullen, J., Korostynska, O. & Mason, A. (2018): New Sensing System Based on Electromagnetic Waves and Functionalised EM Sensors for Continuous Monitoring of Zn in Freshwater. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1049–1055; (Tshwane University of Technology).
• Frauendorf, J. (2002): Entwicklung und Anwendung von Fernerkundungsmethoden zur Ableitung von Wasserqualitätsparametern verschiedener Restseen des Braunkohlentagebaus in Mitteldeutschland. – 261 p., 128 Abb., 16 Tab.; Halle (unveröff. Dissertation Martin-Luther-Universität Halle-Wittenberg).
• Fredlund, M., Tran, D. & Fredlund, D. (2015): The Calculation of Actual Evaporation from an Unsaturated Soil Surface. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–15 [electronic document], Santiago/Chile (Gecamin).
• Fredrickson, J. K., Zachara, J. M., Kennedy, D. W., Dong, H., Onstott, T. C., Hinman, N. W. & Li, S.-M. (1998): Biogenic iron mineralization accompanying the dissimilatory reduction of hydrous ferric oxide by a groundwater bacterium. – Geochim. Cosmochim. Acta, 62(19/20):3239–3257, 3 Abb., 1 Tab.
• Freemantle, G. G., Chetty, D., Olifant, M. & Masikhwa, S. (2022): Assessment of asbestos contamination in soils at rehabilitated and abandoned mine sites, Limpopo Province, South Africa. – J. Hazard. Mater., 429:127588, doi:10.1016/j.jhazmat.2021.127588.
• Freeze, R. A. & Cherry, J. A. (1979): Groundwater. – 604 p., Englewood Cliffs (Prentice Hall).
• Fregadolli, L. L., Vasconcelos, F. d. M. & Wildeman, T. (2015): Use of Anaerobic Reactors for AMD Passive Treatment from a Waste Pile – Jacobina Mine. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Frei, S., Wismeth, F. & Gilfedder, B. S. (2020): Quantifizierung lokaler Grundwassereintritte in die Spree und deren Bedeutung für die Verockerungsproblematik in der Laustiz. – Grundwasser, 25(3):231–241, doi:10.1007/s00767-020-00452-0.
• Freie und Hansestadt, H. & Behörde für Stadtentwicklung und, U. (2006): Dezentrale naturnahe Regenwasserbewirtschaftung – Ein Leitfaden für Planer, Architekten, Ingenieure und Bauunternehmer. – 60 p., 45 Abb., 1 Tab.; Hamburg (Amt für Umweltschutz – Gewässerschutz).
• French, B. M. & Koeberl, C. (2010): The convincing identification of terrestrial meteorite impact structures: What works, what doesn’t, and why. – Earth-Sci. Rev., 98(1-2):123–170, doi:10.1016/j.earscirev.2009.10.009.
• Frengstad, B. S., Lax, K., Tarvainen, T., Jaeger, O. & Wigum, B. J. (2010): The chemistry of bottled mineral and spring waters from Norway, Sweden, Finland and Iceland. – J. Geochem. Explor., 107(3):350–361, doi:10.1016/j.gexplo.2010.07.001.
• Frenz, W. & Kummermehr, M. (2000): Sanierung stillgelegter Bergbaubetriebe nach dem BBodSchG. – Erzmetall, 53:172–177.
• Frenzel, M., Nindel, K., Eulenberger, S., Jenk, U. & Paul, M. (2016): Derivation of natural background values for groundwater in conjunction with the remediation of a sandstone-hosted uranium mine. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 753–758, Freiberg (TU Bergakademie Freiberg).
• Frenzel, M., Schramm, A., Wedekind, C., Paul, M. & Jenk, U. (2012): Remediation strategy for a waste rock dump at a former uranium leach operation: International Mine Water Association Symposium. – 85–90 p., Bunbury (Edith Cowan University).
• Fresch, F., Schmahmann, B. & Van Robbroeck, L. (2020): Troubling Images – Visual Culture and the Politics of Afrikaner Nationalism. – 314 p., Johannesburg (Wits University Press); doi:10.18772/22020024716.
• Frevert, T. (1984): Can the redox conditions in natural waters be predicted by a single parameter? – Schweizerische Zeitschrift für Hydrologie, 46(2):269–290, doi:10.1007/BF02538066.
• Freyer, K., Treutler, H. C., Dehnert, J. & Nestler, W. (1997): Sampling and measurement of radon-222 in water. – Journal of Environmental Radioactivity, 37(3):327–337, doi:10.1016/S0265-931X(96)00102-6.
• Freytag, M. (1873): Wissenschaftliches Gutachten über den Einfluß des Hüttenrauchs bei den fiscalischen Hüttenwerken zu Freiberg auf die Vegetation der benachbarten Grundstücke und ganz besonders auf die Gesundheit der Hausthiere, namentlich des Rindvieh’s. – Jahrbuch für das Berg- und Hüttenwesen im Königreiche Sachsen – Abhandlungen aus dem Gebiete des Berg-und Hüttenwesens:3–86, 10 Tab.
• Fricke, J. R. & Dean, D. M. (2013): Use of a Biological Polishing Step to Improve Bioassay Test Results. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 337–340, 3 Abb., 4 Tab.; Golden (International Mine Water Association).
• Fricke, K. (1964): Bemerkungen zu den Solquellen des Hellwegs. – Z. dt. geol. Ges., 116(1):76–87, 4 Abb.; doi:10.1127/zdgg/116/1964/76.
• Fricke, K. & Semmler, W. (1964): Hydrogeologie des Ruhrgebietes. – Z. dt. geol. Ges., 116(1):27–33.
• Fricke, M. (1988): Exploration of Mineral Water in Coal Mining Areas. – Proceedings, 3rd International Mine Water Congress, Melbourne:9–19, 3 Abb.
• Frickhinger, H. W. (1948): Zum 80. Geburtstag von Professor Giemsa. – Journal of Pest Science, 21(2):28–29.
• Friderici, R. (1962): Kinderarbeit in kurhessischen Fabriken und Bergbaubetrieben. – Hess. Jb. Landesgeschichte, 12:211–229.
• Fridman, V., Mazor, E., Becker, A., Avraham, D. & Adar, E. (1995): Stagnant aquifer concept Part 3. Stagnant miniaquifers in the stage of formation, Makhtesh Ramon, Israel. – J. Hydrol., 173(1-4):263–282, 14 Abb., 1 Tab.
• Friebe, J. G. (1999): Der „Miskeyit“-Bergbau im Montafon – ein ungewöhnlicher Dekor- und Nutzstein aus Vorarlberg. – ANNALEN journal of science and art, 1:83–86, 3 Abb.
• Friedemann, P. (2017): Die Anfänge der westeuropäischen Zinkindustrie am Beispiel der Galmei-Bergwerke „Vieille Montagne“ (Altenberg): Vom französischen Bergrecht 1791/1810 zur preußischen Bergrechtsreform 1865. – Der Anschnitt, 69(2):74–95, 10 Abb., 4 Tab.
• Friedrich, A., Guse, M., Jolas, P., Simon, A., Hoth, N. & Rascher, J. (2011): Results of studies performed for reduced impact of material conversion processes in mixed soil dumps: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 17–22 p., Aachen (RWTH Aachen University).
• Friedrich, E., Pillay, S. & Buckley, C. A. (2009): Carbon footprint analysis for increasing water supply and sanitation in South Africa: a case study. – J. Clean. Prod., 17(1):1–12, doi:10.1016/j.jclepro.2008.03.004.
• Friedrich, H.-J. (2016): Membrane Electrolysis – A promising technology for mine water treatment, radionuclide separation and extraction of valuable metals. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1280–1286, Freiberg (TU Bergakademie Freiberg).
• Friedrich, H.-J., Zaruba, A., Meyer, S., Knappik, R., Stolp, W., Kiefer, R. & Benthaus, F.-C. (2007): Verfahren und kleintechnische Anlage zur Aufbereitung schwefelsauerer Grubenwässer (RODOSAN®-Verfahren). – 205–210 p., 3 Abb.; Dresden (Proceedings 11. Dresdner Grundwasserforschungstage).
• Friedrich, H.-J., Zschornack, D., Jenk, U., Paul, M. & Laubrich, J. (2019): Untersuchungen zur Behandlung stark mineralisierter Tailingwässer mittels elektrochemischer Membranverfahren. – In: Paul, M. (ed) WISSYM19 – Shaping the future: Long-term experiences and innovations in mine remediation. – p. 149–156, Chemnitz (Wismut GmbH).
• Friedrich, O. M. (1968): Die Vererzung der Ostalpen, gesehen als Glied des Gebirgsbaues. – Arch. f. Lagerst.forsch., 8:1–136, 25 Abb., 10 Anl.
• Frieling, D., Aehnelt, M., Scholz, H. & Reichenbacher, B. (2009): Sequence stratigraphy of an alluvial fan-delta in the Upper Marine Molasse (Pfander area, Late Burdigalian, Miocene). – Z. Dt. Ges. Geowiss., 160(4):333–357, doi:10.1127/1860-1804/2009/0160-0333.
• Friese, K., Koschorreck, M., Katrin, W.-P., Martin, S. & Walter, G. (2010): Application of whey to prevent re-oxidation in a passive anoxic in-lake reactor – success and failure. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 225–229, Sydney, NS (Cape Breton University Press).
• Friese, K., Mages, M., Wendt-Potthoff, K. & Neu, T. R. (1997): Determination of heavy metals in biofilms from the River Elbe by total-reflection X-ray flourescence spectrometry. – Spectrochimica Acta Part B: Atomic Spectroscopy, Part B(52):1019–1025, 4 Abb., 3 Tab.
• Friese, R. v. (1883): Geschichtliche Mittheilungen aus dem Gebiete des Bergwesens in Tirol. – Österr. Z. f. Berg- u. Hüttenwesen – Vereins-Mittheilungen, 31(3):33–34.
• Frietsch, R., Papunen, H. & Vokes, F. M. (1979): The ore deposits in Finland, Norway, and Sweden – a review. – Econ. Geol., 74(5):975–1001, doi:10.2113/gsecongeo.74.5.975.
• Frigaard, I. A. & Nouar, C. (2003): Predicting Transition to Turbulence in Well Construction Flows. – 8th SPE Latin American and Caribbean Petroleum Engineering Conference, SPE 81150:1–9, 6 Abb.
• Frimmel, H. E. (1989): Einsatzmöglichkeiten der Strontium-Methode in der Lagerstättengeologie am Beispiel der Barytlagerstätte Kogel/Brixlegg (Tirol). – Arch. f. Lagerst.forsch. Geol. B.-A., 11:127–146, 10 Abb., 6 Tab.
• Frimmel, H. E. (2019): The Witwatersrand Basin and its Gold Deposits. – In: Kröner, A. & Hofmann, A. (eds): The Archaean Geology of the Kaapvaal Craton, Southern Africa. – p. 255–275, Cham (Springer); doi:10.1007/978-3-319-78652-0_10.
• Frimmel, H. E. & Papesch, W. (1990): Sr, O and C Isotope Study of the Brixlegg Barite Deposit, Tyrol (Austria). – Econ. Geol. Bull. Soc. Econ. Geol., 85(6):1162–1171, 9 Abb., 3 Tab.
• Fripp, J., Ziemkiewicz, P. F. & Charkavorki, H. (2000): Acid Mine Drainage Treatment. – Ecosystem Management and Restoration Research Program Technical Notes, ERDC TN-EMRRP-SR-14:7, 5 Abb.
• Frippiat, C., Veschkens, M. & Pacyna, D. (2013): Monitoring the shallow subsurface for gas emission from abandoned underground mines. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 989–994, 5 Abb., 1 Tab.; Golden (International Mine Water Association).
• Frippiat, C., Veschkens, M., Pacyna, D. & Funcken, L. (2013): Non-conclusive time series analyses – what can we learn on the behavior of the groundwater system? Understanding what caused the collapse of an abandoned drainage tunnel. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 995–1001, 3 Abb.; Golden (International Mine Water Association).
• Frischholz, J. (1811): Uebersicht der vorzüglichsten Mineralien welche im Königreiche Baiern gefunden werden. – Ephemeriden oder Blätter zur Verbreitung der Nützlichsten Kenntnisse in der Oekonomie, Fabrikwissenschaft, Pharmazie, Naturgeschichte und bürgerlichen Haushaltung, 1(II):145–163.
• Fritsche, v. Sümpfung ersoffener Bergwerke. –.
• Fritschen, R. (2010): Mining-Induced Seismicity in the Saarland, Germany. – Pure Appl. Geophys., 167(1):77–89, doi:10.1007/s00024-009-0002-7.
• Fritz, A. (1963): Vom Bergbau in St. Gallenkirch. – Zeitschrift der Vorarlberger Illwerke, I, II:18–20 (I), 19–20 (II).
• Fritz, A. (1977): Pollenstratigraphische Gliederung des mitteleuropäischen Spät- und Postglazials. – Carinthia II, 167 / 87:179–187, 1 Abb., 1 Tab.
• Fritz, E. J. (1971): Die Kohlenvorkommen Tirols. – Veröff. Tiroler Landes-Mus. Ferdinandeum, 51:23–47.
• Fritz, P. & Fontes, J.-C. (1992): Statistical Treatment of Data on Environmental Isotopes in Precipitation. – IAEA – Technical Report Series, 331.
• Fritz, P., Fontes, J.-C., Frape, K., Louvat, D., Michelot, J. L. & Balderer, W. (1989): The Isotope geochemistry of carbon in groundwater at Stripa. – Geochim. Cosmochim. Acta, 53:1765–1775, 7 Abb., 2 Tab.; doi:10.1016/0016-7037(89)90297-4.
• Fritz, S. J. (1994): A Survey of Charge-Balance Errors on Published Analyses of Potable Ground and Surface Waters. – Ground Water, 32(4):539–546, doi:10.1111/j.1745-6584.1994.tb00888.x.
• Fritzsche, C. H. (1955): Lehrbuch der Bergbaukunde mit besonderer Berücksichtigung des Steinkohlenbergbaues: I, 9 edn. – 759 p., 584; Berlin (Springer).
• Fritzsche, C. H. (1962): Lehrbuch der Bergbaukunde mit besonderer Berücksichtigung des Steinkohlenbergbaus: II, 10 edn. – 760 p., 599 Abb.; Berlin (Springer).
• Fröhler, H., Horn, E., dos Santos, K., Almeida, V. O., Lopes, F. A., Weiler, J. & Schneider, I. A. H. (2022): Enhancement of Sludge Sedimentation Properties in a Concentrated Acid Mine Drainage Using Nano- and Micro-magnetite Particles. – Mine Water Environ., 41(3):840–847, doi:10.1007/s10230-022-00892-5.
• Froitzheim, N., Plašienka, D. & Schuster, R. (2008): Alpine tectonics of the Alps and Western Carpathians. – In: McCann, T. (ed) The geology of Central Europe. – p. 1141–1232, London (Geological Society (London)); doi:10.1144/CEV2P.6.
• Froitzheim, N., Schmid, S. & Conti, P. (1994): Repeated change from crustal shortening to orogen-parallel extension in the Austroalpine units of Graubünden. – Eclogae geol. Helv., 87(2):559–612, 16 Abb., 1 Tab.; doi:10.5169/seals-167471.
• Frolik, A. (2000): Evaluation the strength and sealing capability of boundary pillars in coal mines. – Proceedings, 7th International Mine Water Association Congress:544–554, 4 Abb., 1 Tab.
• Frolik, A. (2009): Stratyfikacja hydrogeochemiczna wód w zatopionych podziemnych wyrobiskach górniczych kopalń węgla kamiennego [Hydrogeochemical stratification of waters in flooded underground workings of coal mines]. – Przegl. Gorn., 65(7-8):84–90.
• Frolik, A., Gzyl, G. & Kura, K. (2004): A simple 1D MODFLOW Model for a Part of a Mine undergoing closure in Silesia, Poland. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 247–250, 2 Abb.; Newcastle upon Tyne (University of Newcastle).
• Frolik, A., Gzyl, G. & Kura, K. (2007): Revitalization Concepts for Sand Mine Pit in southern Poland: preliminary Assessment of Impact on aquatic Environment: Water in Mining Environments. – 71–75 p., 3 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Frolik, A., Kubica, J. & Gzyl, G. (2003): Protection of drinking water supplies during partial closure of the mine. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 493–502, 3 Abb., 3 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Froment, G. F., Bischoff, K. B. & Wilde, J. D. (2011): Chemical reactor analysis and design, 3rd edn. – Hoboken (Wiley).
• Fromm, M. J. (2020): ground up – Grubenwasserreinigungsanlage für Duhamel. – 139 p., MSc, Leopold-Franzens-Universität Innsbruck, 88 Abb.; Innsbruck.
• Fromm, V. V. & Kalashnikov, G. V. (1982): Effect of mine water on Rock Deformation in Coal Mines. – Int. J. Mine Water, 1(3):43–49, 2 Tab.
• Frommichen, R., Kellner, S. & Friese, K. (2003): Sediment Conditioning with Organic and/or Inorganic Carbon Sources as a First Step in Alkalinity Generation of Acid Mine Pit Lake Water (ph 2-3). – Environ. Sci. Technol., 37(7):1414–1421, 6 Abb., 5 Tab.; doi:10.1021/es026131c.
• Frommichen, R., Wendt-Potthoff, K., Friese, K. & Fischer, R. (2004): Microcosm studies for neutralization of hypolimnic acid mine pit lake water (pH 2.6). – Environ. Sci. Technol., 38(6):1877–1887, 7 Abb., 4 Tab.; doi:10.1021/es034863e.
• Frost, R. C. (1979): Evaluation of the rate of decrease in the iron content of water pumped from a flooded shaft mine in County Durham, England. – J. Hydrol., 40(1-2):101–111, 2 Abb., 1 Tab.; doi:10.1016/0022-1694(79)90090-8.
• Frost, R. C. (1979): Pumping rates and the iron content of shaft mine water. – Effluent & Water Treatment Journal, 19(2):77–80, 3 Abb., 2 Tab.
• Frost, R. C., Bernascone, T. F. & Cairney, T. (1977): A light-weight and cheap depth sampler. – J. Hydrol., 33(1-2):173–178, 4 Abb.; doi:10.1016/0022-1694(77)90106-8.
• Frostad, S., Klein, B. & Lawrence, R. W. (2002): Evaluation of Laboratory Kinetic Test Methods for Measuring Rates of Weathering. – Mine Water Environ., 21(4):183–192, 4 Abb., 6 Tab.; doi:10.1007/s102300200042.
• Frostick, A., Jones, D. & Turner, K. (2012): Review of solute selection for water quality and bioaccumulation monitoring at a northern Australian uranium mine: International Mine Water Association Symposium. – 91–100 p., Bunbury (Edith Cowan University).
• Frumkin, A., Shimron, A. & Rosenbaum, J. (2003): Radiometric dating of the Siloam Tunnel, Jerusalem. – Nature, 425(6954):169–171, 1 Abb., 2 Tab.
• Fruth, I. & Maucher, A. (1966): Spurenelemente und Schwefel-Isotope in Zinkblenden der Blei-Zink-Lagerstätte von Gorno. – Miner. Deposita, 1(3):238–250, 8 Abb., 3 Tab.; doi:10.1007/bf00204550.
• Fryar, A. E. & Schwartz, F. W. (1994): Modeling the Removal of Metals from Groundwater by a Reactive Barrier – Experimental Results. – Water Resour. Res., 30(12):3455–3469, doi:10.1029/94WR01780.
• Frydrych, D., Maryška, J., Mužák, J. & Severýn, O. (2000): Mathematical Modelling of a Uranium Mine Flooding: Algoritmy 2000 – Proceedings of Contributed Papers and Posters 15. – 110–119 p., 6 Abb.; Bratislava (Slovenská Technická Univerzita).
• Fu, F. & Wang, Q. (2011): Removal of heavy metal ions from wastewaters – A review. – J. Environ. Manage., 92(3):407–418, 6 Tab.; doi:10.1016/j.jenvman.2010.11.011.
• Fu, X. & Zheng, X. (2014): Study on the Mining Plans for 7131 Working Face under Loose Aquifer. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 569–573, Xuzhou (International Mine Water Association).
• Fuchs, G. F. C. (1788): Geschichte des Zinks in Absicht seines Verhaltens gegen andere Körper und seine Anwendung auf Arzneiwissenschaft und Künste. – 396 p., Erfurt (Georg Adam Keyser).
• Fuchs, K. (1987): Zur wirtschafts- und sozialpolitischen Entwicklung im Waldenburg-Neuroder Bergbaurevier 1850–1933. – Jahrbuch der Schlesischen Friedrich-Wilhelms-Universität zu Breslau, 28:161–178, 11 Abb.
• Fuchs, W. (1931): Die Chemie der Kohle. – 510 p., 5 Abb., 192 Tab.; Berlin (Springer); doi:10.1007/978-3-642-91582-6.
• Fuchs, W. (1980): Die Augensteinschotter. – In: Geologische Bundesanstalt, W. (ed) Der geologische Aufbau Österreichs. – p. 478–479, 1 Abb.; Wien (Springer); doi:10.1007/978-3-7091-3744-4_22.
• Fuckner, H. (1982): Bergbau und Metallgewerbe im Spessart. – Frankenland, N. F., 34:197–202, 3 Abb.
• Fuge, R., Laidlaw, I. M. S., Perkins, W. T. & Rogers, K. P. (1991): The influence of acidic mine and spoil drainage on water quality in the mid-Wales area. – Environ. Geochem. Health, 13(2):70–75, doi:10.1007/BF01734297.
• Fuge, R., Pearce, F. M., Pearce, N. J. G. & Perkins, W. T. (1994): Acid mine drainage in Wales and influence of ochre precipitation on water chemistry. – ACS Symp. Ser., 550:261–274, 3 Abb., 4 Tab.
• Fuge, R., Pearce, F. M., Pearce, N. J. G. & Perkins, W. T. (1994): The chemistry of iron oxide/hydroxide precipitates associated with acid mine drainage abandoned metal mines in Wales [Abstract]. – Environ. Geochem. Health, 16(2):93.
• Fuge, R. & Perkins, W. (1991): Aluminium and heavy metals in potable waters of the north Ceredigion area, mid-Wales. – Environ. Geochem. Health, 13(2):56–65, doi:10.1007/BF01734295.
• Fugedi, U., Kuti, L., Jordan, G. & Kerek, B. (2010): Investigation of the hydrogeochemistry of some bottled mineral waters in Hungary. – J. Geochem. Expl., 107(3):305–316, doi:https://doi.org/10.1016/j.gexplo.2010.10.011.
• Fuhlrott, J. C. (1859): Menschliche Ueberreste aus einer Felsengrotte des Düsselthals – Ein Beitrag zur Frage über die Existenz fossiler Menschen. – Verh. naturhist. Ver. Preuss. Rheinlande Westphalens, 16 (NF 6):131–153, 1 Taf.
• Fuhrland, M. & Griessler, T. (2021): Osmodialysis – the Future of Oil Production Water Treatment. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 151–155; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Fujita, C., Akhtar, M. S., Hidaka, R. & Nishigaki, M. (2022): Mitigation of groundwater iron-induced clogging by low-cost bioadsorbent in open loop geothermal heat pump systems. – Appl. Water Sci., 12(3):30, doi:10.1007/s13201-022-01574-x.
• Fuller, C. C. & Bargar, J. R. (2014): Processes of Zinc Attenuation by Biogenic Manganese Oxides Forming in the Hyporheic Zone of Pinal Creek, Arizona. – Environ. Sci. Technol., 48(4):2165–2172, doi:10.1021/es402576f.
• Fuller, C. C. & Harvey, J. W. (2000): Reactive uptake of trace metals in the hyporheic zone of a mining-contaminated stream, Pinal Creek, Arizona. – Environ. Sci. Technol., 34(7):1150–1155, 6 Abb., 3 Tab.
• Fünfgelder, K. (2007): Gewerkschaft – ein Name mit Tradition. – Bergknappe, 2:18–20, 3 Abb.
• Funnell, R. C., Gundersen, R. E., Bluhm, S. J. & von Glehn, F. H. (2006): The Synergistic Benefits and Limitations of Hydro-Power for Mine Cooling. Paper presented at the Rise of the Machines—The ‘State of the Art’ in Mining Mechanisation, Automation, Hydraulic Transportation and Communications, Johannesburg, 14–16 March 2006. – p. 1–10, 4 Abb.; Johannesburg (The South African Institute of Mining and Metallurgy).
• Furniss, K. J. (1987): Rudolf Gopas (1913 – 1983). – 120 p., University of Canterbury, 94 Abb.
• Furrer, G. & Fitze, P. (1970): Beitrag zum Permafrostproblem in den Alpen. – Vierteljahresschr. Naturforsch. Ges. Zürich, 115:353–368, 5 Abb.
• Furrer, G., Phillips, B. L., Ulrich, K.-U., Pöthig, R. & Casey, W. H. (2002): The Origin of Aluminum Flocs in Polluted Streams. – Science, 297(5590):2245–2247, 3 Abb., 1 Tab. + 3 Abb., 1 Tab.
• Furrer, G., Westall, J. & Sollins, P. (1989): The study of soil chemistry through quasi-steady-state models: I. Mathematical definition of model. – Geochim. Cosmochim. Acta, 53(3):595–601, doi:10.1016/0016-7037(89)90002-1.
• Fürst, P., Krüger, C., Meemken, H.-A. & Groebel, W. (1987): Gehalte des PCB-Ersatzproduktes Ugilec (Tetrachlorbenzyltoluole) in Fischen aus Gebieten mit intensivem Bergbau [Levels of the PCB-substitute Ugilec (tetracidorobenzyltoluenes) in fish from areas with extensive mining]. – Z. Lebensm. Unters. Forsch., 185(5):394–397, doi:10.1007/BF01042261.
• Furtak, H. & Langguth, H. R. (1967): Zur hydrochemischen Kennzeichnung von Grundwässern und Grundwassertypen mittels Kennzahlen [Hydrochemical characterisation of groundwater and groundwater types using indicator numbers]. – Mem. IAH-Congress, 1965, 7:86–96, 5 Abb., 3 Fig.
• Furukawa, K. & Matsumura, F. (1976): Microbial metabolism of polychlorinated biphenyls – Studies on the relative degradability of polychlorinated biphenyl components by Alkaligenes sp. – J. Agric. Food Chem., 24(2):251–256, 6 Abb., 2 Tab.; doi:10.1021/jf60204a002.
• Furuya, H., Kodera, T., Takamoto, K., Masuda, N., Kobayashi, M., Osame, A., Asano, H. & Ikeda, H. (2012): Research on the applicability of anaerobic passive bioreactor for mine water treatment in Japan: International Mine Water Association Symposium. – 200 A–200 G p., Bunbury (Edith Cowan University).
• Fyffe, L., Coetzee, H. & Wolkersdorfer, Ch. (2015): Cost effective screening of mine waters using accessible field test kits – Experience with a high school project in the Wonderfonteinspruit Catchment, South Africa. Paper presented at the Uranium – Past and Future Challenges, Freiberg. – p. 565–572, 6 Abb.
• Fyson, A., Kalin, M. & Smith, M. P. (1995): Microbially-Mediated Metal Removal from Acid Mine Drainage. Paper presented at the Sudbury ’95 – Mining and the Environment, Sudbury. – p. 459–466.
• Fyson, A. & Nixdorf, B. (2005): The Lignite Pit Lakes of Lusatia, Germany – Chemistry, Ecology and Acidity Removal Strategies. Princeton. – p. 1–20, 6 Abb., 5 Tab.; (Proceedings 22nd Annual National Meeting – American Society for Surface Mining and Reclamation).
• Fyson, A., Nixdorf, B. & Kalin, M. (2006): The acidic lignite pit lakes of Germany—Microcosm experiments on acidity removal through controlled eutrophication. – Ecol. Eng., 28(3):288–295, doi:10.1016/j.ecoleng.2006.06.012.
• Fyson, A., Nixdorf, B., Kalin, M. & Steinberg, C. E. W. (1997): Mesocosm Studies to Assess Acidity Removal from Acidic Mining Lakes through Controlled Eutrophication. – Ecol. Eng., 10:229–245, 5 Abb., 1 Tab.
• Fytas, K. & Bousquet, P. (2002): Silicate micro-encapsulation of pyrite to prevent acid mine drainage. – Bull. Can. Inst. Min. & Met., 95(1063):96–99, 6 Abb., 3 Tab.
• Gaál, G. (1980): Geological setting and intrusion tectonics of the Kotalahti nickel-copper deposit, Finland. – Bull. Geol. Soc. Finl., 52(1):101–128, 19 Abb., 5 Tab.
• Gaál, G. & Sundblad, K. (1990): Metallogeny of gold in the Fennoscandian Shield. – Mineralium Deposita, 25(1):S104–S114, doi:10.1007/BF00205257.
• Gabbott, M. (2004): Undertaking a Literature Review in Marketing. – The Marketing Review, 4:411–429, doi:10.1362/1469347042772383.
• Gäbler, H.-E. & Schneider, J. (2000): Assessment of heavy-metal contamination of floodplain soils due to mining and mineral processing in the Harz Mountains, Germany. – Environ. Geol., 39(7):774–782, 4 Abb., 4 Tab.
• Gabler, S. & Häder, S. (1999): Erfahrungen beim Aufbau eines Auswahlrahmens für Telefonstichproben in Deutschland [Experiences with the development of a selection framework for telephone samples in Germany]. – ZUMA Nachr., 23(44):45–61.
• Gabler, S. & Häder, S. (2015): Stichproben in der Theorie [Sampling in theory]. – GESIS Survey Guidelines, Version 1.1:1–15, doi:10.15465/gesis-sg_009.
• Gabora, M., Brown, P., Ohlin, H., Carpenter, o. & French, G. (2015): Dewatering of a Deep Shaft in a Complex Hydrogeologic Setting. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Gabora, M., Martin, N. & Clements, N. (2014): Application of the Null Space Monte Carlo Method in a Groundwater Flow Model of Mine Pit Dewatering. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 14–18, Xuzhou (International Mine Water Association).
• Gabrovšek, F., Kogovšek, J., Kovacic, G., Petrič, M., Ravbar, N. & Turk, J. (2010): Recent Results of Tracer Tests in the Catchment of the Unica River (SW Slovenia) [Novejši rezultati sledilnih poskusov v zaledju reke Unice (JZ Slovenija)]. – Acta Carsologica, 39(1):27–37, 8 Abb., 3 Tab.
• Gaddum, J. H. (1945): Lognormal Distributions. – Nature, 156(3964):463–466, doi:10.1038/156463a0.
• Gädeke, A., Gröschke, M. & Koeniger, P. (2025): Preliminary analysis of stable water isotope patterns in the Lusatian lignite mining district (Germany). Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 489–494; Braga (International Mine Water Association).
• Gagliano, W. B., Brill, M. R., Bigham, J. M., Jones, F. S. & Traina, S. J. (2004): Chemistry and mineralogy of ochreous sediments in a constructed mine drainage wetland. – Geochim. Cosmochim. Acta, 68(9):2119–2128, 8 Abb., 3 Tab.
• Gaillardet, J., Dupre, B., Allegre, C. J. & Negrel, P. (1997): Chemical and physical denudation in the Amazon River basin. – Chem. Geol., 142(3-4):141–173, 14 Abb., 9 Tab.
• Gairoard, S., Courbis, A. L. & Vayssade, B. (2008): Modelling and Simulation of the Pumping in a Former Mine Using Sequential Automata; Coal Mine of Rochebelle – St-Martin de Valgalgues, Cévennes, France. – Proceedings, 10th International Mine Water Association Congress:441–443.
• Gajowiec, B. & Witkowski, A. J. (1993): Impact of Lead/Zinc Ore Mining on Groundwater Quality in Trzebionka Mine (Southern Poland). – Mine Water Environ., 12(1-4):1–9, 4 Abb., 1 Tab.
• Galán Saulnier, A., Petit Domínguez, M. D., Rucandio Sáez, M. I. & García Giménez, R. (2005): Study of Toxic Elements in Iron Ores from the Ojos Negros District (Teruel, Spain): Mine Water 2005 – Mine Closure. – 661–667 p., 4 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Galanopoulos, E., Skarpelis, N. & Argyraki, A. (2019): Supergene alteration, environmental impact and laboratory scale acid water treatment of Cyprus-type ore deposits: case study of Mathiatis and Sha abandoned mines. – Geochem.-Explor. Environ. Anal.:geochem2018–070, doi:10.1144/geochem2018-070.
• Galas, P., Morin, B., Vaute, L., Lefebvre, O., Joder, M. & Hirsch, M. (2025): Hydrodynamic modelling of rising lower Triassic sandstone groundwater in the Lorraine coal basin (France). Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 440–445; Braga (International Mine Water Association).
• Galav, A., Singh, G. S. P. & Sharma, S. K. (2023): Hydro-Mechanically Coupled Numerical Modelling of Protective Water Barrier Pillars in Underground Coal Mines in India. – Mine Water Environ., 42(3):418–440, doi:10.1007/s10230-023-00946-2.
• Galbraitht, C., Mundermann, L. & Wyvill, B. (2004): Implicit Visualization and Inverse Modeling of Growing Trees. – Comput. Graph. Forum, 23(3):351–360.
• Galdenzi, S. & Maruoka, T. (2003): Gypsum Deposits in the Frasassi Caves, Central Italy. – J. Cave Karst Stud., 65(2):111–125, 19 Abb., 3 Tab.
• Gale, J. E. & Seok, E. (2013): Field and laboratory coupled fracture deformation-pore pressure-permeability experiments that provide insight for depressurization of fractured rock slopes. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 139–144, 6 Abb.; Golden (International Mine Water Association).
• Galera, J. M., de la Fuente, F., Garcia, J., Calleja, M. & Pozo, V. (2021): Correction to: Design and Construction of a Tailings Dam over an Ancient Tailings Facility at La Parrilla Mine (vol 40, pg 63, 2021). – Mine Water Environ., 40(2):324–324, doi:10.1007/s10230-021-00776-0.
• Galera, J. M., de la Fuente, F., Garcia, J., Calleja, M. & Pozo, V. (2021): Design and Construction of a Tailings Dam over an Ancient Tailings Facility at La Parrilla Mine. – Mine Water Environ., 40(1):63–73, doi:10.1007/s10230-021-00756-4.
• Galipeau, D. W., Vetelino, J. F. & Feger, C. (1993): Measurement of relative adhesion and surface properties of polyimide films using a surface acoustic wave sensor. – Sens. Actuator B-Chem.,(13-14):432–436, 7 Abb., 3 Tab.
• Gallagher, M. & Doherty, J. (2007): Predictive error analysis for a water resource management model. – Journal of Hydrology, 334(3-4):513–533, doi:10.1016/j.jhydrol.2006.10.037.
• Gallardo, A., Arcos, D. & Ruiz, E. (2025): Pilot of improved soils as a cover alternative for mine closure of waste dumps, Peru. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1074–1076; Braga (International Mine Water Association).
• Gallardo, A., Del Río, J. & Melgarejo, J. (2025): The use of geomorphology as the basis of mining closure: a case study of Waste Rock Facility rehabilitation at the Santa Bárbara mine (Perú). Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1072–1073; Braga (International Mine Water Association).
• Galler, W. (2008): Geschichte des Schlosses Wolkersdorf, 2 edn. – 20 p., Wolkersdorf (diwerbstatt).
• Galley, A., Hannington, M. & Jonasson, I. (2007): Volcanogenic Massive Sulphide Deposits. – In: Goodfellow, W. D. (ed) Mineral Deposits of Canada – A Synthesis of Major Deposit-Types, District Metallogeny, the Evolution of Geological Provinces, and Exploration Methods. – p. 1–19, St. John's (Geological Association of Canada Mineral Deposits Division).
• Gallinger, R. & Fleury, A.-M. (2004): The international Network for Acid Prevention (INAP) – progress on a global Issue. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 225–226, Newcastle upon Tyne (University of Newcastle).
• Gallup, D. L. (1998): Geochemistry of geothermal fluids and well scales, and potential for mineral recovery. – Ore Geol. Rev., 12(4):225–236, doi:10.1016/S0169-1368(98)00004-3.
• Gallup, D. L. (2007): Treatment of geothermal waters for production of industrial, agricultural or drinking water. – Geothermics, 36(5):473–483, doi:https://doi.org/10.1016/j.geothermics.2007.07.002.
• Gálos, M. & Kertész, P. (1982): Discontinuity and its Survey in petrophysical Models from the Point of View of Hydrogeology. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:43–54, 5 Abb.
• Gałuszka, A. & Migaszewski, Z. M. (2018): Extremely High Levels of Trace Elements in Aerial Parts of Plants Naturally Growing in the Wiśniówka Acid Mine Drainage Area (South-Central Poland). Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 598–603; (Tshwane University of Technology).
• Galvez, E. D., Cruz, R., Robles, P. A. & Cisternas, L. A. (2014): Optimization of dewatering systems for mineral processing. – Miner. Eng., 63:110–117, doi:10.1016/j.mineng.2014.01.026.
• Gamerdinger, A. P. & Kaplan, D. I. (2001): Colloid Transport and Deposition in Water-saturated Yucca Mountain tuff as Determined by Ionic Strength. – Environ. Sci. Technol., 35(16):3326–3331.
• Gamerdinger, A. P. & Kaplan, D. I. (2001): Physical and Chemical Determinants of Colloid Transport and Deposition in Water-unsaturated sand and Yucca Mountain tuff Material. – Environ. Sci. Technol., 35(12):2497–2504.
• Gammons, C. H. (2006): Geochemistry of Perched Water in an Abandoned Underground Mine, Butte, Montana. – Mine Water Environ., 25(2):114–123, 4 Abb., 2 Tab.; doi:10.1007/s10230-006-0119-1.
• Gammons, C. H. & Duaime, T. E. (2006): Long Term Changes in the Limnology and Geochemistry of the Berkeley Pit Lake, Butte, Montana. – Mine Water Environ., 25(2):76–85, 6 Abb., 2 Tab.; doi:10.1007/s10230-006-0114-6.
• Gammons, C. H. & Icopini, G. A. (2020): Improvements to the Water Quality of the Acidic Berkeley Pit Lake due to Copper Recovery and Sludge Disposal. – Mine Water Environ., 39(3):427–439, doi:10.1007/s10230-019-00648-8.
• Gammons, C. H. & Madison, J. P. (2006): Contaminated Alluvial Ground Water in the Butte Summit Valley. – Mine Water Environ., 25(2):124–129, 4 Abb., 2 Tab.; doi:10.1007/s10230-006-0120-8.
• Gammons, C. H., Metesh, J. J. & Duaime, T. E. (2006): An Overview of the Mining History and Geology of Butte, Montana. – Mine Water Environ., 25(2):70–75, 2 Abb.; doi:10.1007/s10230-006-0113-7.
• Gammons, C. H., Metesh, J. J. & Snyder, D. M. (2006): A Survey of the Geochemistry of Flooded Mine Shaft Water in Butte, Montana. – Mine Water Environ., 25(2):100–107, 5 Abb., 1 Tab.; doi:10.1007/s10230-006-0117-3.
• Gammons, C. H., Mulholland, T. P. & Frandsen, A. K. (2000): A comparison of filtered vs. unfiltered metal concentrations in treatment wetlands. – Mine Water Environ., 19(2):111–123, 4 Abb., 3 Tab.; doi:10.1007/BF02687259.
• Gammons, C. H., Nimick, D. A. & Parker, S. R. (2015): Diel cycling of trace elements in streams draining mineralized areas – A review. – Appl. Geochem., 57:35–44, doi:10.1016/j.apgeochem.2014.05.008.
• Gammons, C. H., Poulson, S. R., Metesh, J. J., Duaime, T. E. & Henne, A. R. (2003): Geochemistry and Isotopic Composition of H₂S-rich Water in Flooded Underground Mine Workings, Butte, Montana, USA. – Mine Water Environ., 22(3):141–148, 3 Abb., 3 Tab.; doi:10.1007/s10230-003-0014-y.
• Gammons, C. H., Poulson, S. R. & Snyder, D. M. (2008): Biogeochemical processes in flooded underground mine workings of Butte, Montana, USA (Abstract). – Geochim. Cosmochim. Acta, 72(12S):A291.
• Gammons, C. H., Snyder, D. M., Poulson, S. R. & Petritz, K. (2009): Geochemistry and Stable Isotopes of the Flooded Underground Mine Workings of Butte, Montana. – Econ. Geol., 104(8):1213–1234, doi:10.2113/gsecongeo.104.8.1213.
• Gammons, C. H. & Tucci, N. (2011): Monitoring the water quality of pit lakes. – In: McCullough, C. D. (ed) Mine Pit Lakes – Closure and Management. – p. 153–165, 4 Abb., 1 Tab.; Perth (Australian Centre for Geomechanics).
• Gams, H. (1966): Erzpflanzen der Alpen. – Jb. Ver. Schutz Alpenpfl. Alpentiere, 31:65–73, 2 Abb.
• Gan, S. (2014): Preliminary Study on Surface Movement Rule of Repeated Mining Working Face. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 433–436, Xuzhou (International Mine Water Association).
• Gan, S., Birrell, L., Robbertze, D., Zhao, B., van Niekerk, E. & Ncubi, L. (2022): Quality control in tailings resource exploration at Havelock Mine, Eswatini. – J. S. Afr. I. Min. Metall., 122(7):1–16, doi:10.17159/2411-9717/1612/2022.
• Gan, W. Y., Selomulya, C., Tapsell, G. & Amal, R. (2005): Densification of iron(III) sludge in neutralization. – Int. J. Miner. Process., 76:149–162, 12 Abb., 3 Tab.; doi:10.1016/j.minpro.2004.12.008.
• Gandy, C. J. (2005): An object-oriented particle tracking approach to modelling pyrite oxidation and pollutant transport in mine spoil heap: Mine Water 2005 – Mine Closure. – 161–167 p., 5 Abb.; Oviedo (University of Oviedo).
• Gandy, C. J. & Jarvis, A. P. (2011): The influence of engineering scale on the performance of compost bioreactors for the remediation of divalent metals: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 307–312 p., Aachen (RWTH Aachen University).
• Gandy, C. J. & Jarvis, A. P. (2012): The Influence of Engineering Scale and Environmental Conditions on the Performance of Compost Bioreactors for the Remediation of Zinc in Mine Water Discharges. – Mine Water Environ., 31(2):82–91, 6 Abb., 1 Tab.; doi:10.1007/s10230-012-0177-5.
• Gandy, C. J., Jarvis, A. P., Cox, N., Lofts, S., Malley, J., Moorhouse-Parry, A. M. L., Neate, K. S., Palumbo-Roe, B. & Potter, H. A. B. (2021): Challenges of Watershed Mine Drainage Characterisation and Remediation at Scale: Force Crag Base Metal Mine, Cumbria, UK. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 156–162; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Gandy, C. J. & Younger, P. L. (2002): A Review of Saline Mine Waters in the Silesian Region and Methods for Managing them. – 48 p., 29 Abb., 3 Tab.; Newcastle (1st IMAGE-TRAIN Case Study).
• Gandy, C. J. & Younger, P. L. (2007): Predicting Groundwater Rebound in the South Yorkshire Coalfield, UK. – Mine Water Environ., 26(2):70–78, 8 Abb., 5 Tab.; doi:10.1007/s10230-007-0153-7.
• Gandy, C. J., Younger, P. L. & Allison, P. (2005): Predictive modeling of the creation and hydrological behaviour of waterfowl habitats resulting from sand and gravel extraction: Mine Water 2005 – Mine Closure. – 475–479 p., 4 Abb.; Oviedo (University of Oviedo).
• Ganguly, S., Chatterjee, J. & Jana, B. B. (2000): Biogeochemical cycling bacterial activity in response to lime and fertilizer applications in pond systems. – Aquaculture International, 7(6):413–432.
• Gantar, I. & Logar, Z. (2004): Mine waste pile Jazbec latest view of groundwater findings. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 225–233, 7 Abb., 2 Tab.; Newcastle upon Tyne (University of Newcastle).
• Gao, B. & Sui, W. (2019): Numerical Simulation Investigation on Water-sand Mixture Flow through a Single Fracture. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 547–551; Perm, Russia (Perm State University).
• Gao, J., Li, B. & Lai, Y. (2014): Application of Water Chemistry and Isotope Analysis in the Coal Mine Hydrogeology Prospection. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 38–45, Xuzhou (International Mine Water Association).
• Gao, J., Liu, Y., Yan, Y. & Wang, W. (2020): Magnetic Coagulation Technology For Coal Gasification Wastewater Treatment. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 20–24; (International Mine Water Association).
• Gao, W., Pei, A. & Wang, J. (2012): Water-Driven Micromotors. – ACS Nano, 6(9):8432–8438, doi:10.1021/nn303309z.
• Gao, W., Sattayasamitsathit, S., Orozco, J. & Wang, J. (2013): Efficient bubble propulsion of polymer-based microengines in real-life environments. – Nanoscale, 5(19):8909–8914, doi:10.1039/c3nr03254j.
• Gao, W., Shi, L., Han, J. & Zhai, P. (2018): Dynamic Monitoring of Water in a Working Face Floor Using 2D Electrical Resistivity Tomography (ERT). – Mine Water Environ., 37(3):423–430, doi:10.1007/s10230-017-0483-z.
• Garber, J. (1923): Die Reisen des Felix Faber durch Tirol in den Jahren 1483 und 1484. – Schlern-Schr., 3:1–37.
• García, C., Moreno, D. A., Ballester, A., Blázquez, M. L. & González, F. (2001): Bioremediation of an industrial acid mine water by metal-tolerant sulphate-reducing bacteria. – Miner. Eng., 14(9):997–1008, 5 Abb., 4 Tab.; doi:10.1016/S0892-6875(01)00107-8.
• Garcia, J., Ojeda, E., Sales, E., Chico, F., Piriz, T., Aguirre, P. & Mujeriego, R. (2003): Spatial Variations of Temperature, Redox Potential, and Contaminants in Horizontal flow reed Beds. – Ecol. Eng., 21(2-3):129–142.
• García Martínez, M. J., Da Riva, I., Canoira, L. & Llamas, J. F. (2005): Catalytic Photodegradation of Polycyclic Aromatic Hydrocarbons in coal dumps: Mine Water 2005 – Mine Closure. – 411 p., Oviedo (University of Oviedo).
• Garcia, M. T., Gracia, I., Duque, G., Lucas, A. & Rodriguez, J. F. (2009): Study of the solubility and stability of polystyrene wastes in a dissolution recycling process. – Waste Manag., 29(6):1814–8, doi:10.1016/j.wasman.2009.01.001.
• Garcia-Caro, P. (1978): Concurso de la hidrogeologia subterranea en la valoracion de yacimientos. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1225–1232; Maracena (Asociación Nacional de lngenieros de Minas).
• Garfí, M., Cadena, E., Sanchez-Ramos, D. & Ferrer, I. (2016): Life cycle assessment of drinking water: Comparing conventional water treatment, reverse osmosis and mineral water in glass and plastic bottles. – J. Clean Prod., 137:997–1003, doi:10.1016/j.jclepro.2016.07.218.
• Garfield, E. (1999): Journal impact factor: a brief review. – Can. Med. Assoc. J., 161(8):979–980.
• Garg, O., Hetu, G. & Hindy, D. (1979): Twenty-five Year Experience in Dewatering at Canadian Mining Complex: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 409–422 p., 5 Abb., 1 Tab.; San Francisco (Freeman).
• Garner, J., Golze, R. & Zeiler, M. (2013): Zu den Anfängen der Eisen-und Buntmetallgewinnung im nördlichen Siegerland – Kreis Siegen-Wittgenstein, Regierungsbezirk Arnsberg. – Archäologie in Westfalen-Lippe, 2013:88–92.
• Garner, R., Mühlbauer, R. & Wolkersdorfer, Ch. (2018): Peter Gunter 1970 – 2018. – Mine Water Environ., 37(4):864–865, 1 Abb.; doi:10.1007/s10230-018-0562-9.
• Garrels, R. M. & Christ, C. L. (1965): Solutions, minerals, and equilibria. – 450 p., New York (Harper & Row Publ.).
• Garrett, A. (2004): Diving at the Bonne Terre Mine. – Overhead Times – Online Technical Diving News & Entertainment Magazine:1–3, 4 Abb.
• Garrett, A. B. (1963): Radioactive tracers: George de Hevesy. – J. Chem. Educ., 40(1):36, doi:10.1021/ed040p36.
• Garrick, H., Digges La Touche, G., Maksimainen, T., Girard, R. & Hayes, E. (2018): Probabilistic Simulation of Snowmelt and Runoff at Mine Sites in Cold Climates. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 339–344; (Tshwane University of Technology).
• Garzon, P. & Eisenberg, M. J. (1998): Variation in the mineral content of commercially available bottled waters: implications for health and disease. – Am. J. Med., 105(2):125–130, doi:10.1016/S0002-9343(98)00189-2.
• Garzonio, C. A. (1999): The Restoration Project for the Gavorrano Mining Area (Tuscany, Italy): the Example of the Ravi Mining Park. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 227–233, 7 Abb.; Sevilla (International Mine Water Association).
• Gascuel, O. & Steel, M. (2006): Neighbor-Joining Revealed. – Mol. Biol. Evol., 23(11):1997–2000, doi:10.1093/molbev/msl072.
• Gasparon, M., Smedley, A., Jong, T., Costagliola, P. & Benvenuti, M. (2007): Acid Mine Drainage at Mount Morgan, Queensland (Australia): Experimental Simulation and Geochemical Modelling of Buffering Reactions: Water in Mining Environments. – 433–436 p., 1 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Gasper, R. & Ucik, F. H. (2006): Der ehemalige, in der Fachliteratur bisher unbekannte Schrotturm nahe der Hollenburg (Südkärnten) und die übrigen Schrottürme in Kärnten bzw. Österreich. – Carinthia II, 196/116(1):85–91, 10 Abb.
• Gasser, G. (1913): Die Mineralien Tirols einschließlich Vorarlbergs und der Hohen Tauern. – 548 p., Innsbruck (Wagner).
• Gast, M., Kochen, H.-J. & Zarrach, V. (2016): FAMDT – A new Approach for flexible AMD Treatment. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 925–930, Freiberg (TU Bergakademie Freiberg).
• Gast, M., Schaaf, W., Scherzer, J., Wilden, R., Schneider, B. U. & Hüttl, R. F. (2001): Element Budgets on pine stands on Lignite and Pyrite containing Mine Soils. – J. Geochem. Explor., 73(2):63–74, 4 Abb., 5 Tab.
• Gast, M., Schöpke, R., Walko, M. & Benthaus, F.-C. (2010): In Situ Aquifer Treatment by Microbial Sulfate Reduction. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 119–123, Sydney, NS (Cape Breton University Press).
• Gastel, B. & Day, R. A. (2022): How to Write and Publish a Scientific Paper, 9th edn. – 348 p., 37 Abb., 9 Tab.; Santa Barbara (Greenwood).
• Gatsios, E., Hahladakis, J. N. & Gidarakos, E. (2015): Optimization of electrocoagulation (EC) process for the purification of a real industrial wastewater from toxic metals. – J. Environ. Manage., 154:117–127, doi:10.1016/j.jenvman.2015.02.018.
• Gattinger, T. E. (1980): Hydrogeologie. – In: Geologische Bundesanstalt Wien (ed) Der geologische Aufbau Österreichs. – p. 580–594, 2 Abb.; Wien (Springer); doi:10.1007/978-3-7091-3744-4_29.
• Gattlen, A. (1955): Die Beschreibung des Landes Wallis in der Kosmographie Sebastian Münsters – Deutsche Ausgaben von 1544–1550. – Vallesia, 19:97–152.
• Gatzanis, G. E. & Ball, A. (1993): The Abrasion and Abrasion Corrosion Properties of a 9% Chromium Steel. – Wear, 165(2):213–220, doi:10.1016/0043-1648(93)90337-L.
• Gatzweiler, R., Hähne, R., Eckart, M., Meyer, J. & Snagovsky, S. (1997): Prognosis of the Flooding of Uranium mining Sites in East Germany with the Help of numerical Box-Modeling. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:57–63, 2 Tab.
• Gatzweiler, R., Jakubick, A. T., Meyer, J., Paul, M. & Schreyer, J. (2002): Flooding of the WISMUT mines – learning by doing or applying a comprehensive systematic approach? – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 745–754, Heidelberg (Springer).
• Gatzweiler, R. & Meyer, J. (2000): Umweltverträgliche Stilllegung und Verwahrung von Uranerzbergwerken – Fallbeispiel WISMUT. Paper presented at the Proceedings Wismut 2000 – Bergbausanierung Internationale Konferenz, Schlema. – p. 16, 11 Abb.; (Eigenverlag Wismut GmbH).
• Gaucher, E. (2016): Earthquake detection probability within a seismically quiet area: application to the Bruchsal geothermal field. – Geophysical Prospecting, 64(2):268–286, doi:10.1111/1365-2478.12270.
• Gauld, J. H. & Brown, K. W. M. (1983): The application of soil survey data in opencast coal sites in Scotland. – Applied Geography, 3(3):225–238, 4 Abb., 1 Tab.; doi:10.1016/0143-6228(83)90028-0.
• Gault, A., Harrington, J., Robertson, C., Simair, M. & Friesen, V. (2018): Pilot Study of In Situ Biological Treatment at the Silver King Mine, Keno Hill, Yukon. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 121–127; (Tshwane University of Technology).
• Gaur, N., Narasimhulu, K. & Pydisetty, Y. (2018): Recent advances in the bio-remediation of persistent organic pollutants and its effect on environment. – J. Clean Prod., 198:1602–1631, doi:10.1016/j.jclepro.2018.07.076.
• Gautam, A. P., Shivakoti, G. P. & Webb, E. L. (2004): Forest cover change, physiography, local economy, and institutions in a mountain watershed in Nepal. – Environ. Manage., 33(1):48–61, doi:10.1007/s00267-003-0031-4.
• Gautama, R., Abfertiawan, S., Kusuma, G. & Gunawan, F. (2015): Scaling Leach Column Experiment from Laboratory Bench to Mine Site for Coal Mine Overburden. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Gautama, R. S. (1994): Acid Water Problem in Bukit Asam Coal Mine, South Sumatra, Indonesia. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:533–542, 5 Abb., 2 Tab.
• Gautama, R. S. (1997): Storm Rainfall Analysis: An Important Factor in Designing Mine Dewatering Facilities in Tropical Region. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:235–242, 3 Abb., 1 Tab.
• Gautama, R. S. (2002): Reliability of rainfall intensity prediction method for mine dewatering design in tropical region. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 949–956, 3 Abb., 2 Tab.; Heidelberg (Springer).
• Gautama, R. S. & Hartaji, S. (2004): Improving the Accuracy of Geochemical Rock Modelling for Acid Rock Drainage Prevention in Coal Mine. – Mine Water Environ., 23(2):100–104, 4 Abb., 1 Tab.; doi:10.1007/s10230-004-0047-x.
• Gautama, R. S. & Kusuma, G. J. (2008): Evaluation of Geochemical Tests in Predicting Acid Mine Drainage Potential in Coal Surface Mine. – Proceedings, 10th International Mine Water Association Congress:271–274.
• Gautama, R. S. & Kusuma, G. J. (2016): Characterization of Acid producing potential of spent Ore from Heap Leach Plant. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 306–311, Freiberg (TU Bergakademie Freiberg).
• Gautama, R. S., Kusuma, G. J., Abfertiawan, S., Wiedhartono, A., Gunawan, F., Lestari, I., Simbolon, R. & Diana, M. R. (2013): Study on capping options for overburden encapsulation to prevent acid mine drainage in Lati coal mine, East Kalimantan, Indonesia. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 341–346, 5 Abb., 1 Tab.; Golden (International Mine Water Association).
• Gautama, R. S., Kusuma, G. J., Lestari, I. & Anggana, R. P. (2010): Weathering Behaviour of Overburden-Coal Ash Blending in Relation to Overburden Management for Acid Mine Drainage Prevention in Coal Surface Mine. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 417–421, Sydney, NS (Cape Breton University Press).
• Gautama, R. S., Kusuma, G. J., Pujiantoro, E. & Wisnugroho, P. H. (2018): On The Spatial Variation of Rock Geochemical Characteristics in Coal Mining: Case Bukit Asam Coal Mine in South Sumatra, Indonesia. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 604–610; (Tshwane University of Technology).
• Gautama, R. S., Novianti, Y. S. & Supringgo, E. (2014): Review on In-pit Treatment of Acidic Pit Lake in Jorong Coal Mine, South Kalimantan, Indonesia. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 645–649, Xuzhou (International Mine Water Association).
• Gautama, R. S., Perkins, W., Bird, G., Adjie, W., Moore, O., Kusuma, G. J. & Badhurahman, A. (2018): Acid Mine Drainage in a Tropical Environment: A Case Study from Bukit Coal Mine Site in South Sumatra, Indonesia. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 611–616; (Tshwane University of Technology).
• Gautama, R. S., Putri, R. A., Kusuma, G. J., Badhurahman, A. & Dwiki, S. (2022): Study of Mining Void Utilization Model as a Flood Control in Tropical Region. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 99–104; (International Mine Water Association).
• Gazda, L. & Krzowski, Z. (1991): Hydrogeochemical Environment in the Lublin Coal Basin in East-Central Poland. – Proceedings, 4th International Mine Water Association Congress, 1:61–63, 1 Abb.
• Gazea, B., Adam, K. & Kontopoulos, A. (1996): A review of passive systems for the treatment of acid mine drainage. – Miner. Eng., 9(1):23–42, 9 Abb., 3 Tab.; doi:10.1016/0892-6875(95)00129-8.
• Gazizov, M. S. (1983): Water Regime Control in Mines and Quarries in the USSR Coal Industry. – Int. J. Mine Water, 2(1):43–48.
• Gcasamba, S. P., Ramasenya, K., Diop, S., Vadapalli, V. R. K. & Ekolu, S. (2019): Comparative Study Of Two Biggest Mineral Wastes In South Africa For Mine Reclamation: A Geotechnical Study. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 77–82; Perm, Russia (Perm State University).
• Gcasamba, S. P., Ramasenya, K., Lekgothoane, M., Nyale, S. M., Vadapalli, V. R. K., Madzivire, G., Coetzee, H., Sinthumule, E. & Morokane, M. (2022): In situ Mine Water Treatment of Flooded Underground Mines Using Waste Concrete: A Feasibility Study. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 105–109; (International Mine Water Association).
• Gcasamba, S. P., Ramasenya, K., Vadapalli, V., Ekolu, S. & Nyale, S. (2021): Shear Behaviour of Compacted Gold Mine Tailings and Gold Mine Tailings Composite for Possible Use in Mine Backfilling. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 163–167; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Ge, C., Yajun, S., Wanghua, S., Zhimin, X. & Liang, G. (2025): Mine water injection and storage in Ordos basin, China. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 345–350; Braga (International Mine Water Association).
• Gebel, T., Behmke, C. & Dunkelberg, H. (1998): Einfluß einer geogenen Exposition von Quecksilber, Arsen und Antimon auf die Körperbelastung – eine Biomonitoring-Studie. – Zent.bl. Hyg. Umweltmed., 201:103–120, 3 Abb., 5 Tab.
• Gebel, T. W., Suchenwirth, R. H. R., Bolten, C. & Dunkelberg, H. H. (1998): Human biomonitoring of arsenic and antimony in case of an elevated geogenic exposure. – Environ. Health Perspect., 106(1):33–39, 5 Abb., 5 Tab.
• Gebrekristos, R. & Trusler, G. (2018): Groundwater Modelling in Support of Post-Closure Acid Mine Drainage and Treatment Planning – Case Study. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1005–1010; (Tshwane University of Technology).
• Gebrekristos, R. & Trusler, G. (2024): Influences on Mine Water Quality that are not related to Acid Mine Drainage. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 203–207; Morgantown (International Mine Water Association).
• Gebrekristos, R. A., Shapiro, A. M. & Usher, B. H. (2008): In situ estimation of the effective chemical diffusion coefficient of a rock matrix in a fractured aquifer. – Hydrogeol. J., 16(4):629–639, doi:10.1007/s10040-007-0255-0.
• Geel, C., De Wit, M., Booth, P., Schulz, H.-M. & Horsfield, B. (2015): Palaeo-Environment, Diagenesis and Characteristics of Permian Black Shales in the Lower Karoo Supergroup Flanking the Cape Fold Belt Near Jansenville, Eastern Cape, South Africa: Implications for the Shale Gas Potential of the Karoo Basin. – S. Afr. J. Geol., 118(3):249–274, 14 Abb., 1 Tab.; doi:10.2113/gssajg.118.3.249.
• Geel, C., Schulz, H.-M., Booth, P., deWit, M. & Horsfield, B. (2013): Shale Gas Characteristics of Permian Black Shales in South Africa: Results from Recent Drilling in the Ecca Group (Eastern Cape). – Energy Procedia, 40:256–265, doi:10.1016/j.egypro.2013.08.030.
• Geerts, R., Vandermoere, F., Van Winckel, T., Halet, D., Joos, P., Van Den Steen, K., Van Meenen, E., Blust, R., Borregán-Ochando, E. & Vlaeminck, S. E. (2020): Bottle or tap? Toward an integrated approach to water type consumption. – Water Res., 173:115578, doi:10.1016/j.watres.2020.115578.
• Gees, A. (1990): Flow measurement under difficult measuring conditions: field experience with the salt dilution method. – IAHS-AISH Publication, 193:255–262, 3 Abb., 2 Tab.
• Gees, A. & Gossauer, M. (1990): Bestimmung der Abflussmengen: vergleichende Abflussmengen mittels hydrometischer Flügel und künstlicher Tracer. – Schweizer Ingenieur und Architekt, 108(16t-17):442–445, 4 Abb., 3 Tab.
• Geffroy, J. & Sarcia, J. A. (1958): Quelques remarques relatives a la géochimie des filons épithermaux a pechblende [Some remarks on the geochemistry of epithermal pitchblende veins]. – Soc. Geol. France, B., 6(8):531–536, doi:10.2113/gssgfbull.S6-VIII.5.531.
• Gehman, J., Thompson, D. Y., Alessi, D. S., Allen, D. M. & Goss, G. G. (2016): Comparative Analysis of Hydraulic Fracturing Wastewater Practices in Unconventional Shale Development: Newspaper Coverage of Stakeholder Concerns and Social License to Operate. – Sustainability-Basel, 8(9):23, doi:10.3390/su8090912.
• Geidel, G. (2024): Reclamation of two kyanite mine tailings ponds with different surface topographies. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 208–210; Morgantown (International Mine Water Association).
• Geis, H. P. (1959): Minerallagerstätten der Saar-Nahe-Senke. – Geol. Rdsch., 48(1):83–91, 4 Abb.; doi:10.1007/BF01801813.
• Geisenheimer, P. (1913): Die Wasserversorgung des Oberschlesischen Industriebezirks. – 97 p., 29 Abb., 30 Tab., 1 Kart.; Kattowitz (Selbstverl. des Oberschlesischen Berg- und Hüttenmännischen Vereins).
• Geissler, A., Scheinost, A. C. & Selenska-Pobell, S. (2005): Changes of bacterial community structure of a uranium mining waste pile sample induced by addition of U(VI). – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 199–206, Heidelberg (Springer).
• Geistlinger, H., Beckmann, A., Gerhardt, M., Martienssen, M. & Schirmer, M. (2007): Das Feldexperiment OXYWALL: Direktgasinjektion von Sauerstoff zur in situ Sanierung von organisch kontaminierten Grundwässern. – Wiss. Mitt. Inst. Geol., 35:99–106, 8 Abb.
• Geistlinger, H., Lazik, D., Beckmann, A. & Krauss, G. (2004): Interpretation von Gas-Tracer-Versuchen zur Abschätzung des Sättigungszustandes von in-situ Gaswänden. – Wiss. Mitt. Inst. Geol., 25:85–92, 6 Abb., 3 Tab.
• Geistlinger, H., Lazik, D., Eisermann, D., Beckmann, A., Martienssen, M., Schirmer, M., Zittwitz, M. & Gerhardt, M. (2006): Reaktive Gaswände mittels Direktgasinjektion: Vom Bench-Scale zum Field-Scale (OXYWALL). – Wiss. Mitt. Inst. Geol., 31:159–163, 3 Abb.
• Geldenhuis, S. & Bell, F. G. (1998): Acid mine drainage at a coal mine in the eastern Transvaal, South Africa. – Environ. Geol., 34(2-3):234–242, 7 Abb., 4 Tab.; doi:10.1007/s002540050275.
• Geldenhuys, A. J., Maree, J. P., de Beer, M. & Hlabela, P. (2003): An integrated limestone/lime process for partial sulphate removal. – J. S. Afr. Inst. Min. Metall., 103:345–354, 2 Abb., 9 Tab.
• Geldenhuys, A. J., Maree, J. P., Fourie, W. J., Smit, J. J., Bladergroen, B. J. & Tjati, M. (2003): Acid mine drainage treated electrolytically for recovery of hydrogen, iron (II) oxidation and sulphur production. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 57–71, 9 Abb., 6 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Geletneky, J., Merten, D. & Büchel, G. (2003): Prospects of Rare Earth Elements and other Heavy Metals as Tracers in Acid Rock Drainage (ARD) at the former Uranium Mining Site of Ronneburg, Thuringia. – Wiss. Mitt. Inst. Geol., 24:37–41, 4 Abb.
• Gelhaus, S. L. & Lacourse, W. R. (2004): Measurement of Electrolytic Conductance. – In: Cazes, J. (ed) Ewing’s Analytical Instrumentation Handbook, 3 edn. – p. 561–580, 18 Abb., 10 Tab.; Boca Raton (CRC Press).
• Geller, W., Klapper, H. & Salomons, W. (1998): Acidic Mining Lakes – Acid Mine Drainage, Limnology and Reclamation. – 435 p., 155 Abb., 55 Tab.; Berlin (Springer); doi:10.1007/978-3-642-71954-7.
• Geller, W., Koschorreck, M., Schultze, M. & Wendt-Potthoff, K. (2009): Restoration of Acid Drainage. – In: Likens, G. E. (ed) Encyclopedia of Inland Waters. – p. 342–358, 4 Abb., 6 Tab.; Oxford (Academic Press); doi:10.1016/B978-012370626-3.00246-5.
• Geller, W., Schultze, M., Kleinmann, R. & Wolkersdorfer, Ch. (2013): Acidic Pit Lakes – The Legacy of Coal and Metal Surface Mines: Environmental Science and Engineering. – 525 p., 212 Abb., 66 Tab.; Heidelberg (Springer); doi:10.1007/978-3-642-29384-9.
• Gellermann, R. & Schulz, H. (2007): Methodische Weiterentwicklung des Leitfadens zur radiologischen Untersuchung und Bewertung bergbaulicher Altlasten und Erweiterung des Anwendungsbereichs –Teil B: Erweiterung des Anwendungsbereichs auf NORM-Rückstände – Bericht II: Untersuchung von Modellgebieten. – Schriftenreihe Reaktorsicherheit und Strahlenschutz, BMU-2007-697.
• Gellermann, R., Schulz, H., Schellenberger, A., Weiß, D. & Müller, A. (2006): Methodische Weiterentwicklung des Leitfadens zur radiologischen Untersuchung und Bewertung bergbaulicher Altlasten und Erweiterung des Anwendungsbereichs –Teil B: Erweiterung des Anwendungsbereichs auf NORM-Rückstände – Bericht I: Vorkommen und Entstehung von radiologisch relevanten Bodenkontaminationen aus bergbaulichen und industriellen Prozessen. – Schriftenreihe Reaktorsicherheit und Strahlenschutz, BMU-2007-697:222, 74 Abb., 84 Tab.
• Gelman, A. & Stern, H. (2006): The Difference Between “Significant” and “Not Significant” is not Itself Statistically Significant. – Am. Stat., 60(4):328–331, doi:10.1198/000313006x152649.
• Gelman, A. & Unwin, A. (2013): Infovis and Statistical Graphics: Different Goals, Different Looks. – Journal of Computational and Graphical Statistics, 22(1):2–28, doi:10.1080/10618600.2012.761137.
• Gemson, W., Harck, T. & Burgess, R. (2022): Nitrate Dynamics at Mine Sites – Broader Context, Source and Management Considerations. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 111–113; (International Mine Water Association).
• Genc, M., Boddaert, F., Beale, G., Samuel, T. & Ruthman, R. (2023): Characterization and Groundwater Modelling of a New Block-Caving Project. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 63–68; (International Mine Water Association).
• General Electric (1936): Advertisment – You Will Profit by Using G-E Pyranol Transformers. – Electr. Eng., 55(1):c3, doi:10.1109/EE.1936.6541226.
• Genes, B. & Batool, A. (2024): In-situ testing and data applications for upstream-constructed coal refuse impoundments. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 211–211; Morgantown (International Mine Water Association).
• Genet, M., Yan, W. & Tran-Cong, T. (2009): Investigation of a hydraulic impact: a technology in rock breaking. – Arch. Appl. Mech., 79(9):825–841, 18 Abb., 2 Tab.; doi:10.1007/s00419-008-0256-z.
• Genske, T. & Kohl, T. (2006): Konzipierung einer passiven Behandlungsanlage (RAPS) für saure Sümpfungswässer der Hartsteinwerke Großthiemig/Brandenburg. – 126 p., 35 Abb., 14 Tab., 5 Anl.; Freiberg (unveröff. Dipl.-Arb. TU Bergakademie Freiberg).
• Gente, V. & Massacci, P. (1999): The Treatment of Lead-contaminated Travertine. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 829–834, 10 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Genth, T., Rose, L., Jasnowski-Peters, H., Westermann, S. & Melchers, Ch. (2024): A workflow to evaluate hydraulic barriers during mine water rebound: A holistic approach. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 212–217; Morgantown (International Mine Water Association).
• Genth, T., Rose, L. J., Jasnowski-Peters, H. & Melchers, Ch. (2022): Bulk- and Clay-mineral Quantification in the Upper Cretaceous Emscher Formation – Evaluating a Potential Hydraulic Barrier During Mine Water Rebound in the Ruhr District. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 115–120; (International Mine Water Association).
• Genty, T., Bussière, B., Benzaazoua, M., Neculita, C. M. & Zagury, G. J. (2018): Changes in Efficiency and Hydraulic Parameters During the Passive Treatment of Ferriferous Acid Mine Drainage in Biochemical Reactors. – Mine Water Environ., 37(4):686–695, doi:10.1007/s10230-018-0514-4.
• Genty, T., Bussière, B., Benzaazoua, M. & Zagury, G. J. (2012): Capacity of Wood Ash Filters to Remove Iron from Acid Mine Drainage – Assessment of Retention Mechanism. – Mine Water Environ., 31(4):273–286, 3 Abb., 6 Tab.; doi:10.1007/s10230-012-0199-z.
• Genty, T., Bussière, B., Neculita, C. M., Benzaazoua, M. & Zagury, G. J. (2011): Passive treatment of acid mine drainage: repeatability for sulphate reducing passive bioreactor column efficiency testing: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 313–318 p., Aachen (RWTH Aachen University).
• Genty, T., Bussière, B., Paradie, M. & Neculita, C. M. (2016): Passive biochemical treatment of ferriferous mine drainage: Lorraine mine site, Northern Quebec, Canada. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 790–795, Freiberg (TU Bergakademie Freiberg).
• Genty, T., Bussière, B., Potvin, R. & Benzaazoua, M. (2008): Neutralization of Acid Mine Drainage in Anoxic Limestone Drains: a Laboratory Study. Paper presented at the Post-Mining 2008, Nancy, February 6–8. – p. 1–12 [CD–ROM], 5 Abb., 4 Tab.
• Genty, T., Bussière, B., Zagury, G. J. & Benzaazoua, M. (2010): Passive treatment of high-iron acid mine drainage using sulphate reducing bacteria: comparison between eight biofilter mixtures. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 229–233, Sydney, NS (Cape Breton University Press).
• Gentzis, T. & Goodarzi, F. (1997): Trace element geochemistry of brackish-water coals in the central Alberta Plains, Canada. – Energy Sources, 19(5):493–505.
• Geological Section, Mine Engineering Department & Cape Breton Development Corporation (1992): An Introduction to the Coal Resources of the Sydney Coalfield. – 63 p., Sydney (Cape Breton Development Corporation).
• Geological Survey of Finland (GTK) (2017): Metsämonttu. In: Mineral Deposit Report. http://tupa.gtk.fi/karttasovellus/mdae/raportti/578_Mets%C3%A4monttu.pdf Accessed 2017-05-06.
• Geologische Bundesanstalt (2010): Blatt 166 Telfs – Geofast 1:50000 – Zusammenstellung ausgewählter Archivunterlagen der geologischen Bundesanstalt. 2011/04 edn, Wien.
• Georgaki, I., Dudeney, A. W. L. & Monhemius, A. J. (2004): Characterisation of Iron-rich Sludge: Correlations Between Reactivity, Density and Structure. – Miner. Eng., 17(2):305–316, 13 Abb., 1 Tab.; doi:10.1016/j.mineng.2003.09.018.
• George, D. R. & Ross, J. R. (1970): Recovery of uranium from mine water by countercurrent ion exchange [abstract]. – J. Met., 22(12):A25.
• George, L., Ludwick, W. & Chahbandour, J. (2009): Case study: Site-wide water balance of the Pierina Gold Mine, Peru. Tailings and Mine Waste ’08. – p. 369–380, 8 Abb., 1 Tab.; Boca Raton (CRC Press).
• George, R. J., McFarlane, D. & Nulsen, B. (1997): Salinity threatens the viability of agriculture and ecosystems in Western Australia. – Hydrogeol. J., 5(1):6–21, Refs: 40; illus. incl. 8 tables, sketch maps.
• Georgopoulou, Z. J., Fytas, K., Soto, H. & Evangelou, V. P. (1995): Pyrrhotite Coating to prevent Oxidation. Paper presented at the Sudbury ’95 – Mining and the Environment, Sudbury. – p. 7–16, 3 Abb., 1 Tab., 3 Fot.; Ottawa (Canmet).
• GEOSS (2017): Cedarberg Aqua – Geohydrological Review 2017. – (Report Nr. 2017/04-23). – 25 p., Stellenbosch (GEOSS – Geohydrological & Spatial Solutions International).
• Geotek Dönz + Mähr GmbH (2004): Projektstudie – Geologisch-Hydrogeologisches Potential einer Thermalwassernutzung im Äußeren Montafon, Vorarlberg. – (Report Nr. Zahl 070-03). – 26 p., 3 Abb., 3 Tab.; Feldkirch (Geotek Dönz + Mähr GmbH).
• Gerali, F. & Lipparini, L. (2018): Maiella, an oil massif in the Central Apennines ridge of Italy: exploration, production and innovation in the oil fields of Abruzzo across the nineteenth and twentieth centuries. – Spec. Publ. – Geol. Soc. London, 465(1):275–303, doi:10.1144/sp465.20.
• Gérard, F., Ranger, J., Ménétrier, C. & Bonnaud, P. (2003): Silicate weathering mechanisms determined using soil solutions held at high matric potential. – Chemical Geology, 202(3-4):443–460, doi:10.1016/j.chemgeo.2002.12.001.
• Gerber, A. M., Ginn, B. K., Whitfield, C. J., Dillon, P. J., Cumming, B. F. & Smol, J. P. (2008): Glasgow Lake – An early-warning Sentinel of Lake Acidification in Cape Breton Highlands National Park (Nova Scotia, Canada). – Hydrobiologia, 614(1):299–307, 4 Abb., 2 Tab.; doi:10.1007/s10750-008-9514-x.
• Gerber, P. (1982): The effects of mine water prevention upon the environment and results of environmental protection in the region of Tatabánya coal mines. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, C:35–50, 7 Abb.
• Gerhardt, A., Janssens de Bisthoven, L. & Soares, A. M. V. M. (2004): Macroinvertebrate response to acid mine drainage: community metrics and on-line behavioural toxicity bioassay. – Environ. Pollut., 130(2):263–274, doi:10.1016/j.envpol.2003.11.016.
• Gerhardt, W. (1963): Der Kupferbergbau in Schlesien. – Jahrbuch der Schlesischen Friedrich-Wilhelms-Universität zu Breslau, 8:106–121.
• Gerke, K. M., Sidle, R. C. & Mallants, D. (2013): Criteria for selecting fluorescent dye tracers for soil hydrological applications using Uranine as an example. – J. Hydrol. Hydromech., 61(4):313–325, doi:10.2478/johh-2013-0040.
• German Federal Institute for Risk Assessment (2020): Health risk assessment of mineral water with very low mineral content. – (Report Nr. BfR Opinion No 041/2020). – 23 p., Berlin (Bundesinstitut für Risikobewertung BfS).
• Germann, K. (1963): Der Bau der westlichen Mieminger Gruppe im Bereich des Marienbergjochs. – 33 p., 8 Taf.; München (Unveröff. Dipl.-Kart. Universität München).
• Germann, K. (1963): Die Erzvorkommen des mittleren Mieminger Gebirges. – 85 p., 19 Taf., 1 Karte; München (Unveröff. Dipl.-Arb. Universiät München).
• Germann, K. (1968): Diagenetic patterns in the Wettersteinkalk (Ladinian, Middle Trias), northern Limestone Alps, Bavaria and Tyrol. – J. Sediment. Petrol., 38(2):490–500, 17 Abb.; doi:10.1306/74D719C9-2B21-11D7-8648000102C1865D.
• Germann, K. (1969): Reworked Dolomite Crusts in the Wettersteinkalk (Ladinian, Alpine Triassic) as Indicators af Early Supratidal Dolomitization and Lithification. – Sedimentology, 12(3-4):257–277, 13 Abb.; doi:10.1111/j.1365-3091.1969.tb00878.x.
• Germann, K. (1971): Mangan–Eisen-führende Knollen und Krusten in jurassischen Rotkalken der Nördlichen Kalkalpen. – N. Jb. Geol. Paläont. Mh., 1971(3):133–156, 7 Abb., 2 Tab.
• Germann, K. (1972): Verbreitung und Entstehung Mangan-reicher Gesteine im Jura der Nördlichen Kalkalpen. – Tschermaks Min. Petr. Mitt., 17:123–150, 8 Abb.; doi:10.1007/BF01081455.
• Germann, K. & Waldvogel, F. (1971): Mineralparagenesen und Metallgehalte der „Manganschiefer“ (unteres Toarcian) in den Allgäu-Schichten der Allgäuer und Lechtaler Alpen. – N. Jb. Geol. Paläont. Abh., 139(3):316–345, 10 Abb., 4 Tab.
• Germishuyse, T. & Bezuidenhout, N. (2009): Decision Support Related to the Management and Closure of Tailings Storage Facilities-Guideline for the Handling of Uncertainties in Model Predictions and Risk based Decision Making. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 782–789, 2 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Geroni, J. N. (2010): The potential for semi-passive mine water treatment by CO₂ stripping at Ynysarwed, S.Wales. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 123–127, Sydney, NS (Cape Breton University Press).
• Geroni, J. N. (2011): Rates and mechanisms of chemical processes affecting the treatment of ferruginous mine water. – 262 p., Cardiff University, 94 Abb., 25 Tab.; Cardiff.
• Geroni, J. N., Cravotta, C. A., III & Sapsford, D. J. (2012): Evolution of the chemistry of Fe bearing waters during CO₂ degassing. – Appl. Geochem., 27:2335–2347, 10 Abb., 3 Tab.; doi:10.1016/j.apgeochem.2012.07.017.
• Geroni, J. N., Sapsford, D. & Florence, K. M. (2011): Degassing CO₂ from mine water: implications for treatment of circumneutral drainage: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 319–324 p., Aachen (RWTH Aachen University).
• Geroni, J. N. & Sapsford, D. J. (2012): Concomitant removal of iron and NAPLs within a mine water treatment system: International Mine Water Association Symposium. – 601–606 p., Bunbury (Edith Cowan University).
• Geroni, J. N., Sapsford, D. J., Barnes, A., Watson, I. A. & Williams, K. P. (2009): Current Performance of Passive Treatment Systems in South Wales, UK. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 486–496, 4 Abb; Pretoria (Document Transformation Technologies).
• Gerstenberg, K. (2005): Naturnahe Reinigung saurer Grubenwässer am Beispiel des Festgesteinstagebaues Großthiemig [Near-natural purification of acid mine drainage examplified by the Großthiemig hard rock opencast mine]. – 69 p., 23 Abb., 7 Tab., 3 Anl.; Freiberg (unveröff. Studienarbeit TU Bergakademie Freiberg).
• Gerth, A., Böhler, A., Kießig, G. & Küchler, A. (2000): Passive biologische Behandlung von Bergbauwässern (Poster). Paper presented at the Proceedings Wismut 2000 – Bergbausanierung Internationale Konferenz, Schlema. – p. 1, 6 Abb.; (Eigenverlag Wismut GmbH).
• Gerth, A., Hebner, A. & Benthaus, F.-C. (2016): On site feasibility study on biotechnical sulphate reduction. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 965–969, Freiberg (TU Bergakademie Freiberg).
• Gerth, A., Hebner, A., Kießig, G. & Küchler, A. (2001): Behandlung von Bergbauwässern in Constructed Wetlands. – Wasser, Luft und Boden, 2001(7-8):49–52, 3 Abb., 4 Tab.
• Gerth, A., Hebner, A., Kießig, G. & Zellmer, A. (2005): Passive Treatment of Minewater at the Schlema-Alberoda Site. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment. – p. 409–414, 2 Abb.; Heidelberg (Springer).
• Gerth, A., Hebner, A. & Kuhne, A. (2007): Constructed wetland für eine Kupfermine in Chile. – Internationales Bergbausymposium WISMUT 2007:1–4, 2 Abb.
• Gerth, A., Hebner, A. & Litwinenko, A. (2010): Passive biologische Behandlung von schwefelsaurem Wasser. – Wiss. Mitt. Inst. Geol., 42:37–41, 3 Abb.
• Gerth, A., Hebner, A. & Wilken, D. (2007): Constructed Wetland für eine Kupfermine in Chile. – Wiss. Mitt. Inst. Geol., 35:77–78, 4 Abb.
• Gerth, A. & Kießig, G. (2001): Passive/Biological Treatment of Waters contaminated by Uranium Mining: Phytoremediation, wetlands and sediments (6)5. – 173–180 p., 4 Abb., 4 Tab.; Columbus (Battelle Press).
• Gerth, A., Merten, D. & Baumbach, H. (2011): Verbreitung, Vergesellschaftung und genetische Populationsdifferenzierung des Berg-Steinkrautes (Alyssum montanum L.) auf Schwermetallstandorten im östlichen Harzvorland. – Hercynia N.F., 44:73–92.
• Gerth, J., Hirschmann, G., Paul, M., Jacobs, P., Förstner, U., Heise, S., Barth, J. & Gocht, T. (2006): Ingenieurgeochemie im Boden- und Gewässerschutz – Praxisbeispiele und rechtlicher Rahmen. – In: Förstner, U. & Grathwohl, P. (eds): Ingenieurgeochemie: Technische Geochemie – Konzepte und Praxis, 2nd edn. – p. 243–436, 41 Abb., 20 Tab.; Berlin (Springer); doi:10.1007/978-3-540-39512-6_3.
• Gertsch, R. E. & Bullock, R. L. (1998): Techniques in Underground Mining – Selections from Underground Mining Handbook. – 823 p., zahlr. Abb., zahlr. Tab.; Littleton (Society for Mining Metallurgy and Exploration).
• Geser, R. A. (1990): Zur Geschichte des Bergbaus im Klostertal und im Arlberg-Gebiet. – Vorarlberger Oberland, Kulturinformationen, 1990(2):61–76, 4 Abb.
• Geszler, M. & Szentpáli, Á. (1982): The Heat Balance of the Transdanubian Karstic Reservoir. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:55–65, 1 Abb., 3 Tab.
• Getliffe, K. (2002): European Waste Law: has recent Case Law impacted upon the Mess? – Environ. Law Rev., 4(3):171–178, doi:10.1177/146145290200400304.
• Getzner, M. A. (1988): Montafoner Miskeyitwerke G.m.b.H., Sankt Gallenkirch. – Vorarlberger Oberland, Kulturinformationen,(3):117–128, 2 Abb.
• Geuzaine, C. & Remacle, J. F. (2009): Gmsh: a three-dimensional finite element mesh generator with built-in pre- and post-processing facilities. – Int. J. Numer. Meth. Eng., 79(11):1309–1331, doi:10.1002/nme.2579.
• Gevers, T. W. (1964): Thermal springs at Lilani, Natal, and their geologic setting. – Verhandelinge van die Geologiese Vereniging van Suid Afrika = Transactions of the Geological Society of South Africa, 66:129–156.
• Gezahegne, W., Geipel, G., Hennig, C., Planer-Friedrich, B. & Merkel, B. J. (2010): Identification and Quantification of Uranyl-Arsenates Complexes and their Impact on Mining Environments. – Wiss. Mitt. Inst. Geol., 42:217–219, 2 Abb., 1 Tab.
• Gezahegne, W. A., Planer-Friedrich, B. & Merkel, B. J. (2007): Obtaining stable redox potential readings in gneiss groundwater and mine water: difficulties, meaningfulness, and potential improvement. – Hydrogeol. J., 15(6):1221–1229, 3 Abb., 4 Tab.; doi:10.1007/s10040-007-0174-0.
• Ghabezloo, S. & Pouya, A. (2006): Numerical modelling of the effect of weathering on the progressive failure of underground limestone mines. Paper presented at the Eurock 2006: Multiphysics Coupling and Long Term Behaviour in Rock Mechanics, Liège. – p. 233–240, 13 Abb., 1 Tab.; (Taylor & Francis).
• Ghaderi, A. & Landro, M. (2004): Pre-Stack Estimation of Time-Lapse Seismic Velocity Changes – An Example from the Sleipner CO₂-Sequestration Project. – 1–9 p., 12 Abb.; Vancouver (Proceedings 7th International Conference on Greenhouse Gas Control Technologies).
• Ghahramani, N., Adria, D. A. M., McDougall, S., Rana, N. M., Llano-Serna, M., Evans, S. G. & Take, W. A. (2024): Analysis of Uncertainty and Sensitivity in Tailings Dam Breach-Runout Numerical Modelling. – Mine Water Environ., 43(1):87–103, doi:10.1007/s10230-024-00970-w.
• Ghanem, M. (2017): Artificial Aquifer Recharge Potentiality in Arid Climate Conditions in the Jordan Rift Valley. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 461–468, Lappeenranta (Lappeenranta University of Technology).
• Gharaat, M. J., Mohammadi, Z., Assari, A. & Rezanezhad, F. (2022): Groundwater Circulation and Origin of Salinity in a Multi-aquifer System: The Gohar-Zamin Mining Area, Iran. – Mine Water Environ., 41(4):996–1014, doi:10.1007/s10230-022-00902-6.
• Ghassemi, F., Etminan, H. & Ferguson, J. (1992): A reconnaissance investigation of the major Palaeozoic aquifers in the Canning Basin, Western Australia, in relation to Zn-Pb mineralisation. – BMR J. Aust. Geol. Geophys., 13(1):37–57, 23 Abb., 6 Tab.
• Ghezzi, L., Buccianti, A., Giannecchini, R., Guidi, M. & Petrini, R. (2021): Geochemistry of Mine Stream Sediments and the Control on Potentially Toxic Element Migration: A Case Study from the Baccatoio Basin (Tuscany, Italy). – Mine Water Environ., 40(3):722–735, doi:10.1007/s10230-021-00789-9.
• Ghezzi, L., Perotti, M., Petrini, R., Bramanti, E., Campanella, B. & Onor, M. (2017): A Thallium-Contaminated Drinking Water Supply in an Abandoned Mining Area: an Environmental Health Hazard. Paper presented at the IMWA 2017 – Mine Water & Circular Economy, Lappeenranta. – p. 1369–1374; (Lappeenranta University of Technology).
• Ghiani, M. & Tonetti, E. (1978): L’epuration des eaux acides d’exhaure de la mine Piccalina (Sardaigne) et la recuperation des metaux separes. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1049–1062; Maracena (Asociación Nacional de lngenieros de Minas).
• Gholami, R., Kamkar-Rouhani, A., Ardejani, F. D. & Maleki, S. (2011): Prediction of toxic metals concentration using artificial intelligence techniques. – Appl. Water Sci., 1(3-4):125–134, doi:10.1007/s13201-011-0016-z.
• Ghomshei, M. M., MacLeod, K., Meech, T. L., Sadlier-Brown, J. A. & Dakin, R. A. (2005): Canadian Geothermal Energy Poised for Takeoff. – 1–4 p., Antalya (Proceedings World Geothermal Congress 2005).
• Ghoreishi Madiseh, S. A., Ghomshei, M. M., Hassani, F. P. & Abbasy, F. (2012): Sustainable heat extraction from abandoned mine tunnels: A numerical model. – J. Renewable Sustainable Energy, 4(3):033102, doi:10.1063/1.4712055.
• Ghosh, D., Medhi, C. R. & Purkait, M. K. (2008): Treatment of fluoride containing drinking water by electrocoagulation using monopolar and bipolar electrode connections. – Chemosphere, 73(9):1393–1400.
• Ghosh, R. & Sinha, D. K. (1988): Problems of Mine Water Drainage due to Damage to Hydrologic Amenities in a Coalfield – A Case of a Coal Bearing Area in India. – Proceedings, 3rd International Mine Water Congress, Melbourne:843–852, 4 Abb., 3 Tab.
• Ghoveisi, H., Farhoudi, J., Omid, M. & Mazdeh, A. M. (2011): Comparison of Different Methods for Linear Regression of Pseudo Second Order Adsorption Kinetics of Cadmium. – J. Civ. Eng. Urban., 3(2):73–76, 3 Abb., 3 Tab.
• Gibbs, R. J. (1970): Mechanisms Controlling World Water Chemistry. – Science, 170(3962):1088–1090, doi:10.1126/science.170.3962.1088.
• Gibbs, R. J. (1973): Mechanisms of Trace Metal Transport in Rivers. – Science, 180(4081):71–73, doi:10.1126/science.180.4081.71.
• Gibert, O., Rötting, T., De Pablo, J., Cortina, J. L., Bolzicco, J., Carrera, J. & Ayora, C. (2004): Metal Retention Mechanisms for the Aznalcóllar permeable reactive Barrier (SW Spain). – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 61–68, 7 Abb.; Newcastle upon Tyne (University of Newcastle).
• Gibling, M. R., Langenberg, W., Kalkreuth, W. D., Waldron, J. W. F., Courtney, R., Paul, J. & Grist, A. M. (2002): Deformation of Upper Carboniferous coal measures in the Sydney Basin: evidence for late Alleghanian tectonism in Atlantic Canada. – Can. J. Earth Sci., 39:79–93, 7 Abb., 1 Tab.; doi:10.1139/E01-062.
• Gibling, M. R., Martel, A. T., Nguyen, M. H., Kennedy, A. M., Shimeld, J., Baechler, F., Forgeron, S. & Mackenzie, B. (2000): Fluid evolution and diagenesis of a Carboniferous channel sandstone in the Prince Colliery, Nova Scotia, Canada. – Bulletin of Canadian Petroleum Geology, 48(2):95–115, 19 Abb., 2 Tab.; doi:10.2113/48.2.95.
• Gibson, D. K. & Pantelis, G. (1988): Forecasting the effect of mine site rehabilitation works on local ground water quality: I. – 248–252 p., 3 Abb., 1 Tab.; Pittsburgh (Proceedings 5th Annual National Meeting – American Society for Surface Mining and Reclamation).
• Gibson, S. A., Dale, C. W., Geist, D. J., Day, J. A., Brugmann, G. & Harpp, K. S. (2016): The influence of melt flux and crustal processing on Re-Os isotope systematics of ocean island basalts: Constraints from Galapagos. – Earth Planet. Sci. Lett., 449:345–359, doi:10.1016/j.epsl.2016.05.021.
• Gieré, R. & Stille, P. (2004): Energy, waste and the environment – a geochemical perspective: Spec. Publ. – Geol. Soc. London. – 670 p., London (Geological Society); doi:10.1144/GSL.SP.2004.236.
• Giesecke, Adolph H. (1979): Averaging pH vs. H+ Values. – Anesthesiology, 51(5):482–482, doi:10.1097/00000542-197911000-00037.
• Giesecke, A. H. & Stoelting, Robert K. (1979): Averaging Values for Gastric pH Incorrect. – Anesthesiology, 50(1):70–70, doi:10.1097/00000542-197901000-00023.
• Giesecke, A. H. J., Beyer, C. W. & Kallus, F. T. (1978): More on Interpretation of pH Data. – Anesth. Analg., 57(3):379–380.
• Giesen, A., Erwee, H., Wilson, R., Botha, M. & Fourie, S. (2009): Experience with Crystallisation as Sustainable, Zero-Waste Technology for Treatment of Wastewater. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 401–406, 7 Abb., 5 Tab; Pretoria (Document Transformation Technologies).
• Giessler, A. (1957): Beiträge zur Geohydrologie der Mineralwässer des NE-Harzrandgebietes. – Z. dt. geol. Ges., 109:199–206, 6 Tab.; doi:10.1127/zdgg/109/1957/199.
• Giggenbach, W. F. (1988): Geothermal solute equilibria – Derivation of Na-K-Mg-Ca geoindicators. – Geochim. Cosmochim. Acta, 52(12):2749–2765, 11 Abb., 2 Tab.; doi:10.1016/0016-7037(88)90143-3.
• Gilbert, C., Ayanda, O. S., Fatoba, O. O., Madzivire, G. & Petrik, L. F. (2019): A Novel Method of Using Iron Nanoparticles from Coal Fly Ash or Ferric Chloride for Acid Mine Drainage Remediation. – Mine Water Environ., 38(3):617–631, doi:10.1007/s10230-019-00605-5.
• Gilbert, E. S. & Crowley, D. E. (1997): Plant compounds that induce polychlorinated biphenyl biodegradation by Arthrobacter sp. strain B1B. – Appl. Environ. Microbiol., 63(5):1933–1938, doi:10.1128/aem.63.5.1933-1938.1997.
• Gilbert, J. K., Reiner, M. & Nakhleh, M. (2008): Visualization – Theory and Practice in Science Education: Models and Modeling in Science Education 3. – 325 p., Berlin (Springer); doi:10.1007/978-1-4020-5267-5.
• Gilchrist, I. C. R. & Hunt, M. S. (1988): The Recovery of Water from a Colloidally Stable Kimberlite Suspension. – Proceedings, 3rd International Mine Water Congress, Melbourne:131–145, 9 Abb., 5 Tab.
• Gildeh, K. H., Halliday, A., Arenas, A. & Zhang, H. (2021): Tailings Dam Breach Analysis: A Review of Methods, Practices, and Uncertainties. – Mine Water Environ., 40(1):128–150, doi:10.1007/s10230-020-00718-2.
• Giles, G. G., Severi, G., English, D. R., McCredie, M. R. E., Borland, R., Boyle, P. & Hopper, J. L. (2003): Sexual factors and prostate cancer. – BJU International, 92(3):211–216, 3 Tab.; doi:10.1046/j.1464-410X.2003.04319.x.
• Gill, A. E. (1982): Atmosphere–Ocean Dynamics: International Geophysics Series 30. – 662 p., San Diego (Academic Press).
• Gillberg, L., Hansen, B., Karlsson, I., Enkel, A. N. & Pålsson, A. (2003): about water treatment. – 205 p., Helsingborg (Kemira Kemwater).
• Gillespie, R. (1992): Gympie Gold Mine dewatering. – Mine Water Environ., 11(1):1–14, 2 Abb., 4 Tab.
• Gillitzer, G. (1914): Geologie des Südgebietes des Peissenberger Kohlenreviers im Kgl. bayr. ärar. Reservatfeld. – Jb. k.-k. geol. R.-A., 64(1):149–187, 3 Taf.
• Gillmore, G. K., Grattan, J., Pyatt, F. B., Phillips, P. S. & Pearce, G. (2002): Radon, water and abandoned metalliferous mines in the UK: Environmental and Human Health implications. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 65–76, 2 Tab.; Heidelberg (Springer).
• Gillow, J., Griffin, A., Christoffersen, L., Divine, C., Hay, M. & DeDycker, P. (2013): Control of Tailing Seepage through Reactive Chemical Amendments. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 347–352, 3 Abb.; Golden (International Mine Water Association).
• Gilpin, E. (1885): Feather-alum (Halotrichite) from Glace Bay, Cape Breton. – Proceedings and Transactions of the Nova Scotian Institute of Science, 6(3):175–179.
• Gilpin, E., Jr. (1890): The Geological Relations of the Principal Nova Scotia Minerals. – Trans. Am. Inst. Min. Eng., 18:198–205.
• Gimber, C. (2012): Forensic analysis of mine water impacts – a mass balance approach: International Mine Water Association Symposium. – 379–384 p., Bunbury (Edith Cowan University).
• Gioia, R., Akindele, A. J., Adebusoye, S. A., Asante, K. A., Tanabe, S., Buekens, A. & Sasco, A. J. (2014): Polychlorinated biphenyls (PCBs) in Africa: a review of environmental levels. – Environ. Sci. Pollut. Res., 21(10):6278–6289, doi:10.1007/s11356-013-1739-1.
• Girard, L., III & Kaplan, R. A. (1966): Design and Econcmics of an Acid Mine Drainage Treatment Plant – “Operation Yellowboy”. – Am. Chem. Soc., Div. Fuel Chem., Prepr., 10(1):107–116, 5 Abb., 4 Tab.
• Girgin, I., Gundogdu, M. N., Ata, S. & Yorukoglu, A. (1996): Oil decolorization properties of the Emirler clinoptilolite (Bigadic, Turkey). – Mineral. Deposita, 31(6):584–588, Refs: 24; 5 tables; doi:10.1007/BF00196139.
• Giri, S., Singh, G., Gupta, S. K., Jha, V. N. & Tripathi, R. M. (2010): An Evaluation of Metal Contamination in Surface and Groundwater around a Proposed Uranium Mining Site, Jharkhand, India. – Mine Water Environ., 29(3):225–234, 7 Abb., 7 Tab.; doi:10.1007/s10230-010-0107-3.
• Girolletti, C., Hassemer, M., Thomé, A. & Menezes, J. C. (2019): Neutralization Potential (NP) of a Porcelainate Production Alkaline Waste in the Prevention of AMD Generation. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 83–88; Perm, Russia (Perm State University).
• Gischia, S., Diedrich, T. & Li, X. (2025): Improving Early Mine Design using Reference Class Forecasting of Mine Water Quality. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 113–119; Braga (International Mine Water Association).
• Gisman, S. & Szczypa, H. (1982): Trends in Utilization of Mine Waters in the Upper-Silesian Coal Basin. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, D:17–23, 1 Tab.
• Gitari, W., Rirhandzu, J. N. & Ayinde, W. B. (2019): Cavitation of Acid Mine Drainage-Magnesite Mixtures: A Promising Acid Mine Drainage Treatment Technology. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 499–503; Perm, Russia (Perm State University).
• Gitari, W. M., Kaseke, C. & Nkuzani, B. B. (2011): Passive Remediation of Acid Mine Drainage using Bentonite clay: A Laboratory batch experimental: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 325–330 p., Aachen (RWTH Aachen University).
• Gitari, W. M., Petrik, L. P., Key, D. K. & Okujeni, C. (2010): Inorganic contaminants attenuation in acid mine drainage by fly ash and its derivatives: Column Experiments. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 233–237, Sydney, NS (Cape Breton University Press).
• Glaes, M. (1964): Untersuchungen über die Abhängigkeit der Wasserzuflüsse im Saarbergbau. – Z. dt. geol. Ges., 116(1):102–114, 11 Abb., 2 Tab.; doi:10.1127/zdgg/116/1964/102.
• Gläser, H.-R., Bozau, E., Knöller, K., Schmidt, A. & Strauch, G. (2008): Investigation Methods for Water Exchange Processes between Mining Lakes and Aquifers. – Proceedings, 10th International Mine Water Association Congress:571–574.
• Gläser, H.-R., Nitzsche, H. M. & Schreck, M. (1999): Explanation of hydrochemical Processes by gas isotopic and fibre optic Temperature Measurements in Lignite Mining Dumps South of Leipzig, Germany. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 93–98, 8 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Glasman-Deal, H. (2010): Science research writing – For non-native speakers of English. – 257 p., London (Imperial College Press); doi:10.1142/p605.
• Glass, J. (2006): The Environmental Impact of the Abandoned Edendale Lead Mine near Tshwane, South Africa. – 74 p., 21 Abb., 13 Tab., 3 Taf.; Johannesburg (unpubl. Master Thesis University of Johannesburg).
• Glasser, O. (1995): Wilhelm Conrad Röntgen und die Geschichte der Röntgenstrahlen, 2nd edn. – 381 p., 116 Abb.; Berlin (Springer); doi:10.1007/978-3-642-79312-7.
• Gläßer, W., Riedel, K. & Tauchnitz, J. (1976): Voraussetzungen und Gestaltungsmöglichheil von Karten zur schadlosen Ablagerung von Abprodukten und zur Darstellung von havariegefährdeten Gebieten – ein methodischer Beitrag zum praktischen Grundwasserschutz. – Hercynia N. F., 13:369–379, 3 Abb., 1 Tab.
• Gleason, J. D., Gutzmer, J., Kesler, S. E. & Zwingmann, H. (2011): 2.05-Ga Isotopic Ages for Transvaal Mississippi Valley–Type Deposits: Evidence for Large-Scale Hydrothermal Circulation around the Bushveld Igneous Complex, South Africa. – J. Geol., 119:69–80, 4 Abb., 2 Tab.; doi:10.1086/657301.
• Gleason, V. E. & Russell, H. H. (1976): Mine Drainage Bibliography 1910–1976. –.
• Gleichmann, D. (1972): Der Stahlberg in Müsen. – Der Anschnitt, 5:3–8, 5 Abb.
• Gleichmann, H. D. (1955): Die Aufbereitung der Siegerländer Erze am Beispiel der Eisenerzgruben Füsseberg-Friedrich Wilhelm, Georg und Neue Haardt. – In: Gründer, W. (ed) Erzaufbereitungsanlagen in Westdeutschland: Ein Führer durch die wichtigsten Betriebe für die Aufbereitung von Erzen und anderen mineralischen Rohstoffen. – p. 266–314, 27 Abb., 20 Tab.; Berlin, Heidelberg (Springer); doi:10.1007/978-3-662-11708-8_18.
• Gleichmann, H. D. (2022): Der Füsseberg – Die große Zeit des Siegerländer Eisenerzbergbaus, 3rd edn. – 153 p., Clausthal-Zellerfeld (Hans-Jochaim Gleichmann).
• Gleichmann, H.-J. (2017): Ein Siegerländer Fördergerüst wird wiederentdeckt. – Der Anschnitt, 69(1):27–38, 13 Abb.
• Gleick, P. H. (2004): The Myth and Reality of Bottled Water. – In: Gleick, P. H. (ed) The Biennial Report on Freshwater Resources: 2004–2005. – p. 17–43, Washington (Island Press).
• Gleick, P. H. (2006): Bottled Water: An Update. – In: Gleick, P. H. (ed) The Biennial Report on Freshwater Resources: 2006–2007. – p. 169–174, Washington (Island Press).
• Gleick, P. H. (2010): Bottled & Sold – The story behind our obsession with bottled water. – 211 p., Washington (Island Press).
• Glenny, R. W., Bernard, S. & Brinkley, M. (1993): Validation of fluorescent-labeled microspheres for measurement of regional organ perfusion. – J. Appl. Physiol., 74(5):2585–2597, 8 Abb., 8 Tab.; doi:10.1152/jappl.1993.74.5.2585.
• Global Water Partnership Technical Advisory Committee, Agarwal, A., delos Angeles, M. S., Bhatia, R., Chéret, I., Davila-Poblete, S., Falkenmark, M., Villarreal, F. G., Jønch-Clausen, T., Kadi, M. A., Kindler, J., Rees, J., Roberts, P., Rogers, P., Solanes, M. & Wright, A. (2000): Integrated Water Resources Management. – TAC Background Papers, 4:1–67.
• Glöckner, E. (2024): Kommt der Steiger zurück? – ifo Dresden Berichtet: Ueber Konjunktur, Struktur, Wirtschaftspolitik, 31(3):22–26.
• Glombitza, F. & Janneck, E. (2016): Kenntnisstandsanalyse und Stand des Wissens und der Technik bei der Reinigung von Wässern durch aerobe oder anaerobe Wetlands unter Einbeziehung der Nutzung von Mikroorganismen und unter Betrachtung möglicher Maßnahmen zur Reaktionsbeschleunigung. – 97 p., 37 Abb., 34 Tab.; Dresden (Landesamt für Umwelt, Landwirtschaft und Geologie).
• Glover, H. G. (1975): Acidic and ferruginous mine drainages. – In: Chadwick, M. J. & Goodman, G. T. (eds): The Ecology of Resource Degradation and Renewal. – p. 173–195, 1 Tab.; Oxford (Blackwell).
• Glover, H. G. (1983): Mine water-pollution – an overview of problems and control strategies in the United Kingdom. – Water Sci. Technol., 15(2):59–70, 1 Abb., 3 Tab.; doi:10.2166/wst.1983.0025.
• Glozier, N. E., Culp, J. M., Reynoldson, T. B., Bailey, R. C., Lowell, R. B. & Trudel, L. (2002): Assessing metal mine effects using benthic invertebrates for Canada’s environmental effects program. – Water Quality Research Journal of Canada, 37(31):251–278, 4 Abb., 2 Tab.
• Glushankova, I. & Rudakova, L. (2019): Justification The Possibility Of Sludge Storage Use For Liquid Wastes From The Potash Industry As Settling Ponds. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 189–194; Perm, Russia (Perm State University).
• Gluyas, J. & Adams, C. (2024): Paul Younger — a pioneer in UK geothermal energy. – Green Energy and Sustainability:1–24, doi:10.47248/ges2404030004.
• Glynn, P. D. & Brown, J. G. (1996): Reactive Transport Modeling of Acidic Metal-Contaminated Ground Water at a Site with Sparse Spatial Information. – In: Lichtner, P. C., Steefel, C. I. & Oelkers, E. H. (eds): Reactive transport in porous media. – p. 377–438, Washington (Mineralogical Society of America).
• Glynn, P. D. & Plummer, L. N. (2005): Geochemistry and the understanding of ground-water systems. – Hydrogeol. J., 13(1):263–287, doi:10.1007/s10040-004-0429-y.
• Gnandi, K., Rezaie Boroon, M. H. & Edorh, P. (2009): The Geochemical Characterization of Mine Effluents from the Phosphorite Processing Plant of Kpémé (Southern Togo). – Mine Water Environ., 28(1):65–73, 4 Abb., 5 Tab.; doi:10.1007/s10230-008-0058-0.
• Gnandi, K., Tchangbedji, G., Killi, K., Baba, G. & Abbe, K. (2006): The Impact of Phosphate Mine Tailings on the Bioaccumulation of Heavy Metals in Marine Fish and Crustaceans from the Coastal Zone of Togo. – Mine Water Environ., 25(1):56–62, 2 Abb., 5 Tab.
• Gnandi, K., Tchangbedji, G., Killi, K., Baba, G. & Salim, A. I. O. (2005): Processing of Phosphate Mine Tailings by Coagulation Flocculation to Reduce Marine Pollution in Togo: Laboratory Tests. – Mine Water Environ., 24(4):215–221, 7 Abb., 5 Tab.; doi:10.1007/s10230-005-0102-2.
• Gnielinski, V., Mersmann, A. & Thurner, F. (1993): Verdampfung, Kristallisation, Trocknung – mit 30 Übungsbeispielen. – 260 p., 174 Abb.; Braunschweig (Viehweg); doi:10.1007/978-3-642-58073-4.
• Göbel, F. & Reinboth, F. (1972): Excentriques, eine wenig bekannte Form des Calcites. – Der Aufschluss, 23(4):113–124, 16 Abb.
• Göbel, F. & Reinboth, F. (1975): Bemerkungen zum Excentriquesproblem. – Höhle – Z. Karst- und Höhlenkd., 26(4):123–130, 3 Abb., 1 Tab.
• Göbel, F. K. C. T. (1842): Ueber den Einfluß der Chemie auf die Ermittelung der Völker der Vorzeit oder Resultate der chemischen Untersuchung metallischer Alterthümer insbesondere der in den Ostseegouvernements vorkommenden, Behufs der Ermittelung der Völker, von welchen sie abstammen. – 38 p., 15 Tab.; Erlangen (Enke).
• Göbel, J. (2003): Geologische und geochemische Landschaftsrekonstruktion im Siedlungsgebiet von Troia (NW-Türkei). – 287 p., 146 Abb., 52 Tab.; Tübingen (unveröff. Dissertation).
• Göbel, J. (2005): Landschaftsrekonstruktion im Siedlungsgebiet von Troia – Geochemische, sedimentologische und geochronologische Untersuchungen: Schriftenreihe naturwissenschaftliche Forschungsergebnisse 74. – 384 p., 146 Abb., 52 Tab.; Hamburg (Kovač).
• Göbel, J., Satır, M., Kadereit, A., Wagner, G. A. & Kayan, İ. (2002): Stratigraphy, Geochemistry and Geochronometry of Sedimentary Archives Around Hisarlik Hill – a Pilot Study: Troia and the Troad. – 341–359 p., 5 Abb., 2 Tab.; Berlin (Springer).
• Gobiet, A., Kotlarski, S., Beniston, M., Heinrich, G., Rajczak, J. & Stoffel, M. (2014): 21st century climate change in the European Alps—A review. – Sci. Total Environ., 493:1138–1151, doi:10.1016/j.scitotenv.2013.07.050.
• Göbl, F. & Mutsch, F. (1985): Schwermetallbelastung von Wäldern in der Umgebung eines Hüttenwerks in Brixlegg/Tirol – I. Untersuchung der Mykorrhiza und Humusauflage. – Centralbl. Gesamte Forstwes., 102(1):28–40, 5 Abb., 2 Tab.
• Gödel, K. (1931): Über formal unentscheidbare Sätze der Principia Mathematica und verwandter Systeme I. – Monatshefte für Mathematik und Physik, 38 173–198.
• Godlewski, Z., Libicki, J., Seweryn, L. & Wojtkowiak, B. (1991): Water Protection in the Region of Belchatów Surface Mine of Lignite Against Salt Diapir Impact. – Proceedings, 4th International Mine Water Association Congress, 2:269–280, 3 Abb.
• Godlewski, Z., Libicki, J., Seweryn, L. & Wojtkowiak, B. (1997): Power Plant Wastes Disposal in Surface Mines. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:307–315, 3 Abb.
• Godwin, A. L., Lee, P. F., Conly, A. G. & Goold, A. R. (2010): Predicting toxicity of future combined pit lakes at the former Steeprock Iron Mine near Atikokan, Ontario. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 343–347, Sydney, NS (Cape Breton University Press).
• Goedhart, M. L. & Booth, P. W. K. (2016): A palaeoseismic trench investigation of early Holocene neotectonic faulting along the Kango Fault, southern Cape Fold Belt, South Africa – Part II: earthquake parameters. – S. Afr. J. Geol., 119(3):569–582, doi:10.2113/gssajg.119.3.569.
• Goerke-Mallet, P. & Drobniewski, M. (2016): Planning Long-Term Mine-Water Management for the Ibbenbüren Coal Basin. – Veröff. Dt. Bergbau-Mus. Bochum, 212:108–113.
• Goerke-Mallet, P., Melchers, Ch. & Müterthies, A. (2016): Innovative monitoring measures in the phase of post-mining. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 570–577, Freiberg (TU Bergakademie Freiberg).
• Goerke-Mallet, P., Mersmann, F., Beermann, T. & Stöttner, M. T. (2016): Optimizing Long-term Mine Water Management of Mining Sites with the Help of Directional Drilling and Liner Technology. – Veröff. Dt. Bergbau-Mus. Bochum, 212:87–94.
• Goerke-Mallet, P., Müterthies, A. & Melchers, Ch. (2016): Copernicus, Sentinel and Post-Mining – Information for a Better Understanding of Modern Remote Sensing Techniques. – Veröff. Dt. Bergbau-Mus. Bochum, 212:106–107.
• Goerke-Mallet, P., Reker, B., Westermann, S. & Melchers, Ch. (2017): Nachbergbau in Großbritannien: das Steinkohlenrevier South Yorkshire. – Markscheidewesen, 124(1):13–21.
• Goerke-Mallet, P., Westermann, S. & Melchers, Ch. (2016): Die Verwahrung der Bergwerke im Döhlener Becken durch die Wismut GmbH – Eine Evaluierung des Grubenwasseranstiegsprozesses. Paper presented at the 17. Geokinematischer Tag, Freiberg. – p. 123–130, 3 Abb.; (TU BA Freiberg).
• Goetz, D., Roussel, V. & Tincelin, E. (1994): Cave Ins Linked to Mine Flooding. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:29–42, 5 Abb., 4 Tab.
• Goetz, E. R. & Riefler, R. G. (2015): Geochemistry of CO₂ in Steel Slag Leach Beds. – Mine Water Environ., 34(1):42–49, doi:10.1007/s10230-014-0290-8.
• Gogoi, H., Leiviskä, T., Heiderscheidt, E., Postila, H. & Tanskanen, J. (2017): Removal of Metals from Mining Wastewaters by Utilization of Natural and Modified Peat as Sorbent Materials. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 218–225, Lappeenranta (Lappeenranta University of Technology).
• Gogoi, H., Leiviskä, T., Heiderscheidt, E., Postila, H. & Tanskanen, J. (2018): The Effectiveness of Metal and Metalloid Sorption from Mining Influenced Waters by Natural and Modified Peat. – Mine Water Environ., 37(4):734–743, doi:10.1007/s10230-018-0525-1.
• Gogoi, H., Leiviskä, T., Heiderscheidt, E., Postila, H. & Tanskanen, J. (2018): Removal of metals from industrial wastewater and urban runoff by mineral and bio-based sorbents. – J. Environ. Manage., 209:316–327, doi:10.1016/j.jenvman.2017.12.019.
• Goh, P. S., Ismail, A. F. & Hilal, N. (2016): Nano-enabled membranes technology: Sustainable and revolutionary solutions for membrane desalination? – Desalination, 380:100–104, doi:10.1016/j.desal.2015.06.002.
• Gökpinar, T. & Heinze, T. (2024): Algorithm-based segmentation of temperature-depth profiles: Examples from a mine. – Environ. Modell. Software, 180:106143, doi:10.1016/j.envsoft.2024.106143.
• Goldberg, D. (1991): What every computer scientist should know about floating-point arithmetic. – ACM Computing Surveys, 23(1):5–48, 2 Abb., 4 Tab.; doi:10.1145/103162.103163.
• Goldberg, K. & Humayun, M. (2010): The applicability of the Chemical Index of Alteration as a paleoclimatic indicator: An example from the Permian of the Paraná Basin, Brazil. – Palaeogeogr. Palaeoclimatol. Palaeoecol., 293(1):175–183, doi:10.1016/j.palaeo.2010.05.015.
• Goldberg, S. (2013): Surface Complexation Modeling. Reference Module in Earth Systems and Environmental Sciences. – p., 13 Abb.; Amsterdam (Elsevier); doi:10.1016/B978-0-12-409548-9.05311-2.
• Goldbrunner, J. E., Ramspacher, P., Zojer, H., Zötl, J. G., Moser, H., Rauert, W. & Stichler, W. (1982): Die Anwendung natürlicher und künstlicher Tracer in einem hochalpinen Magnesitbergbau. – Beitr. Geol. Schweiz – Hydrol., 28(II):407–422, 4 Abb.
• Goldenberg, G. (2003): Bronzezeitlicher Kupferbergbau in Nordtirol. – Archäologie in Deutschland,(3):58–63, 17 Abb.
• Golder Associates Inc. (2009): Literature Review of Treatment Technologies to Remove Selenium from Mining Influenced Water. – Unpubl. Report for Teck Coal, L. (Report Nr. 08-1421-0034 Rev. 2). – 31 p., 7 Tab.; Lakewood (Golder Associates Inc.).
• Goldscheider, N. (2005): Fold structure and underground drainage pattern in the alpine karst system Hochifen-Gottesacker. – Eclogae geol. Helv., 98:1–17, 16 Abb., 4 Tab.; doi:10.1007/S00015-005-1143-Z.
• Goldscheider, N. (2008): A new quantitative interpretation of the long-tail and plateau-like breakthrough curves from tracer tests in the artesian karst aquifer of Stuttgart, Germany. – Hydrogeol. J., 16(7):1311–1317, 3 Abb., 1 Tab.
• Goldscheider, N. (2011): Alpine Hydrogeologie. – Grundwasser, 16(1):1–1, doi:10.1007/s00767-010-0157-2.
• Goldscheider, N. & Drew, D. P. (2007): Methods in Karst Hydrogeology. – 264 p., zahlr. Abb., zahlr. Tab.; London (Taylor & Francis); doi:10.1201/9781482266023.
• Goldscheider, N. & Göppert, N. (2009): A conversation with Werner Käss (Germany) about his contributions to tracer hydrogeology and characterisation of mineral waters and spas. – Hydrogeol. J., 17(6):1543–1546, 2 Abb.
• Goldscheider, N., Meiman, J., Pronk, M. & Smart, C. (2008): Tracer tests in karst hydrogeology and speleology. – Int. J. Speleol., 37(1):27–40, 10 Abb., 1 Tab.
• Goldscheider, N. & Neukum, C. (2010): Fold and fault control on the drainage pattern of a double-karst-aquifer system, Winterstaude, Austrian Alps. – Acta Carsologica, 39(2):173–186, 10 Abb., 1 Tab.
• Goldstuck, A. (2024): The hitchhiker’s guide to AI – A handbook for all. – 215 p., Johannesburg (Pan Macmillan).
• Goldsworthy, M. & Goldammer, W. (1999): Uranium Tailings Basin Closure Case Studies. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 311–316, 5 Abb.; Sevilla (International Mine Water Association).
• Golestanifar, M. & Ahangari, K. (2012): Choosing an Optimal Groundwater Lowering Technique for Open Pit Mines. – Mine Water Environ., 31(3):192–198, 2 Abb., 5 Tab.; doi:10.1007/s10230-012-0196-2.
• Golian, S., El-Idrysy, H. & Stambuk, D. (2023): How Climate Would Likely Change in Future: Case Study of a Mine Site in Kazakhstan. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 166–171; (International Mine Water Association).
• Gómara, B., Herrero, L., Pacepavicius, G., Ohta, S., Alaee, M. & González, M. J. (2011): Occurrence of co-planar polybrominated/chlorinated biphenyls (PXBs), polybrominated diphenyl ethers (PBDEs) and polychlorinated biphenyls (PCBs) in breast milk of women from Spain. – Chemosphere, 83:799–805, doi:10.1016/j.chemosphere.2011.02.080.
• Gombert, P., Sracek, O., Koukouzas, N., Gzyl, G., Valladares, S. T., Frączek, R., Klinger, C., Bauerek, A., Areces, J. E. Á., Chamberlain, S., Paw, K. & Pierzchała, Ł. (2019): Correction to: An Overview of Priority Pollutants in Selected Coal Mine Discharges in Europe. – Mine Water Environ., 38(2):463–464, doi:10.1007/s10230-019-00607-3.
• Gombert, P., Sracek, O., Koukouzas, N., Gzyl, G., Valladares, S. T., Frączek, R., Klinger, C., Bauerek, A., Areces, J. E. Á., Chamberlain, S., Paw, K. & Pierzchała, Ł. (2019): An Overview of Priority Pollutants in Selected Coal Mine Discharges in Europe. – Mine Water Environ., 38(1):16–23, 2 Abb., 2 Tab.; doi:10.1007/s10230-018-0547-8.
• Gomes, A. F. D. S., Vinhal, A. P. & Queiroz Ladeira, A. C. (2008): Estimation of Potential Pollution of Uranium Sludge from Acid Water Treatment. – Proceedings, 10th International Mine Water Association Congress:193–196, 4 Tab.
• Gomes, C. J. B., Mendes, C. A. B. & Costa, J. F. C. L. (2011): The Environmental Impact of Coal Mining: A Case Study in Brazil’s Sangão Watershed. – Mine Water Environ., 30(3):159–168, 11 Abb., 2 Tab.; doi:10.1007/s10230-011-0139-3.
• Gomes, J., Cocke, D., Moreno, H., Tran, D., Mahmud, A., Das, K. & Guttula, M. (2009): Green Rust: Its Electrochemical Generation, Characterization, and Implications. Paper presented at the EPD Congress, San Francisco, 2009. – p. 211–218; (Minerals Metals and Materials Society (TMS),).
• Gomes, J. A., Islam, M., Bernazzani, P., Irwin, G., Rutman, D., Cocke, D. & Islam, M. R. (2011): Recapturing Metals from Electrocoagulation Floc: Supplemental Proceedings: Materials Processing and Energy Materials 1. – 203–210 p., 4 Abb., 2 Tab.; Hoboken (Wiley & Sons); doi:10.1002/9781118062111.ch21.
• Gomes, P., Cordeiro, M. & Valente, T. (2024): Sulfide-rich waste classification using a fast and cost-effective reactivity index. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 225–229; Morgantown (International Mine Water Association).
• Gomes, P. & Valente, T. (2025): Acidic Affected by Acid Mine Drainage – A Case of Extreme Contamination. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1098–1098; Braga (International Mine Water Association).
• Gomes, P. & Valente, T. M. (2019): Physical And Chemical Conditions For Colonization By Euglena Mutabilis: Case Studies In Two Acid Mine Drainage sites. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 419–424; Perm, Russia (Perm State University).
• Gomes, P., Valente, T. M. & Sousa, M. (2023): Study Of The Toxicity Of Mine Waters: Implications Of Suspended Matter On The Performance Of Tolerant Plants. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 172–177; (International Mine Water Association).
• Gómez, J. B., Auqué, L. F. & Gimeno, M. J. (2008): Sensitivity and uncertainty analysis of mixing and mass balance calculations with standard and PCA-based geochemical codes. – Appl. Geochem., 23(7):1941–1956, 1 Abb., 12 Tab.; doi:10.1016/j.apgeochem.2008.02.019.
• Gómez, P., Garralón, A., Turrero, J., Sánchez, L., Ruiz, B. & Fernández, F. (1999): Study of the Impact in Groundwaters after the Restoration of an old Uranium Mine (Spain). – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 293–297, 4 Abb., 2 Tab.; Sevilla (International Mine Water Association).
• Gomez-Arias, A., Castillo, J., Heerden, E. v. & Vermeulen, P. D. (2016): Use of alkaline mine waste as treatment for acid drainage. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 931–936, Freiberg (TU Bergakademie Freiberg).
• Gomez-Arias, A., Castillo, J., Welman-Purchase, M., Maleke, M., van Heerden, E. & Vermeulen, D. (2018): Neutralization of Acid Drainage and Concentration of Rare Earth Elements Using Carbonatites; Results from a Bench Scale Experiment. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 893–898; (Tshwane University of Technology).
• Gomez-Arias, A., Castillo, J., Welman-Purchase, M., Posthumus, J. & Heerden, E. v. (2015): Evidences of Effective Treatment of Alkaline Mine Drainage with BaCO₃. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Gómez-Arias, A., Yesares, L., Castillo, J., Vermeulen, D. & Purcell, W. (2022): Phalaborwa Complex: from Rock Drainage Characterization to Waste Revalorization. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 121–126; (International Mine Water Association).
• Gomo, M. & Vermeulen, P. D. (2014): Hydrogeochemical characteristics of a flooded underground coal mine groundwater system. – J. Afr. Earth Sci., 92:68–75, doi:10.1016/j.jafrearsci.2014.01.014.
• Gomo, M., Vermeulen, P. D. & Lourens, P. (2017): Groundwater Sampling: Flow-Through Bailer Passive Method Versus Conventional Purge Method. – Natural Resources Research:1–15, doi:10.1007/s11053-017-9332-9.
• Gonfiantini, R., Fröhlich, K., Araguás-Araguás, L. & Rozanski, K. (1998): Isotopes in Groundwater Hydrology. – In: Kendall, C. & McDonnell, J. J. (eds): Isotope Tracers in Catchment Hydrology. – p. 203–246, Amsterdam (Elsevier).
• González Beça, C. J. G. & Guedes de Carvalho, R. A. (1985): Study of zinc and copper removal by iron (III) and (II) oxyhydroxides. – Proceedings, 2nd International Mine Water Association Congress, 2:647–660.
• Gonzalez Fernandez, L. A., Carulla Gratacos, N., Massal, P. & Pointet, T. (1985): Water inflow prevision in the santa barbara projected mine (leon, spain). – Proceedings, 2nd International Mine Water Association Congress, 1:479–490.
• Gonzalez, M. J., Fernandez, M. & Hernandez, L. M. (1990): Influence of Acid-mine Water in the Distribution of Heavy-Metal in Soils of Donana-National-Park – Application of Multivariate-Analysis. – Environ. Technol., 11(11):1027–1038, 4 Abb., 4 Tab.; doi:10.1080/09593339009384957.
• Gonzalez Quiros, A., MacAllister, D. J., MacDonald, A., Palumbo-Roe, B., Bearcock, J., Ó Dochartaigh, B., Callaghan, E., Kearsey, T., Walker-Verkuil, K. & Monaghan, A. (2024): De-risking green energy from mine waters by developing a robust hydrogeological conceptual model of the UK Geoenergy Observatory in Glasgow. – Hydrogeol. J.:1–23, doi:10.1007/s10040-024-02778-y.
• Gonzalez Quiros, A., Receveur, M., Monaghan, A., Starcher, V., Walker-Verkuil, K. & van Hunen, J. (2025): Influence of Mine Geometry and Working Type on Groundwater Flow and Heat Transport for Geothermal Exploitation. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 70–76; Braga (International Mine Water Association).
• Gonzalez Quiros, A., Stewart, M., Olver, T., Klein, S., Mugova, E. & Abesser, C. (2025): Challenges and Opportunities for High-Temperature Mine Thermal Energy Storage with Focus on Regulatory Barriers for Implementation. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 502–507; Braga (International Mine Water Association).
• Gonzalez, S. T., Remick, D., Creton, R. & Colwill, R. M. (2016): Effects of embryonic exposure to polychlorinated biphenyls (PCBs) on anxiety-related behaviors in larval zebrafish. – NeuroToxicology, 53:93–101, doi:10.1016/j.neuro.2015.12.018.
• González-Aurioles, J. M. (1999): Definition of the Intervention Levels (Law of Wastes 10/1998, of 21 April) for contaminated Soil in the Guadiamar River Basin (Spain) and the Situation of the Soil after the Removal of the Mine Tailings. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 247–253, 4 Abb., 6 Tab.; Sevilla (International Mine Water Association).
• Gonzalez-Merchan, C., Tanabene, R., Genty, T., Bussière, B., Potvin, R., Allaire, M. & Neculita, C. M. (2017): Simultaneous Treatment of Thiocyanates and Ammonia Nitrogen in Gold Mine Effluents Using Advanced Oxidation and Nitrification-Denitrification Processes. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1039–1047, 1 Abb., 3 Tab.; Lappeenranta (Lappeenranta University of Technology).
• Gonzalez-Toril, E., Aguilera, A., Souza-Egipsy, V., Ercilla, M. D., Pamo, E. L., Sánchez-España, J. & Amils, R. (2009): Comparison between acid mine effluents, La Zarza-Perrunal and Rio Tinto (Iberian Pyritic Belt). – Adv. Mater. Res., 71-73(Biohydrometallurgy):113–116, doi:10.4028/www.scientific.net/AMR.71-73.113.
• Gonzalez-Toril, E., Aguilera, A., Souza-Egipsy, V., Pamo, E. L., Sánchez-España, J. & Amils, R. (2011): Geomicrobiology of La Zarza-Perrunal acid mine effluent (Iberian Pyritic Belt, Spain). – Appl. Environ. Microbiol., 77(8):2685–2694, doi:10.1128/AEM.02459-10.
• Goodarzi, F. (2006): Characteristics and composition of fly ash from Canadian coal-fired power plants. – Fuel, 85:1418–1427, 5 Abb., 5 Tab.; doi:10.1016/j.fuel.2005.11.022.
• Goodarzi, F. & Mukhopadhyay, P. K. (2000): Metals and polyaromatic hydrocarbons in the drinking water of the Sydney Basin, Nova Scotia, Canada; a preliminary assessment of their source. – Int. J. Coal Geol., 43(1-4):357–372, 2 Abb., 4 Tab.; doi:10.1016/S0166-5162(99)00067-1.
• Goode, D. J., Cravotta, C. A., Hornberger, R. J., Hewitt, M. A., Hughes, R. E., Koury, D. J. & Eicholtz, L. W. (2011): Water budgets and groundwater volumes for abandoned underground mines in the Western Middle Anthracite Coalfield, Schuylkill, Columbia, and Northumberland Counties, Pennsylvania: Preliminary estimates with identification of data needs. – U. S. Geol. Surv. Sci. Investig. Rep., 2010–5261:54, doi:10.3133/sir20105261.
• Goode, M. & Hayes, E. (2016): Integrated Mine Water Management: Innovative Design to Address Challenging Environments. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 141–142, Freiberg (TU Bergakademie Freiberg).
• Goodman, R. E. (1998): Karl Terzaghi – The engineer as artist. – 340 p., Reston (ASCE Press).
• Goodman, W. M., Phillips, S., Van Dyk, D. & Grobler, N. (2019): Conceptual Isotope Hydrostratigraphic Models For North American Sedimentary Basins: Understanding Water Sources In Deep Subsurface Mines. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 619–624; Perm, Russia (Perm State University).
• Goodman, W. M., Van Dyk, D., Grobler, N. & Osborne, A. (2018): Water Ingress Mitigation Programs for Underground Mines: Hydrogeological and Rock Mechanical Demands on Grout Properties. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 507–511; (Tshwane University of Technology).
• Goodwill, J. & Van Zyl, D. Proceedings of the Third Annual International Conference on Mine Water Solutions. Mine Water Solutions 2018, Vancouver, 2018. University of British Columbia, 765 S.
• Gookin, D. (2013): Word 2013 For Dummies®. – 382 p., (John Wiley & Sons).
• Gookin, D. (2016): Word 2016 for Professionals for Dummies. – 628 p., (John Wiley & Sons).
• Göppert, N., Goldscheider, N. & Scholz, H. (2011): Karst geomorphology of carbonatic conglomerates in the Folded Molasse zone of the Northern Alps (Austria/Germany). – Geomorphology, 130:289–298, 14 Abb.; doi:10.1016/j.geomorph.2011.04.011.
• Gorbunova, E. (2005): Typification of Radioactive Contamination Conditions in Ground Water at the Semipalatinsk Test Site. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 823–830, Heidelberg (Springer).
• Gorbunova, T. I., Egorova, D. O., Pervova, M. G., Kyrianova, T. D., Demakov, V. A., Saloutin, V. I. & Chupakhin, O. N. (2021): Biodegradation of trichlorobiphenyls and their hydroxylated derivatives by Rhodococcus-strains. – J. Hazard. Mater., 409:124471, doi:10.1016/j.jhazmat.2020.124471.
• Gorbunova, T. I., Pervova, M. G., Panyukova, A. A., Egorova, D. O., Saloutin, V. I., Demakov, V. A. & Chupakhin, O. N. (2014): An interdisciplinary approach to the problem of neutralization of man-made polychlorinated biphenyls. – Doklady Chemistry, 454(2):19–24, doi:10.1134/s0012500814020025.
• Gordon, E. I. (1967): The meaning of the Ideogram KASKAL.KUR = “Underground Water Course” and its Significance for Bronze Age Historical Geography. – Journal of cuneiform studies, 21:70–88, 1 Abb.
• Gordon, I. & Drennan, M. R. (1948): Medico-Legal Aspects of the Wolkersdorfer Case. – S. Afr. Med. J., 22:543–549, 17 Abb.
• Gordon, J., Colenbrander Nelson, T. E., Whaley-Martin, K. J., Twible, L. E., Liu, F., Warren, L. A., Apte, S. C., Chen, L., Banfield, J. F. & McGarry, S. (2024): Microbial Sulfur Pathways and Outcomes in Tailings Impoundments: A Mesocosm Study. – Mine Water Environ., 43(4):658–674, doi:10.1007/s10230-024-01016-x.
• Gorelik, A. (2019): The Enterprise Big Data Lake – Delivering the Promise of Big Data and Data Science. – 218 p., California (O'Reilly).
• Gorgievski, M., Božić, D., Stanković, V. & Bogdanović, G. (2009): Copper electrowinning from acid mine drainage: A case study from the closed mine “Cerovo”. – J. Hazard. Mater., 170(2–3):716–721, 6 Abb., 1 Tab.; doi:10.1016/j.jhazmat.2009.04.135.
• Görne, S., Krentz, O., Horna, F., Block, C. & Hübschmann, M. (2006): 3D-Modellierung mit Gocad auf dem Weg zur routinemäßigen Anwendung im LfUG. – Wiss. Mitt. Inst. Geol., 31:317–324, 4 Abb., 1 Tab.
• Gorrell, H. A. (1958): Classification of Formation Waters Based on Sodium Chloride Content. – Am. Assoc. Pet. Geol. Bull., 42(10):2513.
• Gorshkov, V. A. & Kharionovsky, A. A. (1982): Main Methods and Techniques of Mine Water Treatment in USSR. – Int. J. Mine Water, 1(4):27–33, 5 Tab.
• Gosar, M. (2004): Environmental impacts of metal mining [Vplivi kovinskih rudnikov na okolje]. – RMZ – Materials and Geoenvironment, 51(4):2097–2107, 3 Abb., 1 Tab.
• Goślar, T., Arnold, M. & Pazdur, M. F. (1995): The Younger Dryas cold event – Was it synchronous over the North Atlantic Region? – Radiocarbon, 37(1):63–70.
• Goss, M. J. & Oliver, M. A. (2023): Encyclopedia of Soils in the Environment.
• Gossel, W., Stollberg, R. & Wycisk, P. (2010): Modelling of environmental impacts of 140 years of open pit lignite mining and chemical industry on groundwater contaminants in the Bitterfeld area (Germany). – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 421–425, Sydney, NS (Cape Breton University Press).
• Gott, J. R. (1993): Implications of the Copernican principle for our future prospects. – Nature, 363(6427):315–319, doi:10.1038/363315a0.
• Gott, J. R. (1994): Future prospects discussed. – Nature, 368(6467):108–108, doi:10.1038/368108a0.
• Gotthardt, T. (2024): Schriftliche Anfrage der Abgeordneten Kerstin Celina, Patrick Friedl, Christian Hierneis, Paul Knoblach, Laura Weber (BÜNDNIS 90/DIE GRÜNEN) vom 17.04.2024 betreffend Untertägiger Bergbau und Trinkwasserschutz. –.
• Gottschalk, V. H. & Buehler, H. A. (1912): Oxidation of Sulphides II. – Econ. Geol., 7:15–34, 1 Abb., 3 Tab.; doi:10.2113/gsecongeo.7.1.15.
• Götze, A. (1905): Thomas, Chr. L., Die Ringwälle im Quellengebiet der Bieber im Spessart. Annalen d. Yereins f. Nassauische Altertumskunde und Geschichtsforschung. XXXIY, S. 179—205 (Review). – Zeitschrift für Ethnologie, 37(4):644.
• Götze, J., Kreyßig, E., Schmidt, P. & Haase, M. (2017): Management von Daten im Rahmen des WISMUT-Umweltprojektes [Management of data within the WISMUT environmental project]. – Lect. Notes Inf., 2017:2001–2006, 2 Abb.; doi:10.18420/in2017_200.
• Gou, A. & Wang, J. (2010): The Development of Roof Color in Ancient China. – Color. Res. Appl., 35(4):246–266, 24 Abb.; doi:10.1002/col.20564.
• Goudie, A. S. (2020): Waterfalls: Forms, Distribution, Processes and Rates of Recession. – Quaest. Geogr., 39(1):59–77, 8 Abb., 3 Tab.; doi:10.2478/quageo-2020-0005.
• Gougar, M. L. D., Scheetz, B. E. & Roy, D. M. (1996): Ettringite and C-S-H Portland cement phases for waste ion immobilization – A review. – Waste Manage., 16(4):295–303, 5 Abb., 4 Tab.; doi:10.1016/S0956-053X(96)00072-4.
• Goumih, A., El Adnani, M., Hakkou, R. & Benzaazoua, M. (2013): Geochemical Behavior of Mine Tailings and Waste Rock at the Abandoned Cu–Mo–W Azegour Mine (Occidental High Atlas, Morocco). – Mine Water Environ., 32(2):121–132, 8 Abb., 4 Tab.; doi:10.1007/s10230-013-0221-0.
• Gourdier, S. & Sabet, B. B. (2014): Numerical Model for Assessment of Subsidence due to Dissolution of Salt, Application to Nancy Basin (East of France). – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 454–458, Xuzhou (International Mine Water Association).
• Gourdier, S., Vong, C. Q. & Bazargan-Sabet, B. (2016): Coupled Hydromechanical Model For Assessing Land Subsidence Due To Salt Layers Dissolution. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1067–1073, Freiberg (TU Bergakademie Freiberg).
• Govender, K., Bezuidenhout, N., Zyl, A. v. & Rousseau, P. (2009): Prediction of Seepage Emanating from a TSF in an Arid Climate. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 873–881, 3 Abb., 6 Tab; Pretoria (Document Transformation Technologies).
• Govender, K., Cukrowska, E. & McCarthy, T. S. (2003): Modeling and chemometric evaluation of acid mine drainage from gold mining in Johannesburg, South Africa. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 277, Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Govender, N. (2019): Characterisation of the deep aquifers of South Africa – the bushveld igneous complex, crystalline basement rocks and dolomite formations. – 117 p., University of the Free State; Bloemfontein.
• Govender-Ragubeer, Y. & Gericke, M. (2013): Chromium (VI) removal from effluents using zeolite. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 569–574, 2 Abb., 4 Tab.; Golden (International Mine Water Association).
• Government of Alberta (1996): Environmental Code of Practice for Hydrologic Tracing Analysis Studies. – 14 p., Edmonton (Alberta Queen’s Printer).
• Government of eSwatini (2018): Eswatini National Water Policy 2018. – 116 p.
• Government of India (2002): National Water Policy. In: Resources, M. o. W. (ed). New Delhi, 9.
• Government of Nepal & National Trust for Nature Conservation (2009): Bagmati Action Plan (2009–2014). – 86 p., zahlr. Abb., zahlr. Tab.; Kathmandu (High Powered Committee for Integrated Development of the Bagmati Civilization and National Trust for Nature Conservation).
• Government of Swaziland (2000): Water Bill, 2000 – Bill No. 7 of 2000. – Swaziland Government Gazette – Supplement, 38(591):S1–S44.
• Government of Swaziland (2003): The Water Act, 2003 – Act Number 7 of 2003. King and the Parliament of Swaziland, 39.
• Govind, R., Kumar, U., Puligadda, R., Antia, J. & Tabak, H. H. (1997): Biorecovery of metals from acid mine drainage: Emerging Technologies in Hazardous Waste Management 7. – 91–101 p., 5 Abb., 5 Tab.; New York (Plenum); doi:10.1007/978-1-4615-5387-8_8.
• Govindan, K. (2015): Green sourcing: Taking steps to achieve sustainability management and conservation of resources. – Resour. Conserv. Recycl., 104:329–333, doi:10.1016/j.resconrec.2015.10.027.
• Govindan, K., Noel, M. & Mohan, R. (2015): Removal of nitrate ion from water by electrochemical approaches. – J. Water Process Eng., 6:58–63, doi:10.1016/j.jwpe.2015.02.008.
• Gow, J. M. (1893): Cape Breton Illustrated – Historic, Picturesque and Descriptive. – 423 p., Toronto (Briggs).
• Gozzard, E., Bowden, L. I. & Younger, P. L. (2005): Permeable Reactive Barriers for mine water treatment in the UK – lessons from laboratory-scale applications: Mine Water 2005 – Mine Closure. – 619–625 p., 7 Abb., 5 Tab.; Oviedo (University of Oviedo).
• Grab, T., Storch, T. & Groß, U. (2018): Energetische Nutzung von Grubenwasser aus gefluteten Bergwerken. – In: Bauer, M., Freeden, W., Jacobi, H. & Neu, T. (eds): Handbuch Oberflächennahe Geothermie. – p. 523–586, 18 Abb., 7 Tab.; Heidelberg (Springer); doi:10.1007/978-3-662-50307-2_17.
• Grabherr, G. (2006): Die Via Claudia Augusta in Nordtirol − Methode, Verlauf, Funde. – In: Walde, E. & Grabherr, G. (eds): Via Claudia Augusta und Römerstraßenforschung im östlichen Alpenraum 1. – p. 35–336, 249 Abb., 52 Taf.; Innsbruck (Innsbruck University Press).
• Grabherr, G. (2009): Biodiversity in the high ranges of the Alps: Ethnobotanical and climate change perspectives. – Global Environmental Change, 19(2):167–172, 3 Abb.; doi:10.1016/j.gloenvcha.2009.01.007.
• Grabherr, G. (2010): Die römische Siedlung in Biberwier in ihrem Kontext mit der Via Claudia Augusta. Paper presented at the Römische Raststationen und Straßeninfrastruktur im Ostalpenraum, Innsbruck, 4. – 5. Juni 2009. – p. 242–274, 18 Abb., 1 Anl.
• Grabherr, G. (2010): Forschungen an der römischen Staatsstraße Via Claudia Augusta. Jahresbericht des Zentrums für Alte Kulturen 2009. – p. 44–45, Innsbruck (Zentrum für Alte Kulturen).
• Grabherr, G. & Kainrath, B. (2013): Spuren der römischen Kaiserzeit in Ehrwald. – Extra Verren, 2013:7–22, 11 Abb., 2 Taf.
• Grabherr, W. (1946/49): Die Legföhrenwälder am Bettelwurf bei Hall in Tirol. – Veröff. Mus. Ferdinandeum, 26-29:107–116.
• Grabowska, D. & Rózkowski, A. (1987): Hydrogeologic Investigations on Coal Deposits in the Upper Silesian Coal Basins (Poland): Hydrogeology of Coal Basins. – 37–46 p., Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Graeber, P.-W., Meyer, M., Hasan, I., Sallwey, J. & Blankenburg, R. (2012): Simulation of Water Balance in Dump Slopes of Open-Cast Mining Pits for Geomechanical Stability Prognosis: International Mine Water Association Symposium. – 37–46 p., Bunbury (Edith Cowan University).
• Grafe, B., Jasnowski-Peters, H., Mantescu, L. & Stolzenberg, S. (2024): Watergenics AISRAS: addressing the problem of sudden changes in ion concentrations with real-time spectroscopy. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 230–235; Morgantown (International Mine Water Association).
• Grafe, F. (2006): Perspektiven der geothermischen Strom- und Wärmeerzeugung in Sachsen (Deutschland). – Geothermische Energie, 1(50):28–31, 1 Abb.
• Graham, D. N., Tomsu, C. & Mårtensson, E. (2016): From Catchment Hydrology to Dewatering at Mine Sites. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1149, Freiberg (TU Bergakademie Freiberg).
• Graham, M. H. & Haynes, R. J. (2005): Organic matter accumulation and fertilizer-induced acidification interact to affect soil microbial and enzyme activity on a long-term sugarcane management experiment. – Biol. Fertil. Soils, 41(4):249–256, doi:10.1007/s00374-005-0830-2.
• Gramiger, L. M., Moore, J. R., Vockenhuber, C., Aaron, J., Hajdas, I. & Ivy-Ochs, S. (2016): Two early Holocene rock avalanches in the Bernese Alps (Rinderhorn, Switzerland). – Geomorphology, 268:207–221, doi:10.1016/j.geomorph.2016.06.008.
• Gramp, J. P., Jones, F. S., Bigham, J. M. & Tuovinen, O. H. (2008): Monovalent cation concentrations determine the types of Fe(III) hydroxysulfate precipitates formed in bioleach solutions. – Hydrometallurgy, 94(1):29–33, doi:10.1016/j.hydromet.2008.05.019.
• Grams, S. (2000): Einsatz geostatistischer Verfahren zur Charakterisierung der Grundwasserbeschaffenheit im Bereich der Rieselfelder südlich Berlins. – 146 p., 84 Abb., 24 Tab.; Berlin (unveröff. Dissertation TU Berlin).
• Gramss, G., Büchel, G. & Bergmann, H. (2005): Soil treatment with nitrogen facilitates continuous phytoextraction of heavy metals. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 483–494, Heidelberg (Springer).
• Grande, A., Casas, J. & Sastre, J. L. (1985): Geopohysical prospecting for mined areas identification – “San Jose” mine case history (Caceres, Spain). – Proceedings, 2nd International Mine Water Association Congress, 2:943–951.
• Grande, J. A., Andujar, J. M., Aroba, J., de la Torre, M. L., Jiménez, A. & Beltrán, R. (2005): Relations between chemical variables in Acid Mine Drainage process: An Application of Fuzzy Clustering Algorithms to the Characterization: Mine Water 2005 – Mine Closure. – 21–28 p., 6 Abb.; Oviedo (University of Oviedo).
• Grande, J. A., Dávila, J. M., Fortes, J. C., Santisteban, M., Sarmiento, A. M., Córdoba, F., Leiva, M., de la Torre, M. L., Jiménez, A., Díaz-Curiel, J., Biosca, B., Luís, A. T., Durães, N., Ferreira da Silva, E. A., Rivera, M. J., Aroba, J., Carro, B., Borrego, J. & Morales, J. A. (2020): Escombreras asociadas a minería de sulfuros: pasivo ambiental y potencial activo económico desde una perspectiva de minería circular [Sulphide mining tailings dams: environmental liabilities and potential economic assets from a circular mining perspective]. – In: Álvarez García, R. & Ordóñez Alonso, A. (eds): Recursos minerales y medioambienteuna herencia que gestionar y un futuro que construir – libro jubilar del profesor Jorge Loredo –p. 205–218, Oviedo (Universidad de Oviedo, Ediciones de la Universidad de Oviedo).
• Grande, J. A., de la Torre, M. L., Valente, T., Fernandez, J. P., Borrego, J., Santisteban, M., Ceron, J. C. & Sanchez-Rodas, D. (2015): Stratification of Metal and Sulphate Loads in Acid Mine Drainage Receiving Water Dams – Variables Regionalization by Cluster Analysis. – Water Environ Res., 87(7):626–34, doi:10.2175/106143015X14212658614793.
• Grande, J. A., de la Torre, M. L., Valente, T. M., Aroba, J., Sanchis, J. & Santisteban, M. (2014): The Application of Fuzzy Logic Techniques to the Characterisation of Treatment Systems in Two Sewage Plants. Paper presented at the Int Multi Sci Geoco. – p. 715–722.
• Grande, J. A., Jiménez, A., Beltrán, R., Sáinz, A., Santos, J. C., de la Torre, M. L. & Borrego, J. (2005): Comparative of acid drainage process types between two streams of the Cobica river in the environment of the Iberian Pyrite Belt (Huelva, Spain) and impact on the Andévalo Dam: Mine Water 2005 – Mine Closure. – 107–115 p., 4 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Grande, J. A., Santisteban, M., Pérez-Ostalé, E., Valente, T. M., de la Torre, M. L., Gomes, P. & Barrios-Parra, F. (2018): Dilution Versus Pollution in Watercourses Affected by Acid Mine Drainage: A Graphic Model for the Iberian Pyrite Belt (SW Spain). – Mine Water Environ., 37(1):211–216, doi:10.1007/s10230-017-0495-8.
• Grande, J. A., Santisteban, M., Torre, M. L. d. l., Valente, T. M. & Pérez-Ostale, E. (2013): Characterisation of AMD Pollution in the Reservoirs of the Iberian Pyrite Belt. – Mine Water Environ., 32(4):321–330, 6 Abb., 7 Tab.; doi:10.1007/s10230-013-0236-6.
• Grande, J. A., Valente, T. M., de la Torre, M. L., Santisteban, M., Ceron, J. C. & Perez-Ostale, E. (2014): Characterization of acid mine drainage sources in the Iberian pyrite belt; base methodology for quantifying affected areas and for environmental management. – Environ. Earth Sci., 71(6):2729–2738, doi:10.1007/s12665-013-2652-0.
• Grandin, A. M., Sjöberg, V. & Karlsson, S. (2011): Stability of weathered shales at water field capacity in the presence of Aspen wood shavings: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 331–336 p., Aachen (RWTH Aachen University).
• Grandjean, P. & Landrigan, P. J. (2006): Developmental neurotoxicity of industrial chemicals. – The Lancet, 368(9553):2167–2178, doi:10.1016/S0140-6736(06)69665-7.
• Grandjean, P. & Landrigan, P. J. (2014): Neurobehavioural effects of developmental toxicity. – The Lancet Neurology, 13(3):330–338, doi:10.1016/S1474-4422(13)70278-3.
• Granger, D. E., Stratford, D., Bruxelles, L., Gibbon, R. J., Clarke, R. J. & Kuman, K. (2022): Cosmogenic nuclide dating of Australopithecus at Sterkfontein, South Africa. – Proc. Natl. Acad. Sci. USA, 119(27):e2123516119, 3 Abb., 1 Tab.; doi:10.1073/pnas.2123516119.
• Granigg, B. (1912): Ueber die Erzführung der Ostalpen. – Mitt. Geol. Ges. Wien, 5:345–367 + 11, 1 Kart.
• Grant, G. E., Schmidt, J. C. & Lewis, S. L. (2003): A Geological Framework for Interpreting Downstream Effects of Dams on Rivers. A Peculiar River. – p. 203–219, doi:https://doi.org/10.1029/007WS13.
• Grant, J. E. & Kim, S. W. (2003): Comorbidity of impulse control disorders in pathological gamblers. – 108(3):203–207, doi:10.1034/j.1600-0447.2003.00162.x.
• Grapes, T. R. & Connelly, R. J. (1998): Evaluation of Mine Water Inflows and associated Impacts at the Olympias mine, Halkidiki, Greece: 1. – 13–23 p., 2 Abb.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Graps, A. (1995): An Introduction to Wavelets. – IEEE Computational Science & Engineering, 2(2):1–18, 8 Abb.
• Grasby, S. E., Allen, D. M., Bell, S., Chen, Z., Ferguson, G., Jessop, A. M., Kelman, M., Ko, M., Majorowicz, J., Moore, M., Raymond, J. & Therrien, R. (2012): Geothermal Energy Resource Potential of Canada. – Geological Survey of Canada Open File, 6914:1–301, doi:10.4095/291488.
• Grasso, G., Oppici, C., Rocchi, F. & Sumini, M. (2009): A Neutronics Study of the 1945 Haigerloch B-VIII Nuclear Reactor. – Physics in Perspective, 11(3):318–335, doi:10.1007/s00016-008-0396-0.
• Grauer, R. (1997): Solubility Limitations – An “Old Timer’s” View. – In: Grenthe, I. & Puigdomenech, I. (eds): Modelling in Aquatic Chemistry. – p. 131–152, Paris (OECD Nuclear Energy Agency).
• Grauert, B. & Arnold, A. (1968): Deutung diskordanter Zirkonalter der Silvrettadecke und des Gotthardmassivs (Schweizer Alpen). – Contr. Mineral. and Petrol., 20:34–56, 6 Abb., 2 Tab.; doi:10.1007/BF00371065.
• Graupner, B., Koch, C. & Werner, F. (2008): Can EU-WFD be Applied to Former Lignite Mining Districts? A Case Study for the Lausitz Mining District (Germany). – Proceedings, 10th International Mine Water Association Congress:521–524.
• Graupner, B., Werner, F., Bürger, S. & Benthaus, F.-C. (2006): Abschätzung der Sulfatgehalte Lausitzer Braunkohlenkippen mit Hilfe von Raum- und Stoffbilanzmodellen. – Wiss. Mitt. Inst. Geol., 31:263–270, 9 Abb.
• Grawunder, A., Gartner, S. & Merten, D. (2017): Adaptation of a Rare Earth Element Pre-concentration Method for Water Enriched in Al, Ca, Fe, and Mg. – Mine Water Environ., 36(3):363–370, doi:10.1007/s10230-016-0418-0.
• Grawunder, A., Lonschinski, M., Boisselet, T., Merten, D. & Büchel, G. (2010): Hydrogeochemistry of rare earth elements in an AMD-influenced environment. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 347–351, Sydney, NS (Cape Breton University Press).
• Gray, J. R. (2005): Conductivity Analyzers and their Application. – In: Down, R. D. & Lehr, J. H. (eds): Environmental Instrumentation And Analysis Handbook. – p. 491–510, 12 Abb., 1 Tab.; (Wiley).
• Gray, J. S., Dautel, H., Estrada-Pena, A., Kahl, O. & Lindgren, E. (2009): Effects of climate change on ticks and tick-borne diseases in europe. – Interdiscip Perspect Infect Dis, 2009:593232, 5 Abb.; doi:10.1155/2009/593232.
• Gray, L. J. & Ward, J. V. (1983): Leaf litter breakdown in streams receiving treated and untreated metal mine drainage. – Environ. Intern., 9(2):135–138, 2 Abb.; doi:10.1016/0160-4120(83)90065-X.
• Gray, N. F. (1997): Environmental impact and remediation of acid mine drainage: A management problem. – Environ. Geol., 30(1-2):62–71, doi:10.1007/s002540050133.
• Gray, N. F. (1998): Acid mine drainage composition and the implications for its impact on lotic systems. – Water Res., 32(7):2122–2134, 7 Abb., 9 Tab.
• Gray, T. A. & Gray, R. E. (1992): Mine Closure, Sealing, and Abandonement. – In: Hartman, H. L. (ed) SME Mining Engineering Handbook; Society for Mining Metallurgy and Exploration 1, 2 edn. – p. 659–674, 20 Abb., 3 Tab.; Littleton (Society for Mining Metallurgy and Exploration).
• Gray, T. A., Kyper, T. N. & Snodgrass, J. L. (1997): Disposal of Coal Combustion Byproducts in Underground Coal Mines. – Energeia, 8(6):1, 5, 1 Abb.
• Gray, T. A., Moran, T. C., Broschart, D. W. & Smith, G. A. (1997): Plan for Injection of Coal Combustion Byproducts into the Omega Mine for the Reduction of Acid Mine Drainage. – 755–762 p., 2 Abb., 1 Tab.; Austin (Proceedings; National Meeting of the American Society for Surface Mining and Reclamation).
• Greassidis, S., Stolpe, H., Broemme, K. & Trinh Quoc, V. (2019): Comprehensive Approach for Mine Water Management in Vietnamese Hard Coal Mines under Transition. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 89–94; Perm, Russia (Perm State University).
• Greben, H., Baloyi, J., Sigama, J. & Venter, F. (2007): Bioremediation of Sulphate rich Mine Effluents using Grass Cuttings and Rumen Fluid Microorganisms: Water in Mining Environments. – 193–197 p., 1 Abb., 5 Tab.; Cagliari (Mako Edizioni).
• Greben, H. A. & Maree, J. P. (2005): Removal of Sulphate, Metals, and Acidity from a Nickel and Copper Mine Effluent in a Laboratory Scale Bioreactor. – Mine Water Environ., 24(4):194–198, 2 Abb., 3 Tab.
• Greben, H. A., Maree, J. P., Singmin, Y. & Mnqanqeni, S. (2000): Biological sulphate removal from acid mine effluent using ethanol as carbon and energy source. – Water Sci. Technol., 42(3-4):339–344.
• Greben, H. A., Matshusa, M. P. & Maree, J. P. (2005): The biological Sulphate removal technology: Mine Water 2005 – Mine Closure. – 339–345 p., 3 Abb., 9 Tab.; Oviedo (University of Oviedo).
• Greben, H. A., Sigama, N. J., Radebe, V. & Wilsenach, J. (2009): An Environment-Friendly Technology for Biological Sulphate and Sulphide Removal from Acid Mine Drainage. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 478–485, 6 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Greben, H. A., Tjatji, M. & Maree, J. P. (2004): COD/SO₄ Ratios using Propionate and Acetate as the Energy Source for the Biological Sulphate Removal in Acid Mine Drainage. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 93–99, 3 Abb., 4 Tab.; Newcastle upon Tyne (University of Newcastle).
• Greco, O. D., Garzonio, C. A. & Oggeri, C. (2008): Stability and Environmental Problems due to Groundwater Level Raising in the Abandoned Gavorrano Mine. – Proceedings, 10th International Mine Water Association Congress:131–134.
• Green, D. W. & Southard, M. Z. (2019): Perry’s Chemical Engineers’ Handbook, 9th edn. – 2274 p., New York (McGraw-Hill).
• Green, E. (2015): Coal Mining and Art. – In: Daykin, A., et al. (eds): The Hidden Artists of Barnsley. – p. 279–283, Barnsley (Barnsley Art on Your Doorstep).
• Green, G. (1828): An essay on the application of mathematical analysis to the theories of electricity and magnetism. – 72 p., Nottingham (Wheelhouse).
• Green, R. (2012): Geochemical Assessment of Mineral Waste through the Mine Life Cycle: International Mine Water Association Symposium. – 467–472 p., Bunbury (Edith Cowan University).
• Green, R. & Chapman, J. (2022): Critical Decisions for AMD Management. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 127–132; (International Mine Water Association).
• Green, R., Lee, S., Kleiber, C., Terrusi, L. & Glasson, K. (2018): Strategies for Managing Chemically Reactive Mineral Waste at Rio Tinto Iron Ore Mines. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 17–20; (Tshwane University of Technology).
• Green, T. R., Taniguchi, M., Kooi, H., Gurdak, J. J., Allen, D. M., Hiscock, K. M., Treidel, H. & Aureli, A. (2011): Beneath the surface of global change: Impacts of climate change on groundwater. – J. Hydrol., 405:532–560, 5 Abb., 1 Tab.; doi:10.1016/j.jhydrol.2011.05.002.
• Greenfield, B. K. & Allen, R. M. (2013): Polychlorinated biphenyl spatial patterns in San Francisco Bay forage fish. – Chemosphere, 90(5):1693–1703, doi:10.1016/j.chemosphere.2012.09.066.
• Greenfield, R., Wepener, V., Degger, N. & Brink, K. (2011): Richards Bay Harbour: Metal exposure monitoring over the last 34 years. – Mar. Pollut. Bull., 62(8):1926–1931, doi:10.1016/j.marpolbul.2011.04.026.
• Greenough, J. D., Fryer, B. J. & Mallory-Greenough, L. (2010): Trace element geochemistry of Nova Scotia (Canada) maple syrup. – Can. J. Earth Sci., 47(8):1093–1110, 8 Abb., 2 Tab.; doi:10.1139/E10-055.
• Greenslade, W. M. (1979): Depressurization for Shaft Sinking: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 571–590 p., 3 Abb., 4 Tab.; San Francisco (Freeman).
• Greenwood, E. A. N. & Netchaef, P. (1988): Quantitative Dewatering of Mine Dumps by Vegetation – A Proposition. – Proceedings, 3rd International Mine Water Congress, Melbourne:785–791, 3 Tab.
• Greenwood, G. B. & Shroder, J. F. (2016): Mountain ice and water – Investigations of the hydrologic cycle in alpine environments: Developments in earth surface processes. – 388 p., Amsterdam (Elsevier).
• Greer, B., Helgen, S., Nicholson, A. & Kosinski, S. (2013): Incorporating Wall Rock Runoff into Pit Lake Water Quality Modeling in the Arid Western United States. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 353–358, 5 Abb., 1 Tab.; Golden (International Mine Water Association).
• Gregor, D. J., Peters, A. J., Teixeira, C., Jones, N. & Spencer, C. (1995): The historical residue trend of PCBs in the Agassiz Ice Cap, Ellesmere Island, Canada. – Sci. Total Environ., 160/161:117–126, doi:10.1016/0048-9697(95)04349-6.
• Greif, A. (2015): Das Einzugsgebiet der Mulde oberhalb des Muldestausees im Spiegel des erzgebirgischen Bergbaus. – Hydrol. Wasserbewirtsch., 59(6):318–331, 12 Abb., 7 Tab.; doi:10.5675/HyWa_2015,6_2.
• Greif, A., Eulenberger, S., Schmidt, P. & Paul, M. (2019): From Remediation Supervision To Long-term Surveillance – Ground And Surface Water Monitoring At A Former Uranium Processing Site. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 660–665; Perm, Russia (Perm State University).
• Greif, A. I. & Jahn, S. (2024): Sediments in affected river systems – lessons learned from WISMUT remediation. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 236–242; Morgantown (International Mine Water Association).
• Greig, S. M., Sear, D. A. & Carling, P. A. (2005): The impact of fine sediment accumulation on the survival of incubating salmon progeny: Implications for sediment management. – Sci. Total Environ., 344(1):241–258, doi:10.1016/j.scitotenv.2005.02.010.
• Grenville, K. (2001): Writing from start to finish – A six-step guide. – 216 p., Crows Nest (Allen & Unwin).
• Greule, A. & Hackl-Rößler, S. (2014): Deutsches Gewässernamenbuch – Etymologie der Gewässernamen und der dazugehörigen Gebiets‑, Siedlungs- und Flurnamen. – 634 p., Berlin (De Gruyter).
• Grewar, T. (2018): Reuse Of Treated Mine-Impacted Water As A Potential Resource For Accelerated Carbon Sequestration. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1056; (Tshwane University of Technology).
• Grewar, T. (2019): South Africa’s options for mine-impacted water re-use: A review. – J. S. Afr. Inst. Min. Metall., 119(3):321–331, doi:10.17159/2411-9717/2019/v119n3a12 .
• Grgic, D., Homand, F. & Giraud, A. (2005): Modelling of the drying and flooding of underground iron mines in Lorraine (France). – Int. J. Rock. Mech. Min., 43(3):388–407, doi:10.1016/j.ijrmms.2005.07.004.
• Griffin, B. C., Ahlgren, K., Coleman, M., Jurgensmeyer, V., Littlefield, R., Martin, T., McCaleb, N., Roberts, L., Seybolt, D. & Smith, M. (2000): Final Report – Governor Frank Keating’s Tar Creek Superfund Task Force. – 30 p., 16 Abb., 11 Tab.; Oklahoma City (Office of the Secretary of Environment).
• Griffith, J. J. (1919): Influence of mines upon land and livestock in Cardiganshire. – The Journal of Agricultural Science, 9(4):366–395, doi:10.1017/S0021859600005220.
• Griffiths, J. A. (2009): Handling Uncertainty in Water Resource Optimisation. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 141–148, 4 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Grigo, W., Heitfeld, M., Mainz, M., Rosner, P. & Welz, A. (2008): Concept for Monitoring Impacts of Rising Mine Water Levels in the Ruhr Region Germany. Paper presented at the Post-Mining 2008, Nancy, February 6–8. – p. 1–12 [CD–ROM].
• Grigo, W., Heitfeld, M., Rosner, P. & Welz, A. (2007): Ein Konzept zur Überwachung der Auswirkungen des Grubenwasseranstiegs im Ruhrgebiet. – In: Meier, G. (ed) 7. Altbergbau-Kolloquium. – p. 250–269, 10 Abb.; Essen (Glückauf).
• Grill, R. (1953): Der Flysch, die Waschbergzone und das Jungtertiär um Ernstbrunn (Niederösterreich). – Jb. Geol. B.-A., 96:33–372, 1 Tab., 2 Taf.
• Grilli, A. & Fernández, E. (2015): Application of Stable Isotope Analysis in Different Water Quality Studies. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Grilo, T. F., Cardoso, P. G., Pato, P., Duarte, A. C. & Pardal, M. A. (2014): Uptake and depuration of PCB-153 in edible shrimp Palaemonetes varians and human health risk assessment. – Ecotoxicology and Environmental Safety, 101:97–102, doi:10.1016/j.ecoenv.2013.12.020.
• Grimes, D. J., Ficklin, W. H., Meier, A. L. & McHugh, J. B. (1995): Anomalous gold, antimony, arsenic, and tungsten in ground water and alluvium around disseminated gold deposits along the Getchell Trend, Humboldt County, Nevada. – J. Geochem. Explor., 52(3):351–371, 13 Abb., 1 Tab.
• Grimm, R., Hübschmann, M. & Storz, W. (2005): Aufbau eines GIS-gestützten 3D-Strukturmodells im Rahmen der hydrogeologischen Spezialkartierung in Sachsen. – Wiss. Mitt. Inst. Geol., 28:111–115, 5 Abb.
• Grimshaw, P., Calo, J. M. & Hradil, G. (2011): Cyclic electrowinning/precipitation (CEP) system for the removal of heavy metal mixtures from aqueous solutions. – Chem. Eng. J., 175 103–109, 4 Abb.; doi:10.1016/j.cej.2011.09.062.
• Grisak, G. E. & Pickens, J. F. (1981): An analytical Solution for solute Transport through fractured Media with Matrix Diffusion. – J. Hydrol., 52(1-2):47–57, 7 Abb., 1 Tab.; doi:10.1016/0022-1694(81)90095-0.
• Grischek, T., Feistel, U., Ebermann, J., Musche, F., Bruntsch, S. & Uhlmann, W. (2016): Field experiments on subsurface iron removal in the Lusatian mining region. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 292–297, Freiberg (TU Bergakademie Freiberg).
• Gritsenko, E., Polyakova, S., Snegova, S., Baiburova, O. & Pleshkov, L. (2019): Integrating Massive Open Online Courses in the ESP Programs for Students of GeoScience. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 743–747; Perm, Russia (Perm State University).
• Grmela, A. (1987): Determination of basic hydrogeological Water Types and their Fractions in mixed Samples of Mine Waters in the Czechoslovak Part of the Upper Silesian Basin: Hydrogeology of Coal Basins. – 47–54 p., 1 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Grmela, A., Rapantová, N. & Hajek, A. (2000): Uranium mill tailing sites reclamation – comparison of approaches in the world uranium producing countries and the Czech Republic – Uranium Mine Dolni Rozinka. – Proceedings, 7th International Mine Water Association Congress:248–259, 1 Abb., 1 Kart.
• Grmela, A. & Tylcer, J. (1997): Determination of Coal Mines Water Balance. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:35–42, 2 Abb., 4 Tab.
• Grmela, A. & Tylcer, J. (1998): Problems of Groundwater and environmental Protection in Connection with abandoning of Mining activities in the Czech Republic: Mine Water and Environmental Impacts 2. – 343–346 p., Johannesburg (Proceedings International Mine Water Association Symposium).
• Grmela, A., Žùrek, P., Kukutsch, R. & Korínek, R. (2011): Hydrogeologic and Hydraulic Conditions of old Mine Workings of the Former Jeroným Mine [Hydrogeologické a hydraulické pomìry starých dùlních dìl bývalého dolu Jeroným]. – GeoScience Engineering, 57(4):17–25, 3 Abb., 2 Tab.
• Grobbelaar, L., Bouwer, S. & Hermann, U. P. (2019): An Exploratory Investigation of Visitor Motivations to the Barberton – Makhonjwa Geotrail, South Africa. – GeoJournal of Tourism and Geosites, 25(2):283–292, doi:10.30892/gtg.25101-359.
• Grobe, M. & Machel, H. G. (2002): Saline groundwater in the Münsterland Cretaceous Basin, Germany: clues to its origin and evolution. – Marine and Petroleum Geology, 19(3):307–322, doi:10.1016/S0264-8172(02)00019-3.
• Grober, U. (2013): Von Freiberg nach Rio – Carlowitz und die Bildung des Begriffs ›Nachhaltigkeit‹. – In: Sächsische Carlowitz-Gesellschaft (ed) Die Erfindung der Nachhaltigkeit – Leben, Werk und Wirkung des Hans Carl von Carlowitz. – p. 13–30, München (oekom).
• Grobler, D. F. (1994): A note on PCBs and chlorinated hydrocarbon pesticide residues in water, fish and sediment from the Olifants River, Eastern Transvaal, South Africa. – Water SA, 20:187–194.
• Gröbner, J., Kolitsch, U., Poeverlein, R. & Strasser, M. (2009): Ein ungewöhnliches Fahlerzvorkommen bei der Flirscher Skihütte im Stanzer Tal, Tirol. – Lapis,(1):13–19; 58, 24 Abb., 1 Tab.
• Grochowalski, A., Lassen, C., Holtzer, M., Sadowski, M. & Hudyma, T. (2007): Determination of PCDDs, PCDFs, PCBs and HCB emissions from the metallurgical sector in Poland. – Environmental Science and Pollution Research - International, 14(5):326–332, doi:10.1065/espr2006.05.303.
• Gröger, E. (ca. 1886): Der Kreis Schweidnitz nach seinen physikalischen, statistischen und topographischen Verhältnissen. – 76 p., Schweidnitz (Heege).
• Grogono, Alan W. (1980): Averaging pH vs. H+ Values, an Irrelevant Debate. – Anesthesiology, 53(1):85–86, doi:10.1097/00000542-198007000-00029.
• Gröning, E., Brauckmann, C. & Amler, M. R. W. (1993): Die ersten Chordaten aus dem Jung-Präkambrium von Neufundland. – Geologica et Palaeontologica – Beilage Band, 1:1–11, 6 Abb.
• Gröschel, K. (1936): Exulanten in Franken. – Jb. fränk. Landesforsch., 2:80–87.
• Groß, A. & Knolle, F. (2011): Zur Hydrogeologie der Grube Einheit nach Flutung der Karst- und Bergbauhohlräume, Landkreis Harz, Sachsen-Anhalt. – Mitt. Verb. dt. Höhlen- u. Karstforscher, 57(3):78–86, 12 Abb.
• Gross, D., Hauger, W. & Wriggers, P. (2007): Hydromechanik. Technische Mechanik – Hydromechanik, Elemente der Höheren Mechanik, Numerische Methoden 4. – p. 1–68, Heidelberg (Springer).
• Grossmann, J. & Lange, F. (1999): Eine Sensitivitätsanalyse zur Berechnung der Grundwasserneubildung aus Niederschlag. – Grundwasser, 4(1):11–17, 2 Abb., 4 Tab.
• Großwig, S., Hurtig, E., Kasch, M. & Kühn, K. (1998): Die ortsaufgelöste faseroptische Temperaturmeßtechnik – Leistungsfähigkeit und Anwendungsmöglichkeiten im Umweltund Geobereich anhand ausgewählter Beispiele. – VDI Berichte:87–92, 9 Abb.
• Großwig, S., Hurtig, E. & Schollbach, G. (2003): Langzeitmonitoring von geotechnischen Bauwerken – Temperaturentwicklung in Tagebaukippen und Aschedepots: Schriftenreihe Geotechnik 10. – 381–392 p., 14 Abb.; Weimar (Proceedings 1. Symposium Umweltgeotechnik).
• Grotzinger, J. & Jordan, T. (2017): Press/Siever – Allgemeine Geologie, 7th edn. – 769 p., Berlin (Springer); doi:10.1007/978-3-662-48342-8.
• Groudev, S., Georgiev, P., Nicolova, M., Sapsova, I. & Diels, L. (2007): Water Treatment in a Uranium Deposit by Means of a permeable Multibarrier. – In: Cidu, R. & Frau, F. (eds): Water in Mining Environments. – p. 199–203, 7 Tab.; Cagliari (Mako Edizioni).
• Gruber, E. (2016): Vergleichende Untersuchung der onymischen Umfelder ausgewählter Tiroler Bergbauareale. – 597 p., Leopold-Franzens-Universität Innsbruck, 1 Abb., 27 Tab.; Innsbruck.
• Gruber-Tokić, E., Neuhauser, G. & Hanneberg, A. (2025): Digitale und textkritische Aufbereitung historischer Bergbauquellen – Das Verleihbuch der Rattenberger Bergrichter 1460 – 1463 (TLA, Hs. 37) und die Bergbeschau der Berggerichte Schwaz | Rottenburg | Rattenberg 1666, Tirol/Österreich (Salinenarchiv Bad Ischl, Nr. XX D-6). – 223 p., 29 Abb.; Neumarkt an der Etsch (Effekt! GmbH).
• Grumezescu, A. M. & Holban, A. M. (2019): The Science of Beverages: Bottled and Packaged Water 4. – 464 p., Cambridge (Woodhead); doi:10.1016/c2017-0-02378-9.
• Grundström, L. (1980): The Laukunkangas nickel-copper occurrence in southeastern Finland. – Bull. Geol. Surv. Finland, 52:23–53.
• Gruner, U. (2006): Bergstürze und Klima in den Alpen – gibt es Zusammenhänge? – Bull. angew. Geol., 11(2):25–34, 5 Abb., 1 Tab.
• Grünewald, U. (2001): Water resources management in river catchments influenced by lignite mining. – Ecol. Eng., 17(2-3):143–152, 7 Abb., 2 Tab.; doi:10.1016/S0925-8574(00)00154-3.
• Grünewald, U. & Schoenheinz, D. (2014): Bergbaubedingte Gewässerversauerung in der Niederlausitz – Ursachen, Ausmaß und Minderungskonzepte. – Hydrol. Wasserbewirtsch., 58(5):274–285, 7 Abb., 1 Tab.; doi:10.5675/HyWa_2014,5_2.
• Grunow, D., Liesenfeld, J. & Stachowiak, J. (2013): Empirische Befunde zur Energiewende und zu unterirdischen Pumpspeicherwerken – Ergebnisse einer repräsentativen Bevölkerungsbefragung im Ruhrgebiet 2013 im Rahmen des Projektes Entwicklung eines Realisierungskonzeptes für die Nutzung von Anlagen des Steinkohlebergbaus als unterirdische Pumpspeicherkraftwerke [Empirical findings on the energy transition and underground pumped storage power plants – Results of a representative population survey in the Ruhr area in 2013 as part of the project development of a concept for the use of hard coal mining facilities as underground pumped storage power plants]. Rhein-Ruhr-Institut für Sozialforschung und Politikberatung (RISP) e.V., Duisburg, 25.
• Grunthal, G. (2014): Induced seismicity related to geothermal projects versus natural tectonic earthquakes and other types of induced seismic events in Central Europe. – Geothermics, 52:22–35, doi:10.1016/j.geothermics.2013.09.009.
• Grüschow, A. (1991): Bericht über Laboruntersuchungen zur Senkung der Schwermetallgehalte und der Acidität in Sickerwässern der Grube Straßberg. – Unpubl. Report for Fluß- und Schwerspat Gmb, H. R. 5 p., 6 Anl.; Sondershausen (Kali Südharz AG).
• Grutsch, C. & Martinek, K.-P. (2012): Die Nordtiroler Kupfererzvorkommen westlich von Schwaz als Rohstoffpotential der Bronzezeit: Die Geschichte des Bergbaus in Tirol und seinen angrenzenden Gebieten. – 141–155 p., 1 Abb.; Innsbruck (Innsbruck University Press).
• Grycz, D., Kuchovský, T., íka, A. & Zeman, J. (2008): Regional Impact of Mining Activity to the Groundwater Regime: Example Case Study of the Rosice–Oslavany Coal Mine District, Czech Republic. – Proceedings, 10th International Mine Water Association Congress:143–146.
• Gstrein, P. (2003): Über bergbauliche Feuersetzungen im Raum Imst/Tirol. – Tiroler Heimatblätter, 78(2):47–57, 11 Abb.
• Gstrein, P. (2006): 3500 Jahre Schwazer Bergbau. – res montanarum, 39:84–90, 10 Abb.
• Gstrein, P. (2009): Der Tiroler Bergbau im 16. Jahrhundert: Christoff Weitmoser und seine Zeit aus technisch-bergmännischer, wirtschaftlicher, sozialer und kunstgeschichtlicher Sicht. – 117–136 p., 11 Abb.; Salzburg (Universität Salzburg).
• Gstrein, P. (2012): Die Fahlerze vom Wanneck und Tschirgant sowie das „Silber“ der dortigen Region Gurgltal in Tirol. Paper presented at the 15. Internationaler Montanhistorik- und Bergbau-Workshop, Bad Bleiberg. – p. 35–41, 8 Abb.
• Gstrein, P. & Heißel, G. (1983): Tätigkeitsbericht zum Projekt Blei-Zink-Lagerstätten in den Nordtiroler Kalkalpen Juni 1981-Juni 1982. – 138 p., 2 Beil.; Bad Gleichenberg (Bleiberger Bergwerksunion).
• Gstrein, P. & Heißel, G. (1984): Endbericht Projekt Blei-Zink-Lagerstätten in den Nordtiroler Kalkalpen 1979 – 1982. – 52 p., 11 Bl., 6 Tab., 1 Beil.; Bad Bleiberg (Bleiberger Bergwerksunion).
• Gstrein, P. & Heißel, G. (1989): Zur Geschichte und Geologie des Bergbaues am Südabhang der Innsbrucker Nordkette. – Veröff. Tiroler Landes-Mus. Ferdinandeum, 69:5–58, 22 Abb., 3 Fotos.
• Gu, H., Ma, F., Guo, J., Li, K. & Lu, R. (2018): Assessment of Water Sources and Mixing of Groundwater in a Coastal Mine: The Sanshandao Gold Mine, China. – Mine Water Environ., 37(2):351–365, doi:10.1007/s10230-017-0458-0.
• Gu, H., Ma, F., Guo, J., Zhao, H., Lu, R. & Liu, G. (2018): A Spatial Mixing Model to Assess Groundwater Dynamics Affected by Mining in a Coastal Fractured Aquifer, China. – Mine Water Environ., 37(2):405–420, doi:10.1007/s10230-017-0505-x.
• Gu, H., Ni, H., Wang, Y., Liu, Y., Li, D. & Zhang, Z. (2020): Hydrogeochemical Characteristics and Impact of Arsenic Released from a Gold Deposit in Tibet. – Mine Water Environ., 39(4):746–757, doi:10.1007/s10230-020-00732-4.
• Guan, Y. & Hu, D. (2014): Height of Fractured Zone for Fully Mechanized Mining. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 474–483, Xuzhou (International Mine Water Association).
• Guasch, H., Artigas, J., Bonet, B., Bonnineau, C., Canals, O., Corcoll, N., Foulquier, A., López-Doval, J., Kim-Tiam, S., Morin, S., Navarro, E., Pesce, S., Proia, L., Salvadó, H. & Serra, A. (2016): The Use of Biofilms to Assess the Effects of Chemicals on Freshwater Ecosystems. – In: Romaní, A. M., Guasch, H. & Balaguer, M. D. (eds): Aquatic Biofilms – Ecology, Water Quality and Wastewater Treatment. – p. 125–144, 4 Abb., 1 Tab.; Norfolk (Caister Academic Press); doi:10.21775/9781910190173.07.
• Guayjarernpanishk, W. & Sampanpanish, P. (2023): Effects of Sodium Phytate on the Phytotoxicity and Arsenic (V) Absorption Performances of Water Hyacinth Grown in the Synthetic Wastewater as Acid Mine Drainage from Gold Mining. – EnvironmentAsia, 16(1):87–98, 5 Abb.; doi:10.14456/ea.2023.8.
• Guberek, M. P., Kemper, S. W. & Heusch, G. (1993): Colored microspheres for measuring and tracing fluid mixing and flow. United States Patent.
• Gude, S. M. & Das, S. N. (2008): Adsorption of chromium(VI) from aqueous solutions by chemically treated water hyacinth Eichhornia crassipes. – Indian Journal of Chemical Technology, 15(1):12–18.
• Guedes de Carvalho, R. A., Gonzáles Beça, C. G., Martins Sampaio, M. N., Neves, O. & Sol Pereira, M. C. (1986): A Study of the Drainage of the Pyrite Mines of Aljustrel (Portugal). – Int. J. Mine Water, 5(2):43–55, 5 Abb., 2 Tab.
• Guérin, H. (1941): Sur les arséniates alcalino-terreux. – Annales de chimie, 11(16):101–153, 7 Tab., 8 Abb., 1 Taf.
• Guérin, H. (1978): Sur quelques synthèses relatives aux arséniates. – Atti della Accademia delle Scienze di Torino, 112:169–178, 3 Tab.
• Guérin, H., Mattrat, P., Brasse, R. & Pierrot, R. (1967): Sur les arséniates de calcium et de magnésium naturels. – Bulletin de la Société Chimique de France, 8:2719–2723, 4 Tab.
• Guerra, E., Mahadevan, P. & Chefai, S. (2012): Design and Commissioning of a Laboratory Scale Electrocoagulation Reactor: Electrometallurgy 2012. – 247–252 p., 3 Abb.; Hoboken (Wiley & Sons); doi:10.1002/9781118371350.ch25.
• Guerra, H., Albijanic, B., Dyer, L. & Tadesse, B. (2024): The Performance of Nanofiltration and Electrodialysis on Groundwater Treatment for Mineral Processing. – Mine Water Environ., 43(4):633–643, doi:10.1007/s10230-024-01019-8.
• Guerrero, H. (2018): Excel Data Analysis – Modeling and Simulation, 2nd edn. – 346 p., New York (Springer); doi:10.1007/978-3-030-01279-3.
• Guerrette, J. P., Oja, S. M. & Zhang, B. (2012): Coupled Electrochemical Reactions at Bipolar Microelectrodes and Nanoelectrodes. – Anal. Chem., 84:1609–1616, 6 Abb.; doi:10.1021/ac2028672.
• Guest, J. S., Skerlos, S. J., Barnard, J. L., Beck, M. B., Daigger, G. T., Hilger, H., Jackson, S. J., Karvazy, K., Kelly, L., Macpherson, L., Mihelcic, J. R., Pramanik, A., Raskin, L., Van Loosdrecht, M. C. M., Yeh, D. & Love, N. G. (2009): A New Planning and Design Paradigm to Achieve Sustainable Resource Recovery from Wastewater. – Environ. Sci. Technol., 43(16):6126–6130, 1 Abb.; doi:10.1021/es9010515.
• Guézennec, A. G., Touzé, S., Battaglia-Brunet, F. & Morin, D. (2009): Biological Treatment of Mining Water Containing Arsenic: from Laboratory to Pilot Scale. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 588–593, 6 Abb; Pretoria (Document Transformation Technologies).
• Gui, H. & Chen, S. (2014): Hydro-chemical Characters and Ions Source of Groundwater from Qidong Coal Mine, Northern Anhui Province, China. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 166–170, Xuzhou (International Mine Water Association).
• Gui, H., Lin, M. & Song, X. (2018): Identification and Application of Roof Bed Separation (Water) in Coal Mines. – Mine Water Environ., 37(2):376–384, doi:10.1007/s10230-018-0518-0.
• Guijarro Franco, A. (1999): Aznalcóllar Tailings Dam Accident. Purification of Waters retained in Entremuros (Guadiamar River, Spain). – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 261–264, 6 Abb., 2 Tab.; Sevilla (International Mine Water Association).
• Guilbault, G. G. (1990): Practical Fluorescencence: Modern Mongraphs in Analytical Chemistry 3, 2nd edn. – New York (Dekker).
• Guimarães, D. & Leao, V. A. (2011): Studies of sulfate ions removal by the polyacrylic anion exchange resin Amberlite IRA458: batch and fixed-bed column studies: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 337–342 p., Aachen (RWTH Aachen University).
• Guimaraes, J. R. D., Malm, O. & Pfeiffer, W. C. (1995): A simplified radiochemical technique for measurements of net mercury methylation rates in aquatic systems near goldmining areas, Amazon, Brazil. – Sci. Total Environ., 175(2):151–162, Refs: 25; illus. incl. 3 tables, sketch map.
• Guimaraes, J. R. D., Meili, M., Malm, O. & Brito, E. M. D. (1998): Hg Methylation in Sediments and Floating Meadows of a Tropical Lake in the Pantanal Floodplain, Brazil. – Sci. Total Environ., 213(1-3):165–175.
• Gül, A., Kangal, O., Sirkeci, A. A. & Önal, G. (2012): Beneficiation of the gold bearing ore by gravity and flotation. – International Journal of Minerals, Metallurgy, and Materials, 19(2):106–110, doi:10.1007/s12613-012-0523-4.
• Guld, I., Robey, K., Blackmore, S. & Chong, A. (2024): Flow and load accretion study improved understanding of hyporheic exchange plus contaminant plume sources and transport at an operating mine. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 243–248; Morgantown (International Mine Water Association).
• Güler, C. & Alpaslan, M. (2009): Mineral content of 70 bottled water brands sold on the Turkish market: Assessment of their compliance with current regulations. – J. Food Compos. Anal., 22(7):728–737, doi:10.1016/j.jfca.2009.03.004.
• Gümbel, C. W. (1856): Beiträge zur geognostischen Kenntniss von Vorarlberg und dem nordwestlichen Tirol. – Jb. k.-k. geol. R.-A., 7:1–39, 17 Abb.
• Gümbel, C. W. (1861): Geognostische Beschreibung des bayrischen Alpengebirges und seines Vorlandes. – 950 p., 25 Abb., 42 Taf., 6 Beil.; Gotha (Perthes).
• Gümbel, C. W. (1888): Nachträge zur Geognostischen Beschreibungen des bayerischen Alpengebirges und seines Vorlandes – Das Vorkommen von Nummulitenschichten bei Ober-Kammerloh (Cementfabrik Marienstein). – Geogn. Jh., 1:172–178.
• Gumbo, J. R. (2010): Evaluating the suitability of Paspalum as a candidate for Rehabilitation of Mine Tailings dams: A Case study of New Union Gold Mine. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 583–587, Sydney, NS (Cape Breton University Press).
• Gunarathne, N., Samudrage, D., Wijesinghe, D. N. & Lee, K. H. (2016): Fostering social sustainability management through safety controls and accounting A stakeholder approach in the mining sector. – Account. Res. J., 29(2):179–197, doi:10.1108/arj-04-2015-0062.
• Gunson, A. J., Klein, B., Veiga, M. & Dunbar, S. (2012): Reducing mine water requirements. – J. Clean. Prod., 21(1):71–82, 5 Abb., 8 Tab.; doi:10.1016/j.jclepro.2011.08.020.
• Günther, F., Mischo, H., Lösch, R., Grehl, S. & Güth, F. (2019): Increased safety in deep mining with IoT and autonomous robots. – In: Mueller, C., et al. (eds): Mining Goes Digital. – p. 603–611, 4 Abb., 1 Tab.; London (CRC Press); doi:10.1201/9780429320774-70.
• Günther, J., Ussath, M., Hoth, N. & Drebenstedt, C. (2016): Specific Retention of Copper and Strategic Elements from Chilean Mine Water with Zeolites and Peat-Based Sorption Media. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1370–1375, Freiberg (TU Bergakademie Freiberg).
• Günther, J., Ussath, M., Hoth, N. & Drebenstedt, C. (2017): Ion Exchange by Zeolites and Peat-Based Sorption Media of Chilean Mine Water and their Potential for Secondary Mining. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 900–906, Lappeenranta (Lappeenranta University of Technology).
• Günther, P., Maree, J. P., Strobos, G. & Mtimikulu, J. S. (2003): Neutralisation of acid leachate in a coal processing plant with calcium carbonate. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 367–382, 10 Abb., 5 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Gunther, P. & Mey, W. S. (2008): Selection of Mine Water Treatment Technologies for the Emalahleni (Witbank) Water Reclamation Project. – 1–14 p., 10 Abb., 5 Tab.; Sun City (WISA Biennal Conference).
• Günther, W. (1994): Entwicklung des Berg- und Hüttenwesens und ihre wirtschaftliche und kulturelle Bedeutung: Mineral & Erz in den Hohen Tauern – eine Ausstellung des Naturhistorischen Museums Wien. – 113–125 p., 24 Abb.; Wien (Naturhistorisches Museum Wien).
• Günther, W. (2010): Geologie — Mineralogie — Montanwirtschaft: Die ehemaligen Blei- und Zinkerzbergbaue in der Nachbarschaft des Landes Salzburgs. – Mitt. Ges. Salzbg. Landeskd., 150:261–300, 19 Abb.
• Guo, B., Cheng, T., Wang, L., Luo, T. & Yang, X. (2018): Physical Simulation of Water Inrush through the Mine Floor from a Confined Aquifer. – Mine Water Environ., 37(3):577–585, doi:10.1007/s10230-017-0488-7.
• Guo, C., Gao, J., Wang, S., Gou, J., Zhang, C., Li, X. & Lu, L. (2022): Groundwater Geochemical Variation and Controls in Coal Seams and Overlying Strata in the Shennan Mining Area, Shaanxi, China. – Mine Water Environ., 41(3):614–628, doi:10.1007/s10230-022-00867-6.
• Guo, H., Ji, M., Chen, K., Zhang, Z., Zhang, Y. & Zhang, M. (2018): The Feasibility of Mining Under a Water Body Based on a Fuzzy Neural Network. – Mine Water Environ., 37(4):703–712, doi:10.1007/s10230-018-0521-5.
• Guo, J., Blankenburg, R. & Graeber, P.-W. (2015): Simulation of Hydrological Processes in the Dump Slope of a Mining Pit for Landslide Forecasting. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Guo, J. S., Ma, L. Q. & Zhang, D. S. (2019): Management and Utilization of High-Pressure Floor-Confined Water in Deep Coal Mines. – Mine Water Environ., 38(4):780–797, doi:10.1007/s10230-019-00639-9.
• Guo, J.-Y., Wang, M.-Z., Wang, M.-S., Sun, T., Wei, F.-H., Yu, X.-T., Wang, C., Xu, Y.-Y. & Wang, L. (2020): The Undervalued Effects of Polychlorinated Biphenyl Exposure on Breast Cancer. – Clinical Breast Cancer, 20(1):12–18, doi:10.1016/j.clbc.2019.07.005.
• Guo, Q., Kirk Nordstrom, D. & Blaine McCleskey, R. (2014): Towards understanding the puzzling lack of acid geothermal springs in Tibet (China): Insight from a comparison with Yellowstone (USA) and some active volcanic hydrothermal systems. – J. Volcanol. Geotherm. Res., 288:94–104, 8 Abb., 2 Tab.; doi:10.1016/j.jvolgeores.2014.10.005.
• Guo, Y. L., Yu, M.-L., Hsu, C.-C. & Rogan, W. J. (1999): Chloracne, goiter, arthritis, and anemia after polychlorinated biphenyl poisoning: 14-year follow-Up of the Taiwan Yucheng cohort. – Environ. Health Perspect., 107(9):715–719, doi:10.1289/ehp.99107715.
• Guoming, W., Chunlai, Y. & Yinxiang, W. (1988): Grouting Technology for Control of Ordovician Limestone Water. – Proceedings, 3rd International Mine Water Congress, Melbourne:615–624, 5 Abb., 1 Tab.
• Guppy, L., Uyttendaele, P., Villholth, K. G. & Smakhtin, V. (2018): Groundwater and Sustainable Development Goals – Analysis of Interlinkages: UNU-INWEH Report Series 4. – 23 p., Hamilton.
• Gupta, P. K. & Singh, T. N. (1994): Water Resource Characterization of Underground Coal Working – A Case Study for Part of Jharia Coal Field. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:97–104, 2 Abb., 2 Tab.
• Gupta, P. K. & Singh, T. N. (1998): The Role of Mining Hydrological Investigation with Emphasis on geophysical Approach to ascertain Coal Barrier Thickness in Part of Raniganj Coalfield – India: Mine Water and Environmental Impacts 1. – 183–193 p., 4 Abb.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Gupta, R. N., Mukherjee, K. P. & Singh, B. (1987): Design of Underground Artificial Dams for Mine Water Storag. – Int. J. Mine Water, 6(2):1–14, 4 Abb.
• Guruge, K. S. & Tanabe, S. (1997): Congener specific accumulation and toxic assessment of polychlorinated biphenyls in common cormorants, Phalacrocorax carbo, from Lake Biwa, Japan. – Environmental Pollution, 96(3):425–433, doi:10.1016/S0269-7491(97)00045-6.
• Gusain, R., Kumar, N., Fosso-Kankeu, E. & Ray, S. S. (2019): Efficient Removal of Pb(II) and Cd(II) from Industrial Mine Water by a Hierarchical MoS2/SH-MWCNT Nanocomposite. – ACS Omega, 4(9):13922–13935, doi:10.1021/acsomega.9b01603.
• Gusek, J. (2015): Mitigating Acid Rock Drainage with Land-Applied Biochemical Reactor Effluent. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Gusek, J. & Plocus, V. (2015): Case Study – 19 Years of Acid Rock Drainage Mitigation after a Bactericide Application. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Gusek, J. J. (1998): Three Case Histories of passive Treatment of Metal Mine Drainage. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 19:elektronisches Dokument, 2 Abb.
• Gusek, J. J. (2002): Sulfate-Reducing Bioreactor Design and Operating Issues – Is this the Passive Treatment Technology for your Mine Drainage? – 1–14 [CD–ROM] p., 4 Abb.; Park City (Proceedings Annual Conference – National Association of Abandoned Mine Land Programs).
• Gusek, J. J. (2009): A Periodic Table of Passive Treatment for Mining Influenced Water. Paper presented at the Revitalizing the Environment: Proven Solutions and Innovative Approaches, Billings. – 3 Abb., 3 Tab.; Lexington (ASMR).
• Gusek, J. J. (2013): A Periodic Table of Passive Treatment for Mining Influenced Water – Revisited. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 575–580, 1 Abb., 1 Tab.; Golden (International Mine Water Association).
• Gusek, J. J., Buchanan Jr, R. J. & Sorells, D. (2013): Infiltration-Diverting Cap and Full-Scale Biochemical Reactor Operation at the Iron King/Copper Chief Mine, Arizona. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 581–586, 5 Abb., 1 Tab.; Golden (International Mine Water Association).
• Gusek, J. J. & Figueroa, L. A. (2009): Mitigation of Metal Mining Influenced Water: Management Technologies for Metal Mining Influenced Water 2. – 304 p., 53 Abb., 30 Tab.; Littleton (SME).
• Gusek, J. J. & Waples, J. S. (2009): A Periodic Table of Passive Treatment for Mining-Influenced Water. Paper presented at the Proceedings Securing the Future 2009 & 8th ICARD, Skellefteå. – p. 1–10 [electronic document], 2 Abb., 3 Tab.
• Gusek, J. J. & Wildeman, T. R. (2002): Passive Treatment of Aluminum-Bearing Acid Rock Drainage. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 23:1–9 [CD–ROM], 3 Abb., 1 Tab.
• Guseva, O., Opitz, A. K. B., Broadhurst, J. L., Harrison, S. T. L., Bradshaw, D. J. & Becker, M. (2018): Fe-Sulfide Liberation and Association as a Proxy for the Interpretation of Acid Rock Drainage (ARD) Test Results. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 345–350; (Tshwane University of Technology).
• Gustafson, H. & Behrman, A. S. (1939): Determination of Total Dissolved solids in Water by Electrical Conductivity. – Ind. Eng. Chem. Anal., 11(7):355–357, doi:10.1021/ac50135a001.
• Guthe, H. (1867): Die Lande Braunschweig und Hannover – mit Rücksicht auf die Nachbargebiete. – 661 p., 1 Anh.; Hannover (Klindworth).
• Gutierrez, J. R. & Moreno, B. E. (1978): Un modelo estocastico para el estudio de la densidad de drenaje de la cuenca superior del rio Darro (Granada) [A stochastic model for the study of the drainage density in the upper basin of the Darro River, Granada]. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 751–773; Maracena (Asociación Nacional de lngenieros de Minas).
• Gutierrez, M. & Brown, M. (2023): Use of Groundwater Numerical Model to Support Decision Making at Large Open Pit. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 178–184; (International Mine Water Association).
• Gutierrez, M. & Tapias, L. (2025): Multi-variable Analysis for Fault Identification and Hydraulic Characterization. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 880–885; Braga (International Mine Water Association).
• Gutierrez, M. & Tapias, L. (2025): Using Geophysics Methods to Analyze Evolution of Infiltration from a Tailing Storage Facility. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 874–879; Braga (International Mine Water Association).
• Gutierrez, M., Tapias, L. & Delgado, J. L. (2025): Five Years of Hydrogeological Consulting for a Mining Company: Lessons Learned for Successful Work. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 868–873; Braga (International Mine Water Association).
• Gutiérrez-Hernández, R. F., Bello-Mendoza, R., Peralta-Hernández, J. M., Ramírez-Hernández, A., Malo, E. A. & Nájera-Aguilar, H. A. (2019): Photo-assisted electrochemical degradation of polychlorinated biphenyls with boron-doped diamond electrodes. – Environ. Technol., 40(1):1–10, doi:10.1080/09593330.2017.1375999.
• Gutowski, L., Olsson, O., Lange, J. & Kümmerer, K. (2015): Photolytic transformation products and biological stability of the hydrological tracer Uranine. – Sci. Total Environ., 533:446–453, doi:10.1016/j.scitotenv.2015.07.002.
• Gutzmer, J. (1996): Genesis and alteration of the Kalahari and Postmasburg manganese deposits, Griqualand West, South Africa. – 266 p., PhD, Rand Afrikaans University Johannesburg; Johannesburg.
• Guzmán-Martínez, F., García-Martínez, M. J., Ortega, M. F., Jiménez-Oyola, S., Arranz-González, J. C. & Rodríguez-Gómez, V. (2022): Comparative Assessment of Leaching Tests According to Lixiviation and Geochemical Behavior of Potentially Toxic Elements from Abandoned Mining Wastes. – Mine Water Environ., 41(1):265–279, doi:10.1007/s10230-021-00800-3.
• Gwenzi, W. & Chaukura, N. (2018): Organic contaminants in African aquatic systems: Current knowledge, health risks, and future research directions. – Sci. Total Environ., 619-620:1493–1514, doi:10.1016/j.scitotenv.2017.11.121.
• Gwenzi, W., Mushaike, C. C., Chaukura, N. & Bunhu, T. (2017): Removal of Trace Metals from Acid Mine Drainage Using a Sequential Combination of Coal Ash-Based Adsorbents and Phytoremediation by Bunchgrass (Vetiver [Vetiveria zizanioides L]). – Mine Water Environ., 36(4):520–531, doi:10.1007/s10230-017-0439-3.
• Gwinn, W. R. (1984): Chute Entrances For HS, H, and HL Flumes. – J. Hydraul. Eng., 110(5):587–603, 13 Abb., 4 Tab.; doi:10.1061/(ASCE)0733-9429(1984)110:5(587).
• Gyürki, B., Madai, L. & Molnár, I. (1982): Construction Experiences of Dewatering Equipment in the Thorez Mine. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:443–450, 1 Tab.
• Gzyl, G. & Banks, D. (2007): Verification of the “first flush” phenomenon in mine water from coal mines in the Upper Silesian Coal Basin, Poland. – J. Contam. Hydrol., 92(1-2):66–86, 6 Abb., 8 Tab.; doi:10.1016/j.jconhyd.2006.12.001.
• Gzyl, G., Banks, D., Younger, P. L., Głodniok, M., Burnside, N., Garzon, B. & Skalny, A. (2016): Low Carbon After-Life – overview and first results of project LoCAL. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 593–599, Freiberg (TU Bergakademie Freiberg).
• Gzyl, G. & Frolik, A. (2005): Modelling boundary pillar filtration in systems of pumped abandoned mines: Mine Water 2005 – Mine Closure. – 435–438 p., 2 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Gzyl, G., Janson, E. & Łabaj, P. (2017): Mine Water Discharges in Upper Silesian Coal Basin (Poland). – In: Bech, J., Bini, C. & Pashkevich, M. A. (eds): Assessment, Restoration and Reclamation of Mining Influenced Soils. – p. 463–486, (Academic Press); doi:10.1016/B978-0-12-809588-1.00017-7.
• Gӧrӧcs, Z., Tamamitsu, M., Bianco, V., Wolf, P., Roy, S., Shindo, K., Yanny, K., Wu, Y., Koydemir, H. C., Rivenson, Y. & Ozcan, A. (2018): A deep learning-enabled portable imaging flow cytometer for cost-effective, high-throughput, and label-free analysis of natural water samples. – Light Sci. Appl., 7:66, doi:10.1038/s41377-018-0067-0.
• Haack, W. (1925): Die Gänge und das Ganggebiet der Grube Stahlberg bei Müsen. – Glückauf, 61(24):725–737, 8 Abb.
• Haakonde, T., Yabe, J., Choongo, K., Chongwe, G. & Islam, M. S. (2020): Preliminary Assessment of Uranium Contamination in Drinking Water Sources Near a Uranium Mine in the Siavonga District, Zambia, and Associated Health Risks. – Mine Water Environ., 39(4):735–745, doi:10.1007/s10230-020-00731-5.
• Haanela, A. (2013): Potential Benefits of Metal Recovery from Underground Water Using Biomineralization of Schwertmannite in Pyhäsalmi Mine. – 81 p., University of Oulu, 29 Abb., 16 Tab., 4 Anh.; Oulu.
• Haanpää, K.-M., Picken, P., Lauri, H., Wichmann, A. & Isaksson, L. L. (2022): Nordic Experiences in Climate Change Analysis in Modelling Mining Area Environmental Impacts. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 133–138; (International Mine Water Association).
• Haanpää, K.-M., Van Blerk, J. J., Vivier, J. J. P., Howell, E. K. & Avila, R. (2021): Integrated Dynamic Mine Water Balance Modelling with EcoBalance Model Libraries. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 168–173; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Haapala, I. & Papunen, H. (2015): A History of Exploration for and Discovery of Finland’s Ore Deposits. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 1–38, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00001-7.
• Haapala, I. & Rämö, O. T. (2015): Chapter 8 – Mineral Deposits Related to Granitic Rocks. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 531–556, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00021-2.
• Haarstad, K., Bavor, H. J. & Mæhlum, T. (2012): Organic and metallic pollutants in water treatment and natural wetlands – A review. – Water Sci. Technol., 65(1):76–99, 1 Abb., 6 Tab.; doi:10.2166/wst.2011.831.
• Haas, J. L., Jr. (1959): Evaluation of Ground Water Tracing Methods Used in Speleology. – Natl. Speleol. Soc. Bull., 21(2):67–76, 4 Abb., 2 Tab.
• Haase, M. & Fritz, M. (2004): Geographische Informationsverarbeitung ohne GIS – geht das? – Wiss. Mitt. Inst. Geol., 25:25–26.
• Habashi, F. (1998): The first schools of mines and their role in developing the mineral and metal industries – Part 3. – Bull. Can. Inst. Min. & Met., 91(1017):96–106, 16 Abb., 2 Tab.
• Habashi, F. (1999): The first schools of mines and their role in developing the mineral and metal industries – Part 4 Addendum. – Bull. Can. Inst. Min. & Met., 92(1032):76–78, 4 Abb.
• Habbe, K.-A. (1996): Über glaziale Erosion und Übertiefung. – E&G Quat. Sci. J., 46(1):99–119, 21 Abb.
• Haber, F. (1927): Das Gold im Meerwasser. – Angew. Chem., 40(11):303–314, 9 Tab.; doi:10.1002/ange.19270401103.
• Hachenberg, K. (1990): Der Werkstoff Messing im mitteleuropäischen Instrumentenbau vom 16. bis Ende des 18. Jahrhunderts. – Instrumentenbau-Zeitschrift, 44(9):17–24, 3 Abb., 1 Tab.
• Hachenberg, K. & Ullwer, H. (2005): Marcus Fulda (1689–1734) – Hessischer Hütten- und Hammerinspektor und kaiserlicher Berghauptmann. – Zeitschrift des Vereins für hessische Geschichte, 110:159–191, 7 Abb.
• Hacker, P., Zojer, H. & Zötl, J. G. (1983): Ergebnisse eines kombinierten Markierungsversuches im Basaltgebiet von Kibwezi (Kenya) [Results of a combined tracer test in the Kibwezi (Kenya) basalt region]. – Steir. Beitr. Hydrogeol., 34/35:107–125, 8 Abb., 2 Tab.
• Hacquebard, P. A. (1983): Geological Development and Economic Evaluation of the Sydney Coal Basin, Nova Scotia. – Current Research A, Geological Survey of Canada, 83-1A:71–81, 11 Abb., 1 Tab.
• Hacquebard, P. A. (1993): The Sydney coalfield of Nova Scotia, Canada. – Int. J. Coal Geol., 23(1-4):29–42, 9 Abb.; doi:10.1016/0166-5162(93)90042-9.
• Hacquebard, P. A. (1998): Petrographic, Physico-Chemical, and Coal Facies Studies of Ten Major Seams of the Sydney Coalfield of Nova Scotia. – Bulletin, Geological Survey of Canada, 520:46, 8 Abb., 4 Anh.
• Hacquebard, P. A. (2002): Potential coalbed methane resources in Atlantic Canada. – Int. J. Coal Geol., 52(1):3–28, 17 Abb., 4 Tab.; doi:10.1016/S0166-5162(02)00099-X.
• Hacquebard, P. A., Cameron, A. R. & Donaldson, J. R. (1965): A Depositional Study of the Harbour Seam, Sydney Coalfield, Nova Scotia. – Paper, Geological Survey of Canada, 65-15:31, 7 Abb.
• Haddaway, N. R., Cooke, S. J., Lesser, P., Macura, B., Nilsson, A. E., Taylor, J. J. & Raito, K. (2019): Evidence of the impacts of metal mining and the effectiveness of mining mitigation measures on social–ecological systems in Arctic and boreal regions: a systematic map protocol. – Environmental Evidence, 8(1):9, doi:10.1186/s13750-019-0152-8.
• Hadermann, J. & Heer, W. (1996): The Grimsel (Switzerland) Migration Experiment: Integrating Field Experiments, Laboratory Investigations and Modelling. – J. Contam. Hydrol., 21(1-4):87–100.
• Hadiani, M. R., Dezfooli-Manesh, S., Shoeibi, S., Ziarati, P. & Khaneghah, A. M. (2015): Trace elements and heavy metals in mineral and bottled drinking waters on the Iranian market. – Food Additives & Contaminants Part B-Surveillance, 8(1):18–24, doi:10.1080/19393210.2014.947526.
• Haditsch, J.-G. (1995): Bemerkungen zur Metallogenetischen Karte Tirols. – Geol. Paläont. Min. Innsbruck, 20:447–465, 12 Abb., 1 Kart. .
• Haditsch, J.-G. & Krainer, K. (1991): Jungalpidische Erzmineralisationen in der Phyllitgneiszone des Arlberggebietes (Tirol/Vorarlberg). – Mitt. Österr. Geol. Ges., 84:239–264, 5 Abb., 2 Tab., 4 Taf.
• Haditsch, J.-G., Leichtfried, W. & Mostler, H. (1978): Intraskythische, exogen (mechanisch)-sedimentäre Cu-Vererzung im Montafon (Vorarlberg). – Geol. Paläont. Mitt. Innsbruck, 8:183–208, 3 Abb., 1 Tab., 1 Taf.
• Haditsch, J.-G. & Mostler, H. (1969): Beiträge zur Kenntnis ostalpiner Kupferlagerstätten, I. Die Fahlerzlagerstätte auf der Gratlspitze (Thierberg bei Brixlegg). – Arch. f. Lagerst.forsch. in den Ostalpen, 9:169–194, 4 Taf.
• Haditsch, J.-G. & Mostler, H. (1986): Jungalpidische Kupfervererzungen im Montafon (Vorarlberg). – Geol. Paläont. Mitt. Innsbruck, 13(12):277–296, 5 Abb., 4 Taf.
• Haeckel, E. (1862): Die Radiolarien (Rhizopoda radiaria) – eine Monographie mit einem Atlas von fünf und dreissig Kupfertafeln: 1-4. – Berlin (Reimer).
• Haefs, G. (1997): Troja – Roman. – 588 p., München (Heyne).
• Haf, H. (1921): Das Eisenerzlager von Langenbach bei Bad Steben. – Geogn. Jh., 34:133–142, 2 Abb.
• Haferburg, G., Krichler, T. & Hedrich, S. (2021): Prokaryotic communities in the historic silver mine Reiche Zeche. – Extremophiles, 26(1):2, doi:10.1007/s00792-021-01249-6.
• Hagedorn, D. & Hoth, N. (2017): Tracing Mine Water Inflows To Derive Dewatering Measures – Recent Results and a Trial to Adapt the Approach for Underground Mines. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 335–341, Lappeenranta (Lappeenranta University of Technology).
• Hagedorn, D., Hoth, N. & Mwagalanyi, H. (2016): Dewatering challenges in an large scale production hard rock open pit in northern Sweden. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 503–507, Freiberg (TU Bergakademie Freiberg).
• Hageman, P. L., Seal, R. R., Diehl, S. F., Piatak, N. M. & Lowers, H. A. (2015): Evaluation of selected static methods used to estimate element mobility, acid-generating and acid-neutralizing potentials associated with geologically diverse mining wastes. – Appl. Geochem., 57:125–139, doi:10.1016/j.apgeochem.2014.12.007.
• Hagen, C. (1982): A Contribution to the Influence excercised by the Superior Mining Authority on the Scientific Preparation of Open-cut Drainage. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:451–457.
• Hagen, M. & Jakubick, A. T. (2005): Returning the WISMUT Legacy to Productive Use. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 11–26, Heidelberg (Springer).
• Hagen, M. & Lange, G. (1995): Der Flutungsprozess ehemaliger Uranerzgruben in Ostdeutschland als Sanierungsschwerpunkt der Wismut GmbH. – Erzmetall, 48(11):790–804, 8 Abb.
• Hager, S. & Wollnik, F. (2017): The End of the German Coal Mining Industry and RAG’s Transition to the Post-Mining Era. – Mining Rep., 153(3):226–234, 11 Abb.
• Hague, I. & Germishuys, L. (2003): Practical aspects of watersealing at Konkola copper mine, Zambia. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 301–310, 8 Abb., 2 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Hahmann, H.-G. (1987): Zur Geschichte des Braunkohlenbergbaus um Bad Muskau und Weißwasser. – Abh. Ber. Naturkundemus. Görlitz, 60(2):45.
• Hahn, F., Ignacy, R., Bussmann, G., Jagert, F., Bracke, R. & Seidel, T. (2018): Reutilization Of Mine Water As A Heat Storage Medium In Abandoned Mines. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1057–1062; (Tshwane University of Technology).
• Hahn, F., Klein, S., Mannke, K., Verhoeven, R., Güldenhaupt, J., Seidel, T. & König, T. (2024): Mine thermal energy storage (MTES) systems in abandoned collieries within the Ruhr area. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 249–250; Morgantown (International Mine Water Association).
• Hahn, F., Klein, S., Verhoeven, R., Mannke, K. & Braun, M. (2025): Feasibility study: Geothermal local heating with mine water for the foreseen development area Richtericher-Dell in Aachen, Germany. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 495–501; Braga (International Mine Water Association).
• Hahn, H. J. (2007): Erdwärme und Kühlwasser – alles Gute kommt von unten?: Grundwasser – Guter Zustand bis 2015. – 30–31 p., Berlin (Bund für Umwelt und Naturschutz Deutschland e.V. (BUND)).
• Hähne, R. (2005): Wärmenutzung Grubenwasser Schlema. – Nn.
• Hähne, R., Paul, M., Schöpe, M. & Gengnagel, M. (2000): Abhängigkeit des Verlaufs der Grubenflutung des Ronneburger Uranerzbergbaureviers von der Beschaffenheit des Flutungsraumes und von den Neubildungsbedingungen. Paper presented at the Proceedings Wismut 2000 – Bergbausanierung Internationale Konferenz, Schlema. – p. 12, 7 Abb., 3 Tab.; (Eigenverlag Wismut GmbH).
• Hähne, R., Stoll, R., Kabus, F. & Pelz, F. (2002): Chances and risks of the geothermal use of mine water in Schlema/Saxony. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 957–960, 1 Abb.; Heidelberg (Springer).
• Hähnel, L. (2016): Restoration, governance and local development in the south of Leipzig. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 740–744, Freiberg (TU Bergakademie Freiberg).
• Hai, Z., Kolli, N. E., Uribe, D. B., Beaunier, P., José-Yacaman, M., Vigneron, J., Etcheberry, A., Sorgues, S., Colbeau-Justin, C., Chena, J. & Remita, H. (2013): Modification of TiO2 by bimetallic Au-Cu nanoparticles for wastewater treatment. – J. Mater. Chem. A, 1(36):10829–10835, doi:10.1039/c3ta11684k.
• Haider, M. (2016): Seilbahngondeln statt Förderkörbe – Zur Kulturanalyse des Protests gegen den Bergbau in der Tourismusregion Kitzbühel (1970). – Innsbrucker Schriften zur Europäischen Ethnologie und Kulturanalyse, 3:337.
• Hailer, F. (1852): Die fossilen Kohlen zwischen der Mangfall und dem Inn. – Kunst- und Gewerbeblatt, 38:140–148.
• Hajnal, I. (2003): Troia aus sprachwissenschaftlicher Sicht – Die Struktur einer Argumentation. – Innsbrucker Beitr. Sprachwiss., 109:117, 1 Kart.
• Hakanson, L. (2003): Consequences and correctives related to lake acidification, liming and mercury in fish – A case-study for Lake Huljesjon, Sweden, using the LakeWeb-model. – Environmental Modeling & Assessment, 8(4):275–283.
• Hakkinen, J. P., Miller, M. W., Smith, A. H. & Knight, D. R. (1995): Measurement of organ blood flow with coloured microspheres in the rat. – Cardiovascular Research, 29:74–79, 4 Abb., 3 Tab.
• Hakkou, R., Benzaazoua, M. & Bussière, B. (2008): Acid Mine Drainage at the Abandoned Kettara Mine (Morocco): 1. Environmental Characterization. – Mine Water Environ., 27(3):145–159, 5 Abb., 9 Tab.; doi:10.1007/s10230-008-0036-6.
• Hakkou, R., Benzaazoua, M. & Bussière, B. (2008): Acid Mine Drainage at the Abandoned Kettara Mine (Morocco): 2. Mine Waste Geochemical Behavior. – Mine Water Environ., 27(3):160–170, 6 Abb., 4 Tab.; doi:10.1007/s10230-008-0035-7.
• Hakkou, R., Benzaazoua, M. & Bussière, B. (2009): Laboratory Evaluation of the Use of Alkaline Phosphate Wastes for the Control of Acidic Mine Drainage. – Mine Water Environ., 28(3):206–218, 10 Abb., 5 Tab.; doi:10.1007/s10230-009-0081-9.
• Hälbich, I. W. (1983): Geodynamics of the Cape Fold Belt in the Republic of South Africa, a Summary. – In: Rast, N. & Delany, F. M. (eds): Profile of Orogenic Belts. – p. 21–29, 3 Abb., 1 Tab.; Washington (American Geophysical Union); doi:https://doi.org/10.1029/GD010p0021.
• Hale, S. L., Alker, K. J. & Kloner, R. A. (1988): Evaluation of non-radioactive, colored microspheres for measurement of regional myocardial blood flow in dogs. – Circulation 78:428–434.
• Halepaska, J. C. (1979): Ground Water Design Parameters for Mining and Milling: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 98–104 p., 3 Abb.; San Francisco (Freeman).
• Halí, J. & Žižka, L. (2008): Residual Mining Pits in Central Part of North Bohemian Brown Coal Basin. – Proceedings, 10th International Mine Water Association Congress:575–578.
• Halir, J. & Zizka, L. (2010): The issues of the self-fill aquifer in the North Nohemian Brown Coal Basin. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 425–429, Sydney, NS (Cape Breton University Press).
• Hall, A., Scott, J. A. & Shang, H. (2011): Geothermal energy recovery from underground mines. – Renewable and Sustainable Energy Reviews, 15(2):916–924, 2 Abb., 5 Tab.; doi:10.1016/j.rser.2010.11.007.
• Hall, A. J., McConnell, B. J., Schwacke, L. H., Ylitalo, G. M., Williams, R. & Rowles, T. K. (2018): Predicting the effects of polychlorinated biphenyls on cetacean populations through impacts on immunity and calf survival. – Environ. Pollut., 233:407–418, doi:10.1016/j.envpol.2017.10.074.
• Hall, A. L. (1918): Asbestos in the Union of South Africa. – Memoir – South African Geological Survey, 12:1–152, 16 Abb., 16 Taf.
• Hall, A. L. (1918): The Geology of the Barberton Gold Mining District including Adjoining Portions of Northern Swaziland. – Mem. S. Afr. Geol. Surv., 9:1–347, 44 Abb., 37 Taf.
• Hall, A. L. (1930): Asbestos in the Union of South Africa (2nd edn). – Mem. S. Afr. Geol. Surv., 12:1–324, 44 Abb., 37 Taf.
• Hall, A. L. (1931): The Havelock asbestos mine. – S. Afr. Mining and Eng. J., 42(1):85 & 87.
• Hall, G. E. M., Bonham-Carter, G. F., Horowitz, A. J., Lum, K., Lemieux, C., Quemerais, B. & Garbarino, J. R. (1996): The effect of using different 0.45 µm filter membranes on “dissolved” element concentrations in natural waters. – Appl. Geochem., 11(1 & 2):243–249, 1 Abb., 7 Tab.; doi:10.1016/0883-2927(96)00059-5.
• Hall, J. & Dodds, J. (2004): Groundwater Management planning at an East African Gold Min. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 67–76, 4 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Hall, J., Glendinning, S. & Younger, P. L. (2005): Is mine water a source of hazardous gas?: Mine Water 2005 – Mine Closure. – 141–145 p., 2 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Hall Jr, R. O., Macneale, K. H., Bernhardt, E. S., Field, M. & Likens, G. E. (2001): Biogeochemical responses of two forest streams to a 2-month calcium addition. – Freshwater Biology, 46(3):291–302, doi:10.1046/j.1365-2427.2001.00660.x.
• Hall, N., Lacey, J., Carr-Cornish, S. & Dowd, A. M. (2015): Social licence to operate: understanding how a concept has been translated into practice in energy industries. – J. Clean. Prod., 86:301–310, doi:10.1016/j.jclepro.2014.08.020.
• Hall, N. L. (2015): Community corporate engagement on water resource impacts: opportunities for Social Licence to Operate. – Aust. J. Water Resour., 19(2):109–115, doi:10.1080/13241583.2016.1148869.
• Hall, P. (2003): A Possum’s Tale — How Statistics Revealed a New Mammal Species. – CHANCE, 16(1):8–13, doi:10.1080/09332480.2003.10554831.
• Hallberg, K. B. & Johnson, D. B. (2003): Passive mine water treatment at the former Wheal Jane tin mine Cornwall important biogeochemical and microbiological lessons. – Land Contam. Reclam., 11:213–220, 5 Abb., 1 Tab.; doi:10.2462/09670513.817.
• Hallberg, K. B. & Johnson, D. B. (2005): Mine Water Microbiology. – Mine Water Environ., 24(1):28–32, 2 Abb., 1 Tab.; doi:10.1007/s10230-005-0068-0.
• Hallberg, K. B. & Rolfe, S. J. D. B. (2004): The microbiology of passive remediation technologies for mine drainage treatment. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 227–233, 2 Abb., 2 Tab.; Newcastle upon Tyne (University of Newcastle).
• Hallenstein, C. & Bastias, J. (1988): Management of Ranger Uranium Mine Waters, Kakadu Region, Northern Territory, Australia. – Proceedings, 3rd International Mine Water Congress, Melbourne:753–761, 1 Abb., 3 Tab.
• Hallett, L. T. (1942): Review of Organic Microchemistry. – Ind. Eng. Chem. Anal. Ed., 14(12):956–993, doi:10.1021/i560112a017.
• Halliburton Company (1970): New mine sealing techniques for water pollution abatement. – Wat. Poll. Contr. Res. Ser., 14010 DMO:1–163, 66 Abb., 31 Tab.
• Hällström, L. (2023): Secondary Gypsum And HFO Affected The Mobility Of Critical Metals (Be & W) In Historical Skarn Tailings, Yxsjöberg, Sweden. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 185–190; (International Mine Water Association).
• Hällström, L. & Alakangas, L. (2021): A Comparison Of Be And W In Mine Drainage Downstream Two Different Repositories Storing Tailings From A Skarn Ore. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 174–180; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Hällström, L., Alakangas, L. & Martinsson, O. (2018): Metal Release from Acidic and Near-Neutral pH-Conditions in Historical W, Cu and F Skarn Tailings at Yxsjöberg, Sweden. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 351–356; (Tshwane University of Technology).
• Hällström, L. P. B. (2022): Mobility of Be, Bi, F, Ga, Ge and W in Surface Water and the Water Quality Impact on Epilithic Diatoms Downstream of the Historical Yxsjöberg Mine Site, Sweden. – Mine Water Environ., 41(3):731–747, doi:10.1007/s10230-022-00889-0.
• Halsey, L. G., Curran-Everett, D., Vowler, S. L. & Drummond, G. B. (2015): The fickle P value generates irreproducible results. – Nat. Meth., 12(3):179–185, doi:10.1038/nmeth.3288.
• Ham, B. W. (1988): Surface Impacts of Dewatering Old Colliery Workings. – Proceedings, 3rd International Mine Water Congress, Melbourne:829–841, 4 Abb., 3 Tab.
• Hamai, T., Ikeda, M. & Furuya, H. (2013): Research on applicability of anaerobic passive bioreactor to acid mine drainage treatment in Japan. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 587–592, 3 Abb., 2 Tab.; Golden (International Mine Water Association).
• Hamai, T., Kodera, T., Sato, Y., Takamoto, K., Ikeda, M., Hatsuya, K., Hayashi, K., Tendo, H., Sunada, K. & Kobayashi, M. (2015): The Sequential Experiments of Passive Treatment System Using Bioreactor for Acid Mine Drainage in Japan. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Hamai, T. & Okumura, M. (2010): A result of batch test to select effective co-precipitator of zinc containing mine drainage treatment. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 127–131, 2 Abb., 1 Tab.; Sydney, NS (Cape Breton University Press).
• Hamai, T., Sato, Y., Kojima, K., Masaki, Y., Hayashi, K., Sowanaka, M., Masuda, N., Kobayashi, M. & Sakata, T. (2018): Pilot Scale Tests of Compact (Short Retention Time) Passive Treatment Process for Acid Mine Drainage Using Agri-Waste in Japan. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 128–132; (Tshwane University of Technology).
• Hamai, T., Sato, Y., Kojima, K., Miura, T., Hayashi, K., Sakakibara, T., Hatsuya, K., Kobayashi, M., Masuda, N. & Takamoto, K. (2016): A Compact Passive Treatment Process for AMD Using Rice Husk and Rice Bran. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 937–943, Freiberg (TU Bergakademie Freiberg).
• Hamai, T., Sato, Y., Kojima, K., Miura, T., Hayashi, K., Sakakibara, T., Hatsuya, K., Kobayashi, M., Masuda, N., Takamoto, K., Sowanaka, M., Sakata, T., Hori, T., Ogata, A., Aoyagi, T. & Habe, H. (2017): Compact Passive Treatment Process for Acid Mine Drainage, Utilizing Rice Husks and Rice Bran – Process Optimization. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1162–1169, Lappeenranta (Lappeenranta University of Technology).
• Hamann-Embleton, C. (2007): Geomorphological Hazards in Austria. – In: Pirklbauer-Kellerer, A., Keiler, M., Embleton-Hamann, C. & Stötter, J. (eds): Geomorphology for the Future. – p. 33–56, 5 Abb., 1 Tab.; Innsbruck (innsbruck university press).
• Hámar, T., D’Allessandro, M. & Bidaglio, G. (2002): Legislation on Mining Waste Management in Central and Eastern European Candidate Countries: EUR 20545 EN. – 196 p., Ispra (Joint Research Centre of the European Commission).
• Hamberg, R., Alakangas, L. & Maurice, C. (2017): Delaying flooding of cemented paste backfill mixtures – Effect on the mobility of trace metals. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 806–813, Lappeenranta (Lappeenranta University of Technology).
• Hamberg, R., Maurice, C. & Alakangas, L. (2015): Use of Cemented Paste Backfill Based on Arsenic – Rich Tailings from Cyanidation. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Hamberg, R., Maurice, C. & Alakangas, L. (2018): Cementation Of Cyanidation Tailings – Effects On The Release of As, Cu, Ni And Zn. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 617–622; (Tshwane University of Technology).
• Hamed, K. H. & Rao, A. R. (1998): A modified Mann–Kendall trend test for autocorrelated data. – J. Hydrol., 204(1–4):182–196, 4 Abb., 6 Tab.; doi:10.1016/S0022-1694(97)00125-X.
• Hames, I. (2007): Peer review and manuscript management in scientific journals – Guidelines for good practice. – 293 p., Malden (Blackwell); doi:10.1002/9780470750803.
• Hamilton, E. I. (2000): Environmental variables in a holistic evaluation of land contaminated by historic mine wastes: a study of multi-element mine wastes in West Devon, England using arsenic as an element of potential concern to human health. – Sci. Total Environ., 249(1-3):171–221, 22 Abb., 12 Tab.
• Hamilton, J., Ford, D., Johnson, K. S. & Gunay, G. (2002): Karst geomorphology and hydrogeology of the Bear Rock Formation; a remarkable dolostone and gypsum megabreccia in the continuous permafrost zone of Northwest Territories, Canada. – Carbonate Evaporite, 17(2):114–115.
• Hamilton, Q. U. I., Lamb, H. M., Hallett, C. & Proctor, J. A. (1999): Passive Treatment Systems for the Remediation of Acid Mine Drainage Wheal Jane, Cornwall, UK. – Water Environ. J., 13(2):93–103, 9 Abb., 2 Tab.; doi:10.1111/j.1747-6593.1999.tb01014.x.
• Hamilton, R. M., Bowen, G. G., Postlethwaite, N. A. & Dussek, C. J. (1994): The abandonment of Wheal Jane, a tin mine in South West England. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:543–551, 4 Abb., 2 Tab.
• Hamilton, R. M., Taberham, J., Waite, R. R. J., Cambridge, M., Coulton, R. H. & Hallewell, M. P. (1994): The development of a temporary treatment solution for the acid mine water discharge at Wheal Jane. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:643–656, 7 Abb., 5 Tab.
• Hamm, V. & Bazargan Sabet, B. (2010): Modelling of fluid flow and heat transfer to assess the geothermal potential of a flooded coal mine in Lorraine, France. – Geothermics, 39(2):177–186, doi:10.1016/j.geothermics.2010.03.004.
• Hamm, V., Collon-Drouaillet, P. & Fabriol, R. (2008): Two modelling approaches to water-quality simulation in a flooded iron-ore mine (Saizerais, Lorraine, France): A semi-distributed chemical reactor model and a physically based distributed reactive transport pipe network model. – J. Contam. Hydrol., 96(1):97–112, doi:10.1016/j.jconhyd.2007.10.004.
• Hamm, V., Fabriol, R., Vaute, L., Fourniguet, G. & Baubron, J.-C. (2005): Modelling the impact of back-filling material on the water quality of flooded iron mines (Lorraine, France). – 1–12 [CD–ROM] p., 7 Abb., 2 Tab.; Nancy (Proceedings Post-Mining 2005).
• Hammack, R. W., de Vegt, A. L. & Schoeneman, A. L. (1998): The Removal of Sulfate and Metals from Mine Waters using Bacterial Sulfate Reduction: Pilot Plant Results. – Mine Water Environ., 17(1):8–27, 7 Abb., 5 Tab.
• Hammack, R. W., Dvorak, D. H. & Edenborn, H. M. (1994): Bench-Scale Test to Selectively Recover Metals from Metal Mine Drainage Using Biogenic H₂S. Paper presented at the International Land Reclamation and Mine Drainage Conference, Pittsburgh. – p. 214–222, 5 Abb., 2 Tab.
• Hammack, R. W., Edenborn, H. M. & Dvorak, D. H. (1994): Treatment of water from an open-pit copper mine using biogenic sulfide and limestone – a feasibility study. – Water Res., 28(11):2321–2329, 4 Abb., 3 Tab.; doi:10.1016/0043-1354(94)90047-7.
• Hammack, R. W., Kaminskiy, V., Warner, K. & Kleinmann, R. L. (2005): Using helicopter electromagnetic surveys to identify potential hazards at coal waste impoundments: Mine Water 2005 – Mine Closure. – 125–132 p., 6 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Hammack, R. W., Love, E. I., Veloski, G. A., Ackman, T. E. & Harbert, W. (2003): Using Helicopter Electromagnetic Surveys to Identify Environmental Problems at Coal Mines. – Mine Water Environ., 22(2):80–84, 7 Abb.
• Hammack, R. W., Sams, J. I., Veloski, G. A. & Mabie, J. S. (2003): Geophysical Investigation of the Sulphur Bank Mercury Mine Superfund Site, Lake County, California. – Mine Water Environ., 22(2):69–79, 15 Abb.
• Hammarstrom, J. M., Seal Ii, R. R., Meier, A. L. & Kornfeld, J. M. (2005): Secondary sulfate minerals associated with acid drainage in the eastern US: recycling of metals and acidity in surficial environments. – Chem. Geol., 215(1–4):407–431, doi:10.1016/j.chemgeo.2004.06.053.
• Hammarstrom, J. M., Sibrell, P. L. & Belkin, H. E. (2003): Characterization of Limestone Reacted with Acid-mine Drainage in a Pulsed Limestone bed Treatment System at the Friendship Hill National Historical Site, Pennsylvania, USA. – Appl. Geochem., 18(11):1705–1721.
• Hammer, N., Adrion, F., Staiger, M., Holland, E., Gallmann, E. & Jungbluth, T. (2016): Comparison of different ultra-high-frequency transponder ear tags for simultaneous detection of cattle and pigs. – Livest. Sci., 187:125–137, doi:10.1016/j.livsci.2016.03.007.
• Hammer, Ø., Harper, D. A. T. & Ryan, P. D. (2001): PAST – Paleontological statistics software package for education and data analysis. – Palaeontol. Electronica, 4(1):1–9.
• Hammer, W. (1915): Über Gelbbleierz im Oberinntal. – Z. d. Ferdinandeums f. Tirol u. Vorarlberg, 59:270–277.
• Hammer, W. (1916): Über Gelbbleierz im Oberinntal (Vortragszusammenfassung). – Verh. k.-k. geol. R.-A., 2:47.
• Hammer, W. (1920): Die Erzführung des Verrucano in Westtirol. – Verh. geol. Staatsanstalt, 4:77–88, 1 Tab.
• Hammer, W. (1936): Eisen, seine Entstehung, Gewinnung und Verarbeitung. – Kohle und Erz, 33(11):429–432.
• Hammond, A. M. & Drummond, A. B. (2018): A Critical Review On The Performance of the Gypsum Precipitation Reactors on HIPRO® AMD Plants At EWRP, OWRP AND MWRP. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 133–139; (Tshwane University of Technology).
• Hammond, A. M. & Drummond, A. B. (2018): Producing High Quality Drinking Water from Mine Impacted Water At High Plant Recoveries Using Reverse Osmosis Membranes. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 275–281; (Tshwane University of Technology).
• Hammond, G. & Boyd, G. (1988): Dewatering at Western No. 7 Colliery. – Proceedings, 3rd International Mine Water Congress, Melbourne:733–741.
• Hampel, F. R., Ronchetti, E. M., Rousseeuw, P. J. & Stahel, W. A. (1986): Robust statistics – The approach based on influence functions: Wiley series in probability and mathematical statistics Probability and mathematical statistics, . – 502 p., New York (Wiley).
• Hampson, C. J. & Bailey, J. E. (1982): On the structure of some precipitated calcium alumino-sulphate hydrates. – Journal of Materials Science, 17(11):3341–3346, doi:10.1007/BF01203504.
• Hamuy, M., Nicolai, C. & Social Studies Department of the Pontifical Catholic University of Chile (2016): First National Survey on Public Perception of Science and Technology in Chile. Department of Strategic Studies and Management, National Commission for Scientific and Technological Research, 63.
• Han, C., Zhang, W., Wei, J., Yang, F., Yin, H., Xie, D. & Xu, J. (2022): Assessment and Grouting of Water Inrush Induced by Shaft-Freezing Holes in the Yingpanhao Coal Mine, Inner Mongolia, China. – Mine Water Environ., 41(1):16–29, doi:10.1007/s10230-021-00801-2.
• Han, J., XU, D., Tian, J., Liu, T. & Wang, Y. (2019): Effects Of Deep Karst Water On The Release Of Heavy-metal Ion From Coal Gangue In Abandoned Coal Mine Region. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 95–100; Perm, Russia (Perm State University).
• Han, Y., Wang, Q., Li, W., Yang, Z., Gu, T. & Wang, Z. (2023): Predicting the Height of the Water-Conducting Fractured Zone in Fully Mechanized Top Coal Caving Longwall Mining of Very Thick Jurassic Coal Seams in Western China Based on the NNBR Model. – Mine Water Environ., 42(1):121–133, doi:10.1007/s10230-023-00918-6.
• Hanağasıoğlu, M. (1999): Wind energy in Turkey. – Renewable Energy, 16(1-4):822–827, 3 Abb.; doi:10.1016/S0960-1481(98)00265-1.
• Hancock, J. S. & Bowden, A. R. (1987): Hydrogeological Investigation of the Gelliondale Lignite Deposits Victoria, Australia: Hydrogeology of Coal Basins. – 55–68 p., 6 Abb., 2 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Hancock, S. (1982): Mine water problems in Australia; conflicts of interest. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, ABCD Supplementary volume:47–58, 3 Abb.
• Hancock, S. (1985): Discussion on Aquifer Restoration at Uranium in situ leach Sites by F. S. Anastasi and R. E. Williams. – Int. J. Mine Water, 4(4):55–56.
• Hancock, S. (1985): Ventilation Shaft Water Inflow Control – Rossarden Tin Mine, Tasmania, Australia. – Int. J. Mine Water, 4(4):21–35, 4 Abb., 1 Tab.
• Hancock, S. (1988): Inflow Prevention – General Report. – Proceedings, 3rd International Mine Water Congress, Melbourne:589–594.
• Hancock, S. (1988): In-Situ Leach Mining – The Next Quantum Leap? – Proceedings, 3rd International Mine Water Congress, Melbourne:883–889, 1 Abb.
• Hancock, S. (2005): Quantifying Ochre Arisings: Output from the UK Coal Authority’s Mine Water Treatment Sites: Mine Water 2005 – Mine Closure. – 395–402 p., 3 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Hancock, S. & Wolkersdorfer, Ch. (2012): Renewed Demands for Mine Water Management. – Mine Water Environ., 31(2):147–158, 5 Abb., 1 Tab.; doi:10.1007/s10230-012-0176-6.
• Hancox, P. J. & Götz, A. E. (2014): South Africa’s coalfields — A 2014 perspective. – Int. J. Coal Geol., 132:170–254, doi:10.1016/j.coal.2014.06.019.
• Handia, G., Chisaka, M., Surendran, K. & Khunga, B. (1993): Repostioning Information Technology in ZCCM. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 32–59, 11 Abb.; Chililabombwe (Konkola Division).
• Haney, M., Diehl, B. & Coleman, T. (2024): Cooperative mine land reclamation operations & comprehensive managed watershed planning. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 251–252; Morgantown (International Mine Water Association).
• Hani, A., Djabri, L. & Ramdani, A. (1997): Hydrogeology and Evaluation of Bouteldja Dunelike Aquifer (NE Algeria) Using a Mathematical Model. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:371–383, 10 Abb., 3 Tab.
• Hanna, P. & Vanclay, F. (2013): Human rights, Indigenous peoples and the concept of Free, Prior and Informed Consent. – Impact Assess. Proj. Apprais., 31(2):146–157, doi:10.1080/14615517.2013.780373.
• Hanna, T. M. & Streiff, R. E. (1994): Dewatering at Cove Mine, Nevada, USA. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:197–215, 9 Abb.
• Hanneberg, A. (2022): Der Bergbau Dirstentritt bei Nassereith in Tirol unter der Leitung von Willy von Dulong zwischen 1910 und 1926. – In: Garner, J., Weber, M. & Zeiler, M. (eds): 23. Internationaler Bergbau- & Montanhistorik-Workshop Wilnsdorf/Siegerland. – p. 314–324, 9 Abb.; Clausthal-Zellerfeld (Papierflieger).
• Hanneberg, A. & Martinek, K.-P. (2010): Beitrag zur Geschichte des Schwazer Bergwerksvereins (1855 bis 1957). – res montanarum, 49:16–26, 12 Abb.
• Hanneberg, A., Martinek, K.-P., Böhm, P. & Arlt, T. (1998): Das Revier Silberberg-Geyer im Bergbaugebiet Schwaz-Brixlegg in Tirol, Österreich. – Kurzreferate zum Bergbau-Workshop 1998 in St. Andreasberg anläßlich des 10jährigen Jubiläums des Lehrbergwerks:45–47.
• Hanneberg, A. & Schuster, H. (1994): Geschichte des Bergbaus in Schwaz und Brixlegg. – Mineralien Magazin, Lapis, 19(7-8):13–21, 16 Abb., 3 Tab.
• Hanneberg, A., Simon, P. & Wolkersdorfer, Ch. (2009): Galmei und schöne Wulfenite – Der Blei-Zink-Bergbau rund um den Fernpaß in Tirol. – Lapis, 34(4):20–31, 32 Abb.
• Hannula, P.-M., Khalid, M. K., Kinnunen, S., Halli, P., Janas, D., Yliniemi, K. & Lundström, M. (2017): Recovery of Copper from Low Concentration Waste Waters by Electrowinning. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 972–978, Lappeenranta (Lappeenranta University of Technology).
• Hansen, C. (1998): Modellierung der hydrogeochemischen Entwicklung saurer Grubenwässer – Flutung der Schwefelkieslagerstätte Einheit bei Elbingerode (Harz). – 137 p., 76 Abb., 6 Tab.; Clausthal-Zellerfeld (Unveröff. Diplomarbeit TU Clausthal).
• Hansen, C. M. (2007): Hansen solubility parameters – A user’s handbook, 2nd edn. – 1–519 p., (CRC Press); doi:10.1201/9781420006834.
• Hansen, O. (1998): A Note on an overlooked Heraclea and the DINGIR.KASKAL.KUR. “underground watercourse”. – Orientalia Suecana, 47:27–28.
• Hansen, R. D. (2004): Water and Wastewater Systems an Imperial Rome. – 1 p., http://www.waterhistory.org/histories/rome/ (WaterHistory.org).
• Hansen, R. N. (2015): Contaminant leaching from gold mining tailings dams in the Witwatersrand Basin, South Africa: A new geochemical modelling approach. – Appl. Geochem., 61:217–223, doi:10.1016/j.apgeochem.2015.06.001.
• Hansen, R. N. (2020): Quantification of Environmental Risk of U and Th in Witwatersrand Gold-Mine Tailings, South Africa. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 25–31; (International Mine Water Association).
• Hansen, R. N. (2022): Analysis of Shallow Groundwater Monitoring data of a Platinum Mine, Bushveld Complex, South Africa – Implications for Post-Closure. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 139–145; (International Mine Water Association).
• Hansen, U. & Yuen, D. A. (1995): Formation of Layered Structures in Double-Diffusive Convection as Applied to the Geosciences: Double-Diffusive Convection 94. – 135–149 p., 15 Abb.; Washington (American Geophysical Union).
• Hanski, E. (2015): Chapter 2 – Synthesis of the Geological Evolution and Metallogeny of Finland. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 39–71, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00002-9.
• Hanyu, T., Kawabata, H., Tatsumi, Y., Kimura, J. I., Hyodo, H., Sato, K., Miyazaki, T., Chang, Q., Hirahara, Y., Takahashi, T., Senda, R. & Nakai, S. (2014): Isotope evolution in the HIMU reservoir beneath St. Helena: Implications for the mantle recycling of U and Th. – Geochim. Cosmochim. Acta, 143:232–252, doi:10.1016/j.gca.2014.03.016.
• Hanzlik, J. (1991): Hydrogeological Aspects of the Open-pit Mine Slope Stability (Case Study). – Proceedings, 4th International Mine Water Association Congress, 2:53–59, 3 Abb.
• Hanzlík, J. (1982): Evaluation of the Groundwater Circulation in the Forefield of an Open Pit Mine according to the Analyses of Tritium. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:66–83, 2 Abb., 2 Tab.
• Hanzlík, J. (1987): Hydrogeology and geotechnical Safty of an Opencast mine in the North Bohemian Brown Coal Basin: Hydrogeology of Coal Basins. – 275–281 p., Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Hanzlík, J. (1994): Ecological Consequences of Uranium Mining in Northern Bohemia. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:553–560, 5 Abb., 1 Tab.
• Hanzlík, J. & Vydra, J. (1985): Liquidation of abandoned Mine Excavations by Flooding. – Proceedings, 2nd International Mine Water Association Congress, 2:953–965, 6 Abb., 2 Tab.
• Hao, C., Liu, M., Wei, Z. & Peng, Y. (2022): Comparison of Antimony Sources and Hydrogeochemical Processes in Shallow and Deep Groundwater Near the Xikuangshan Mine, Hunan Province, China. – Mine Water Environ., 41(1):194–209, doi:10.1007/s10230-021-00833-8.
• Hao, C. M., Huang, Y., He, P. Y. & Sun, W. (2019): Isotope Drift Characteristics in Ordovician Limestone Karst Water Caused by Coal Mining in Northern China. – Mine Water Environ., 38(3):507–516, doi:10.1007/s10230-019-00606-4.
• Hao, H., Zhou, H.-d., Gao, B., Liu, Q.-q., Lu, J., Gao, J.-j. & Yuan, H. (2013): 全自动水质分析仪快速定量检测地表水中硝酸盐氮和亚硝酸盐氮 [Determination of Nitrate and Nitrite in Water Samples Using Gallery Automatic Discrete Analyzer]. – Spectrosc. Spectral Anal., 33(2):434–437, 6 Tab.; doi:10.3964/j.issn.1000-0593(2013)02-0434-04.
• Hao, W., Wang, W. & Qin, Y. (2014): The Element Geochemistry of Coal Mine Drainage Pollution in Coal Mine from Northern Jiangsu Province. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 178–182, Xuzhou (International Mine Water Association).
• Hao, X., Wang, C., van Loosdrecht, M. C. M. & Hu, Y. (2013): Looking Beyond Struvite for P-Recovery. – Environ. Sci. Technol., 47(10):4965–4966, 1 Abb.; doi:10.1021/es401140s.
• Hararah, M. A., Al-Nasir, F., El-Hasan, T. & Al-Muhtaseb, A. a. H. (2011): Zinc adsorption–desorption isotherms: possible effects on the calcareous vertisol soils from Jordan. – Environ. Earth Sci., 65(7):2079–2085, doi:10.1007/s12665-011-1188-4.
• Harck, T. (2015): From Salt Balance to Contaminant Flux – Managing Water Quality Risk Using a Systems Approach. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Harck, T., Azzie, B., Coyle, C., Germishuyse, T., Vadapalli, R. & Zyl, A. v. (2009): Impact Prediction of the Reactivation of an Unused Tailings Dam. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 898–902, 2 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Harck, T., Peters, M., Hubert, G., Burger, L., Ochieng, L. & Germishuyse, T. (2009): Reprocessing Kimberlite Tailings: A Square Contaminant Source in a Big Hole? – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 723–729, 4 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Harck, T., Pretorius, J. & Gunther, P. (2012): A case study of underground brine disposal. – In: McCullough, C. D., Lund, M. A. & Wyse, L. (eds): International Mine Water Association Symposium. – p. 607–614, Bunbury (Edith Cowan University).
• Harck, T., Reynecke, R., Bezuidenhout, N., Govender, K. & Gunther, P. (2008): Managing the Groundwater Impact of Mine Water Treatment Waste. Proceedings, 10th International Mine Water Association Congress. – p. 275–278.
• Harck, T. R. (2010): Mobilisation of salts from mine waste – A pinch or a pound? – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 351–355, Sydney, NS (Cape Breton University Press).
• Harck, T. R. (2018): Making Your Results Stick – Using General Likelihood Uncertainty Estimation (GLUE) In Water Quality Prediction From Coal Discard. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 357–362; (Tshwane University of Technology).
• Harcouët-Menou, V., Dupont, N., Kaufmann, O., Hernandez, E., De Paoli, C., Orban, P., N'Depo, Y., Martin, T., Moermans, G., Neven, T., Schelings, C., Teller, J., Dassargues, A. & Waroux, T. (2025): Unlocking the Geothermal Potential of Abandoned Mines: A Path to Renewable Energy and Regional Revitalization in Wallonia – Methodology and Modeling approaches. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 639–644; Braga (International Mine Water Association).
• Harding, W., Connelly, R. J. & Contreras, L. F. (2003): Evaluating the role of groundwater in the stability of slopes in an open pit coal mine with shallow dipping multi-seam stratigraphy. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 249–264, 5 Abb., 2 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Härdle, W. K. & Simar, L. (2015): Applied Multivariate Statistical Analysis. – 580 p., Heidelberg (Springer); doi:10.1007/978-3-662-45171-7.
• Hardman, M. (2005): The phylogenetic relationships among non-diplomystid catfishes as inferred from mitochondrial cytochrome b sequences; the search for the ictalurid sister taxon (Otophysi: Siluriformes). – Mol. Phylogenet. Evol., 37(3):700–720, doi:10.1016/j.ympev.2005.04.029.
• Hardwick, E. & Hardwick, J. (2016): An overview of the use of Ion Exchange to extract wealth from mine waters. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1274–1279, Freiberg (TU Bergakademie Freiberg).
• Hardy, L. & Morton, P. (2015): Acid Rock Drainage (ARD) Inhibition by Sulfite Used as Part of the Inco Process for Cyanide Removal. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Harford, A. J., Hogan, A. C., Jones, D. R. & van Dam, R. A. (2015): Ecotoxicology of Highly Treated Mine Waters: Lessons from an Australian Mine. – Mine Water Environ., 34(1):75–86, doi:10.1007/s10230-014-0282-8.
• Harford, A. J., Jones, D. R. & Dam, R. A. v. (2012): Ecotoxicology of actively treated mine waters: International Mine Water Association Symposium. – 615–622 p., Bunbury (Edith Cowan University).
• Harford, A. J., Jones, D. R. & van Dam, R. A. (2013): Highly treated mine waters may require major ion addition before environmental release. – Sci. Total Environ., 443:143–151, doi:10.1016/j.scitotenv.2012.10.054.
• Hargadon, A. B. & Kenney, M. (2012): Misguided Policy? Following Venture Capital into Clean Technology. – California Management Review, 54(2):118–138, 1 Abb., 1 Tab.; doi:10.1525/cmr.2012.54.2.118.
• Hargrave, P., Metesh, J., McBride, K. & Oravetz, S. (2003): Investigative Methods for Controlling Groundwater Flow to Underground Mine Workings, Tech. Rep. 0371–2801–MTDC. – 42 p., Missoula (U.S. Department of Agriculture, Forest Service, Missoula Technology and Development Center).
• Harley, A. (2013): The adoption of the soil chemical equilibrium approach to solving hydrogeochemical problems. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 359–364, 3 Abb.; Golden (International Mine Water Association).
• Harley, A. S. (1983): Using Acid-Mine Water for Removal of Phosphates from Sewage Effluent – Discussion. – Water Sci. Technol., 15(2):175–175.
• Harley, M. & Charlesworth, E. G. (1990): The Mineralisation at Elandshoogte Gold Mine, Eastern Transvaal, South Africa. – Economic Geology Research Unit Information Circular, 226:16, 17 Abb.
• Harley, M. & Charlesworth, E. G. (1993): Controls and Structural Development of Epigenetic Mesothermal Gold Mineralisation in the Sabie-Pilgrim’s Rest Goldfield, Eastern Transvaal, South Africa. – Economic Geology Research Unit Information Circular, 268:28, 14 Abb., 1 Tab.
• Harmancioglu, N. B. & Altinbilek, D. (2019): Water Resources of Turkey: World Water Resources. – 545 p., Cham (Springer); doi:10.1007/978-3-030-11729-0.
• Harmon, D., Gauvain, M., Reisz, Z., Arthur, I. & Story, S. D. (2018): Preference for tap, bottled, and recycled water: Relations to PTC taste sensitivity and personality. – Appetite, 121:119–128, doi:10.1016/j.appet.2017.10.040.
• Harmon, S. M. (2015): The Toxicity of Persistent Organic Pollutants to Aquatic Organisms. – In: Zeng, E. Y. (ed) Comprehensive Analytical Chemistry 67. – p. 587–613, Amsterdam (Elsevier); doi:10.1016/B978-0-444-63299-9.00018-1.
• Harnischmacher, S. & Zepp, H. (2010): Bergbaubedingte Höhenänderungen im Ruhrgebiet – Eine Analyse auf Basis digitalisierter historischer Karten. – zfv – Z. Geod. Geoinf. Landmanage., 135(6):386–397, 8 Abb.
• Harnischmacher, S. & Zepp, H. (2016): Bergbaubedingte Höhenänderungen im Ruhrgebiet. – Veröff. Dt. Bergbau-Mus. Bochum, 217:103–114.
• Harper, D. & Olyphant, G. A. (1993): Statistical evaluation of hydrologic conditions in the vicinity of abandoned underground coal mines around Cannelburg, Indiana. – J. Hydrol., 146(1):49–71, 7 Abb., 3 Tab.
• Harr, M. E. & Sipher, D. J. (1978): Reliability and the factor of safety due to piping. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 775–788; Maracena (Asociación Nacional de lngenieros de Minas).
• Harrelson, C. C., Rawlins, C. L. & Potyondy, J. P. (1994): Stream channel reference sites: An illustrated guide to field technique. – 62 p., 68 Abb., 1 Anh.; (U.S. Department of Agriculture, Forest Service, Rocky Mountain Forest and Range Experiment Station).
• Harries, C. & Diamond, R. E. (2002): The Thermal Springs of the Table Mountain Group: A Stable Isotope Study. – In: Pietersen, K. & Parsons, R. (eds): A Synthesis of the Hydrogeology of the Table Mountain Group – Formation of a Research Strategy WRC Report No TT 158/01. – p. 230–235, 4 Abb., 2 Tab.; Pretoria (Water Research Commission).
• Harrington, J. (2016): Combining in Situ Treatment and Active Water Treatment: Case Study at Schwartzwalder Uranium Mine. –:PowerPoint Presentation, http://bc-mlard.ca/files/presentations/2016-24-HARRINGTON-combining-in-situ-active-water.pdf.
• Harrington, J., Harrington, J., Lancaster, E., Gault, A. & Woloshyn, K. (2015): Bioreactor and In Situ Mine Pool Treatment Options for Cold Climate Mine Closure at Keno Hill, YT. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Harrington, J. M., Fendorf, S. E. & Rosenzweig, R. F. (1998): Biotic Generation of Arsenic(III) in Metal(loid)-contaminated Freshwater Lake Sediments. – Environ. Sci. Technol., 32(16):2425–2430.
• Harris, A., Venkatesan, L. & Greyling, M. (2013): A practical approach to plant-scale flotation optimization. – J. S. Afr. Inst. Min. Metall., 113(3):263–272.
• Harris, A. C. & Golding, S. D. (2002): New evidence of magmatic-fluid-related phyllic alteration: Implications for the genesis of porphyry Cu deposits. – Geology, 30(4):335–338, doi:10.1130/0091-7613(2002)030<0335:Neomfr>2.0.Co;2.
• Harris, C., Oom, B. M. & Diamond, R. E. (1999): A preliminary investigation of the oxygen and hydrogen isotope hydrology of the greater Cape Town area and an assessment of the potential for using stable isotopes as tracers. – Water SA, 25(1):15–24.
• Harris, D. L., Lottermoser, B. G. & Duchesne, J. (2003): Ephemeral acid mine drainage at the Montalbion silver mine, north Queensland. – Aust. J. Earth Sci., 50(5):797–809, doi:10.1111/j.1440-0952.2003.01029.x.
• Harris, M. A. & Ragusa, S. (2000): Bacterial Mitigation of Pollutants in Acid Drainage Using Decomposable Plant Material and Sludge. – Environ. Geol., 40(1-2):195–215.
• Harris, P. D. (1978): Statistical Insights. IV. Variation as a Key to Research Design. – Anesth. Analg., 57(3):322–327.
• Harris, R. A., Moorhouse, A. M. L., Hill, S., Davies, T. & Wyatt, L. M. (2014): Stakeholder Management: the Key to Successful Metal Mine Discharge Remediation. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 781–785, Xuzhou (International Mine Water Association).
• Harrison, A. L., Power, I. M. & Dipple, G. M. (2013): Strategies for enhancing carbon sequestration in Mg-rich mine tailings. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 593–598, 2 Abb.; Golden (International Mine Water Association).
• Harrison, B., Aranda, C., Sanchez, M. & Vizconde, J. (2012): Waste Rock Management at the Antamina Mine – Overall Strategy and Data Application in the Face of Continued Expansion. – 1–11 [USB flash drive] p., 2 Abb., 1 Tab.; Ottawa (Proceedings 9th International Conference on Acid Rock Drainage (ICARD)).
• Harrison, S. T. L., Slatter-Christie, K. & Broadhurst, J. L. (2018): Integrating Competing Water Needs of Mining and Mineral Processing with the Environment, Community and Economic Activity in a Mining-dominated Catchment. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 820–825; (Tshwane University of Technology).
• Harsch, W. (1969): Zur Sedimentologie und Paläogeographie der Raibler Schichten (Ober-Trias) im Westteil der Nördlichen Kalkalpen. – Z. dt. geol. Ges., 121:253–272, doi:10.1127/zdgg/121/1970/253.
• Hart, H. P. (1988): Asbestos in South Africa. – J. S. Afr. I. Min. Metall., 88(6):185–198, 17 Abb., 6 Tab.
• Hart, R., Heitfeld, M., Pierau, B. & Wieber, G. (2007): Hydraulische Sanierung eines Grundwasserschadens mittels Dränagestollen erfolgreich abgeschlossen. – altlasten spektrum,(2):68–73, 14 Abb.
• Härtel, G., Haseneder, R., Pukade, B., Steinberger, P., Rieger, A. & Riebensahm, M. (2007): Aufbereitung von Acid Mine Drainage (AMD) mittels Membranverfahren. – Wiss. Mitt. Inst. Geol., 35:11–18, 5 Abb., 2 Tab.
• Hartigan, P. M. (1985): Algorithm AS 217: Computation of the Dip Statistic to Test for Unimodality. – J. R. Stat. Soc. A, 34(3):320–325, 2 Tab.; doi:10.2307/2347485.
• Hartley, A. (1979): Weathering Studies of Bougainville Mine Tailings in Lysimeters. – Aust. J. Soil Res., 17(2):355–360, doi:10.1071/sr9790355.
• Hartley, D. (1998): The origins and treatment of derelict land in county Durham. – 168 p., University of Durham, 17 Abb., 4 Tab., 6 Anl.; Durham.
• Hartley, F. R. (1972): Conventional Processes to Produce Yellow Cake. Paper presented at the AAEC Symposium on Uranium Processing, Lucas Heights, 20–21 July 1972. – p. II–1–II–44.
• Hartley, S. (2009): Remediation of Abandoned Metal Mine Drainage using Dealginated Seaweed. – 324 p., 117 Abb., 25 Tab.; Aberystwyth (unpubl. PhD-thesis Aberystwyth University).
• Hartley, S., Pearce, N. J. G., Perkins, W. T., Dinelli, E., Edyvean, R. G. J., Priestman, G., Sandlands, L. & Bachmann, R. (2007): Dealginated Seaweed as a Bioadsorption Medium for treating Metal Mine Drainage: Issues surrounding its Pre-Treatment and Use in small Scale Treatment Plants in the EU Life “Bioman” Project: Water in Mining Environments. – 205–208 p., 4 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Hartley, S., Pearce, N. J. G., Perkins, W. T., Dinelli, E., Edyvean, R. G. J., Priestman, G., Sandlands, L. & Bachmann, R. (2007): Dealginated Seaweed for the Bioremediation of Mine Waters in Mid-Wales: Results of Field Trials from the “Bioman” EU life Environment Project: Water in Mining Environments. – 243–247 p., 4 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Hartmann, C. (2001): ITRF-basierter Aufbau und Integration präziser archäologischer und geowissenschaftlicher Grundlagennetze – Konzipierung, Realisierung und Dokumentation der dazugehörigen geodätischen Leistungen (GPS-Auswertung mittels Berner GPS-Software 4.2, Handbucherstellung, Qualitätskontrolle, Netzausgleichung und Transformationen) am Beispiel der aktiv begleiteten Projekte Troia und Georgien des Ing.-Büro E. Messmer. – 225 p., Karlsruhe (Unveröff. Dipl.-Arb. Fachhochschule Karlsruhe).
• Hartmann, J. (2010): Nutzung des gefluteten Grubengebäudes in Ehrenfriedersdorf als Retentionsraum und daraus resultierende Effekte auf die Grubenwasserhydraulik und die geochemischen Bedingungen. – Wiss. Mitt. Inst. Geol., 42:143–158.
• Hartnady, C. J. H. (2009): South Africa’s gold production and reserves. – S. Afr. J. Sci., 105(9/10):328–330, 2 Abb.; doi:10.4102/sajs.v105i9/10.101.
• Hartnady, C. J. H. & Jones, M. Q. W. (2007): Geothermal Studies of the Table Mountain Group Aquifer Systems. – (Report Nr. WRC 1403/1/07). – 43 p., 13 Abb., 8 Tab.; Pretoria (Water Research Commission).
• Hartwig, T., Owor, M., Muwanga, A., Zachmann, D. & Pohl, W. (2005): Lake George as a Sink for Contaminants Derived from the Kilembe Copper Mining Area, Western Uganda. – Mine Water Environ., 24(3):114–123, 3 Abb., 7 Tab.
• Harum, T., Holler, C., Saccon, P., Entner, I. & Hofrichter, J. (2001): Abschätzung des nachhaltig nutzbaren Quellwasser-Dargebotes im Alpinen Raum. – 77 p., 23 Abb., 11 Tab.; Wien (Institut für Hydrogeologie und Geothermie JOANNEUM RESEARCH Forschungsgesellschaft mbH Graz).
• Harvey, D. T. (2016): Titrimetric Methods Analytical Chemistry 2.1. online, 391–515.
• Harvey, J. W. & Fuller, C. C. (1998): Effect of enhanced manganese oxidation in the hyporheic zone on basin-scale geochemical mass balance. – Water Resour. Res., 34(4):623–636, doi:10.1029/97WR03606.
• Harvey, J. W., Wagner, B. J. & Bencala, K. E. (1996): Evaluating the reliability of the stream tracer approach to characterize stream-subsurface water exchange. – Water Resour. Res., 32(8):2441–2451, doi:10.1029/96WR01268.
• Harvey, M., Price, K. & Pearcey, M. (2020): Rethinking Hydrologic Design Criteria for Mine Closure. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 193–198; (International Mine Water Association).
• Harvey, R. W., Garabedian, S. P., Smith, R. L., Barber, L. B., Metge, D. W. & Scholl, M. A. (1991): The Role of Physical and Chemical Heterogeneity in the Interpretation of Small-Scale Tracer Tests involving Microorganisms. – Water Resour. Investig. Rep., WRI 91-4034:148–151, 1 Abb.
• Harvey, R. W., George, L. H., Smith, R. L. & LeBlanc, D. R. (1989): Transport of microspheres and indigenous bacteria through a sandy aquifer; results of natural- and forced-gradient tracer experiments. – Environ. Sci. Technol., 23(1):51–56, 5 Abb., 3 Tab.
• Harvey, R. W. & Harms, H. (2002): Tracers in Groundwater: use of Microorganisms and Microspheres: Encyclopedia of Environmental Microbiology. – 3194–3202 p., 1 Abb., 2 Tab.; New York (Wiley & Sons).
• Harvey, R. W., Kinner, N. E., McDonald, D., Metge, D. W. & Bunn, A. L. (1993): Role of physical heterogeneity in the interpretation of small-scale laboratory and field observations of bacteria, microbial-sized microsphere, and bromide transport through aquifer sediments. – Water Resour. Res., 29(8):2713–2721, 2 Abb., 2 Tab.
• Hasan, F., Abfertiawan, M. S., Syafila, M., Palinggi, Y. & Pranoto, K. (2024): Potential of continuous electrocoagulation for the treatment of coal mine water containing colloidal clays. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 253–258; Morgantown (International Mine Water Association).
• Hasche, A. & Wolkersdorfer, Ch. (2002): Environmental Regulation of Mine Waters in the European Union – D 3 Institutional Research – Germany: ERMITE Final Report – EU R&D Project EVK1-CT-2000-00078. – 12 p., 4 Abb., 2 Tab.; Freiberg (TU Bergakademie Freiberg).
• Hasche, A. & Wolkersdorfer, Ch. (2004): Mine Water Treatment with a Pilot Scale RAPS-System. – Wiss. Mitt. Inst. Geol., 25:93–99, 8 Abb., 1 Tab.
• Hasche-Berger, A. & Wolkersdorfer, Ch. (2005): Pilot Scale RAPS-System in Gernrode/Harz Mountains. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment. – p. 317–328, 8 Abb., 1 Tab.; Heidelberg (Springer); doi:10.1007/3-540-28367-6_32.
• Hasche-Berger, A., Wolkersdorfer, Ch. & Simon, J. (2006): Laborexperimente als Grundlage für ein RAPS-System (Reducing and Alkalinity Producing System). – Wiss. Mitt. Inst. Geol., 31:37–45, 14 Abb., 3 Tab.
• Hashim, M. A., Mukhopadhyay, S., Sahu, J. N. & Sengupta, B. (2011): Remediation technologies for heavy metal contaminated groundwater. – J. Environ. Manage., 92:2355–2388, 10 Abb., 5 Tab.; doi:10.1016/j.jenvman.2011.06.009.
• Haslam, R. & Tibbett, M. (2004): Sampling and Analyzing Metals in Soils for Archaeological Prospection: A Critique. – Geoarchaeology, 19(8):731–751, 4 Abb.
• Hass, R. H. & Sauer, P. J. (1955): Design Analysis of Linear Hydraulic Analog. – Ind. Eng. Chem., 47(3):398–403, 8 Abb., 3 Tab.; doi:10.1021/ie50543a024.
• Hassan, A., Bruining, H., Musa, T. & Chahardowli, M. (2017): The use of RFID technology to measure the compositions of diethyl ether-oil-brine mixtures in enhanced imbibition experiments. – J. Petrol. Sci. Eng., 156:769–779, doi:10.1016/j.petrol.2017.06.051.
• Hasse, J. (2000): Flutung des Metallerzbergwerkes Meggen. Paper presented at the Proceedings Wismut 2000 – Bergbausanierung Internationale Konferenz, Schlema. – p. 9, 7 Abb.; (Eigenverlag Wismut GmbH).
• Haßlacher, A. (1904): Geschichtliche Entwickelung des Steinkohlenbergbaues im Saargebiete Der Steinkohlenbergbau des Preussischen Staates in der Umgebung von Saarbrücken II. – 189 p., 3 Taf.; Berlin (Springer); doi:10.1007/978-3-662-33332-7.
• Hatch (2014): Study to Identify BATEA for the Management and Control of Effluent Quality from Mines: MEND Report 3.50.1. – 527 p., Ottawa (The Mine Environment Neutral Drainage [MEND] Program).
• Haubrich, F. & Tichomirowa, M. (2002): Sulfur and oxygen isotope geochemistry of acid mine drainage – The polymetallic sulfide deposit “Himmelfahrt Fundgrube” in Freiberg (Germany). – Isot. Environ. Health Stud., 38(2):121–138, doi:10.1080/10256010208033319.
• Hauer, F. R. v. & Foetterle, F. (1855): Geologische Übersicht der Bergbaue der Österreichischen Monarchie. – 222 p., Wien (Kaiserlich-königliche Hof- und Staatsdruckerei).
• Haugan, A., Gutierrez, A., Klinka, T., Thiéry, D., Buscarlet, E., Binet, S., Jozja, N., Défarge, C., Leclerc, B., Fécamp, C., Ahumada, Y. & Elsass, J. (2013): TRAC, a collaborative computer tool for tracer-test interpretation. – EPJ Web Conf., 50:03002–p1–p8, 13 Abb., 1 Tab.; doi:10.1051/epjconf/20135003002.
• Haunch, S., MacDonald, A., Brown, N. & McDermott, C. (2011): The Environmental Legacy of Historic Mining Activities in the Almond River Catchment, Scotland: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 581–586 p., Aachen (RWTH Aachen University).
• Haunch, S., MacDonald, A. & McDermott, C. (2021): Variability in Mine Waste Mineralogy and Water Environment Risks: a Case Study on the River Almond Catchment, Scotland. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 181–187; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Haus, A. & Blair, M. (2015): Nucleation Seeding to Promote Chemical Precipitation of Hardness and Alkalinity from Mine Pit Lakes. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Hause, D. R. & Willison, L. R. (1986): Deep Mine Abandonment Sealing and Underground Treatment to Prelude Acid Mine Drainage. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 7(Paper 14):14, 13 Abb.
• Häusing, A. (1890): Über Leistungen beim Stollenbetrieb. – Österr. Z. f. Berg- u. Hüttenwesen, 38(2):20–22, 1 Abb.
• Häusing, A. (1898): Die Grube Silberleithen und die neuen Aufschlussarbeiten im Liegenden der Wasserkluft. – Österr. Z. f. Berg- u. Hüttenwesen, 46(8):101–106, 6 Fig.
• Häusing, A. (1900): Bremsberg oder Drahtseilbahn. – Österr. Z. f. Berg- u. Hüttenwesen, 48:442–443.
• Häusing, A. (1900): Resultate der neuen Aufschlussarbeiten der Grube Silberleithen im Liegenden der Wasserkluft. – Österr. Z. f. Berg- u. Hüttenwesen, 48(6):67–68.
• Havasy, I. & Dusza, L. (1985): Simulation of mass and heat transfer in a large karstic reservoir for mine water management. – Proceedings, 2nd International Mine Water Association Congress, 1:491–501.
• Havasy, I., Kesserü, Z. & Vincze, T. (1988): Simulation Model of Gas Injection Aided Dewatering in Underground Mining. – Proceedings, 3rd International Mine Water Congress, Melbourne:345–359, 5 Abb., 1 Tab.
• Havoy, M. (1997): The major volatile elements of the Earth: Their origin, behavior, and fate. – Geoph. Res. Letters, 24(2):177–180.
• Hawker, S. & Robertson, J. (2012): Treatment plant to allow mine water release from Morro Da Mina, Brazil: International Mine Water Association Symposium. – 201–206 p., Bunbury (Edith Cowan University).
• Hawkins, J. & Dunn, M. (2007): Hydrologic Characteristics of a 35-Year-Old Underground Mine Pool. – Mine Water Environ., 26(3):150–159, 7 Abb., 1 Tab.; doi:10.1007/s10230-007-0003-7.
• Hawkins, J. W. (1994): Statistical characteristics of coal-mine discharges on western Pennsylvania remining sites. – Water Resour. Bull., 30(5):861–869, 5 Abb., 3 Tab.
• Hawkins, J. W. (1995): Characterization and Effectiveness of Remining Abandoned Coal Mines in Pennsylvania. – Bur. Mines Rep. Invest., RI 9562:1–38, 13 Abb., 14 Tab.
• Hawkins, J. W. (1995): Impacts on Ground-water Hydrology from Surface Coal Mining in Northern Appalachia: Water resources at risk. – IMWA.32–43 p., 4 Abb., 2 Tab.; Denver (American Institute of Hydrology).
• Hawkins, J. W. (1998): Remining. – In: The Pennsylvanian Department of Environmental, P. (ed) Coal mine drainage prediction and pollution prevention in Pennsylvania. – p. 17.1–17.6, 3 Abb.; Harrisburg (Pennsylvanian Bureau of Mining and Reclamation).
• Hawkins, J. W. & Aljoe, W. W. (1992): Pseudokarst Groundwater Hydrologic Characteristics of a Mine Spoil Aquifer. – Mine Water Environ., 11(2):37–52, 11 Abb., 1 Tab.
• Hawkins, J. W. & Smoyer, J. J. (2011): Hydrologic Impacts of Multiple Seam Underground and Surface Mining – A Northern Appalachia Example. – Mine Water Environ., 30(4):263–273, 6 Abb., 3 Anl.; doi:10.1007/s10230-011-0157-1.
• Hawley, J. E. (1955): Spectrographic study of some Nova Scotia coals. – The Canadian mining and metallurgical bulletin, 523:712–726, 5 Abb., 11 Tab.
• Hawthorne, S. B., Grabanski, C. B. & Miller, D. J. (2009): Solid-phase-microextraction measurement of 62 polychlorinated biphenyl congeners in milliliter sediment pore water samples and determination of K(DOC) values. – Anal. Chem., 81(16):6936–43, doi:10.1021/ac901001j.
• Hay, A. L. (1930): Coal-mining Operations in the Sydney Coal Field. – Trans. Am. Inst. Min. Metall. Petr. Eng.:27–75.
• Hayakawa, Y. & Matsukura, Y. (2003): Recession rates of waterfalls in Boso Peninsula, Japan, and a predictive equation. – Earth Surface Processes and Landforms, 28(6):675–684, doi:10.1002/esp.519.
• Hayakawa, Y. S. (2011): Postglacial Recession Rates of Waterfalls in Alpine Glacial Valleys. – Trans. Geomorphol. Union, 32(2):179–184, 2 Abb., 1 Tab.
• Hayakawa, Y. S. & Matsukura, Y. (2009): Factors influencing the recession rate of Niagara Falls since the 19th century. – Geomorphology, 110(3-4):212–216, doi:10.1016/j.geomorph.2009.04.011.
• Hayashi, K., Tsubasa, W., Kojima, K., Masaki, Y., Kanayama, A., Hamai, T., Kobayashi, M., Masuda, N., Sowanaka, M. & Sakata, T. (2019): Pilot-scale Tests of Passive Treatment System for AMD in Japan. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 195–198; Perm, Russia (Perm State University).
• Hayashi, K., Washio, T., Masaki, Y., Hamai, T., Sakata, T., Sakoda, M., Kobayashi, M., Masuda, N. & Sato, N. (2020): Full-scale Demonstration Tests of Passive Treatment System by JOGMEC in Japan. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 106–109; (International Mine Water Association).
• Hayashi, L., Sheth, M., Young, A., Kruger, M., Wayman, G. A. & Coffin, A. B. (2015): The effect of the aquatic contaminants bisphenol-A and PCB-95 on the zebrafish lateral line. – NeuroToxicology, 46:125–136, doi:10.1016/j.neuro.2014.12.010.
• Hayashi, M. (2004): Temperature-Electrical Conductivity Relation of Water for Environmental Monitoring and Geophysical Data Inversion. – Environ. Monit. Assess., 96:119–128, 4 Abb., 1 Tab.
• Hayaty, M., Tavakoli Mohammadi, M. R., Rezaei, A. & Shayestehfar, M. R. (2014): Risk Assessment and Ranking of Metals Using FDAHP and TOPSIS. – Mine Water Environ., 33(2):157–164, 10 Abb., 3 Tab.; doi:10.1007/s10230-014-0263-y.
• Haybach, A. & Büro für Hydrobiologie - Mainz (2010): Ableitung ökologisch begründeter Schwellenwerte des Chloridgehaltes und Abschätzung des Einflusses der Gewässerstruktur auf das Makrozoobenthos in NRW. – Unpubl. Report for Landesamt für Natur‚ Umwelt und Verbraucherschutz NRW 44 p., Mainz (Büro für Hydrobiologie - Mainz).
• Hayek, E. & Wierer, H. (1951): Über den Arsengehalt von Stollenwässern in der Umgebung Badgasteins. – Tschermaks Min. Petr. Mitt., 2(3):290–291.
• Haymont, R. & Vitale, A. M. (2012): Mt Leyshon Gold Mine Automated Monitoring Network – Meeting Environmental and Social Commitments: International Mine Water Association Symposium. – 385–398 p., Bunbury (Edith Cowan University).
• Hayn, P. (1887): Der Ursprung der Grubenwasser – die wichtigste Frage des Steinkohlen-Bergbaues. – Freiberg:109.
• Haynes, R. J. & Tregurtha, R. (1999): Effects of increasing periods under intensive arable vegetable production on biological, chemical and physical indices of soil quality. – Biol Fert Soils, 28(3):259–266, doi:10.1007/s003740050491.
• Haynes, R. J. & Williams, P. H. (1999): Influence of stock camping behaviour on the soil microbiological and biochemical properties of grazed pastoral soils. – Biol Fert Soils, 28(3):253–258, doi:10.1007/s003740050490.
• Häyrynen, K., Langwaldt, J., Pongrácz, E., Väisänen, V., Mänttäri, M. & Keiski, R. L. (2008): Separation of nutrients from mine water by reverse osmosis for subsequent biological treatment. – Miner. Eng., 21(1):2–9, 3 Abb., 6 Tab.; doi:10.1016/j.mineng.2007.06.003.
• Häyrynen, K., Pongrácz, E., Väisänen, V., Pap, N., Mänttäri, M., Langwaldt, J. & Keiski, R. L. (2009): Concentration of ammonium and nitrate from mine water by reverse osmosis and nanofiltration. – Desalination, 240(1-3):280–289, 1 Abb., 5 Tab.; doi:10.1016/j.desal.2008.02.027.
• Hayton, S., Trumm, D., Horton, T., Pope, J., Ross, D. & Williams, M. (2022): Passive Treatment For Elevated Iron And Arsenic In Circum-Neutral Mine Affected Water. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 147–152; (International Mine Water Association).
• Hayton, S. R. (2020): The Use of Bioreactors and a Vertical Flow Reactor in the Treatment of Circum-Neutral Mine Affected Water. – 122 p., MSc, University of Canterbury, 67 Abb., 18 Tab.; Christchurch.
• Hayward, C. L., Reimold, W. U., Gibson, R. L. & Robb, L. J. (2005): Gold mineralization within the Witwatersrand Basin, South Africa – Evidence for a modified placer origin, and the role of the Vredefort impact event. – Spec. Publ. – Geol. Soc. London, 248(1):31–58, doi:10.1144/gsl.sp.2005.248.01.02.
• He, K., Wang, R. & Jiang, W. (2012): Groundwater Inrush Channel Detection and Curtain Grouting of the Gaoyang Iron Ore Mine, China. – Mine Water Environ., 31(4):297–306, 8 Abb., 2 Tab.; doi:10.1007/s10230-012-0207-3.
• He, S. 何. (2007): 煤旰石井下填充过程中对地下水环境–有机污染的影响研究 [Investigation of organic pollution impact on groundwater during mine-filling process with gangues – Study on the impact of organic pollution]. – 147 p., unpublished Doctoral thesis, Henan University of Technology; Henan
• He, Y. & Lee, H. K. (1997): Liquid-Phase Microextraction in a Single Drop of Organic Solvent by Using a Conventional Microsyringe. – Anal. Chem., 69:4634–4640, doi:10.1021/ac970242q.
• He, Y., Li, Z., Zhang, K. N., Ye, W. M. & Chen, Y. G. (2020): Effect of CuSO4 on the Hydromechanical Behavior of Compacted Tailings. – Mine Water Environ., 39(1):103–111, doi:10.1007/s10230-020-00662-1.
• He, Y. L., Tao, W. Q., Qu, Z. G. & Chen, Z. Q. (2004): Steady natural convection in a vertical cylindrical envelope with adiabatic lateral wall. – Int. J. Heat Mass Transfer, 47:3131–3144, 11 Abb., 1 Tab.; doi:10.1016/j.ijheatmasstransfer.2004.02.016.
• Heal, K. & Salt, C. (2000): Effect of ironstone mine spoil reclamation on drainage water chemistry. – Proceedings, 7th International Mine Water Association Congress:373–383, 4 Abb., 3 Tab.
• Heal, K., Younger, P., Smith, K., Quinn, P., Glendinning, S., Aumônier, J., Dobbie, K., McHaffie, H., Dimoliatis, D., Bush, A., Bozika, E., Tatsi, E., Simpson, A. & Sweetman, R. (2004): A sustainable Use of Ochre from Mine Water Treatment Plants for phosphorus Removal and Recycling. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 1–7, 2 Abb., 5 Tab.; Newcastle upon Tyne (University of Newcastle).
• Heal, K., Younger, P. L., Smith, K., Glendinning, S., Quinn, P. & Dobbie, K. (2003): Novel use of ochre from mine water treatment plants to redue point and diffuse phosphorus pollution. – Land Contam. Reclam., 11(2):145–152, 4 Abb., 2 Tab.; doi:10.2462/09670513.808.
• Heaney, P. C. (2023): Sustainable Mine Water Management Strategies. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 191–195; (International Mine Water Association).
• Heath, G. J. (2009): The Location Hazard Assessment and Sealing of Unsafe Mine Openings in the Central Witwatersrand Gold Mining Basin. – 105 p., MSc, University of the Witwatersrand, 64 Abb., 14 Tab., 10 Anl.; Johannesburg.
• Hebert, D. (2003): Dendrokorrektur und CO₂-Problem: Ein Beitrag zur 14C-Datierungsmethode. – Wiss. Mitt. Inst. Geol., 24:43–47, 5 Abb.
• Hebert, D., Merkel, B. J. & Wolkersdorfer, Ch. (2002): Isotope und Tracer in der Wasserforschung. – Wiss. Mitt. Inst. Geol., 19:1–111, 78 Abb., 8 Tab.
• Hebley, H. F. (1953): Stream Pollution By Coal Mine Wastes. – Min. Eng., 5:404–412, 7 Tab.
• Hecht, F., Hecht, B. K. & Sandberg, A. A. (1998): The “journal impact factor”: A misnamed, misleading, misused measure. – Cancer Genet. Cytogenet., 104(2):77–81.
• Heddoun, O., El Baroudi, M., Ait Lemkademe, A. & Benzaazoua, M. (2025): Integrating Hydrogeological and Geophysical Modeling for Sustainable Water Management in Phosphate Mining: A Case Study of the Beni Amir Deposit, Morocco. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 819–824; Braga (International Mine Water Association).
• Hedel, R. (2004): GIS-basierte Kompromissoptimierung und Fuzzy Modellierung als Methoden zur multikriteriellen Eignungsbewertung von Flächennutzungsoptionen. – Wiss. Mitt. Inst. Geol., 25:27.
• Hedin, B., Wolfe, N. & Hedin, R. (2024): Passive treatment of Mn: results from an experimental pilot system. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 264–267; Morgantown (International Mine Water Association).
• Hedin, L. T. & Ranangen, H. (2017): Community involvement and development in Swedish mining. – Extr. Ind. Soc., 4(3):630–639, doi:10.1016/j.exis.2017.04.008.
• Hedin, R. (2010): Sustained Treatment of AMD Containing Al and Fe3+ with Limestone Aggregate. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 237–241, Sydney, NS (Cape Breton University Press).
• Hedin, R. & Hedin, B. (2016): The complicated role of CO₂ in mine water treatment. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 844–849, Freiberg (TU Bergakademie Freiberg).
• Hedin, R., Weaver, T., Wolfe, N. & Weaver, K. (2010): Passive Treatment of Acidic Coal Mine Drainage: The Anna S Mine Passive Treatment Complex. – Mine Water Environ., 29(3):165–175, 6 Abb., 9 Tab.; doi:10.1007/s10230-010-0117-1.
• Hedin, R. S. (2003): Recovery of marketable iron oxide from mine drainage in the USA. – Land Contam. Reclam., 11(2):93–97, 6 Abb., 2 Tab.; doi:10.2462/09670513.802.
• Hedin, R. S. (2006): Sustainable Mine Drainage Treatment Through the Passive Production of Saleable Iron Oxide Solids: ICARD 2006 7. – 764–773 [CD–ROM] p., 1 Abb., 4 Tab.; St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06020764.
• Hedin, R. S. (2006): The Use of Measured and Calculated Acidity Values to Improve the Quality of Mine Drainage Datasets. – Mine Water Environ., 25(3):146–152, 2 Abb., 1 Tab.
• Hedin, R. S. (2008): Iron Removal by a Passive System Treating Alkaline Coal Mine Drainage. – Mine Water Environ., 27(4):200–209, 5 Abb., 6 Tab.; doi:10.1007/s10230-008-0041-9.
• Hedin, R. S. (2013): Temperature Independent Removal of Iron in a Passive Mine Water System. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 599–604, 3 Abb., 2 Tab.; Golden (International Mine Water Association).
• Hedin, R. S. (2016): Long-term minimization of mine water treatment costs through passive treatment and production of a saleable iron oxide sludge. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1267–1273, Freiberg (TU Bergakademie Freiberg).
• Hedin, R. S. (2020): Long-term Performance and Costs for the Anna S Mine Passive Treatment Systems. – Mine Water Environ., 39(2):345–355, doi:10.1007/s10230-020-00676-9.
• Hedin, R. S. & Hedin, B. C. (2013): Carbon Sequestration Through Oceanic Fe Fertilization: Opportunity for Mine Water? – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 605–610, 2 Abb., 2 Tab.; Golden (International Mine Water Association).
• Hedin, R. S. & Hedin, B. C. (2015): Increasing Oceanic Carbon Fixation Through Fe Fertilization: Opportunity for Mine Water? – Mine Water Environ., 34(1):105–111, doi:10.1007/s10230-014-0305-5.
• Hedin, R. S. & Hedin, B. C. (2024): Carbonation of mine water to increase calcite dissolution. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 259–263; Morgantown (International Mine Water Association).
• Hedin, R. S., Hyman, D. M. & Hammack, R. W. (1988): Implications of Sulfate-Reduction and Pyrite Formation Processes for Water Quality in a Constructed Wetland: Preliminary Observations. – Bur. Mines Inf. Circ., 9183:382–388, 3 Abb., 5 Tab.; doi:10.21000/JASMR88010382.
• Hedin, R. S., Millgate, J., Authurs, B., Pattrick, R. N., Khamsana, V. & Wolfe, N. (2015): Passive Treatment of Toe Drain Discharges from a Tailings Storage Facility using an Oxic Granite Bed. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Hedin, R. S., Nairn, R. W. & Kleinmann, R. L. P. (1994): Passive Treatment of Coal Mine Drainage. – Bur. Mines Inf. Circ., IC-9389:1–35, 13 Abb., 19 Tab.
• Hedin, R. S., Stafford, S. L. & Weaver, T. J. (2005): Acid Mine Drainage Flowing from Abandoned Gas Wells. – Mine Water Environ., 24(2):104–106, 1 Abb., 2 Tab.
• Hedin, R. S., Watzlaf, G. R. & Nairn, R. W. (1994): Passive treatment of acid-mine drainage with limestone. – J. Environ. Qual., 23(6):1338–1345, 3 Abb., 6 Tab.; doi:10.2134/jeq1994.00472425002300060030x.
• Hedin, R. S., Wolfe, N. & Hedin, B. (2024): Passive Removal of Mn from Mine Water Using Oxic Aggregate Beds: Results of Two Pilot Systems. – Mine Water Environ., 43(2):255–265, doi:10.1007/s10230-024-00990-6.
• Hedman, E. R. & Osterkamp, W. R. (1982): Streamflow Characteristics Related to Channel Geometry of Streams in Western United States. – US Geological Survey Water-Supply Paper, W 2193:1–71, 9 Abb., 3 Tab.
• Hedrich, S. & Johnson, D. B. (2012): A modular continuous flow reactor system for the selective bio-oxidation of iron and precipitation of schwertmannite from mine-impacted waters. – Bioresour. Technol., 106:44–49, 4 Abb.; doi:10.1016/j.biortech.2011.11.130.
• Hedrich, S., Lünsdorf, H., Kleeberg, R., Heide, G., Seifert, J. & Schlömann, M. (2011): Schwertmannite formation adjacent to bacterial cells in a mine water treatment plant and in pure cultures of Ferrovum myxofaciens. – Environ. Sci. Technol., 45(18):7685–7692, 5 Abb., 2 Tab.; doi:10.1021/es201564g.
• Hegedüs-Koncz, M. (1982): Methods and Results of Hydrogeological Research Related to Bauxite Mining. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:84–102, 7 Abb.
• Hegedus-Koncz, M., Nandori, G. & Gaspar, L. (1992): Hydrogeological and geothermal changes in karstic reservoirs due to mine dewatering. – Mine Water Environ., 11(1):45–54, 6 Abb.
• Hegemann, F. (1949): Die Herkunft des Mo, V, As und Cr im Wulfenit der alpinen Blei-Zinklagerstätten. – Heidelberger Beiträge zur Mineralogie u. Petrographie, 1:690–715, 3 Tab.
• Hegemann, F. & Maucher, A. (1933): Die Bildungsgeschichte der Kieslagerstätte im Silber-Berg bei Bodenmais. – Abhandlungen der Geologischen Landesuntersuchung am Bayerischen Oberbergamt, 11:3–36, 7 Abb., 5 Taf.
• Hegemann, M. (2016): Findings about Horizontal Ground Movements on Basis of GPS – Measurements in German Hard Coal Mining. – Veröff. Dt. Bergbau-Mus. Bochum, 212:95–105.
• Hegemann, M. & Goerke-Mallet, P. (2016): Support of solving the Problems of Abandoned Mining Areas in Germany by Improvement of the University Education. – Veröff. Dt. Bergbau-Mus. Bochum, 212:19–32.
• Heiberger, R. M. & Holland, B. (2015): Statistical Analysis and Data Display – An Intermediate Course with Examples in R: Springer Texts in Statistics, 2nd edn. – 898 p., New York (Springer); doi:10.1007/978-1-4939-2122-5.
• Heick, C. & Flach, D. (1989): Microseismicity in a Flooded Potash Mine, the Hope Mine, Federal Republic of Germany. – Pure Appl. Geophys., 129(3-4):475–496, 13 Abb.; doi:10.1007/BF00874520.
• Heidari-Nejad, H., Zarei, M. & Merkel, B. J. (2017): Evaluating the Origin of Seepage Water in the Golgohar Iron Mine, Iran. – Mine Water Environ., 36(4):583–596, doi:10.1007/s10230-017-0447-3.
• Heidegger, M. (1962 [1953]): Die Technik und die Kehre: Opuscula aus Wissenschaft und Dichtung. – 47 p., Pfullingen (Neske).
• Heideman, M. T., Johnson, D. H. & Burrus, C. S. (1985): Gauss and the History of the Fast Fourier Transform. – Archive for History of Exact Sciences, 34(3):265–277, 1 Tab.; doi:10.1007/BF00348431.
• Heidenreich, H., Klafki, M., Kretzschmar, H.-J. & Ziegert, H. R. (1991): Strömungsmechanisch-mathematische Simulation eines gefluteten Endlagers. – Kernenerg., 34(6):270–275, 7 Abb.
• Heiderscheidt, E., Postila, H., Ronkanen, A.-K., Campos Lopez, F., Gogoi, H. & Leiviskä, T. (2017): Pilot Scale Evaluation of the Suitability of Peat as Sorbent Filter Material for Metal Removal from Mining Drainage Water. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1076–1079, Lappeenranta (Lappeenranta University of Technology).
• Heikkinen, K., Ihme, R. & Lakso, E. (1995): Contribution of cation exchange property of overflow wetland peat to removal of NH4+ discharged from some Finnish peat mines. – Appl. Geochem., 10(2):207–214, 1 Abb., 4 Tab.
• Heikkinen, P., Korkka-Niemi, K., Lahti, M. & Salonen, V.-P. (2002): Groundwater and surface water contamination in the area of the Hitura nickel mine, Western Finland. – Environ. Geol., 42(4):313–329, doi:10.1007/s00254-002-0525-z.
• Heikkinen, P. M., Noras, P., Salminen, R., Mroueh, U. M., Vahanne, P., Wahlström, M., Kaartinen, T., Juvankoski, M., Vestola, E., Mäkelä, E., Leino, T., Kosonen, M., Hatakka, T., Jarva, J., Kauppila, T., Leveinen, J., Lintinen, P., Suomela, P., Pöyry, H., Vallius, P., Nevalainen, J., Tolla, P. & Komppa, V. (2008): Mine Closure Handbook: Environmental Techniques for the Extractive Industries. – 50 Abb., 26 Tab., 18 Anh.; Espoo (Geological Survey of Finland).
• Heikkinen, P. M. & Räisänen, M. L. (2009): Geochemical alteration of tailings in two active sulphide mine tailings areas. – 1–5 [electronic document] p., 3 Abb.; Skellefteå (Proceedings Securing the Future 2009 & 8th ICARD).
• Heikkinen, P. M., Räisänen, M. L. & Johnson, R. H. (2009): Geochemical Characterisation of Seepage and Drainage Water Quality from Two Sulphide Mine Tailings Impoundments: Acid Mine Drainage versus Neutral Mine Drainage. – Mine Water Environ., 28(1):30–49, 12 Abb., 6 Tab.; doi:10.1007/s10230-008-0056-2.
• Heilfurth, G. (1963): Die bergmännische Danielverehrung im Licht jüngster Funde von der Slowakei bis Burgund. – Der Anschnitt, 15(2):3–19, 17 Abb.
• Heilmann, H. (2006): Aspekte autoregulativer pH-Wert-Normalisierung im Boden – Offene Fragen hinsichtlich des Modells und der Bestimmungsgründe eines wichtigen Bodenparameters. – Wiss. Mitt. Inst. Geol., 31:199–202, 2 Abb.
• Heim, A. (1931): Bergsturz und Menschenleben. – Schweizer Geogr., 8(5):126–128, doi:10.5169/seals-9840.
• Heim, A. (1932): Bergsturz und Menschenleben. – Beibl. Vierteljahresschr. Naturforsch. Ges. Zürich, 77(20):1–218, doi:10.5169/seals-9840.
• Heim, J., Bachmann, K., Rahfeld, A., Möckel, R., Schopf, S., Gutzmer, J. & Schlömann, M. (2016): Mineralogical Changes within Polish Weissliegend Sandstones During Bioleaching. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1027–1033, Freiberg (TU Bergakademie Freiberg).
• Heim, S. & Schwarzbauer, J. (2013): Pollution history revealed by sedimentary records: a review. – Environ. Chem. Lett., 11(3):255–270, doi:10.1007/s10311-013-0409-3.
• Heim, S., Schwarzbauer, J., Kronimus, A., Littke, R., Woda, C. & Mangini, A. (2004): Geochronology of anthropogenic pollutants in riparian wetland sediments of the Lippe River (Germany). – Org. Geochem., 35(11):1409–1425, doi:10.1016/j.orggeochem.2004.03.008.
• Heimlich, C., Gourmelen, N., Masson, F., Schmittbuhl, J., Kim, S. W. & Azzola, J. (2015): Uplift around the geothermal power plant of Landau (Germany) as observed by InSAR monitoring. – Geothermal Energy, 3 doi:10.1186/s40517-014-0024-y.
• Heine, B.-P. (1837): Chemische Untersuchung einiger Grubenwasser aus dem Mannsfeldischen. – J. Prakt. Chem., 10(1):65–78, doi:10.1002/prac.18370100111.
• Heinicke, J., Apel, M. & Martinelli, G. (2006): GIS-Einsatz in der Erdbebenforschung: neue Studien zum Einfluss von Luftdruckänderungen. – Wiss. Mitt. Inst. Geol., 31:271–271, 1 Abb.
• Heinicke, J., Koch, U. & Martinelli, G. (1995): CO₂ and Radon measurements in the Vogtland area (Germany) – a contribution to earthquake prediction researc. – Geoph. Res. Letters, 22:771–774, 4 Abb.
• Heinkele, T., Neumann, C., Rumpel, C., Strzyszcz, Z., Kögel-Knabner, I. & Hüttl, R. F. (1999): Zur Pedogenese pyrit- und kohlehaltiger Kippsubstrate im Lausitzer Braunkohlerevier. – In: Reinhard, F. H., Doris, K. & Edwin, W. (eds): Rekultivierung von Bergbaufolgelandschaften. – p. 25–44, 8 Abb., 7 Tab.; Berlin, Boston (De Gruyter); doi:10.1515/9783110806441.25.
• Heinrich, B., Guderitz, I., Neumann, V., Pokrandt, K.-H., Benthaus, F.-C. & Ulrich, K.-U. (2011): In-lake neutralisation and post-rehabilitation treatment of a lignite mining pit lake – lessons learned: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 343–347 p., 4 Abb., 1 Tab.; Aachen (RWTH Aachen University).
• Heinrich, B., Struzina, M., Knopke, S. & Peine, S. (2016): Hydrogeological exploration and field tests on vacuum wells in overburden sediments for determination and modelling of process parameters and dewatering construction. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 494–502, Freiberg (TU Bergakademie Freiberg).
• Heinrich, P., Wenzel, T., Bleidießel, M., Manig, R., Oppelt, L., Tom, E., Timm, W. & Grab, T. (2024): Analysis of a base-load-capable heat supply of quarters considering aquifers in disused mines as heat storages for locally specific renewable (waste) heat potentials. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 268–273; Morgantown (International Mine Water Association).
• Heinrichs, G. & Udluft, P. (1996): Geogenes Arsen in Grundwässern Deutschlands unter Berücksichtigung der Aquifergeologie. – Z. dt. geol. Ges., 147(4):519–530, 4 Abb., 2 Tab.
• Heinz, S. (2003): Statistical Mechanics of Turbulent Flows. – 214 p., 42 Abb.; Berlin (Springer).
• Heinz, W. F. (1988): Pre-Cementation of Deep Shaft. – Int. J. Mine Water, 7(4):1–12, 2 Abb., 1 Tab.
• Heinz, W. F. (1991): Operations for Protection Against Water in Deep Mines. – Proceedings, 4th International Mine Water Association Congress, 2:61–71.
• Heinz, W. F. (1997): Cover Grouting: A Rational Approach. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:1–17, 8 Abb., 3 Fot.
• Heinz, W. F. (1998): Mining Grouting in South African Deep Mines – Historical Overview and State-of-the-Art: Mine Water and Environmental Impacts 1. – 121–140 p., 7 Abb., 2 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Heinz, W. F. (2003): Water control and mining grouting a South African historical perspective. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 159–171, 3 Abb.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Heinze, G., Märten, H., Schreyer, J., Seeliger, D., Sommer, K. & Vogel, D. (2002): Flood Water Treatment by Improved HDS Technology. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 793–801, 6 Abb., 1 Tab.; Heidelberg (Springer); doi:10.1007/978-3-642-55668-5_92.
• Heinzel, E., Hedrich, S., Janneck, E., Glombitza, F., Seifert, J. & Schlömann, M. (2009): Bacterial Diversity in a Mine Water Treatment Plant. – Appl. Environ. Microbiol., 75(3):858–861, 1 Abb., 2 Tab.; doi:10.1128/AEM.01045-08.
• Heinzel, E., Hedrich, S., Rätzel, G., Wolf, M., Janneck, E., Seifert, J., Glombitza, F. & Schlömann, M. (2006): Bakterielle Diversität in einer Wasserbehandlungsanlage zur Reinigung saurer Grubenwässer. – Wiss. Mitt. Inst. Geol., 31:61–67, 2 Abb., 2 Tab.
• Heißel, G. (1991): Die Abhängigkeit der hydrogeologischen von den geologisch-tektonischen Verhältnissen des Karwendelgebirges, aufgezeigt am Beispiel der Mühlauer Quellen (Tirol, Österreich) mit Anmerkungen zu strukturgeologischen und faziellen Problemen der Geologie Tirols. – Veröff. Tiroler Landes-Mus. Ferdinandeum, 71:17–81, 19 Abb.
• Heißel, G., Mostler, W., Nittel-Gärtner, P., Puschnik, P. & Braunhofer, D. (2014): Der Tschirgant-Bergsturz in neuem Lichte. Paper presented at the Geoforum Umhausen, Umhausen. – p. 20–28, 14 Abb.
• Heißel, W. (1938): Gesteinsaufschmelzungen bei Ötz im Ötztal (Tirol). – Jb. Geol. B.-A., 88(3-4):207–215, 2 Abb.
• Heißel, W. (1953): Zur Stratigraphie und Tektonik des Hochkönig (Salzburg). – Jb. Geol. B.-A., 96:344–356, 1 Abb., 1 Taf.
• Heißel, W. (1957): Zur Tektonik der Nordtiroler Kalkalpen. – Mitt. Geol. Ges. Wien, 50:95–132, 2 Abb., 1 Taf.
• Heitfeld, K. H., Heitfeld, M., Rosner, P., Sahl, H. & Schetelig, K. (2002): Mine Water Recovery in the Coal Mining District of Aachen – Impacts and Measures to Control Potential Risks. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1027–1036, 6 Abb.; Heidelberg (Springer).
• Heitfeld, M., Denneborg, M., Rosner, P., Müller, F. & Lieser, U. (2012): Signifikante Belastungsquellen des Erzbergbaus und mögliche Maßnahmen im Rahmen der Bewirtschaftungsplanung NRW. – Unpubl. Report for Bezirksregierung Arnsberg – Abteilung 6 – Bergbau und Energie in NRW 164 p., 22 Abb., 59 Tab., 5 Anl., 9 Anh.; Aachen (ARGE Erzbergbau).
• Heitfeld, M., Klünker, J., Krings, K. & Staron, R. (2006): Umgang mit altbergbaulichen Hinterlassenschaften im Rahmen der Stadtplanung am Beispiel der Stadt Herzogenrath. – In: Martens, P. N. (ed) 6. Altbergbau-Kolloquium. – p. 445–457, 5 Abb.; Essen (Glückauf).
• Heitfeld, M., Klünker, J., Mainz, M. & Schetelig, K. (2006): Risk of collapse features from near surface cavities in old mining cities: Engineering geology for tomorrow’s cities 461. – 13 p., 12 Abb.; 2 Tab.; Nottingham (Proceedings 10th International IAEG Congress).
• Heitfeld, M., Krings, K. & Schaefer, W. (2009): Braunkohlen-Altbergbau Goltsteingrube – Einwirkungen des Altbergbaus auf die Tagesoberfläche im Randbereich des Tagebaus Inden [Old Goltsteingrube lignite mine – The impact of the former mine on the ground surface in the border zone of the Inden opencast mine]. – World of Mining, 61(6):373–381, 6 Abb.
• Heitfeld, M. & Rosner, P. (2016): Auswirkungen eines Grubenwasseranstiegs im Ruhrgebiet – bisherige Erfahrungen und Strategien. – Veröff. Dt. Bergbau-Mus. Bochum, 217:143–155.
• Heitfeld, M., Rosner, P. & Mühlenkamp, M. (2014): Auswirkungen von Geländehebungen im Zuge des Grubenwasseranstiegs im Ruhrrevier – ein Ansatz zur Bewertung der Risiken. Paper presented at the 14. Altbergbau-Kolloquium, Gelsenkirchen. – p. 41–60, 8 Abb.
• Heitfeld, M., Rosner, P., Schetelig, K. & Sahl, H. (2006): Nutzung aufgegebener Tagesschächte des Steinkohlenbergbaus für die Gewinnung von Erdwärme. – Glückauf, 142(10):432–438.
• Helgen, S. O., Greer, B. & Nicholson, A. (2013): Addition of a Rate Limit to a Shrinking Core Oxidation Model for Predictive Modeling of Mine Water Quality. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 365–370, 6 Abb., 1 Tab.; Golden (International Mine Water Association).
• Helgen, S. O. & Moore, J. N. (1996): Natural Background Determination and Impact Quantification in Trace Metal-Contaminated River Sediments. – Environ. Sci. Technol., 30(1):129–135, doi:10.1021/es950192b.
• Helios Rybicka, E. (1996): Impact of mining and metallurgial industries on the environment in Poland. – Appl. Geochem., 11(1-2):3–9, 3 Abb., 6 Tab.
• Helios Rybicka, E. & Strzebonska, M. (1999): Distribution and Chemical Forms of Heavy Metals in the Flood 1997 Sediments of the Upper and Middle Odra River and its Tributaries, Poland. – Acta Hydrochim. Hydrobiol., 27(5):331–337, 8 Abb., 1 Tab.
• Heller, F. & Nieder, R. (1932): Geologisch-morphologische Untersuchungen im Partnachtal des Wettersteingebirges. – Mitt. Höhlen- u. Karstforschung (1-4):119–153, 4 Abb.
• Hellier, W. W. (1998): Abatement of Acid Mine Drainage by capping a reclamed Surface Mine with fluidized Combustion Ash. – Mine Water Environ., 17(1):28–40, 13 Abb., 3 Tab.; doi:10.1007/BF02687242.
• Helling, C. (1999): Hydrogeochemische Untersuchungen an müllüberlagerten Urantailings unter dem Aspekt einer effektiven Langzeitüberwachung. – Wiss. Mitt. Inst. Geol., 9:1–124, 54 Abb., 35 Tab., 6 Anl.
• Helling, C., Junghans, M. & Nitzsche, O. (1997): Isotopic composition of groundwater from mixed uranium mill tailings in Saxony/Germany. – Isot. Environ. Health Stud., 33(4):357–366.
• Helling, C., Nitzsche, O., Ullrich, B. & Merkel, B. J. (1998): The Influence of municipal Waste on Uranium Mill Tailings: A hydrogeochemical Study on a mixed Tailings Site. – Mine Water Environ., 17(1):41–51, 3 Abb., 7 Tab.
• Hellman, S., Cajal, P., Martinez, P., Kuusisto, S. & Tuhkanen, T. (2010): PCB-contamination in a school building indoors. Paper presented at the Sustainable City 2010 – 6th International Conference on Urban Regeneration and Sustainability, A Coruña, Apr 14–16. – p. 619–627.
• Hellmann, D.-H. & Tams, D. (1986): Submersible Motor Pumps for Mine Drainage Applications. – Int. J. Mine Water, 5(1):33–44, 16 Abb., 1 Tab.
• Helm, D. C. (1988): Prediction of Groundwater Flow in Fissured Limestone, Blendevale Prospect, Western Australia. – Proceedings, 3rd International Mine Water Congress, Melbourne:299–308, 6 Abb., 2 Tab.
• Helms, W. (1995): Sauerwasser im Erzbergbau – Entstehung, Vermeidung und Behandlung. – Bergbau, 46(2):65–71, 1 Tab.
• Helou, K., Harmouche-Karaki, M., Karake, S. & Narbonne, J.-F. (2019): A review of organochlorine pesticides and polychlorinated biphenyls in Lebanon: Environmental and human contaminants. – Chemosphere, 231:357–368, doi:10.1016/j.chemosphere.2019.05.109.
• Helovuori, O. (1979): Geology of the Pyhäsalmi Ore Deposit, Finland. – Econ. Geol., 74(5):1084–1101, doi:10.2113/gsecongeo.74.5.1084.
• Helsen, J., Martin, A. J., Crozier, T., Parent, G., Mann, V., Mendoza, C., Gaspar, C. & Russell, J. (2018): Permeable Reactive Barrier Feasibility Assessment at Goldcorp’s Red Lake Gold Mines: Validation of Seepage Flow Paths through Tracer Testwork. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 623–628; (Tshwane University of Technology).
• Hem, J. D. (1985): Study and interpretation of the chemical characteristics of natural water. – U.S. Geol. Surv. Water Supply Pap., 2254:263, 51 Abb., 33 Tab., 3 Taf.; doi:10.3133/wsp2254.
• Hem, J. D. & Stumm, W. (1961): Stability Field Diagrams as Aids in Iron Chemistry Studies [with Discussion]. – Journal (American Water Works Association), 53(2):211–232, 6 Abb.; doi:10.1002/j.1551-8833.1961.tb00653.x.
• Hemm, M., Schlundt, A., Kapfer, M. & Nixdorf, B. (2002): Beispiele für Neutralisierungsversuche am Steinberger See (Bayern) und Zieselsmaar (Nordrhein-Westfalen) – aus der UBA-Studie „Tagebauseen in Deutschland“. – Biogene Alkalinitätsproduktion und Neutralisierung als ergänzende Strategie für die Restaurierung von extrem sauren Tagebauseen, 7:37–42, 4 Abb., 2 Tab.
• Henckel, J. F. (1725): Pyritologia, Oder: Kieß-Historie Als des vornehmsten Minerals, Nach dessen Nahmen, Arten, Lagerstätten, Ursprung, Eisen, Kupffer, unmetallischer Erde, Schwefel, Arsenic, Silber, Gold, einfachen Theilgen, Vitriol und Schmeltz-Nutzung. – Leipzig (Martini).
• Henderson, R. M. & Norton, P. J. (1984): A Method of Predicting the Pollution Potential of Surface Mining Backfill. – Int. J. Mine Water, 3(1):41–55, 7 Abb., 3 Tab.
• Henderson, R. W. & Larson, O. W. (1966): Radiation measurements of the effluent from the NRX A-2 and NRX A-3 reactors. – 51 pp. p., (Los Alamos Sci. Lab.).
• Hendry, M. J., Wassenaar, L. I., Barbour, S. L., Schabert, M. S., Birkham, T. K., Fedec, T. & Schmeling, E. E. (2018): Assessing the fate of explosives derived nitrate in mine waste rock dumps using the stable isotopes of oxygen and nitrogen. – Sci. Total Environ., 640-641:127–137, doi:10.1016/j.scitotenv.2018.05.275.
• Heng, S. B. & Kannan, H. (2014): Health Ministry calls for halt to using mining pool water. – News Straits Times, 2014–05–10.
• Henkel, J. F. (1754): Pyritologia, oder Kieshistorie als des vornehmsten Minerals, Nach dessen Namen, Arten, Lagerstätten, Ursprung, Eisen, Kupfer, unmetallischer Erde, Schwefel, Arsenic, Silber, Gold, einfachen Theilgen, Vitriol und Schmeltznutzung, Aus Sammlung Grubenbefahrung Briefwechsel, und Chymischer Untersuchung, mit Physicalisch-Chymischen Entdeckungen und Kupfern auch einer Vorrede vom Nutzen des Bergwerks, Neue Verbesserte Ausgabe edn. – Leipzig (Groß).
• Henkel, L. & Melchers, Ch. (2017): Hydrochemical and isotopegeochemical evaluation of density stratification in mine water bodies of the Ruhr coalfield. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 430–436, Lappeenranta (Lappeenranta University of Technology).
• Henley, S. (2021): UNEXMIN and UNEXUP Projects: Development of Submersible Robots for Survey of Flooded Underground Mines. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 188–188; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Henningsen, A.-K. & Rott, U. (2003): Untersuchungen zur Manganoxidation bei der In-situ-Aufbereitung von reduzierten Grundwässern. – Grundwasser, 8(4):238–247, 8 Abb.
• Henrich, M. (2017): Die Grube Wolf bei Herdorf im Siegerland – Weltberühmt für Rhodochrosit. – Mineralien-Welt,(2):42–57.
• Henrikson, L. & Brodin, Y.-W. (1995): Liming of Acidified Surface Waters – A Swedish Synthesis. – 458 p., Berlin (Springer); doi:10.1007/978-3-642-79309-7.
• Henry, T. (2011): Tynagh Mine Groundwater Issues: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 587–592 p., Aachen (RWTH Aachen University).
• Henton, M. P. (1976): Predicting the quality of mine water discharges. – Effluent Water Treat. J., 16(11):568, 572, 1 Tab.
• Henton, M. P. (1981): The Problem of Water Table Rebound After Mining Activity and its Effect on Ground and Surface Water Quality. – In: van Duijvenbooden, W., Glasbergen, P. & van Lelyveld, H. (eds): Stud. Environ. Sci. 17. – p. 111–116, 1 Abb., 1 Tab.; Amsterdam (Elsevier); doi:10.1016/S0166-1116(08)71891-0.
• Hentschel, T., Hruschka, F. & Priester, M. (2002): Global Report on Artisanal & Small-Scale Mining. – Mining, Minerals and Sustainable Development, 70:1–67, 16 Abb., 7 Tab.
• Hentschel, T., Hruschka, F. & Priester, M. (2003): Artisanal and Small-Scale Mining – Challenges and Opportunities. – 80 p., 5 Abb., 6 Tab.; London (International Institute for Environment and Development (IIED),).
• Henzen, M. R. & Pieterse, M. J. (1978): Acidic Mine Drainage in the Republic of South Africa. – In: Jenkins, S. H. (ed) Eighth International Conference on Water Pollution Research. – p. 981–1000, 1 Abb., 6 Tab.; Amsterdam (Pergamon); doi:10.1016/B978-0-08-020902-9.50135-8.
• Henzinger, J., Henzinger, C. & Hoffmann, P. (2011): Tiefgründung bei Sulfatkarst-Bohrpfahlgründung beim Neubau des Erlebnisbades Ehrenberg in Reutte. Paper presented at the 8. Österreichische Geotechniktagung 2011, Wien, 2011–02–03 – 04. – p. 1–13, 10 Abb.
• Herbert, H.-J. & Reichelt, C. (1991): Anwendungen von EQ3/6-Rechnungen auf die geflutete Kaligrube Hope. Paper presented at the Workshop „Geochemische Modellierung“, Karlsruhe. – p. 63–75, 4 Abb., 3 Tab.; (Kernforschungszentrum Karlsruhe).
• Herbert, H.-J. & Sander, W. (1982): Mineralogisch-chemische Prozesse in laugenerfüllten Schächten des Zechsteinsalinars. – Fortsch. d. Min., 60:96–98.
• Herbert, H.-J. & Sander, W. (1987): Die Flutung des Kalibergwerks Hope – Ergebnisse des geochemischen Meßprogramms [The flooding of the Hope potash mine – results of the geochemical measurement programme]. – Kali Steinsalz, 9(10):326–333, 15 Abb., 2 Tab.
• Herbert, H.-J. & Sander, W. (1989): Verfahren zur verfälschungsfreien Messung und Probennahme von hochkonzentrierten Salzlösungen im Untertagebereich [Method for the error-free measurement and sampling of highly concentrated brines in underground mines]. – Kali Steinsalz, 10(4/5):137–141, 3 Abb.
• Herbert, H.-J., Schwandt, A., Reichelt, C., Dittrich, E., Martin, J. & Gast, H.-D. (2007): Salzlösungszuflüsse im Salzbergbau Mitteldeutschlands: GRS - 226. – 198 p., 92 Abb., 24 Tab.; Köln (Gesellschaft für Anlagen und Reaktorsicherheit (GRS) mbH).
• Herbert Jr, R. B. (1999): MiMi – Sulfide oxidation in mine waste deposits – A review with emphasis on dysoxic weathering. – 45 p., 10 Abb., 3 Tab.; Luleå (MiMi Print).
• Herbert, R. B. & Nordström, A. (2017): Leachate generation and nitrogen release from small-scale rock dumps at the Kiruna iron ore mine. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 140–146, Lappeenranta (Lappeenranta University of Technology).
• Herbert, R. B., Salmí, T. & Ylipää, M. (2024): Nitrate removal from waste rock drainage with denitrifying bioreactors at the Kiruna iron ore mine. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 274–280; Morgantown (International Mine Water Association).
• Herbst, F. (1987 (1969)): Über die im Raum Holzappel–Nassau aufsetzenden Blei-Zinkerzgänge. – Bad Emser H., 53, 54:53.1–53.36, 54.1–54.32, 1 Abb., 9 Taf., 7 Anl.
• Herbst, G. (1964): Die Grubenwässer im Steinkohlenrevier von Aachen-Erkelenz. – Z. dt. geol. Ges., 116(1):70–75, 2 Abb.; doi:10.1127/zdgg/116/1964/70.
• Herbst, P., Hilberg, S., Draxler, I., Zauner, H. & Riepler, F. (2009): The Facies and Hydrogeology of an Inneralpine Pleistocene Terrace Based on an Integrative Study – Deep Well Telfs. – Austrian J. Earth Sci., 102(2):149–156, 7 Abb.
• Herbst, P. & Riepler, F. (2006): Die Hydrogeologie der Hohen Munde, Telfs, Tirol: Pangeo Austria 2006. – 99–100 p., Innsbruck (Innsbruck Univ. Press).
• Hergarten, S. (2024): Modeling the formation of toma hills based on fluid dynamics with a modified Voellmy rheology. – Earth Surf. Dynam., 12(5):1193–1203, doi:10.5194/esurf-12-1193-2024.
• Hergreen, G. F. W. (1985): Palynologische Untersuchungsergebnisse der Bohrungen Neuburg 8 und Neuburg 9 bei Sehensand. – Geol. Bl. NO-Bayern, 34/35:369–388, 2 Tab., 3 Taf.
• Herhaus, K. F. (1983): Ökologische Untersuchungen an einem versalzten Fließgewässer (Ibbenbürener Aa – Hörsteler Aa – Dreierwälder Aa – Speller Aa – Unterlauf der Großen Aa) im Frühsommer 1982. – Osnabrücker naturwiss. Mitt., 10:71–95, 6 Abb., 6 Tab.
• Herm, D. (1977): Zyklische Regressions-Sedimentation und Fossil-Vergesellschaftungen in der Gosau von Brandenberg (Tirol). – Mitt. Bayer. Staatsslg. Pal. hist. Geol., 17:257–277, 5 Abb.
• Herman, C., Kang, E. & Wetzel, M. (1998): Expanding the applications of holographic interferometry to the quantitative visualization of oscillatory thermofluid processes using temperature as tracer. – Exp. Fluids, 24(5-6):431–446, 13 Abb., 1 Tab.; doi:10.1007/s003480050193.
• Hermanns, R. L. (2013): Rock Avalanche (Sturzstrom). – In: Bobrowsky, P. T. (ed) Encyclopedia of Natural Hazards. – p. 875, Dordrecht (Springer); doi:10.1007/978-1-4020-4399-4_301.
• Hermes, L. (2016): Monitoring des Grubenwasseranstiegs aus Sicht der Bergbehörde. – Veröff. Dt. Bergbau-Mus. Bochum, 217:187–194.
• Hernandez, A. M. (2013): Mine Closure Regulations – Case Scenario in Northern Quebec. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 41–46, 3 Abb., 1 Tab.; Golden (International Mine Water Association).
• Hernandez, L. M., Gomara, B., Fernandez, M., Jimenez, B., Gonzalez, M. J., Baos, R., Hiraldo, F., Ferrer, M., Benito, V., Suner, M. A., Devesa, V., Muñoz, O. & Montoro, R. (1999): Accumulation of heavy metals and As in wetland birds in the area around Doñana National Park affected by the Aznalcóllar toxic spill. – Sci. Total Environ., 242(1-3):293–308, doi:10.1089/ast.2019.2164.
• Herold, M., Ptak, T., Wendel, T. & Grathwohl, P. (2008): Integrale Quantifizierung von Schadstoffmassenflüssen im Grundwasser – Konditionierung der numerischen Inversion der Konzentrationsganglinien von Immissionspumpversuchen. – Grundwasser, 13(1):4–14, 5 Abb., 1 Tab.; doi:10.1007/s00767-007-0057-2.
• Héron de Villefosse, A.-M. (1819): Atlas de la richesse minérale – Recueil de faits géognostiques et de faits industriels, constatant l’état actuel de l’art des mines et usines, par des exemples authentiques, tirés de célèbres établissemens, et rendus sensibles à l’œil, au moyen de la représentation géométrique des objets, Erste Ausgabe edn. – 63 Taf.; Paris (De L‘Imprimerie Royale); doi:10.3931/e-rara-53002.
• Herr, K. (1930): Die Nördliche Schwarzach – Ein Beitrag zur Kenntnis der geologischen Verhältnisse des Schwarzachtales und seiner Geschichte. – In: Krauß, H. (ed) Schwabach, Stadt und Bezirk: ein Heimat-Handbuch 1. – p. 211–219, Schwabach (Millizer).
• Herrell, M., Vandenberg, J. & Faithful, J. (2015): Designing Meromictic Pit Lakes as a Mine Closure Mitigation Strategy in Northern Canada. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Herrell, M. K., Kristina, S., Vandenberg, J., Faithful, J., Hayward, A. & Novy, L. (2018): Influence of Probability Distribution Function Sampling Frequency on Stochastic Water Quality Model Predictions. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1063–1068; (Tshwane University of Technology).
• Herrell, M. K., Salzsauler, K. & McRae, C. (2012): A Practical Application of Mass-Balance Methods for Predicting Mine Drainage Water Quality – Climate Influences and Best Practices. – 1–10 [USB flash drive] p., 3 Abb., 4 Tab.; Ottawa (Proceedings 9th International Conference on Acid Rock Drainage (ICARD)).
• Herrell, M. K., Vandenberg, J., Faithful, J., Hayward, A. & Novy, L. (2018): Long-term Water Management of Saline Groundwater at the Ekati Diamond Mine. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 252–257; (Tshwane University of Technology).
• Herrera, L., Ruiz, P., Aguillon, J. C. & Fehrmann, A. (1989): A new spectrophotometric method for the determination of ferrous iron in the presence of ferric iron. – J. Chem. Technol. Biotechnol., 44(3):171–181, doi:10.1002/jctb.280440302.
• Herrmann, A. (1993): The application of isotopic tracer techniques for hydrological process studies. – In: Robinson, M. (ed) Flow Regimes from International Experimental and Network Data (FRIEND) – Inventory of streamflow generation studies III. – p. 17–34; 61–73, 3 Abb., 3 Tab.; Wallingford.
• Herrmann, A., Koll, J., Leibundgut, C., Małoszewski, P., Rau, R., Rauert, W. & Stichler, W. (1986): Anwendung von Tracertechniken zur Erfassung des Wasserumsatzes in kleinen Einzugsgebieten – Stand und Fortgang der Arbeiten. – Dtsch. Gewässerkd. Mitt., 30:85–93.
• Herrmann, A., Małoszewski, P., Rau, R., Rosenow, W. & Stichler, W. (1984): Anwendung von Tracertechniken zur Erfassung des Wasserumsatzes in kleinen Einzugsgebieten – Ein Forschungskonzept für die Oberharzer Untersuchungsgebiete. – Dtsch. Gewässerkd. Mitt., 28(3):65–74, 11 Abb., 2 Tab.
• Herrmann, A. & Schöniger, M. (1992): Anwendung von Tracertechniken zur Erfassung des Wasserumsatzes in kleinen Einzugsgebieten – Fortsetzung und Abschluß der Arbeiten. – Dtsch. Gewässerkd. Mitt., 36(3/4, 5/6):94–107, 155–161, 14 Abb., 3 Tab.
• Herrmann, F. (1919): Wie Outokumpu, Finnlands neue Kupfererzlagerstätte entdeckt wurde. – Naturwissenschaften, 7(32):596–596, doi:10.1007/BF01498217.
• Herrmann, G. (2005): Hitlers Bombe? – Nachr. Chem., 53(11):1127–1131.
• Herrmann, H. & Bucksch, H. (2013): Wörterbuch Geotechnik/Dictionary Geotechnical Engineering – Deutsch-Englisch/German-English, 2nd edn. – 1319 p., Heidelberg (Springer); doi:10.1007/978-3-642-33335-4.
• Herrmann, M. (2005): Turbulente Strömungen in porösen Medien. – Berlin (Unveröff. Dipl.-Arb. Humboldt-Universität zu Berlin).
• Herschy, R. W. (1995): Streamflow measurement, 3rd edn. – 507 p., Oxon (Taylor & Francis); doi:10.1007/1-4020-4497-6_214.
• Hertel, D. (2001): Troia – Archäologie, Geschichte, Mythos: C.H. Beck Wissen in der Beck’schen Reihe 2166. – 128 p., 15 Abb.; München (Beck).
• Hertel, D. (2003): Die Gleichsetzung einer archäologischen Schicht von Troia mit dem homerischen Ilios. – In: Ulf, C. (ed) Der Neue Streit um Troia – Eine Bilanz, 1st edn. – p. 85–104, 4 Abb.; München (Beck).
• Hertle, L. (1898): Das oberbayerische Kohlenvorkommen und seine Ausbeute. – Glückauf, 34(44):853–864, 4 Abb.
• Hertner, P. (2016): Steinkohlen- und Braunkohlenbergbau auf dem Gebiet des heutigen Sachsen-Anhalt vom 18. Jahrhundert bis zur Weltwirtschaftskrise 1929 –33. – Sachsen-Anhalt-Journal, 26(1).
• Herve, D. (1978): Teneur en sulfates des eaux stockees dans les mines de fer de Lorraine (France). Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1063–1079; Maracena (Asociación Nacional de lngenieros de Minas).
• Herzhoff, B. (2011): The Battlefield of the Trojan War. A New Philological and Geographical Analysis. – Studia Troica, 19:219–254.
• Herzl, T. (1978): „Wenn ihr wollt, ist es kein Märchen“ – Altneuland Der Judenstaat, 1 edn. – 252 p., 7 Abb.; Kronberg/Ts. (Jüdischer Verlag).
• Herzog, T. L., Lintern, A., Kessler, A. & Winfrey, B. (2024): Treating Fe-rich acid mine drainage with Tasmanian plants as a metal removal mechanism. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 281–287; Morgantown (International Mine Water Association).
• Herzsprung, P., Friese, K., Packroff, G., Schimmele, M., Wendt-Potthoff, K. & Winkler, M. (1998): Vertical and Annual Distribution of Ferric and Ferrous Iron in Acidic Mining Lakes. – Acta Hydrochim. Hydrobiol., 26(5):253–262, 9 Abb., 7 Tab.
• Hesbach, P. A. & Lamey, S. C. (2001): Using fossil fuel combustion products to reduce acid mine drainage sludge volumes: Transactions of the 34th annual meeting, Gulf Coast Association of Geological Societies and 31st annual meeting of the Gulf Coast Section of SEPM 310. – 111–117 p., 11 Abb., 7 Tab.; Littleton (Society for Mining Metallurgy and Exploration).
• Heslop, T. G. (1975): Failure by overturning in ground adjacent to cave mining at Havelock Mine. Paper presented at the Proc. Third Congress, Int. Soc. Rock Mech., Denver, 1974. – p. 1085–1089; Washington (National Academy of Sciences).
• Hess, A. E. (1990): Thermal-Pulse Flowmeter for Measuring Slow Water Velocities in Boreholes. – Open-File Rep. US Geol. Surv., Denver(OF 87-121):70.
• Hess, M. & Maidment, E. (2014): Industrial conflict in paradise: Making the Bougainville copper project construction agreement 1970. – Econ. Labour Relat. Rev., 25(2):271–289, doi:10.1177/1035304614533625.
• Hess, M., Maidment, E. & Gima, K. (2016): Establishing the Bougainville Mining Workers’ Union, 1969–1976. – J. Pac. Hist., 51(1):21–42, doi:10.1080/00223344.2015.1095274.
• Hesse, R. (1965): Herkunft und Transport der Sedimente im bayerischen Flyschtrog. – Verh. Geol. B.-A., Sonderheft G:147–170, 5 Abb., 4 Taf.
• Hessisches Ministerium für Wissenschaft und Kunst (2011): Water features and Hercules within the Bergpark Wilhelmshöhe – Nomination for Inscription on the UNESCO World Heritage List – Nomination dossier. – 291 p., Kassel (Hessisches Ministerium für Wissenschaft und Kunst).
• Hesske, S. (1995): Typologie des Eaux Souterraines de la Molasse entre Chambéry et Linz (France, Suisse, Allemagne, Autriche). – 246 p., 47 Abb., 17 Tab., 15 Anh.; Lausanne (unpubl. PhD Thesis École Polytechnique Fédérale de Lausanne).
• Hessler, T., Huddy, R. & Harrison, S. T. L. (2018): The Preferential Localisation of SRB in an Acetate Supplemented Up-Flow Anaerobic Packed Bed Reactor. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1069–1074; (Tshwane University of Technology).
• Hettersdorf, F. (1908): Über Selbstreinigung der Flüsse. – Deutsche Vierteljahrsschrift für öffentliche Gesundheitspflege, 40(4/1):615–636, 2 Tab.
• Heubeck, C., Blasing, S., Grund, M., Drabon, N., Homann, M. & Nabhan, S. (2016): Geological constraints on Archean (3.22 Ga) coastal-zone processes from the Dycedale Syncline, Barberton Greenstone Belt. – S. Afr. J. Geol., 119(3):495–518, doi:10.2113/gssajg.119.3.495.
• Heuberger, H. (1975): Das Ötztal – Bergstürze und die alten Gletscherstände, kulturgeographische Gliederung. – Innsbrucker Geogr. Studien, 2:213–249, 4 Abb., 11 Tab.
• Heuer, E. A. K. (2009): Formulation and stability of model food foam microstructures. – 303 p., PhD, University of Birmingham; Birmingham.
• Heumann, C. & Schomaker Shalabh, M. (2016): Introduction to Statistics and Data Analysis – with Exercises, Solutions and Applications in R. – 456 p., Cham (Springer Nature); doi:10.1007/978-3-319-46162-5.
• Heuser, A. (1998): Messung chalkophiler Elemente mit dem ICPMS an Proben der Subduktionszone von Kamchatka. – 65 p., 25 Abb., 12 Tab., 41 Anl.; Göttingen (Unveröff. Dipl.-Arbeit Georg-August-Universität zu Göttinge).
• Heviánková, S. & Bestová, I. (2007): Removal of Manganese from Acid Mine Water. – J. Min. Metal., 43 A:43–52, 7 Tab.
• Hewett, R. (2003): Data Mining for generating Predictive Models of local Hydrology. – Appl. Intell., 19(3):157–170, 11 Abb.
• Hewitt, K. (1998): Catastrophic landslides and their effects on the Upper Indus streams, Karakoram Himalaya, northern Pakistan. – Geomorphology, 26(1–3):47–80, doi:10.1016/S0169-555X(98)00051-8.
• Hewitt, K. (2006): Rock Avalanches with Complex Run Out and Emplacement, Karakoram Himalaya, Inner Asia: NATO Science Series – Landslides from Massive Rock Slope Failure 49. – 521–550 p., 12 Abb., 1 Tab.; Amsterdam (Springer); doi:10.1007/978-1-4020-4037-5_28.
• Hewitt, K., Clague, J. J. & Orwin, J. F. (2008): Legacies of catastrophic rock slope failures in mountain landscapes. – Earth-Sci. Rev., 87(1–2):1–38, doi:10.1016/j.earscirev.2007.10.002.
• Heyer, R. (2016): Qualitatives Wachstum vs. Quantitative Schrumpfung – Demographie und Wohnungsmärkte. – Veröff. Dt. Bergbau-Mus. Bochum, 217:78–82.
• Heyl, K. E. (1954): Hydrochemische Untersuchungen im Gebiet des Siegerländer Erzbergbaus. – 72 p., Ruprecht-Karl-Universität zu Heidelberg, 7 Tab., 10 Taf.; Heidelberg.
• Heyl, K. E. (1985): Hydrologie und Hydrochemie der Eisenerzgruben im Siegerland-Wied-Distrikt. – Geol. Jb., D 77:377–389, 11 Abb., 5 Tab.
• Hibsch, J. E. (1917): Geologische Karte des böhmischen Mittelgebirges – Blatt VIII (Umgebung von Balesel). – Tschermaks Min. Petr. Mitt. (NF), 34(3/4):73–208, 14 Abb., 18 Tab., 3 Taf., 1 Karte.
• Hibsch, J. E. & Seemann, F. (1914): Geologische Karte des böhmischen Mittelgebirges – Blatt IX (Leitmeritz-Triebsch). – Tschermaks Min. Petr. Mitt. (NF), 32(1/2):1–128, 15 Abb., 17 Tab., 1 Karte.
• Hicks, D. W., McConnell, J. B. & Hubbard, R. K. (1991): Effect of the Unsaturated Zone on the Migration and Retardation of a Conservative Tracer at the Plains, Georgia, Research Site. – Water Resour. Investig. Rep., WRI 91-4034:597–600, 2 Abb., 1 Tab.
• Hicks, W. S., Bowmann, G. M. & Fitzpatrick, R. W. (1999): East Trinity Acid Sulfate Soils – Part 1: Environmental Hazards. – Technical Report – CSIRO Land and Water, 14/99:77, 20 Abb., 9 Tab., 1 Anh.
• Hidalgo, C., Rey, J., Martínez, J. & Benavente, J. (2010): Evolution of mine water uses in the abandoned sulphide mines of the province of Jaén, Spain. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 301–305, Sydney, NS (Cape Breton University Press).
• Hidalgo Estévez, M. C., Benavente Herrera, J. & Rey Arrans, J. (1999): First Results on the Presence of Metallic Contaminants in Waters after the Abandonment of a Sulphide Mining District (Linares, Spain). – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 183–188, 3 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Hidalgo, M. C., Martínez, J., Rey, J. & Cortada, U. (2017): Occurrence And Distribution Of Metal(oid)s In Soils Near An Abandoned Lead Smelter. Paper presented at the IMWA 2017 – Mine Water & Circular Economy, Lappeenranta. – p. 1401; (Lappeenranta University of Technology).
• Hießleitner, G. (1947): Die geologischen Grundlagen des Antimonbergbaues in Österreich. – Jb. Geol. B.-A., 92:1–92, 29 Abb., 2 Taf.
• Hießleitner, G. (1951): Geologischer Gutachtensbericht über den Schwerspatbergbau Großkogl bei Brixlegg. – Unpubl. Report for Archiv Montanwerke, B. (Report Nr. 28.2.1951). – 26 p., 5 Abb., 5 Tab., 8 Beil.; Brixlegg (Montanwerke G.m.b.H.).
• Higashi, H., Iwai, Y. & Arai, Y. (2005): Comparison of molecular models used in molecular dynamics simulation for tracer diffusion coefficients of naphthalene and dimethylnaphthalene isomers in supercritical carbon dioxide. – Fluid Phase Equilibria, 234(1-2):51–55, 5 Abb., 2 Tab.
• Higgs, K. E., Haese, R. R., Golding, S. D., Schacht, U. & Watson, M. N. (2015): The Pretty Hill Formation as a natural analogue for CO₂ storage: An investigation of mineralogical and isotopic changes associated with sandstones exposed to low, intermediate and high CO₂ concentrations over geological time. – Chem. Geol., 399:36–64, doi:10.1016/j.chemgeo.2014.10.019.
• Highland, L. & Bobrowsky, P. T. (2008): The landslide handbook – a guide to understanding landslides. – U. S. Geol. Surv. Circular,(C 1325):129.
• Hiiri, P. (1985): Louhostiloista saatavan maalämmön hyväksikäyttö lämpöpumpun avulla Outokummun kaupungin lämmöntuottovaihtoehtona. – 68 p., Lappeenranta University of Technology; Lappeenranta.
• Hilasvuori, E. & Berninger, F. (2010): Dependence of tree ring stable isotope abundances and ring width on climate in Finnish oak. – Tree Physiol, 30(5):636–647, doi:10.1093/treephys/tpq019.
• Hilberg, S. (2007): Hydrogeologische Erkundung der Aquifereigenschaften des Hauptdolomits – Ein Beitrag zur Erschließung neuer Wasserressourcen am Kalkalpennordrand. – 240 p., Universität für Bodenkultur Wien, 34 Abb.,134 Diagr., 68 Tab., 2 Anh.; Wien.
• Hilberg, S. (2011): Anwendung hydrochemischer Modellrechnungen zur Bestimmung von Infiltrationsgebieten – Fallbeispiel Reißeck (Oberkärnten, Österreich). – Grundwasser, 16(1):25–36, doi:10.1007/s00767-010-0158-1.
• Hilberg, S. (2015): Umweltgeologie – Eine Einführung in Grundlagen und Praxis. – 245 p., Heidelberg (Springer); doi:10.1007/978-3-662-46948-4.
• Hilberg, S. (2016): Interagierende Fließsysteme in alpinen Aquiferen – Herausforderung und Chance für Hydrogeologie und Wasserwirtschaft im Gebirge. Paper presented at the Geoforum Umhausen, Umhausen. – p. 132–137, 6 Abb.
• Hilberg, S., Arminger, V., Riepler, F., Gschwandtner, G. & Galler, R. (2014): Hydrogeologie im Gipskarst als Basis geotechnischer Langzeitprognosen im Bergbau –Grundwasser, 19(1):39–49, doi:10.1007/s00767-013-0245-1.
• Hilberg, S., Brandstatter, J. & Gluck, D. (2013): CO₂ partial pressure and calcite saturation in springs – useful data for identifying infiltration areas in mountainous environments. – Environmental Science-Processes & Impacts, 15(4):823–832, doi:10.1039/c3em30973h.
• Hilberg, S. & Kreuzer, M. (2013): Identification of a Deep Flow System in a Dolomitic Alpine Aquifer – Case Study Wimmerbauern Spring, Bad Ischl. – Austrian J. Earth Sci., 106(1):16–25.
• Hilberg, S., Sändler, F. & Fürlinger, F. (2022): Hydrogeology of alpine lakes in the Northern Calcareous Alps: a comparative study on the role of groundwater in Filblingsee and Eibensee. – Austrian J. Earth Sci., 115(1):199–212, doi:10.17738/ajes.2022.0010.
• Hilberg, S. & Schneider, J. F. (2011): The Aquifer Characteristics of the Dolomite Formation a New Approach for Providing Drinking Water in the Northern Calcareous Alps Region in Germany and Austria. – Water Resour. Manage., 25(11):2705–2729, doi:10.1007/s11269-011-9834-x.
• Hilberg, S., Yousefi, N. & Rinder, T. (2025): Mining-Influenced Water from the Abandoned Hausham Colliery in Southern Germany—A Case of Unmonitored Natural Attenuation. – Water, 17(9) doi:10.3390/w17091253.
• Hild, S. (2004): Multitemporale GIS-basierte Reisezeitmodellierung und -kartierung des sächsischen Bahnverkehrs. – Wiss. Mitt. Inst. Geol., 25:29–32, 6 Abb.
• Hild, S., Croukamp, L., Sieste, M., Barth, A., Rudinskaya, J. & Roos, M. (2006): Witwatersrand Water Ingress Project – Information Management System (WWIPIMS), South Africa. – Wiss. Mitt. Inst. Geol., 31:181–188, 7 Abb.
• Hildebrandt, I., Ulrich, K. U., Horn, A., Weber, L., Hafner, K. & Nitsche, C. (2020): Evaluation of Process Oriented Water Quality Predictions for Pit Lakes. – Mine Water Environ., 39(3):498–516, doi:10.1007/s10230-020-00705-7.
• Hildenbrand, A., Schlömer, S. & Krooss, B. M. (2003): Gas breakthrough experiments on fine-grained sedimentary rocks. – Geofluids, 2(1):3–23, 12 Abb., 7 Tab.
• Hildenbrand, A., Schlömer, S., Krooss, B. M. & Littke, R. (2004): Gas breakthrough experiments on pelitic rocks: comparative study with N2, CO₂ and CH₄. – Geofluids, 4(1):61–80, 10 Abb., 9 Tab.; doi:10.1111/j.1468-8123.2004.00073.x.
• Hildmann, C., Rösel, L., Zimmermann, B., Knoche, D., Hartung, W.-D. & Benthaus, F.-C. (2016): Reduction of seepage outflow from potash tailings piles by improvement of greening: Results of a hydrological simulation. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 772–779, Freiberg (TU Bergakademie Freiberg).
• Hildmann, C., Schöpke, R., Walko, M. & Mazur, K. (2016): Microbial Iron Retention in the Groundwater upstream to a River. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 944–951, Freiberg (TU Bergakademie Freiberg).
• Hill, C. A. & Forti, P. (2007): Cave mineralogy and the NSS: Past, present, future. – J. Cave Karst Stud., 69(1):35–45, 5 Abb.
• Hill, J. D., Maddison, L. A. & Kavanaugh, C. (1997): Surface subsidence associated with abandoned mine workings in the Goldenville mining district, Nova Scotia. – Atlantic Geology, 33(2):157–167, 9 Abb.
• Hill, R. D. (1968): Mine Drainage Treatment – State of the Art and Research Needs. – (Report Nr. BCR 68-150). – 99 p., 7 Abb., 10 Tab.; Cincinnati (Federal Water Pollution Control Administration).
• Hille, R. v., Marais, T. & Harrison, S. (2015): Biomass Retention and Recycling to Enhance Sulfate Reduction Kinetics. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–14 [electronic document], Santiago/Chile (Gecamin).
• Hille, R. v., Mooruth, N., Marais, T., Naidoo, N., Moss, G., Harrison, S. & Muhlbauer, R. (2016): Development of a pilot-scale semi-passive system for the bioremediation of ARD. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 957–964, Freiberg (TU Bergakademie Freiberg).
• Hillebrandt, A. v., Krystyn, L., Kürschner, W. M., Bonis, N. R., Ruhl, M., Richoz, S., Schobben, M. A. N., Urlichs, M., Bown, P. R., Kment, K., McRoberts, C. A., Simms, M. & Tomãsových, A. (2013): The Global Stratotype Sections and Point (GSSP) for the base of the Jurassic System at Kuhjoch (Karwendel Mountains, Northern Calcareous Alps, Tyrol, Austria). – International Union of Geological Sciences, 36(3):162–198, doi:10.18814/epiiugs/2013/v36i3/001.
• Hiller, A., Schuppan, W. & Krejny, I. (2008): Geologie und Uranbergbau im Revier Schlema-Alberoda: Bergbau in Sachsen 14, 1. edn. – Freiberg (Sächsisches Landesamt für Umwelt, Landwirtschaft und Geologie (LfULG)).
• Hiller, E., Tóth, R., Kučerová, G., Jurkovič, Ľ., Šottník, P., Lalinská-Voleková, B. & Vozár, J. (2016): Geochemistry of Mine Tailings from Processing of Siderite–Cu Ores and Mobility of Selected Metals and Metalloids Evaluated by a Pot Leaching Experiment at the Slovinky Impoundment, Eastern Slovakia. – Mine Water Environ., 35(4):447–461, doi:10.1007/s10230-016-0388-2.
• Hillier, S. (1995): Erosion, Sedimentation and Sedimentary Origin of Clays. – In: Velde, B. (ed) Origin and Mineralogy of Clays: Clays and the Environment. – p. 162–219, Berlin (Springer); doi:10.1007/978-3-662-12648-6_4.
• Hilson, C. J. (2006): Mining and Civil Conflict: Revisiting Grievance at Bougainville. – Miner. Energy Raw Mater. Rep., 21(2):23–35, doi:10.1080/14041040601047937.
• Hilson, G. (2011): “Inherited commitments”: Do changes in ownership affect corporate social responsibility (CSR) at African gold mines? – Afr. J. Bus. Manag., 5(27):10921–10939, doi:10.5897/ajbm10.1608.
• Hilton, D. R., Macpherson, C. G. & Elliott, T. R. (2000): Helium isotope ratios in mafic phenocrysts and geothermal fluids from La Palma, the Canary Islands (Spain): Implications for HIMU mantle sources. – Geochim. Cosmochim. Acta, 64(12):2119–2132, doi:10.1016/s0016-7037(00)00358-6.
• Hilton, T. (1993): Technical Information for Fighting Acid Mine Drainage. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 14:elektronisches Dokument, 4 Abb., 4 Tab.
• Hilton, T., Adair, J., Caruccio, F. T., Geidel, G., Greskovich, J., Faulkner, B., Hajek, J., Hall, R., Keaveny, G., Lilly, R., O’Dell, A. & Tuckwiller, E. (1989): The Magic of Water Treatment. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 10:elektronisches Dokument, 37 Abb., 1 Anh.
• Hilton, T., Kepler, D., McCleary, E., Persinger, G., Hamric, R., Canfield, E. & Ghost, W. (1999): “Did You Call Me a Saps!”. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 20:elektronisches Dokument, 1 Tab.
• Hilton, T. & Skousen, J. (2024): Distribution of flow in sedimentation and AMD treatment ponds. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 288–290; Morgantown (International Mine Water Association).
• Himmelsbach, T., Hötzl, H., Käß, W., Leibundgut, C., Małoszewski, P., Meyer, T., Moser, H., Rajner, V., Rank, D., Stichler, W., Trimborn, P. & Veulliet, E. (1992): Fractured Rock – Test site Lindau/Southern Black Forest (Germany). – Steir. Beitr. Hydrogeol., 43:159–228, 28 Abb., 9 Tab.
• Himmelsbach, T., Hötzl, H. & Małoszewski, P. (1998): Solute Transport Processes in a Highly Permeable Fault Zone of Lindau Fractured Rock Test Site (Germany). – Ground Water, 36(5):792–800, 7 Abb., 4 Tab.
• Himmelsbach, T. & Wendland, E. (1999): Schwermetalltransport in Sandsteinen unter Bedingungen einer hochsalinaren Porenwasserlösung – Laborversuch und Modellierung. – Grundwasser, 4(3):103–112.
• Himsley, A. & Bennett, J. A. (1985): Removal of toxic elements in mine effluents by CCIX. – Proceedings, 2nd International Mine Water Association Congress, 2:661–671.
• Himstedt, F., Hintz, E., Grünhut, L., Jacobj, C., Kauffmann, H., Keilhack, K., Kionka, H., Kraus, P., Kremser, V., Nicolas, P., Paul, T., Röchling, P., Scherrer, A., Schütze, C., Winckler, A., Rost, B., Sonntag, G. & Auerbach, P. (1907): Deutsches Bäderbuch – bearbeitet unter Mitwirkung des Kaiserlichen Gesundheitsamtes. – 535 p., Leipzig (Weber); doi:10.1002/bbpc.19070131708.
• Hinck, J. E., Schmitt, C. J., Chojnacki, K. A. & Tillitt, D. E. (2009): Environmental contaminants in freshwater fish and their risk to piscivorous wildlife based on a national monitoring program. – Environ. Monit. Assess., 152(1-4):469–494, doi:10.1007/s10661-008-0331-5.
• Hippocrates & Jones, W. H. S., (translator) (1923): De aere, aquis et locis [Air, Waters, and Places]. The Loeb Classical Library 1. – p. 65–137, London (Heinemann).
• Hipsey, M. R., Bruce, L. C., Boon, C., Busch, B., Carey, C. C., Hamilton, D. P., Hanson, P. C., Read, J. S., de Sousa, E., Weber, M. & Winslow, L. A. (2019): A General Lake Model (GLM 3.0) for linking with high-frequency sensor data from the Global Lake Ecological Observatory Network (GLEON). – Geosci. Model Dev., 12(1):473–523, doi:10.5194/gmd-12-473-2019.
• Hirai, H., Takada, H., Ogata, Y., Yamashita, R., Mizukawa, K., Saha, M., Kwan, C., Moore, C., Gray, H., Laursen, D., Zettler, E. R., Farrington, J. W., Reddy, C. M., Peacoc, E. E. & Ward, M. W. (2011): Organic micropollutants in marine plastics debris from the open ocean and remote and urban beaches. – Mar. Pollut. Bull., 62:1683–1692, doi:10.1016/j.marpolbul.2011.06.004.
• Hirsch, R. M., Moyer, D. L. & Archfield, S. A. (2010): Weighted regressions on time, discharge, and season (WRTDS), with an application to Chesapeake Bay River inputs. – J. Am. Water Resour. Assoc., 46(5):857–880, doi:10.1111/j.1752-1688.2010.00482.x.
• Hirsch, R. M. & Slack, J. R. (1984): A nonparametric trend test for seasonal data with serial dependence. – Water Resour. Res., 20(6):727–732, 2 Abb., 2 Tab.; doi:10.1029/WR020i006p00727.
• Hirst, T. (1951): Observations on the Geology and Mineral Resources of St. Helena. – Colonial Geology and Mineral Resources, 2:116–128, 4 Plat., 1 Map.
• His, E. (1894): Holbeins Bergwerkzeichnung im Britischen Museum. – Jahrbuch der Königlich Preussischen Kunstsammlungen, 15(3):207–210, 1 Abb.
• Hiscock, K. M. & Bense, V. F. (2014): Hydrogeology – Principles and Practice, 2 edn. – 519 p., 266 Abb., 60 Tab.; Oxford (Blackwell).
• Hitchon, B. (1995): Fluorine in formation waters, Alberta Basin, Canada. – Appl. Geochem., 10(3):357–367, 6 Abb., 5 Tab.
• Hitzinger, P. (1860): Das Quecksilber-Bergwerk Idria, von seinem Beginne bis zur Gegenwart. – 1 Kart.; Laibach (Kleinmayr & Bamberg).
• Hjulström, F. H. (1935): Studies of the morphological activity of rivers as illustrated by the river Fyris. – Bull. Geol. Inst. Univ. Uppsala, 25:221–525, 51 Abb., 38 Tab., 8 Taf.
• Hjulström, F. H. (1939): Transportation of détritus by moving water. – In: Trask, P. D. (ed) Recent marine sediments 4. – p. 438–460, 4 Abb., 1 Tab.; Tulsa (The American Association of Petroleum Geologists); doi:10.2110/pec.55.04.0005.
• Hjulström, F. H. (1942): Studien über das Mäander-Problem. – Geogr. Ann., 24:233–269, 9 Abb., 3 Tab.
• Hlabela, P., Maree, J. & Barnard, J. (2005): Barium Carbonate process for sulphate and metal removal from mine water: Mine Water 2005 – Mine Closure. – 11–20 p., 13 Abb., 4 Tab.; Oviedo (University of Oviedo).
• Hlabela, P., Maree, J. P. & Bruinsma, D. (2007): Barium Carbonate Process for Sulphate and Metal Removal from Mine Water. – Mine Water Environ., 26(1):14–22, 11 Abb., 4 Tab.; doi:10.1007/s10230-007-0145-7.
• Hlasiwetz, H. (1858): Über die Wurzel der Ononis spinosa. – Sitzungsber. Akad. Wiss. Wien Mathem.-naturw. Kl., 15:142–168.
• Hlatshwayo, M. N., Adendorff, H., Blackie, M. A. L., Fataar, A. & Maluleka, P. (2022): Decolonising Knowledge and Knowers. – 136 p., London (Routledge); doi:10.4324/9781003106968.
• Ho, D. T., Schlosser, P., Houghton, R. W. & Caplow, T. (2006): Comparison of SF6 and Fluorescein as Tracers for Measuring Transport Processes in a Large Tidal River. – J. Environ. Engineering, 132:1664–1669, 6 Abb.; doi:10.1061/(ASCE)0733-9372(2006)132:12(1664).
• Ho, W. (1978): The element balance of hydrogeologic computation. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 965–970; Maracena (Asociación Nacional de lngenieros de Minas).
• Ho, Y. S. & McKay, G. (1999): Pseudo-second order model for sorption processes. – Process Biochemistry, 34:451–456, 23 Abb., 2 Tab.
• Hobba, W. A., Jr. (1981): Effects of underground mining and mine collapse on the hydrology of selected basins, West Virginia. – West Virginia Geological and Economic Survey Report of Investigations, RI-33:77.
• Hobba, W. A., Jr. (1987): Underground coal mines as sources of water for public supply in northern Upshur County, West Virginia. – Water-Res. Invest. Rep., 84-4115:38, doi:10.3133/wri844115.
• Hobba, W. A., Jr. (1991): Relation of fracture systems to transmissivity of coal and overburden aquifers in Preston County, West Virginia. – Water-Res. Invest. Rep., 89-4137:24, 11 Abb., 4 Tab.; doi:10.3133/wri894137.
• Hobba, W. A., Jr. (1993): Effects of Underground Mining and Mine Collapse on the Hydrology of Selected Basins in West Virginia. – U.S. Geol. Surv. Water Supply Pap., 2384:79, doi:10.3133/wsp2384.
• Hobbs, A. P. (1964): Gas Analysis. – Anal. Chem., 36(5):130–139, doi:10.1021/ac60211a010.
• Hobbs, P. J. (1988): Hydrogeology of the Verwoerdburg Dolomite Aquifer. – Unpubl. Report for Directorate Geohydrology (Report Nr. GH 3502). – 75 p., Pretoria (Department of Water Affairs and Forestry).
• Hobbs, P. J. (2008): Situation Analysis of Hydrologic and Hydrogeologic Factors informing the Royal Engineering Groundwater Supply on Sterkfontein 173IQ, Krugersdorp. – (Report Nr. CSIR/NRE/WR/ER/2008/0107/C). – 14 p., Pretoria (Council for Scientific and Industrial Research Natural Resources & the Environment).
• Hobbs, P. J. (2011): Assessment of the Water Level Rise in Sterkfontein Caves Cradle of Humankind World Heritage Site Gauteng Province. – (Report Nr. CSIR/NRE/WR/ER/2011/0083/A). – 14 p., Pretoria (Council for Scientific and Industrial Research Natural Resources & the Environment).
• Hobbs, P. J. (2013): Pilot Implementation of a Surface Water and Groundwater Resources Monitoring Programme for the Cradle Of Humankind World Heritage Site – Situation Assessment and Status Report for the Period April 2012 to March 2013. – (Report Nr. CSIR/NRE/WR/ER/2013/0023/B). – 48 p., 47 Abb., 8 Tab.; Pretoria (Council for Scientific and Industrial Research Natural Resources & the Environment).
• Hobbs, P. J. (2013): Surface Water and Groundwater Resources Monitoring, Cradle of Humankind World Heritage Site, Gauteng Province, South Africa – Water Resources Status Report for the Period April to September 2013. – (Report Nr. CSIR/NRE/WR/ER/2013/0083/A). – 47 p., 44 Abb., 11 Tab.; Pretoria (Council for Scientific and Industrial Research Natural Resources & the Environment).
• Hobbs, P. J. & Cobbing, J. E. (2007): A Hydrogeological Assessment of Acid Mine Drainage Impacts in the West Rand Basin, Gauteng Province. – (Report Nr. CSIR/NRE/WR/ER/2007/0097/C). – 59 p., 61 Abb., 7 Tab., 8 Anl.; Pretoria (Council for Scientific and Industrial Research Natural Resources & the Environment).
• Hobbs, P. J. & Cobbing, J. E. (2007): The Hydrogeology of the Krugersdorp Game Reserve Area and Implications for the Management of Mine Water Decant. Paper presented at the Biennial Groundwater Conference, Bloemfontein, 2007–10–08 – 10. – p. 1–9, 8 Abb., 2 Tab.; (Ground Water Division GSSA).
• Hobbs, P. J. & de Meillon, N. (2017): Hydrogeology of the Sterkfontein Cave System, Cradle of Humankind, South Africa. – S. Afr. J. Geol., 120(3):403–420, doi:10.25131/gssajg.120.3.403.
• Hobbs, P. J., Jamison, A., Leyland, R., Venter, J., Roelofse, F., Coetzee, H., Wade, P., Hardwick, D., Butler, M., Abiye, T. & Verhagen, B. T. (2011): Situation Assessment of the Surface Water and Groundwater Resource Environments in the Cradle of Humankind World Heritage Site. – (Report Nr. BIQ005/2008). – 238 p., Johannesburg (Council for Scientific and Industrial Research, Council for Geoscience, Wits School of Geoscience, iThemba LABS, A. Jamison, D. Hardwick).
• Hobbs, P. J. & Mills, P. J. (2012): Managing the Threats to the Karst Water Resources of the Cradle of Humankind World Heritage Site, South Africa. Paper presented at the Protected karst territories – monitoring and management, Shumen. – p. 1–11.
• Hobbs, P. J., Oelofse, S. H. H. & Rascher, J. (2008): Management of Environmental Impacts from Coal Mining in the Upper Olifants River Catchment as a Function of Age and Scale. – Int. J. Water Resour. Dev., 24(3):417–431, 7 Abb.; doi:10.1080/07900620802127366.
• Hobbs, P. J., Pienaar, H., van Wyk, E. & Xu, Y. (2022): Anatomy of a South African Karst Hydrosystem – The Hydrology and Hydrogeology of the Cradle of Humankind World Heritage Site: Cave and Karst Systems of the World. – 356 p., Cham (Springer); doi:10.1007/978-3-030-95829-9.
• Hobbs, W. O., Collyard, S. A., Larson, C., Carey, A. J. & O’Neill, S. M. (2019): Toxic Burdens of Freshwater Biofilms and Use as a Source Tracking Tool in Rivers and Streams. – Environ. Sci. Technol., 53(19):11102–11111, doi:10.1021/acs.est.9b02865.
• Hobiger, G., Klein, P., Denk, J., Grösel, K., Heger, H., Klein, P., Kohaut, S., Kollmann, W. F. H., Lampl, H., Lipiarsky, P., Pirkl, H., Schedl, A., Schubert, G., Shadlau, S. & Winter, P. (2004): GEOHINT – Geogene Hintergrundgehalte oberflächennaher Grundwasserkörper. – (Report Nr. Zl. 70.215/08-VII 1/03). – 97 p., Wien (Geologische Bundesanstalt).
• Hochenauer, F. & Weinfurtner, T. (2008): Braunkohleabbau in Großweil. – Nn, 20 Abb.
• Hochmeir, A. (2010): Geheimprotestantismus. – In: Vocelka, K., Leeb, R. & Scheichl, A. (eds): Renaissance und Reformation. Kataolog zur Oberösterreichischen Landesausstellung 2010. – p. 359–370, Linz.
• Höck, A. (2006): Ausgrabungen 1999 im Bereich der „Kohlstadt“, Gem. Biberwier – mittelalterliche Nutzung und römische Neufunde im Tiroler Abschnitt der Via Claudia Augusta. – In: Walde, E. & Grabherr, G. (eds): Via Claudia Augusta und Römerstraßenforschung im östlichen Alpenraum. – p. 368–391, 14 Abb., 1 Tab., 2 Taf.; Innsbruck (Innsbruck University Press).
• Hockley, D., Bowell, R. & Day, S. (2000): Mineralogical controls on Uranium hydrogeochemistry from mine wastes. – Proceedings, 7th International Mine Water Association Congress:384–397, 9 Abb., 1 Tab.
• Hockley, D., Kuit, W. & Phillip, M. (2009): Sullivan Mine Fatalities Incident: Key Conclusions and Implications for Other Sites. Paper presented at the Securing the Future 2009 & 8th ICARD, Skellefteå. – p. 1–11 [electronic document], 6 Abb., 2 Tab.
• Hockley, D. E., Chapman, J. T., Sevick, J. & Moe, D. (1998): Estimating contaminant concentrations in a re-flooded underground mine. Paper presented at the Proceedings, 5th International Conference on Tailings and Mine Waste, Fort Collins. – p. 517–525, 1 Abb., 4 Tab.; (Balkema).
• Hockley, D. E., Noel, M., Rykaart, E. M., Jahn, S. & Paul, M. (2003): Testing of Soil Covers for Waste Rock in the Ronneburg WISMUT Mine Closure: Australian Inst. of Mining and Metallurgy Publ. Series. – 273–279 p., 6 Abb., 4 Tab.; Carlton (Proceedings 6th International Conference on Acid Rock Drainage (ICARD)).
• Hodeige, D., De Pauw, M., Eechaute, W., Weyne, J. & Heyndrickx, G. R. (1999): On the validity of blood flow measurement using colored microspheres. – American Physiological Society.
• Hodell, D. A., Greaves, M. J., McCave, I. N. & Barker, S. (2018): Chemistry of oceans past and present: A Special Issue in tribute to Harry Elderfield, FRS (1943–2016). – Geochim. Cosmochim. Acta, doi:10.1016/j.gca.2018.06.001.
• Hodges, B. R. (2009): Hydrodynamical Modeling. – In: Likens, G. E. (ed) Encyclopedia of Inland Waters. – p. 613–627, Oxford (Academic Press); doi:10.1016/B978-012370626-3.00088-0.
• Hodgkinson, R. A. & Armstrong, A. C. (1996): Field studies of runoff processes on restored land in South Wales and the design of channels for erosion control. – In: Anderson, M. G. & Brooks, S. M. (eds): British Geomorphological Research Group Symposia Series – Advances in hillslope processes 12. – p. 613–633, 11 Abb., 6 Tab.; Chichester - New York (Wiley).
• Hodgson, C. J., Perkins, J. & Labadz, J. C. (2003): Evaluation of Biotracers to Monitor Effluent Retention time in Constructed Wetlands. – Lett. Appl. Microbiol., 36(6):362–371.
• Hodgson, F. D. I. & Krantz, R. M. (1998): Investigation Into Groundwater Quality Deterioration in the Olifants River Catchment above the Loskop Dam with Specialised Investigation in the Witbank Dam Sub-Catchment, 291/1/98. – 272 p., Pretoria (Water Research Commission).
• Hoefs, J. (1997): Stable Isotope Geochemistry, 4th edn. – 201 p., 73 Abb., 22 Tab.; Berlin (Springer); doi:10.1007/978-3-662-03377-7.
• Hoefs, J. & Sywall, M. (1997): Lithium isotope composition of Quaternary and Tertiary biogene carbonates and a global lithium isotope balance. – Geochim. Cosmochim. Acta, 61(13):2679–2690.
• Hoehn, E., Eikenberg, J., Fierz, T., Drost, W. & Reichlmayr, E. (1998): The Grimsel Migration Experiment – field injection–withdrawal experiments in fractured rock with sorbing tracers. – J. Contam. Hydrol., 34(1-2):85–106, 9 Abb., 4 Tab.; doi:10.1016/S0169-7722(98)00083-7.
• Hoek, E. & Bieniawski, Z. T. (1984): Brittle Fracture Propagation in Rock Under Compression. – Int. J. Fract., 26(4):276–294, doi:10.1007/BF00962960.
• Hoek, E. & Brown, E. T. (1997): Practical estimates of rock mass strength. – Int. J. Rock Mech. Min. Sci, 34(8):1165–1186.
• Hoekstra, D. P., Saavedra, V. M. & Milad, C. (2022): Development of a Streamflow Model Incorporating Stochastic Daily Climate, Climate Change, and El Niño La Niña Effects. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 153–160; (International Mine Water Association).
• Hoernes, S. (1971): Petrographische Untersuchungen an Paragneisen des polymetamorphen Silvrettakristallins. – Tschermaks Min. Petr. Mitt., 15:56–70, 12 Abb.; doi:10.1007/BF01087494.
• Hoernle, K. (1998): Geochemistry of Jurassic oceanic crust beneath Gran Canaria (Canary islands): Implications for crustal recycling and assimilation. – J. Petrol., 39(5):859–880, doi:10.1093/petrology/39.5.859.
• Hofbauer, G. (2017): Erdkrusten-Anhebung unter Nürnberg und die Entstehung des Nürnberger Beckens. – Natur und Mensch, 2017:61–78, 11 Abb.
• Hofedank, R. H. (1979): Computation of an Experience on Lignite Opencast Mine Drainage. – In: Argall, G. O. & Brawner, C. O. (eds): Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – p. 383–408, 6 Abb.; San Francisco (Freeman).
• Hofer, M. & Imboden, D. M. (1998): Simultaneous determination of CFC-11, CFC-12, N-2 and Ar in water. – Anal. Chem., 70(4):724–729, 3 Abb., 2 Tab.; doi:10.1021/ac970499o.
• Höfer von Heimhalt, H. (1915): Anleitung zum geologischen Beobachten – Kartieren und Profilieren, 1st edn. – 82 p., 27 Abb.; Braunschweig (Vieweg); doi:10.1007/978-3-663-02309-8.
• Höfer von Heimhalt, H. (1920): Anleitung zum geologischen Beobachten – Kartieren und Profilieren, 2nd edn. – 82 p., 27 Abb.; Wiesbaden (Springer); doi:10.1007/978-3-663-02309-8.
• Höfer von Heimhalt, H. (1920): Grundwasser und Quellen – Eine Hydrogeologie des Untergrundes, 2nd edn. – 135 p., 66 Abb.; Wiesbaden (Springer).
• Hoffert, J. R. (1947): Acid Mine Drainage. – Ind. Eng. Chem., 39(5):642–646, doi:10.1021/ie50449a020.
• Hoffman, G. W. (1955): A Changing Cultural Landscape in the Middle Upper Inn Valley. – Southwestern Social Science Quarterly, 36:27.
• Hoffmann, A. (1964): Beschreibungen rheinland-pfälzischer Bergamtsbezirke – Bergamtsbezirk Betzdorf: 1. – 260 p., 20 Abb., 1 Kar.; Essen (Glückauf).
• Hoffmann, J. (1939): Uran in Gesteinen und Sedimenten des Erzgebirgsbruches. – Sber. Akad. Wiss. Wien, Mat.-nat. Kl., Abt. IIa, 148(3-4):189–205, 1 Abb., 2 Tab.
• Hoffmann, J. (1941): Uran im nördlichen Teil des Erzgebirgsbruches. – Sber. Akad. Wiss. Wien, Mat.-nat. Kl., Abt. IIb, 150(1):12–23, doi:10.1007/BF02716177.
• Hoffmann, J. (1941): Uranbestimmungen in Quellen südöstlich des Erzgebirges bis zum Wiener Thermalgebiet. – Sber. Akad. Wiss. Wien, Mat.-nat. Kl., Abt. IIb, 150(2-10):112–126, 1 Abb.; doi:10.1007/BF01512883.
• Hofmann, A., Anhaeusser, C. R. & Li, X. H. (2021): Layered ultramafic complexes of the Barberton Greenstone Belt – age constraints and tectonic implications. – S. Afr. J. Geol., 124(1):7–16, doi:10.25131/sajg.124.0002.
• Hofmann, G. & Tschan, W. (2004): „Bergordnungen“ – eine exemplarische Quellenbeschreibung anhand der historischen Bergbauregion Tirol. – Mitteilungen des Instituts für Österreichische Geschichtsforschung: Ergänzungsband, 44:257–267, doi:10.7767/boehlau.9783205160199.257.
• Hofmann, J. & Wolkersdorfer, Ch. (2013): Der historische Bergbau im Montafon: Montafoner Schriftenr. 24. – 1–150 p., 23 Abb., 2 Tab.; Schruns (Eigenverlag Stand Montafon).
• Hofstetter, J. C., Wydallis, J. B., Neymark, G., Reilly Iii, T. H., Harrington, J. & Henry, C. S. (2018): Quantitative colorimetric paper analytical devices based on radial distance measurements for aqueous metal determination. – Analyst, 143(13):3085–3090, doi:10.1039/c8an00632f.
• Hogg, E. R. & Taylor, P. (1993): Design of a High Head, High Volume Underground Pumpstation. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 606–630, 10 Abb.; Chililabombwe (Konkola Division).
• Höglund, L. O., Herbert, R., Lövgren, L., Öhlander, B., Neretnieks, I., Moreno, L., Malmström, M. E., Elander, P., Lindvall, M. & Lindström, B. (2004): MiMi – Performance Assessment Main Report. – 345 p., Luleå (MiMi Print).
• Holdermann, C.-S. & Walser, C. (2011): Montanarchäologische Untersuchungen zur Eisenerzförderung am Übergang vom 13. zum 14. Jahrhundert auf der Alpe Netza, Bereich Luterseeberg/ Verwallgruppe: Montafoner Schriftenreihe 23. – 319–345 p., 17 Abb.; Schruns (Eigenverlag Stand Montafon).
• Holl, G. W. & Fairon, E. G. (1973): A review of some aspects of shaft design. – J. S. Afr. I. Min. Metall., 73(10):309–324, 5 Abb., 12 Tab.
• Höll, R., Kling, M. & Schroll, E. (2007): Metallogenesis of germanium – A review. – Ore Geol. Rev., 30(3-4):145–180, 1 Abb., 9 Tab.; doi:10.1016/j.oregeorev.2005.07.034.
• Holla, L. (1991): Some Aspects of Strata Movement relating to Mining under Water Bodies in New South Wales, Australia. – Proceedings, 4th International Mine Water Association Congress, 1:233–244, 5 Abb., 3 Tab.
• Holland, C. T. (1969): Experience in Operating an Experimental Acid Mine Drainage Treatment Plant. – Am. Chem. Soc., Div. Fuel Chem., Prepr., 13(2):124–136, 5 Abb., 8 Tab.
• Holland, F. A. & Bragg, R. (1995): Fluid flow for chemical engineers, 2nd edn. – 358 p., Oxford (Butterworth-Heinemann).
• Holland, M. & Witthüser, K. T. (2009): Geochemical characterization of karst groundwater in the cradle of humankind world heritage site, South Africa. – Environ. Geol., 57(3):513–524, doi:10.1007/s00254-008-1320-2.
• Holland, M. & Witthüser, K. T. (2018): Horizontal Scavenger Borehole System For Plume Containment. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 512–517; (Tshwane University of Technology).
• Hollingsworth, I. D. & Odeh, I. O. A. (2009): Simulation and assessment of mine landscape reconstruction using analogue landform and environmental design criteria. Paper presented at the Second International Conference on Environmental and Computer Science, Dubai. – p. 62–65, 5 Abb.; (IEEE,).
• Holman, I. P. (2005): Climate change impacts on groundwater recharge- uncertainty, shortcomings, and the way forward? – Hydrogeol. J., 14(5):637–647, 7 Abb.; doi:10.1007/s10040-005-0467-0.
• Holman, M. R. & Kalmoe, N. P. (2021): The Polls—Trends – Sexual Harassment. – Public Opin. Q., 85(2):706–718, doi:10.1093/poq/nfab034.
• Holmbeck-Pelham, S. A., Rasmussen, T. C. & Fowler, L. A. (2000): Regulation of Injected Ground Water Tracers. – Ground Water, 38(4):541–549, 1 Abb., 4 Tab.; doi:10.1111/j.1745-6584.2000.tb00247.x.
• Holmden, C., Creaser, R. A. & Muehlenbachs, K. (1997): Paleosalinities in ancient brackish water systems determined by 87Sr/86Sr ratios in carbonate fossils: A case study from Western Canada sedimentary basin. – Geochim. Cosmochim. Acta, 61(10):2105–2118.
• Holmes, J. & Kreusch, E. (1972): Acid mine drainage treatment by ion exchange. – 215 p., Washington (U.S. Government Print. Office).
• Holmes, P. R. & Crundwell, F. K. (2000): The kinetics of the oxidation of pyrite by ferric ions and dissolved oxygen: an electrochemical study. – Geochimica et Cosmochimica Acta, 64(2):263–274, doi:10.1016/s0016-7037(99)00296-3.
• Holmström, H., Ljungberg, J. & Öhlander, B. (1999): Role of Carbonates in Mitigation of Metal Release from Mining Waste – Evidence from Humidity Cells Tests. – Environ. Geol., 37(4):267–280.
• Holmström, H. & Öhlander, B. (1999): Oxygen penetration and subsequent reactions in flooded sulphidic mine tailings – a study at Stekenjokk, northern Sweden. – Appl. Geochem., 14(6):747–759.
• Holmström, H. & Öhlander, B. (2001): Layers rich in Fe- and Mn-oxyhydroxides formed at the tailings-pond water interface, a possible trap for trace metals in flooded mine tailings. – J. Geochem. Explor., 74(1-3):189–203, 8 Abb., 4 Tab.; doi:10.1016/S0375-6742(01)00184-4.
• Holocher, J., Skrzyppek, J. & Croisé, J. (2004): Flooding of generic Salt Mine – Concept, Processes and Simulation of the post-closure Phase. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 195–200, 5 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Holopainen, J., Tolvanen, H., Tiihonen, T., Lehto, V.-P., Riikonen, J. & Nissinen, T. J. (2023): Analytical Validation of 3AWater MWAS, a Fast On-site Analysis Tool of Dissolved Metals in Waters. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 203–207; (International Mine Water Association).
• Holser, W. T., Schönlaub, H. P., Attrep, M., Jr., Boecklemann, K., Klein, P., Magaritz, M., Orth, C. J., Fenniger, A., Jenny, C., Kralik, M., Mauritsch, H., Pak, E., Schramm, J. M., Stattegger, K. & Schmöller, R. (1989): A unique geochemical record at the Permian/Triassic boundar. – Nature, 337:39–44, doi:10.1038/337039a0.
• Holt, P., Barton, G. & Mitchell, C. (1999): Electrocoagulation as a Wastewater Treatment. – 1–6 p., 1 Abb.; Castlemaine (Proceedings Third Annual Australian Environmental Engineering Research Event).
• Holt, P. K., Barton, G. W. & Mitchell, C. A. (2002): Mathematical analysis of a batch electrocoagulation reactor. – Water Supply, 2(5-6):65–71, doi:10.2166/ws.2002.0151.
• Holt, P. K., Barton, G. W., Wark, M. & Mitchell, C. A. (2002): A quantitative comparison between chemical dosing and electrocoagulation. – Colloid Surf. A-Physicochem. Eng. Asp., 211(2-3):233–248, 15 Abb., 2 Tab.; doi:10.1016/S0927-7757(02)00285-6.
• Holtham, P. N. (1992): Particle transport in gravity concentrators and the Bagnold effect. – Miner. Eng., 5(2):205–221, 9 Abb., 6 Tab.; doi:10.1016/0892-6875(92)90043-9.
• Hölting, B. & Coldewey, W. G. (2013): Hydrogeologie – Einführung in die Allgemeine und Angewandte Hydrogeologie, 8 edn. – 326 p., 118 Abb., 69 Tab.; Berlin Heidelberg (Springer); doi:10.1007/978-3-8274-2354-2.
• Hölting, B. & Coldewey, W. G. (2019): Hydrogeology: Springer textbooks in earth sciences, geography and environment. – 357 p., Berlin (Springer); doi:10.1007/978-3-662-56375-5.
• Holton, M. C. & Stephenson, D. (1983): A Computer Model of Circulating Service Water in South African Gold Mines. – Int. J. Mine Water, 2(2):33–42, 4 Abb.
• Holtzhausen, L. (2006): From Trapped to Tap – Mine Water becomes a Commodity. – The Water Wheel, 5(3):12–15, 7 Abb.
• Holtzhausen, L. (2006): World First – Full scale BioSure Plant Commissioned. – The Water Wheel, 5(3):19–21, 4 Abb.
• Holzbauer-Schweitzer, B. K. & Nairn, R. W. (2020): Spectral Monitoring Techniques For Optically Deep Mine Waters. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 110–116; (International Mine Water Association).
• Holzbauer-Schweitzer, B. K. & Nairn, R. W. (2022): Using sUAS for the Development and Validation of Surface Water Quality Models in Optically Deep Mine Waters. – Mine Water Environ., 41(1):237–251, doi:10.1007/s10230-022-00847-w.
• Homola, V. (1978): L’abaissement profond du niveau piezometrique des sources thermales de Teplice (nord-ouest de la Boheme, Tchecoslovaquie) au cours de l’exploitation de lignite a ciel ouvert. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1233–1248; Maracena (Asociación Nacional de lngenieros de Minas).
• Homrighausen, S., Hoernle, K., Hauff, F., Wartho, J. A., van den Bogaard, P. & Garbe-Schonberg, D. (2019): New age and geochemical data from the Walvis Ridge: The temporal and spatial diversity of South Atlantic intraplate volcanism and its possible origin. – Geochim. Cosmochim. Acta, 245:16–34, doi:10.1016/j.gca.2018.09.002.
• Hong, L. (1987): The hydrogeological Characters and erploratory Method in the Southern Coalfields of North China: Hydrogeology of Coal Basins. – 137–142 p., Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Hong, Q., Wang, Y., Luo, X., Chen, S., Chen, J., Cai, M., Cai, M. & Mai, B. (2012): Occurrence of polychlorinated biphenyls (PCBs) together with sediment properties in the surface sediments of the Bering Sea, Chukchi Sea and Canada Basin. – Chemosphere, 88(11):1340–1345, doi:10.1016/j.chemosphere.2012.05.033.
• Hong, W. & Sheng, W. (2023): A DEMATEL-ISM-BN Model of Mine Water Inrush Accidents. – Mine Water Environ., 42(1):178–186, doi:10.1007/s10230-022-00907-1.
• Hong, Y., Zhang, Y. & Khan, S. I. (2017): Hydrologic remote sensing – Capacity building for sustainability and resilience. – 395 p., Boca Raton (CRC Press).
• Hongyun, M., Javier, S. & Xin, X. (2011): Modeling of titration experiments by a reactive transport model. – Min. Sci. Technol., 21(2):273–276, doi:10.1016/j.mstc.2011.02.006.
• Honig, H., Metzger, C., Pust, C. & Schüppel, B. (2011): Dissolution of Various Basic Substances: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 349–352 p., Aachen (RWTH Aachen University).
• Höntzsch, S. & Zeibig, S. (2016): Geogenic Caverns in Rock Salt Formations – A Key to Genetic Processes and Hazard Potential. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1112–1113, Freiberg (TU Bergakademie Freiberg).
• Honvéd, J. (1982): Problems of Water Protection Technologies in the Practics of Mine Construction. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:278–289, 6 Abb.
• Hope, B., Scatolini, S., Titus, E. & Cotter, J. (1997): Distribution patterns of polychlorinated biphenyl congeners in water, sediment and biota from Midway Atoll (North Pacific Ocean). – Mar. Pollut. Bull., 34(7):548–563, doi:10.1016/S0025-326X(96)00180-4.
• Hopfgartner, G., Varesio, E., Tschappat, V., Grivet, C., Bourgogne, E. & Leuthold, L. A. (2004): Triple quadrupole linear ion trap mass spectrometer for the analysis of small molecules and macromolecules. – Journal of mass spectrometry : JMS, 39(8):845–55, doi:10.1002/jms.659.
• Hoppe, A., Hofmann, M., Lamelas Gracia, T., Lang, S., Lerch, C. & Marinoni, O. (2006): Geo-Informationssysteme zur Bewertung von Geo-Potenzialen in der Peripherie von Ballungsräumen. – Wiss. Mitt. Inst. Geol., 31:273–276, 3 Abb.
• Höppner, B., Bartelheim, M., Huijsmans, M., Krauss, R., Martinek, K. P., Pernicka, E. & Schwab, R. (2004): Prehistoric Copper Production in the Inn Valley (Austria), and the earliest Copper in Central Europe. – Archaeometry, 47(2):293–315, 10 Abb., 4 Tab.
• Höppner, S., Rieger, K. & Scholz, G. (2006): Wirtschaftliche Bewertung innovativer, aktiver und passiver Wasseraufbereitungssysteme für saure Bergbaugewässer. – Wiss. Mitt. Inst. Geol., 31:105–112, 7 Abb., 3 Tab.
• Hopwood, P. & Deloitte Touche Tohmatsu Limited (2018): Tracking the trends 2018 – The top 10 issues shaping mining in the year ahead. – 70 p., London (Deloitte Design Studio).
• Hora, B. (2014): Mining-induced displacement and resettlement in Colombia – Socio-economic and cultural consequences of resettlements of campesinos and indigenous people - The case of the Cerrejón open pit mine in La Guajira. – 144 p., Universität Innsbruck, 43 Abb., 14 Tab.; Innsbruck.
• Horak, G., Lorenz, C., Steudel, K., Willscher, S., Pompe, W. & Werner, P. (2005): Removal of heavy metals, arsenic and uranium from model solutions and mine drainage waters. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 399–408, Heidelberg (Springer).
• Horatschek, S. & Schubert, T. (1998): Richtlinie für die Verfasser geowissenschaftlicher Veröffentlichungen. – 51 p., 16 Tab.; Stuttgart (Schweizerbart).
• Horiba Inc. (2020): Microplastics. In: Horiba Inc. (ed). Horiba Inc.
• Horii, Y., Bavel, B. v., Kannan, K., Petrick, G., Nachtigall, K. & Yamashita, N. (2008): Novel evidence for natural formation of dioxins in ball clay. – Chemosphere, 70:1280–1289, doi:10.1016/j.chemosphere.2007.07.066.
• Horii, Y., Kannan, K., Petrick, G., Gamo, T., Falandysz, J. & Yamashita, N. (2005): Congener-Specific Carbon Isotopic Analysis of Technical PCB and PCN Mixtures Using Two-Dimensional Gas Chromatography-Isotope Ratio Mass Spectrometry. – Environ. Sci. Technol., 39:4206–4212, doi:10.1021/es050133q.
• Hörmann, L. (1993): Frauen am Schneeberg. – Der Schlern, 67(5):347–363, 12 Abb.
• Hörmann, L. v. (1901): Über tirolischen Volkscharakter. – Z. Dt.-Österr. Alpenver., 32:100–122.
• Hörmann, L. v. (1912): Genuß und Reizmittel in den Ostalpen – Eine volkskundliche Skizze. – Z. Dt.-Österr. Alpenver., 43:78–100.
• Hormayr-Hortenburg, J. v. (1842): Die goldene Chronik von Hohenschwangau, der Burg der Welfen, der Hohenstauffen und der Scheyren. – 242 + 92 p., 11 Abb., 5 Taf.; München (Franz).
• Hörner, G., Lau, S., Kantor, Z. & Löhmannsröben, H.-G. (2004): Isotope selective analysis of CO₂ with tunable diode laser (TDL) spectroscopy in the NIR. – Analyst, 129:772–778, 10 Abb., 2 Tab.; doi:10.1039/b404552c.
• Hörner, G., Lau, S. & Löhmannsröben, H.-G. (2004): NIR-Diode Laser Spectroscopy for Isotope-Selective Sensing of Soil-Respired Carbon Dioxide. – Proceedings, SPIE Conference, 5544:47–54, 5 Abb.; doi:10.1117/12.559551.
• Hornibrook, E. R. C., Longstaffe, F. J. & Fyfe, W. S. (1997): Spatial distribution of microbial methane production pathways in temperate zone wetland soils: Stable carbon and hydrogen isotope evidence. – Geochim. Cosmochim. Acta, 61(4):745–753.
• Horova, A. I., Kolesnyk, V. Y. & Kulikova, D. V. (2011): Udoskonalennya Sporud Mekhanichnoi Ochystky Shakhtnykh Vod [Mine Water Mechanical Treatment Facilities Improvement]. – Naukovyj visnyk Nacional’noho Hirnycoho Universytetu [Scientific bulletin of National Mining University], 5 6 Abb.
• Horowitz, N., Frago, J. & Mu, D. (2018): Life cycle assessment of bottled water: A case study of Green2O products. – Waste Manag., 76:734–743, doi:10.1016/j.wasman.2018.02.043.
• Horvath, B. & Gruiz, K. (1996): Impact of metalliferous ore mining activity on the environment in Gyongyosoroszi, Hungary. – Sci. Total Environ., 184(3):215–227.
• Hoskin, W. M. A. (2000): Mine Closure – The 21st Century Approach: Mine Closure in Iberoamerica. – 109–116 p., Rio de Janeiro (Cyted – Imacc – Unido).
• Hosni, A., Gentier, S., Rachez, X. & Billaux, D. (2004): 3D-hydromechanical modeling of hydraulic stimulation of deep geothermal wells in Hot Fractured Rock at Soultz-sous-Forêts: Numerical modeling in discrete materials in geotechnical engineering, civil engineering, and earth sciences: proceedings, 1st International UDEC/3DEC Symposium, Bochum, Germany 29-1 October 2004. – 139–144 p., 297; Rotterdam (Balkema).
• Hossfeld, J. (1972): Neues über den Bergbau Rabenstein in Südtirol. – Der Aufschluss, Sonderheft, 23(11):394, illus.
• Hoth, K., Brause, H., Döring, H., Kahlert, E., Schultka, St., Volkmann, N., Berger, H.-J., Adam, C., Felix, M. & Wünsche, M. (2009): Die Steinkohlenlagerstätte Zwickau: Bergbau in Sachsen 15, 1. edn. – 160 p., Freiberg (Sächsisches Landesamt für Umwelt, Landwirtschaft und Geologie (LfULG)).
• Hoth, N., Häfner, F. & Boy, S. (1998): Modelling of Groundwater Contamination caused by Lignite Mining in Eastern Germany: Mine Water and Environmental Impacts 2. – 223–233 p., 5 Abb.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Hoth, N., Wagner, S. & Häfner, F. (2001): Predictive Modelling of Dump Water Impact on the Surroundings of the Lignite Dump Site Jänschwalde (Eastern Germany). – J. Geochem. Explor., 73(2):113–121, 7 Abb., 1 Tab.
• Hötzl, H. & Göppert, N. (2007): Entwicklung einer optimierten Tracertechnik unter Verwendung von fluoreszierenden Mikrokügelchen zur Bewertung der hygienischen Gefährdung von Grundwässern: Forschungsbericht FZKA-BWPLUS. – 86 p., 64 Abb., 22 Tab.; Karlsruhe (Universität Karlsruhe).
• Hötzl, H. & Liesch, T. (2005): Hydrogeologie III Vorlesungsskript. – Nn, 68 Abb., 67 Tab.
• Hou, E., Che, X., Luo, X., Long, T. & Chi, B. (2019): Surface Water Inrush Mechanisms of Shallow Buried Coal Seams: A Single Crack Experiment and Discussion. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 10–15; Perm, Russia (Perm State University).
• Hou, E., Ji, Z., Che, X., Wang, J., Gao, L., Tian, S. & Yang, F. (2019): Water Abundance Prediction Method Of Weathered Bedrock Based On Improved AHP And The Entropy Weight Method. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 357–364; Perm, Russia (Perm State University).
• Hou, J., Jia, P., Yang, K., Bu, T., Zhao, S., Li, L. & Wang, L. (2022): Fluorescence and Colorimetric Dual-Mode Ratiometric Sensor Based on Zr–Tetraphenylporphyrin Tetrasulfonic Acid Hydrate Metal–Organic Frameworks for Visual Detection of Copper Ions. – ACS Appl. Mater. Interfaces, 14(11):13848–13857, doi:10.1021/acsami.1c23199.
• Hou, X., Li, X., Liu, L., Wang, Z. & Gao, M. (2014): Current Situation of Unbeknown Mine Goafs and Goaf water in China. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 335, Xuzhou (International Mine Water Association).
• Hou, X., Tong, X., Dong, W., Dong, C. & Shuang, S. (2007): Synchronous fluorescence determination of human serum albumin with methyl blue as a fluorescence probe. – Spectrochimica acta. Part A, Molecular and biomolecular spectroscopy, 66(3):552–6, doi:10.1016/j.saa.2006.03.031.
• Hounslow, A. W. (1995): Water Quality Data – Analysis and Interpretation. – 397 p., 88 Abb., 73 Tab.; London (Lewis Publishers).
• Hounslow, M. W. (2001): The crystallographic fabric and texture of siderite in concretions: implications for siderite nucleation and growth processes. – Sedimentology, 48:533–557, 14 Abb., 3 Tab.; doi:10.1046/j.1365-3091.2001.00375.x.
• Houser, P. R., Shuttleworth, W. J., Famiglietti, J. S., Gupta, H. V., Syed, K. H. & Goodrich, D. C. (1998): Integration of soil moisture remote sensing and hydrologic modeling using data assimilation. – Water Resour. Res., 34(12):3405–3420, 8 Abb., 5 Tab., 4 Plat.
• Houseworth, J. E. (2006): An Analytical Model for Solute Transport in Unsaturated flow Through a Single Fracture and Porous rock Matrix. – Water Resour. Res., 42(1).
• Houston, K. (2013): Shady Characters: The Secret Life of Punctuation, Symbols, and Other Typographical Marks. – 352 p., New York (W. W. Norton & Company).
• Houston, K. S., Milionis, P. N., Eppley, R. L., Harrington, J. M. & Harrington, J. G. (2005): Field Demonstration of In-Situ Treatment and Prevention of Acid Mine Drainage in the Abandoned Tide Mine, Indiana County, Pennsylvania. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 26:1–9, 6 Abb.
• Hove, M., van Hille, R. P. & Lewis, A. E. (2008): Mechanisms of formation of iron precipitates from ferrous solutions at high and low pH. – Chem. Eng. Sci., 63(6):1626–1635, doi:10.1016/j.ces.2007.11.016.
• Hoversten, G. M. & Gasperikova, E. (2003): Investigation of novel Geophysical Techniques for Monitoring CO₂ Movement during Sequestration. – 94 p., 53 Abb., 5 Tab.; Berkeley (Lawrence Berkeley National Laboratory).
• Howard, C. S. (1933): Determination of Total Dissolved Solids in Water Analysis. – Ind. Eng. Chem. Anal., 5(1):4–6, 4 Abb.; doi:10.1021/ac50081a004.
• Howard, D., Grobler, C., Robinson, R. E. G. & Cole, P. M. (2009): Sustainable Purification of Mine Water using Ion Exchange Technology. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 447–453, 3 Abb., 8 Tab; Pretoria (Document Transformation Technologies).
• Howden, N. & Mather, J. (2012): History of Hydrogeology: International Contributions to Hydrogeology 28. – 424 p., Boca Raton (CRC Press).
• Howe, R. H. L. & Howe, R. C. (1981): Avoid Errors in Averaging pH Values. – Chem. Eng., 88(7):109–109.
• Howell, R. L. (2013): Airlift Testing in Exploration Coreholes. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 145–150, 3 Abb., 1 Tab.; Golden (International Mine Water Association).
• Hoyer, P. (1964): Das Gewässernetz des Münsterlandes als Abbild posthumer Bewegungen an variscischen Großstrukturen. – Z. dt. geol. Ges., 116(1):238–243, doi:10.1127/zdgg/116/1964/238.
• Hozhina, E. I., Khramov, A. A., Gerasimov, P. A. & Kumarkov, A. A. (2001): Uptake of heavy metals, arsenic, and antimony by aquatic plants in the vicinity of ore mining and processing industries. – J. Geochem. Explor., 74(1-3):153–162, 4 Abb., 7 Tab.
• Hradil, G. (1924): Bergbauliches aber wenig Erbauliches aus Tirol. – Innsbrucker Nachr., 20.12.1924, 291:5.
• Hradil, G. (1928): Max von Isser †. – Innsbrucker Nachr., 30.1.1928, 75(291):7–8.
• Hradil, G. (1946/49): Die Ölschiefer Tirols. – Veröff. Mus. Ferdinandeum, 26-29:25–32, 1 Taf.
• Hradil, G. & Falser, H. v. (1930): Die Ölschiefer Tirols. – 121 p., 61 Abb., 24 Tab.; Leipzig (Barth).
• Hredzák, S., Matik, M., Šestinová, O., Kupka, D., Bártová, Z., Hagarová, L., Zubrik, A., Znamenáčková, I. & Dolinská, S. (2024): Brief Characterisation of Ochre from the Marta Adit (Nižná Slaná, Spiš-Gemer Ore Mts., Eastern Slovakia). – Inż. Miner. – J. Pol. Mineral. Eng. Soc.,(1):1–6, doi:10.29227/im-2024-01-01.
• Hribar, J. (1997): The System of Predicting and Precautions Against Inrushes of Moist Rock into Coal Mine. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:203–209, 1 Abb.
• Hristov, A. N., Ivan, M., Neill, L. & McAllister, T. A. (2003): Evaluation of Several Potential Bioactive Agents for Reducing Protozoal Activity in Vitro. – Anim. Feed Sci. Technol., 105(1-4):163–184.
• Hrušková, T. (2014): The Most Important Pollutants of Eastern Slovakia Waters. – Journal of microbiology, biotechnology and food sciences, 4(2):112–116, doi:10.15414/jmbfs.2014.4.2.112-116.
• Hrvatin, M., Tičar, J. & Zorn, M. (2020): The Geography of Slovenia – Small But Diverse: World Regional Geography Book Series. – Cham (Springer); doi:10.1007/978-3-030-14066-3.
• Hrvatin, M., Tičar, J. & Zorn, M. (2020): Rocks and Tectonic Structure of Slovenia. – In: Perko, D., Ciglič, R. & Zorn, M. (eds): The Geography of Slovenia – Small But Diverse. – p. 23–34, Cham (Springer); doi:10.1007/978-3-030-14066-3_2.
• Hsieh, P., Lesikar, B. J., Webb, R. & McCormack, D. C. (2015): Lessons Learned: Electrocoagulation Treatment of Dredge Return Water to Acute and Chronic Water Quality Criteria for Dissolved Metals, Total PCBs, pH, and Turbidity. Paper presented at the Dredging Summit and Expo 2015, Houston, 22–25 June 2015. – p. 189–207, 10 Abb., 6 Tab.; Houston (Western Dredging Association, Texas A&M University Center for Dredging Studies).
• Hsissou, Y., Chauve, P. & Mania, J. (1996): L’aquifere des calcaires du Turonien (Bassin du Tadla, Maroc). Alimentations locales et lointaines a partir de l’Atlas [The aquifer of Turonian limestones (Tadla Basin, Morocco). Local and remote groundwater recharge from the Atlas)]. – J. Hydrol., 183(3-4):433–443, 6 Abb., 2 Tab.
• Hsu, S. C. & Maynard, J. B. (1999): The use of sulfur isotopes to monitor the effectiveness of constructed wetlands in controlling acid mine drainage. – Environ. Engg. Policy, 1:223–233, 7 Abb., 5 Tab.; doi:10.1007/s100220050026.
• Hsu-Kim, H., Middleton, A. & Hedin, B. C. (2024): Application of supported liquid membranes for extraction of rare earth elements from acidic coal mine drainage. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 291–293; Morgantown (International Mine Water Association).
• Hu, E., Wang, Q., Zhang, G., Wu, W. & Ding, D. (2011): Comparison of Removing NO₃^– in the Polluted Groundwater of In-Situ Leaching of Uranium Mine with DNB and Fe⁰. – IEEE:3014–3017, 5 Abb., 2 Tab.
• Hu, J., Fu, L., Zhao, X., Liu, X., Wang, H., Wang, X. & Dai, L. (2009): Dispersive liquid–liquid microextraction combined with gas chromatography–electron capture detection for the determination of polychlorinated biphenyls in soils. – Anal. Chim. Acta., 640(1):100–105, doi:10.1016/j.aca.2009.02.055.
• Hu, J., Zheng, M., Nie, Z., Liu, W., Liu, G., Zhang, B. & Xiao, K. (2013): Polychlorinated dibenzo-p-dioxin and dibenzofuran and polychlorinated biphenyl emissions from different smelting stages in secondary copper metallurgy. – Chemosphere, 90(1):89–94, doi:10.1016/j.chemosphere.2012.08.003.
• Hu, L., Zhang, M., Yang, Z., Fan, Y., Li, J., Wang, H. & Lubale, C. (2020): Estimating dewatering in an underground mine by using a 3D finite element model. – PloS one, 15(10):e0239682, doi:10.1371/journal.pone.0239682.
• Hu, M., Guo, N., Hu, Z. & Mu, M. (2024): The Reuse of Gold Tailings as Fill Material for Depleted Mines. – Mine Water Environ., 43(2):266–277, doi:10.1007/s10230-024-00985-3.
• Hu, Q. H., Salve, R., Stringfellow, W. T. & Wang, J. S. Y. (2001): Field Tracer-transport Tests in Unsaturated Fractured Tuff. – J. Contam. Hydrol., 51(1-2):1–12.
• Hu, R., Chen, Z. & Wang, D. (2014): Exploration and Treatment Practice of A9 Karst Collapse Column of Liuqiao Mine Field in the North of Anhui Province. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 548–554, Xuzhou (International Mine Water Association).
• Hu, W. (2014): The Characteristics of Karst and Karst Water Hazards in Coal Mining Areas in North China. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 447–453, Xuzhou (International Mine Water Association).
• Hu, W. Y. & Zhao, C. H. (2021): Evolution of Water Hazard Control Technology in China’s Coal Mines. – Mine Water Environ., 40(2):334–344, doi:10.1007/s10230-020-00744-0.
• Hu, X. & Zhang, Q. (2024): Mine Water Treatment, Resource Utilization and Prospects in Coal Mining Areas of Western China. – Mine Water Environ., 43(2):210–230, doi:10.1007/s10230-024-00984-4.
• Hu, Y., Chen, X., Li, W., Zheng, G., Li, X. & Wang, W. (2022): Application of Brillouin Optical Time Domain Reflection Technology for Monitoring Deformation and Failure of the Coal Seam Floor Rock Mass in Deep Underground Mines. – Mine Water Environ., 41(4):1082–1095, doi:10.1007/s10230-022-00906-2.
• Hu, Y. & Cheng, L. (2014): An In-situ Exploration for Hidden Collapse Columns Using Comprehensive Geophysics. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 292–298, Xuzhou (International Mine Water Association).
• Hu, Y., Li, W., Wang, Q., Liu, S. & Wang, Z. (2019): Evolution of Floor Water Inrush from a Structural Fractured Zone with Confined Water. – Mine Water Environ., 38(2):252–260, doi:10.1007/s10230-019-00599-0.
• Hu, Y., Liu, Q. & Zhang, W. (2014): Watery of Coal-bearing Sandstone Aquifer Analysis and Forecasting with Multi-factor. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 491–496, Xuzhou (International Mine Water Association).
• Hu, Y., Sun, J., Liu, W. & Wei, D. (2019): The Evolution and Prevention of Water Inrush Due to Fault Activation at Working Face No. II 632 in the Hengyuan Coal Mine. – Mine Water Environ., 38(1):93–103, doi:10.1007/s10230-018-00579-w.
• Hu, Y., Sun, W. & Liu, R. (2012): Wastewater Recycling Technology in Fankou Lead-Zinc Mine of China: Water in Mineral Processing. – 371–387 p., 24 Abb.; Littleton (Sme).
• Hu, Y. B., Li, W. P., Liu, S. L. & Wang, Q. Q. (2021): Prediction of Floor Failure Depth in Deep Coal Mines by Regression Analysis of the Multi-factor Influence Index. – Mine Water Environ., 40(2):497–509, doi:10.1007/s10230-021-00769-z.
• Hua, P., Ji, X. H., Zhu, J., Wei, W., Cai, J. P., Bocharnikova, E. & Matichenkov, V. (2019): Effect of Si on As Speciation and Distribution in Rice near the Shimen Realgar Mine. – Mine Water Environ., 38(4):808–816, doi:10.1007/s10230-019-00625-1.
• Huang, H., Sang, S., Zhang, H., Wang, M., Peng, J. & Shen, G. (2014): Drainage Fluid Variation Characteristics through Ion Monitoring during Coalbed Methane Well Production. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 767, Xuzhou (International Mine Water Association).
• Huang, H. H., Twidwell, L. G., Anderson, C. A. & Young, C. A. Chemical titration simulation – an equilibrium calculation approach. 2005. Canadian Institute of Mining, Metallurgy and Petroleum, 361–373 S.
• Huang, H. P. & Fraser, D. C. (1996): The differential parameter method for multifrequency airborne resistivity mapping. – Geophysics, 61(1):100–109, doi:10.1190/1.1574674.
• Huang, J., Gao, J., Yu, G., Yamazaki, N., Deng, S., Wang, B. & Weber, R. (2015): Unintentional formed PCDDs, PCDFs, and DL-PCBs as impurities in Chinese pentachloronitrobenzene products. – Environ. Sci. Pollut. Res. Int., 22(19):14462–70, doi:10.1007/s11356-014-3507-2.
• Huang, L. & Liu, Y. (2017): Health information and consumer learning in the bottled water market. – Int. J. Ind. Organ., 55:1–24, doi:10.1016/j.ijindorg.2017.08.002.
• Huang, S., Bao, J., Shan, M., Qin, H., Wang, H., Yu, X., Chen, J. & Xu, Q. (2018): Dynamic changes of polychlorinated biphenyls (PCBs) degradation and adsorption to biochar as affected by soil organic carbon content. – Chemosphere, 211:120–127, doi:10.1016/j.chemosphere.2018.07.133.
• Huang, T., Ling, Z., Ma, J., Macdonald, R. W., Gao, H., Tao, S., Tian, C., Song, S., Jiang, W., Chen, L., Chen, K., Xie, Z., Zhao, Y., Zhao, L., Gu, C. & Mao, X. (2020): Human exposure to polychlorinated biphenyls embodied in global fish trade. – Nat. Food, 1(5):292–300, doi:10.1038/s43016-020-0066-1.
• Huang, X., Liu, Q., Yao, S. & Jiang, G. (2017): Recent progress in the application of nanomaterials in the analysis of emerging chemical contaminants. – Anal. Methods, 9:276, doi:10.1039/C7AY00859G.
• Huang, X., Wang, G., Liang, X., Cui, L., Ma, L. & Xu, Q. (2018): Hydrochemical and Stable Isotope (δD and δ18O) Characteristics of Groundwater and Hydrogeochemical Processes in the Ningtiaota Coalfield, Northwest China. – Mine Water Environ., 37(1):119–136, doi:10.1007/s10230-017-0477-x.
• Huang, Y., Dong, S., Zheng, D., Xie, H. & Qi, X. (2014): Ordovician Limestone Aquosity Prediction Using EMD and Nonlinear Seismic Attributes. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 277–281, Xuzhou (International Mine Water Association).
• Huang, Z., Li, S. J., Zhao, K., Wu, Y., Zeng, W. & Xu, H. W. (2020): Estimating the Hydraulic Conductivity of Deep Fractured Rock Strata from High-pressure Injection Tests. – Mine Water Environ., 39(1):112–120, doi:10.1007/s10230-019-00646-w.
• Hubaux, A. & Vos, G. (1970): Decision and detection limits for calibration curves. – Anal. Chem., 42(8):849–855, 5 Abb.; doi:10.1021/ac60290a013.
• Hubbard, P. & Palmer, M. (2023): A Review of Downhole Field Methodologies Applied for the Hydrogeological Exploration of Lithium Enriched Groundwater. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 208–214; (International Mine Water Association).
• Hubbard, P. & Rex, A. (2015): Resistivity Tomography with Hydraulic and Geotechnical Data to Conceptualize Weathered Hydrogeology. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Hubbert, M. K. (1940): The Theory of Groundwater Motion. – J. Geol., 48(8):785–944, 48 Abb., 2 Tab.
• Hubert, E. & Wolkersdorfer, Ch. (2015): Establishing a conversion factor between electrical conductivity and total dissolved solids in South African mine waters. – Water SA, 41(4):490–500, 6 Abb., 8 Tab.; doi:10.4314/wsa.v41i4.08.
• Hubinger, B., Birk, S. & Hergarten, S. (2016): A New Equation Solver for Modeling Turbulent Flow in Coupled Matrix-Conduit Flow Models. – Groundwater, 54(4):596–602, doi:10.1111/gwat.12400.
• Hübner, R., Astin, K. B. & Herbert, R. J. H. (2010): ‘Heavy metal’ – time to move on from semantics to pragmatics? – J. Environ. Monit., 12(8):1511–1514, doi:10.1039/C0EM00056F.
• Hubrig, T., Konrad, C. & Rost, D. (2014): Entwicklung einer selbstregulativen, wartungsarmen Reinigungsanlage für Sümpfungswässer der Naturstein- und Baurohstoffindustrie zur Direkteinleitung. – (Report Nr. AKZ 28863 - 23 – DBU-Förderprojekt 28863). – 66 p., 44 Abb., 7 Tab., 3 Anl.; Chemnitz (G.U.B. Ingenieur AG).
• Huckins, S. R. (NA): A Luminescence Tutorial.
• Hudcová, H., Mojžíšková, H., Badurová, J., Rozkošný, M., Sedláek, P., Sova, J. & Bezinová, R. (2008): Monitoring of the Uranium Mining Industry Impact on the Water Ecosystem in the Middle Part of the Svratka River Basin. – Proceedings, 10th International Mine Water Association Congress:205–208.
• Hudcová, H., Rozkošný, M., Badurová, J., Sova, J. & Brezinová, R. (2009): Impact of Former Uranium Mining in the Olší Mine Area (Czech Republic) on the Water Ecosystems. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 105–112, 5 Abb., 4 Tab; Pretoria (Document Transformation Technologies).
• Hudson, A. & Bouwman, H. (2009): Birds Associated with the Tailings Storage Facility and Surrounds of a South African Gold Mine. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 758–765, 2 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Hudson, A., Hussey, A., Harley, A. & Dyhr, T. (2015): Simulating the Performance of a Dry Stack Tailings Design for Water Control Permitting. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Hudson, A., Murnane, J. & Courtney, R. (2025): Constructed wetlands for treatment of alkaline bauxite residue leachate: ten years of monitoring a single cell system and optimising designs for a multi-cell approach. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 254–259; Braga (International Mine Water Association).
• Hudson, A., Murnane, J. G. & Courtney, R. (2023): Constructed Wetlands For Treatment Of Bauxite Residue Leachate: 7.5 Years Of Monitoring. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 215–219; (International Mine Water Association).
• Hudson, A. L., Harley, A. & Richardson, D. (2018): Combining Predictive Modeling and a Full-Scale Analog to Reduce Uncertainty. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 363–368; (Tshwane University of Technology).
• Hudson, A. L. & Meyer, T. (2013): Consideration of Thermal Conditions in Year Round Heap Leach Operation in the Northern Desert Climates. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 849–854, 2 Abb., 4 Tab.; Golden (International Mine Water Association).
• Hudson, C. (2018): Achieving Sustainable Mine Closure Through the Use of Mine Water. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 282; (Tshwane University of Technology).
• Hudson-Edwards, K. A., Jamieson, H. E. & Lottermoser, B. G. (2011): Mine Wastes: Past, Present, Future. – Elements, 7(6):375–380, doi:10.2113/gselements.7.6.375.
• Hudson-Edwards, K. A., Macklin, M. G., Jamieson, H. E., Brewer, P. A., Coulthard, T. J., Howard, A. J. & Turner, J. N. (2003): The Impact of Tailings dam Spills and Clean-up Operations on Sediment and Water Quality in River Systems: the Rios Agrio-Guadiamar, Aznalcóllar, Spain. – Appl. Geochem., 18(2):221–239.
• Hudson-Edwards, K. A., Macklin, M. G., Miller, J. R. & Lechler, P. J. (2001): Sources, Distribution and Storage of Heavy Metals in the Rio Pilcomayo, Bolivia. – J. Geochem. Explor., 72(3):229–250.
• Hufová, E. & Tylcer, J. (1987): Hydrogeological Division of the Czechoslovak Part of the Upper Silesian Coal Baisn: Hydrogeology of Coal Basins. – 283–289 p., 1 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Huggel, C., Clague, J. J. & Korup, O. (2012): Is climate change responsible for changing landslide activity in high mountains? – Earth Surf. Processes Landforms, 37(1):77–91, doi:10.1002/esp.2223.
• Hugger, P. (1994): 2000 Jahre Bergbaukultur am Gonzen. – Schweizerisches Archiv für Volkskunde, 90:131–143.
• Hughes, A., Blanchard, R., Kofoed, V. O. & Jessop, M. (2023): Using Innovative Geophysical Techniques to Characterize Abandoned Mine Workings and Mine Water. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 220–226; (International Mine Water Association).
• Hughes, T. A. & Gray, N. F. (2012): Acute and Chronic Toxicity of Acid Mine Drainage to the Activated Sludge Process. – Mine Water Environ., 31(1):40–52, 6 Abb., 6 Tab.; doi:10.1007/s10230-011-0168-y.
• Hughes, T. A. & Gray, N. F. (2013): Removal of Metals and Acidity from Acid Mine Drainage Using Municipal Wastewater and Activated Sludge. – Mine Water Environ., 32(3):170–184, 11 Abb., 4 Tab.; doi:10.1007/s10230-013-0218-8.
• Hughes, T. A., Gray, N. F. & Guillamón, O. S. (2013): Removal of Metals and Acidity from Acid Mine Drainage Using Liquid and Dried Digested Sewage Sludge and Cattle Slurry. – Mine Water Environ., 32(2):108–120, 7 Abb., 2 Tab.; doi:10.1007/s10230-013-0217-9.
• Hugman, R., Coulon, C., Zwinger, J. & de Sousa, E. (2025): Optimization of Prediction-Driven Monitoring Programs. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 301–306; Braga (International Mine Water Association).
• Huhtala, T. (1979): The geology and zinc-copper deposits of the Pyhasalmi-Pielavesi District, Finland. – Econ. Geol., 74(5):1069–1083, doi:10.2113/gsecongeo.74.5.1069.
• Huhtelin, T. (2015): Chapter 3.4 – The Kemi Chromite Deposit. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 165–178, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00006-6.
• Huijgen, W. J. J. & Comans, R. N. J. (2003): Carbon dioxide sequestration by mineral carbonation: ECN-C-03-016. – 52 p., (Energy research Centre of the Netherlands).
• Huisamen, A. (2017): Quantification Methods and Management of Hydrogeochemistry in Decommissioned Collieries of the Mpumalanga Coalfields. – 191 p., University of Pretoria, 122 Abb., 43 Tab., 5 Anl.; Pretoria.
• Huisamen, A. (2019): How Much Is Enough? Developing an International Standard of Reporting for Mine Water Hydrogeology. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 365–368; Perm, Russia (Perm State University).
• Huisamen, A. & Glendinning, J. E. (2022): Post-Mining Hydrogeology of Underground Collieries – Effects of Hanging Wall Subsidence. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 161–165; (International Mine Water Association).
• Huisamen, A. & Glendinning, J. E. (2024): Hydrogeological inputs to stability analysis of tailings storage facilities. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 294–299; Morgantown (International Mine Water Association).
• Huisamen, A. & Wolkersdorfer, Ch. (2016): Modelling the Hydrogeochemical Evolution of Mine Water in a Decommissioned Opencast Coal Mine. – Int. J. Coal Geol., 164:3–12, 10 Abb., 2 Tab.; doi:10.1016/j.coal.2016.05.006.
• Huisamen, A. & Wolkersdorfer, Ch. (2016): Modelling the Hydrogeochemistry of Decommissioned Opencast Coal Mines. Paper presented at the IMWA 2016 – Mining Meets Water – Conflicts and Solutions, Leipzig/Germany. – p. 1205–1211, 3 Abb., 2 Tab.; (TU Bergakademie Freiberg).
• Huisman, L. & Wood, W. E. (1974): Slow Sand Filtration. – 122 p., 52 Abb., 3 Tab., 2 Anh.; Geneva (World Heath Organisation).
• Huizenga, J. M., Silberbauer, M., Dennis, R. & Dennis, I. (2013): An inorganic water chemistry dataset (1972–2011) of rivers, dams and lakes in South Africa. – Water SA, 39(2):335–339, 3 Abb., 2 Tab.; doi:10.4314/wsa.v39i2.18.
• Hulshof, A. H. M. & Macdonald, A. S. (1998): Dispersion of tailings from the Stirling Zn-Pb-Cu mine site, Cape Breton Island, Nova Scotia. – Atlantic Geology, 34(3):159–170, 7 Abb., 3 Tab.
• Hultsch, J. (2006): Tracerversuch im gefluteten Kalksteinbergwerk Felsendome Rabenstein – Hydrochemische Untersuchungen und hydrodynamische Modellierung mit ANSYS/FLOTRAN [Tracer test in the flooded Felsendome Rabenstein limestone mine – Hydrochemical investigations and hydrodynamic modelling with ANSYS/FLOTRAN]. – 112 p., 46 Abb., 18 Tab., 16 Anh.; Freiberg (unveröff. Dipl.-Arb. TU Freiberg).
• Human, A. M. & Exner, H. E. (1997): The relationship between electrochemical behaviour and In-service corrosion of WC based cemented carbides. – Int. J. Refract. Met. Hard Mat., 15(1-3):65–71.
• Human Rights Law Centre (2020): After the mine – Living with Rio Tinto’s deadly legacy. – 60 p., Melbourne (Human Rights Law Centre).
• Humby, T.-L. (2013): Environmental Justice and Human Rights on the Mining Wastelands of the Witwatersrand Gold Fields. – Rev. gén. droit, 43:67–112, doi:10.7202/1021211ar.
• Hummel, J., Fischer, R., Luckner, L. & Kaden, S. (1985): Submodels of water quality for the analysis of regional water policies in open-pit lignite mining areas. – Proceedings, 2nd International Mine Water Association Congress, 2:673–684.
• Hummel, W. (2000): Comment on “On the influence of carbonate in mineral dissolution: 1. The thermodynamics and kinetics of hematite dissolution in bicarbonate solutions at T = 25 °C” by J. Bruno, W. Stumm, P. Wersin, and F. Brandberg. – Geochim. Cosmochim. Acta, 64(12):2167–2171, 4 Abb.
• Humphrey, C., Jones, D., Frostick, A. & Chandler, L. (2012): Deriving surface water quality closure criteria for natural waterbodies adjacent to an Australian uranium mine. – In: McCullough, C. D., Lund, M. A. & Wyse, L. (eds): International Mine Water Association Symposium. – p. 159–166, Bunbury (Edith Cowan University).
• Humphries, M. S., McCarthy, T. S. & Pillay, L. (2017): Attenuation of pollution arising from acid mine drainage by a natural wetland on the Witwatersrand. – S. Afr. J. Sci., 113(1/2):Art. #2016–0237, 8 Abb., 4 Tab.; doi:10.17159/sajs.2017/20160237.
• Hundt, T., Gerlach, G., Roth, F. & Schmidt, W. (1887): Beschreibung der Bergreviere Siegen I, Siegen II, Burbach und Müsen. – 280 p., Bonn (Marcus).
• Hünefeld, E. v. (2012): Der Nordatlantikflug – die Familien von Hünefeld erinnern: Vom Fliegen und Landen – Zur Geschichte der ostdeutschen Luftfahrt. – 32–49 p., 47 Abb.; Leipzig (Passage).
• Hünefeld, E. v. & Wolkersdorfer, Ch. (2015): Flow Measurement Using the Salt Dilution Method at Tweelopiespruit, Witwatersrand, South Africa. Paper presented at the Geoecology and Rational Surveillance: from Science to Practice, Belgorod, 6–10 April 2015. – p. 138–141, 1 Abb.; Belgorod (Polyterra).
• Hung, B. Q. (2017): VOxFlotation – Future Solution for Water Treatment. – 50 p., Helsinki Metropolia University of Applied Sciences; Helsinki.
• Hung, K. W. Y., Suen, M. F. K., Chen, Y. F., Cai, H. B., Mo, Z. X. & Yung, K. K. L. (2012): Detection of water toxicity using cytochrome P450 transgenic zebrafish as live biosensor for polychlorinated biphenyls toxicity. – Biosensors and Bioelectronics, 31(1):548–553, doi:10.1016/j.bios.2011.10.004.
• Hungr, O., Leroueil, S. & Picarelli, L. (2013): The Varnes classification of landslide types, an update. – Landslides, 11(2):167–194, 37 Abb., 5 Tab.; doi:10.1007/s10346-013-0436-y.
• Hunt, J. (2019): Advanced Guide to Python 3 Programming: Undergraduate Topics in Computer Science. – 497 p., Cham (Springer Nature); doi:10.1007/978-3-030-25943-3.
• Hunt, J. (2020): A Beginners Guide to Python 3 Programming: Undergraduate Topics in Computer Science. – 433 p., Cham (Springer); doi:10.1007/978-3-030-20290-3.
• Hunt, J., Berry, R., Parbhakar-Fox, A. & Lottermoser, B. (2015): Prediction of Acid Rock Drainage (ARD) from Calculated Mineralogy. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Hunt, L. E. & Howard, A. G. (1994): Arsenic Speciation and Distribution in the Carnon Estuary Following the Acute Discharge of Contaminated Water from a Disused Mine. – Mar. Pollut. Bull., 28(1):33–38, 5 Abb., 1 Tab.
• Hunt, R. C. (1995): How to Increase the Accuracy of Solution Conductivity Measurements. Sensor Development, Inc., Orange, 17.
• Hunter, D. R. (2009): An Occurrence of Chrysotile Asbestos, Usushwana Valley, Mbabane District, Swaziland. – Geol. Mag., 90(4):241–247, 3 Abb.; doi:10.1017/s0016756800065420.
• Hunter, K. S., Wang, Y. & Van Cappellen, P. (1998): Kinetic modeling of microbially-driven redox chemistry of subsurface environments; coupling transport, microbial metabolism and geochemistry. – J. Hydrol., 209(1-4):53–80, Refs: 95; illus. incl. 10 tables.
• Huppert, H. E. & Turner, J. S. (1981): Double-diffusive convection. – J. Fluid Mech., 106:299–329, 11 Abb.
• Hurai, V., Chovan, M., Huraiová, M., Koděra, P., Konečný, P. & Lexa, O. (2010): Slovak Ore Mountains – Origin of hydrothermal mineralization and environmental impacts of mining. – Acta Mineralogica-Petrographica – Field Guide Series, 28:1–36, 32 Abb., 1 Tab.
• Hürkamp, K. (2006): Bewertung der potentiellen Gefährdung von Grund- und Oberflächenwässern infolge Mobilisierung von Schwermetallen aus bergbaubedingt kontaminierten Auensedimenten im nördlichen Vilstal/Opf: Regensburger Beiträge zur Bodenkunde, Landschaftsökologie und Quartärforschung 9. – 410 p., 70 Abb., 50 Tab., 11 Anl.; Regensburg (Universität Regensburg).
• Hurley, D., Lawrence, G. & Tedford, E. (2020): Effects of Hydrocarbons on Wind Waves in a Mine Pit Lake. – Mine Water Environ., 39(3):455–463, doi:10.1007/s10230-020-00686-7.
• Hurst, S., Börke, P., Abo-Rady, M., Engelmann, U. & Felix, M. (2005): Erfordernis der (Weiter-) Entwicklung passiver Wasserbehandlungsmethoden vor dem Hintergrund der Europäischen Wasserrahmenrichtlinie. – Wiss. Mitt. Inst. Geol., 28:33–41, 2 Abb., 1 Tab.
• Hurst, S., Schneider, P. & Meinrath, G. (2002): Remediating 700 years of Mining in Saxony: A Heritage from Ore Mining. – Mine Water Environ., 21(1):3–6, 1 Abb.
• Hurtado-Cruz, J. P. (2025): Proposing a design and planning method for mine and tunnel drainages. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1095–1097; Braga (International Mine Water Association).
• Hurter, S. & Haenel, R. (2000): Atlas of Geothermal Resources in Europe: Planning Exploration and Investments: Sustaining geothermal energy into the 21st century – Proceedings, World Geothermal Congress 2000. – 1277–1282 p., 4 Abb.; Kyushu - Tohoku (World Geothermal Congress).
• Hurter, S. & Haenel, R. (2002): Atlas of geothermal resources in Europe. – 92 p., 89 Kart.; Luxembourg (Europäische Kommission).
• Hussein, M., Ferguson, P., Wels, C. & Pesonen, N. (2021): Numerical Modelling of Transient Groundwater Flow and Contaminant Transport at the Myra Falls Mine Site. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 189–194; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Hustrulid, W. A. & Bullock, R. L. (2001): Underground Mining Methods – Engineering Fundamentals and International Case Studies. – 718 p., Littleton (Society for Mining Metallurgy and Exploration).
• Hustrulid, W. A., Kuchta, M. & Martin, R. K. (2013): Open pit mine planning and design volume 1 Fundamentals, Revised and extended 3rd edition, paperback edition edn. – 1004 Seiten p., Boca Raton London New York Leiden (CRC Press Taylor & Francis Group).
• Hustwit, C. C., Edenborn, H. M. & Brickett, L. A. (1997): Conversion of mine drainage treatment sludges to sulfides using biogenic hydrogen sulfide. – Global Environmental Biotechnology:51–59, 6 Abb., 2 Tab.
• Hutchins, S. R. & Acree, S. D. (2000): Ground Water Sampling Bias Observed in Shallow, Conventional Wells. – Ground Water Monit. Remediat., 20(1):86–93, 6 Abb., 1 Tab.; doi:10.1111/j.1745-6592.2000.tb00255.x.
• Hutschenreiter, S. (1968): Über die Uranpecherzlagerstätte Ehrenzipfel zwischen Oberrittersgrün und Tellerhäuser im Westerzgebirge. – Der Aufschluss, 19(10):264–270, 4 Abb.
• Hüttig, G. & Zänker, H. (2004): Kolloidgetragene Schwermetalle im Entwässerungsstollen einer stillgelegten Zn-Pb-Ag-Grube. – Wissenschaftlich-Technische Berichte, FZR- 403:1–33, 9 Abb., 10 Tab.
• Hüttl, M. & Paul, M. (2004): WBA Ronneburg – Wasserbehandlung nach dem HDS-Verfahren. – Wiss. Mitt. Inst. Geol., 25:101–106, 4 Abb., 2 Tab.
• Hüttl, R. F. & Bradshaw, A. D. (2001): Open-cast Mining and Water. – J. Geochem. Explor., 73(2):61–62.
• Hüttner, R. & Schmidt-Kaler, H. (1999): Die geologische Karte des Rieses 1:50000 (2., überarbeitete Auflage) – Erläuterungen zur Erdgeschichte, Bau und Entstehung des Kraters sowie zu den Impaktgesteinen. – Geol. Bavarica, 104:7–76, 14 Abb., 1 Tab.
• Hutton, B., Kahan, I., Naidu, T. & Gunther, P. (2009): Operating and Maintenance Experience at the Emalahleni Water Reclamation Plant. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 415–430, 13 Abb; Pretoria (Document Transformation Technologies).
• Hutton, J. T. (1985): Bottled Water – An Alternative Source of Safe Drinking Water. – In: Rice, R. G. (ed) Safe Drinking Water – The Impact of Chemicals on a Limited Resource. – p. 33–41, Boca Raton (CRC Press); doi:10.1201/9780203710449.
• Hutton-Ashkenny, M., Bowell, R. & Dey, M. (2011): Engineering Solutions for the Removal of Arsenic from Aqueous Solution: A Review: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 353–358 p., Aachen (RWTH Aachen University).
• Hutzinger, O., Choudhry, G. G., Chittim, B. G. & Johnston, L. E. (1985): Formation of polychlorinated dibenzofurans and dioxins during combustion, electrical equipment fires and PCB incineration. – Environ. Health Perspect., 60:3–9, doi:10.1289/ehp.85603.
• Hutzinger, O., Safe, S. & Zitko, V. (1974): The chemistry of PCB’s. – 269 p., Cleveland (CRC Press); doi:10.1201/9781351070591.
• Hutzinger, O. & Veerkamp, W. (1981): Xenobiotic chemicals with pollution potential. – In: Leisinger, T., Hütter, R., Cook, A. M. & Nüesch, J. (eds): Microbial degradation of xenobiotics and recalcitrant compounds – FEMS symposium No. 12. – p. 3–45, San Diego (Academic Press).
• Hwang, C., Kirk, L. B. & Peyton, B. (2017): Changes In Microbial Community Structure In Response To Changing Oxygen Stress In Column Tests of Denitrification And Selenium Reduction. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1185–1190, Lappeenranta (Lappeenranta University of Technology).
• Hwang, C. K., Cha, J.-M., Kim, K.-W. & Lee, H.-K. (2001): Application of multivariate statistical analysis and a geographic information system to trace element contamination in the Chungnam Coal Mine area, Korea. – Appl. Geochem., 16(11):1455–1464, 6 fig., 2 tab.; doi:10.1016/S0883-2927(01)00053-1.
• Hwang, J.-Y. & Sun, X. (2012): Removal of Ions from Water with Electrosorption Technology: Water in Mineral Processing. – 87–95 p., 7 Abb., 2 Tab.; Littleton (SME).
• Hydrographischer Dienst in Österreich (2012): Hydrographisches Jahrbuch von Österreich: 118. – 968 p., Wien (Bundesministerium für Land- und Forstwirtschaft Umwelt und Wasserwirtschaft).
• Hydrometrics Inc. (2001): A New Process For Sulfate Removal From Industrial Waters. In: Water Online. http://www.wateronline.com/doc/a-new-process-for-sulfate-removal-from-indust-0001 Accessed 2013-02-24.
• Hyndman, R. J. & Athanasopoulos, G. (2018): Forecasting – Principles and practice, 2nd edn. – 382 p., Melbourne (OTexts).
• Hynes, G. P. (2024): Monday creek restoration, snow fork dosers. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 300–303; Morgantown (International Mine Water Association).
• I.S.O. – International Organization for Standardization (1992): Measurement of liquid flow in open channels – Parshall and SANIIRI flumes: ISO 9826. – 17 p., 3 Abb., 6 Tab.; Genève (ISO – International Organization for Standardization).
• I.S.O. – International Organization for Standardization (1992): Measurement of liquid flow in open channels – Tracer dilution methods for the measurement of steady flow – Part 3: Chemical tracers: ISO 9555-3. – 11 p., 1 Anl.; Genève (ISO – International Organization for Standardization).
• I.S.O. – International Organization for Standardization (1992): Measurement of liquid flow in open channels – Tracer dilution methods for the measurement of steady flow – Part 4: Fluorescent tracers: ISO 9555-4. – 9 p., 3 Abb., 1 Anl.; Genève (ISO – International Organization for Standardization).
• I.S.O. – International Organization for Standardization (1994): Measurement of liquid flow in open channels – Tracer dilution methods for the measurement of steady flow – Part 1: General: ISO 9555-1. – 9 p., 11 Abb., 1 Tab., 3 Anl.; Genève (ISO – International Organization for Standardization).
• Iakovleva, E., Makila, E., Salonen, J., Sitarz, M. & Sillanpaa, M. (2015): Industrial products and wastes as adsorbents for sulphate and chloride removal from synthetic alkaline solution and mine process water. – Chem. Eng. J., 259:364–371, doi:10.1016/j.cej.2014.07.091.
• Iakovleva, E., Mäkilä, E., Salonen, J., Sitarz, M., Wang, S. & Sillanpää, M. (2015): Acid mine drainage (AMD) treatment: Neutralization and toxic elements removal with unmodified and modified limestone. – Ecol. Eng., 81:30–40, doi:10.1016/j.ecoleng.2015.04.046.
• Iakovleva, E. & Sillanpää, M. (2013): The use of low-cost adsorbents for wastewater purification in mining industries. – Environ. Sci. Pollut. Res., 20(11):7878–7899, doi:10.1007/s11356-013-1546-8.
• Iakovleva, E., Sillanpää, M., Khan, S., Kamwilaisak, K., Wang, S. & Tang, W. Z. (2017): Synthesis of Sorbents from Industrial Solid Wastes with Atomic Layer Deposition (ALD) for Mine Waters Treatment. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 43–54, Lappeenranta (Lappeenranta University of Technology).
• Iannacone, M. M., Castle, J. W. & Rodgers, J. H., Jr. (2009): Role of Equalization Basins of Constructed Wetland Systems for Treatment of Particulate-Associated Elements in Flue Gas Desulfurization Waters. – Water Air Soil Pollut., 203:123–137, 5 Abb., 9 Tab.; doi:10.1007/s11270-009-9996-9.
• IARC Working Group on the Evaluation of Carcinogenic Risks to Humans (2012): A review of human carcinogens. Part C: Arsenic, metals, fibres, and dusts. – IARC Monographs, 100C:1–501.
• IARC Working Group on the Evaluation of Carcinogenic Risks to Humans (2016): Polychlorinated Biphenyls and Polybrominated Biphenyls. – IARC Monographs, 107:1–502.
• Ibanez, J. G., Hemandez-Esparza, M., Doria-Serrano, C., Fregoso-Infante, A. & Singh, M. M. (2007): Environmental Chemistry – Fundamentals. – 334 p., Heidelberg (Springer).
• Ickler, M., Menath, J., Holstein, L., Rey, M., Buzza, D. M. A. & Vogel, N. (2022): Interfacial self-assembly of SiO2-PNIPAM core-shell particles with varied crosslinking density. – Soft Matter, 18(30):5585–5597, doi:10.1039/d2sm00644h.
• Idowu, O., Lorentz, S. A., Annandale, J. G., McCartney, M. & Jovanovic, N. Z. (2008): Assessment of the Impact of Irrigation with Low-quality Mine Water on Virgin and Rehabilitated Soils in the Upper Olifants Basin. – Mine Water Environ., 27(1):2–11, 10 Abb., 5 Tab.; doi:10.1007/s10230-007-0010-8.
• Idowu, O. A., Lorentz, S. A., Annandale, J. G., Aken, M. E., McCartney, M. P., Thornton-Dibb, S. L. C. & Westhuizen, A. (2010): Comparative assessment of widespread irrigation with low quality mine-water in undisturbed and rehabilitated mine-lands in the upper Olifants using the ACRU2000 model. – Water SA, 36(5):543–552, 11 Abb., 9 Tab.
• Idowu, S. O., Capaldi, N., Zu, L. & Gupta, A. D. (2013): Encyclopedia of Corporate Social Responsibility. – 2767 p., Berlin (Springer); doi:10.1007/978-3-642-28036-8.
• Idrysy, H. E. & Sultanov, L. (2016): Diagnostic of operating mine dewatering wells efficiency through groundwater modeling. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1126–1133, Freiberg (TU Bergakademie Freiberg).
• Ifill, R. O. & Etsell, T. H. (2011): Effect of agitation on the settling behaviour of electrocoagulated silica. – Int. J. Miner. Process., 99:61–69, 7 Abb., 3 Tab.
• Ighalo, J. O., Kurniawan, S. B., Iwuozor, K. O., Aniagor, C. O., Ajala, O. J., Oba, S. N., Iwuchukwu, F. U., Ahmadi, S. & Igwegbe, C. A. (2022): A review of treatment technologies for the mitigation of the toxic environmental effects of acid mine drainage (AMD). – Process Saf. Environ. Prot., 157:37–58, doi:10.1016/j.psep.2021.11.008.
• Ihara, I., Kanamura, K., Shimada, E. & Watanabe, T. (2004): High Gradient Magnetic Separation Combined With Electrocoagulation and Electrochemical Oxidation for the Treatment of Landfill Leachate. – IEEE Transactions on Applied Superconductivity, 14(2):1558–1560, 6 Abb.; doi:10.1109/TASC.2004.830706.
• Ihlenfeld, C., Oates, C. J., Bullock, S. & Zyl, R. v. (2009): Isotopic Fingerprinting of Groundwater Nitrate Sources around Anglo Platinum’s RPM Mogalakwena Operation (Limpopo Province, South Africa). – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 882–891, 6 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Ikegawa, Y., Nakagawa, K. & Shidahara, T. (1997): In situ study of fluid flow through the discontinuities by liquid tracer test. – Int. J. Rock. Mech. Min. Sci. Geomech. Abstr., 34(3-4):563.
• Ikehara, M., Kawamura, K., Ohkouchi, N., Kimoto, K., Murayama, M., Nakamura, T., Oba, T. & Taira, A. (1997): Alkenone sea surface temperature in the Southern Ocean for the last two deglaciations. – Geoph. Res. Letters, 24(6):679–682.
• Ikonen, J., Rauhala, A., Tuomela, A., Postila, H., Kumpula, T., Korpelainen, P., Pietilä, R., Valta, R.-O., Lerssi, J., Panttila, H. & Korkka-Niemi, K. (2025): Combining UAS-TIR and GEM-2 Techniques for Focused Water Sampling and Isotope Geochemical Analysis at Two Mine Sites in Northern Finland. – Mine Water Environ.:1–22, doi:10.1007/s10230-024-01020-1.
• Ikotun, A. M., Ezugwu, A. E., Abualigah, L., Abuhaija, B. & Heming, J. (2023): K-means clustering algorithms: A comprehensive review, variants analysis, and advances in the era of big data. – Inform. Sci., 622:178–210, doi:10.1016/j.ins.2022.11.139.
• Ilavský, J. & Barloková, D. (2019): Influence of Mining Activities on Quality of Groundwater. – In: Negm, A. M. & Zeleňáková, M. (eds): Water Resources in Slovakia: Part I: Assessment and Development. – p. 303–331, Cham (Springer); doi:10.1007/698_2017_213.
• Iles, M. (2005): Application of national water quality guidelines in mine regulation at Ranger mine, Australia: Mine Water 2005 – Mine Closure. – 533–541 p., 3 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Iljina, M., Maier, W. D. & Karinen, T. (2015): Chapter 3.3 – PGE-(Cu-Ni) Deposits of the Tornio-Näränkävaara Belt of Intrusions (Portimo, Penikat, and Koillismaa). – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 133–164, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00005-4.
• Illenberger, W. K. (1991): Pebble Shape (and Size!). – J. Sediment. Res., 61(5):756–767, 3 Abb., 9 Tab.; doi:10.1306/d42677c6-2b26-11d7-8648000102c1865d.
• Im, D. g., Kim, D.-M., Kwon, H.-L., Lee, J.-H., Park, M.-S. & Yun, S.-T. (2023): Assessing Removal Efficiencies of Mn and Ni in Mine Drainage Using Bench- and Pilot-Scale Slag Reactor and Design of Treatment System. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 233–236; (International Mine Water Association).
• Imaeda, D., Nomiyama, K., Kunisue, T., Iwata, H., Tsydenova, O., Amano, M., Petrov, E. A., Batoev, V. B. & Tanabe, S. (2014): Blood levels of polychlorinated biphenyls and their hydroxylated metabolites in Baikal seals (Pusa sibirica): Emphasis on interspecies comparison, gender difference and association with blood thyroid hormone levels. – Chemosphere, 114:1–8, doi:10.1016/j.chemosphere.2014.03.089.
• Imaykin, A. (2014): Mine Waters of Kosva Field of Kizel Coal Basin during and after Its Operation, Forcast of Hydrochemical Regime of Mine Waters That Are Discharged on the Surface. Paper presented at the Geoconference on Science and Technologies in Geology, Exploration and Mining, SGEM, Albena. – p. 605–612, 3 Abb., 2 Tab.; (SGEM World Science).
• Imaykin, A. & Imaykin, K. (2018): The Hydrodynamic Regime of Underground and Mine Waters in the Process and After the Cessation of Underground Mining of the Reserves of the Shumikhinskoye Coal Deposit. Paper presented at the Geoconference on Science and Technologies in Geology, Exploration and Mining, SGEM, Albena. – p. 683–690, 4 Abb., 1 Tab.; (SGEM World Science).
• Imbach, T. (1993): Environmental Hydrogeology of a karst system with thermal and normal groundwaters: examples from the Bursa region (Turkey). – IAHS-AISH Publication, 207:7–13, 6 Abb., 2 Tab.
• Imbach, T. (1997): Deep groundwater circulation in the tectonically active area of Bursa, Northwest Anatolia, Turkey. – Geothermics, 26(2):251–278, 14 Abb., 3 Tab., 2 Anh.
• Imbrigiotta, T. E. & Harte, P. T. (2020): Passive sampling of groundwater wells for determination of water chemistry: U. S. Geological Survey Techniques and Methods – Collection of Water Data by Direct Measurement Techniques 1-D8. – 80 p., Reston doi:10.3133/tm1D8.
• Imbun, B. Y. (1995): Enga Social-Life and Identity in a Papua-New-Guinea Mining Town. – Oceania, 66(1):51–61, 5 Tab.; doi:10.1002/j.1834-4461.1995.tb02530.x.
• Imbun, B. Y. (2013): Maintaining land use agreements in Papua New Guinea Mining: ’Business as usual’? – Resour. Policy, 38(3):310–319, doi:10.1016/j.resourpol.2013.04.003.
• Imes, J. L. & Kleeschulte, M. J. (1997): Ground-water flow and ground- and surface-water interaction at the Weldon Spring Quarry, St. Charles County, Missouri. – Water Resour. Investig. Rep., WRI 96-4279:72, Refs: 6; illus. incl. sects., 10 tables, sketch maps.
• Imper, D. (1998): Das Eisenerzbergwerk Gonzen bei Sargans. – Der Anschnitt, 50:154–166, 10 Abb., 2 Tab.
• Imre, B., Laue, J. & Springman, S. M. (2010): Fractal fragmentation of rocks within sturzstroms: insight derived from physical experiments within the ETH geotechnical drum centrifuge. – Granular Matter, 12(3):267–285, doi:10.1007/s10035-009-0163-1.
• Imrie, S., Bennett, A., Bellin, J. & Ebeling, P. (2023): Hydrogeological Numerical Modelling to Assess Active Dewatering Options at a Sand Quarry Site – A Case Study and Associated Methodology. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 237–242; (International Mine Water Association).
• Inc, O. E. (1999): Flow and Level Measurement. – Transactions in Measurement & Control, 4.
• Indermühle, A., Monnin, E., Stauer, B. & Stocker, T. F. (2000): Atmospheric CO₂ concentration from 60 to 20 kyr BP from the Taylor Dome ice core, Antarctica. – Geoph. Res. Letters, 27(5):735–738, 2 Abb.
• Indermühle, A., Stocker, T. F., Joos, F., Fischer, H., Smith, H. J., Wahlen, M., Deck, B., Mastroianni, D., Tschumi, J., Blunier, T., Meyer, R. & Stauffer, B. (1999): Holocene carbon-cycle dynamics based on CO₂ trapped in ice at Taylor Dome, Antarctica. – Nature, 398:121–126, 3 Abb.
• Indongo, V., Uushona, V., Mathuthu, M. & Chiguvare, Z. (2021): Investigating The Radiological Safety Of Uranium Ore Deposits From A Uranium Mine In Namibia. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 195–199; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Indraratna, B., Rambanda, P. & Singh, R. N. (1994): Numerical Analysis of Water Inflows to Underground Excavations – Current Status and Future Trends. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:339–354, 8 Abb.
• Indraratna, B. & Ranjith, P. (1998): Effects of Boundary Conditions and Boundary Block Sizes on Inflow to an Underground Excavation – Sensivity Analysis: Mine Water and Environmental Impacts 1. – 3–11 p., 7 Abb., 2 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Indraratna, B., Sullivan, J. & Nethery, A. (1995): Effect of Groundwater Table on the Formation of Acid Sulphate Soils. – Mine Water Environ., 14(1-4):71–83, 6 Abb., 5 Tab.
• Indratna, B. & Singh, R. N. (1994): Distinct Element Analysis of Water Inflow to Underground Excavations. – Mine Water Environ., 13(3-4):11–24, 6 Abb., 2 Tab.
• Ingebritsen, S. E. & Appold, M. S. (2012): The Physical Hydrogeology of Ore Deposits. – Econ. Geol., 107(4):559–584, 11 Abb., 3 Tab.; doi:10.2113/econgeo.107.4.559.
• Ingraham, N. L. & Matthews, A. (1988): Fog drip as a source of groundwater recharge in Northern Kenya. – Water Resour. Res., 24(8):1406–1410, doi:10.1029/WR024i008p01406.
• Ingwersen, G. (1990): Die sekundären Mineralbildungen der Pb-Zn-Cu-Lagerstätte Tsumeb, Namibia – physikalisch-chemische Modelle. – 234 p., 91 Abb., 22 Tab., 2 Anl.; Stuttgart (unveröff. Diss. Univ. Stuttgart).
• Inkinen, O. & Puustinen, K. (1985): Vulkaniittien geologia ja vulkaniitteihin liittyvat malmit [Volcanic rocks, their geology and associated ores]. – Tutkimusraportti – Geologian Tutkimuskeskus = Report of Investigation – Geological Survey of Finland:62–69.
• Innerhofer, G. (1983): Die Wasserkraftanlage Walgauwerk der Vorarlberger Illwerke Aktiengesellschaft. – Österr. Wasserwirtsch., 35(5-6):113–119, 5 Abb., 1 Tab.
• Innsbruck, K. u. k. M. (1915): Anleitung für die militärischen Leiter der unter das Kriegsleistungsgesetz gestellten Unternehmen. – 16 p., 3 Anl.; Innsbruck (Druckerei Militärkommando Innsbruck).
• Inoue, R., Yamazaki, H., Wolk, F., Kono, T. & Yoshida, J. (2007): An Estimation of Buoyancy Flux for a Mixture of Turbulence and Double Diffusion. – J. Phys. Oceanogr., 37(3):611–624, 9 Abb., 4 Tab.; doi:10.1175/JPO2996.1.
• Instituto Brasileiro de Mineração – IBRAM (2012): Gestão para a sustentabilidade na mineração – 20 anos de história [Management for sustainability in mining – 20 years of history]. – 52 p., Brazil (Instituto Brasileiro de Mineração).
• Integrated Geotechnical Engineering Services Specialists in Unsaturated Zone, H. (2003): Evaluation of the Long-Term Performance of Dry Cover Systems Final Report. – Unpubl. Report for International Network for Acid, P. (Report Nr. OKC Report No 684-02). – 45 p., 15 Abb., 4 Tab., 9 Anl.; Saskatoon (Integrated Geotechnical Engineering Services Specialists in Unsaturated Zone Hydrology).
• International Atomic Energy Agency (2009): Laser Spectroscopic Analysis of Liquid Water Samples for Stable Hydrogen and Oxygen Isotopes. – IAEA Training Course Series, IAEA-TCS-35.
• International Council on Mining and Metals (2008): Planning for Integrated Mine Closure: Toolkit. – 84 p., London (International Council on Mining and Metals).
• International Council on Mining and Metals (2015): A practical guide to catchment-based water management for the mining and metals industry. – 59 p., London (International Council on Mining and Metals (ICMM)).
• International Council on Mining and Metals (ICMM) (2012): Water management in mining: a selection of case studies. – 30 p., 2 Abb.; London (International Council on Mining and Metals).
• International Institute for Environment Development (2002): Mining for the Future – Appendix B: Mine Closure Working Paper. – Mining, Minerals and Sustainable Development, 34:B–1–B–22, 1 Abb., 7 Tab.
• International Meridian Conference (1884): International Conference held at Washington for the purpose of fixing a Prime Meridian and a Universal Day. – 212 p., Washington (Gibson Bros.).
• International Mine Water, A. (2003): International Mine Water Association (IMWA) – Statutes and By-Laws. – Mine Water Environ., 22(4):216–220.
• International Programme for Chemical Safety (IPCS) (1993): Polychlorinated biphenyls and polychlorinated terphenyls (PCBs and PCTs). – Environ. Health Criter., 140.
• International Standard (2001): Hazard and operability studies (HAZOP studies) — Application guide. vol CEI/IEC 61882:2001, 58.
• International Union of Pure and Applied Chemistry (2005): Nomenclature of Inorganic Chemistry – Red Book. – 366 p., (International Union of Pure and Applied Chemistry).
• International Union of Pure and Applied Chemistry (2014): Compendium of Chemical Terminology – Gold Book, Version 2.3.3 edn. – 1622 p., (International Union of Pure and Applied Chemistry); doi:10.1351/goldbook.
• Inverarity, N., Dogramaci, S. & Rea, I. (2012): Combined numerical and analytical modelling as a means to assess closure options for open-pit mines, Pilbara region: International Mine Water Association Symposium. – 206 A–206 G p., Bunbury (Edith Cowan University).
• Iovieno, P., Morra, L., Leone, A., Pagano, L. & Alfani, A. (2009): Effect of organic and mineral fertilizers on soil respiration and enzyme activities of two Mediterranean horticultural soils. – Biol Fert Soils, 45(5):555–561, doi:10.1007/s00374-009-0365-z.
• IPBES (2019): Global assessment report of the Intergovernmental Science-Policy Platform on Biodiversity and Ecosystem Services. – 1144 p., Bonn (IPBES secretariat).
• Ippolito, J. A., Cui, L., Novak, J. M. & Johnson, M. G. (2019): Biochar for Mine-land Reclamation. – In: Ok, Y. S., Tsang, D. C. W., Bolan, N. & Novak, J. M. (eds): Biochar from Biomass and Waste – Fundamentals and Applications. – p. 75–90, Amsterdam (Elsevier); doi:10.1016/B978-0-12-811729-3.00005-4.
• Iqbal, M. Z. (2000): Effects of layered heterogeneity in subsurface geologic materials on solute transport under field conditions: A case study from northeastern Iowa, USA. – Hydrogeol. J., 8(3):257–270, doi:10.1007/Pl00021538.
• Iribar, V. (2004): Origin of neutral Mine Water in flooded Underground Mines: an Appraisal using geochemical and hydrogeological Methodologies. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 169–178, 6 Abb., 3 Tab.; Newcastle upon Tyne (University of Newcastle).
• Iribar, V., Izco, F., Tames, P., Antigüedad, I. & da Silva, A. (2000): Water contamination and remedial measures at the Troya abandoned Pb-Zn mine (The Basque Country, Northern Spain). – Environ. Geol., 39(7):800–806, 4 Abb., 3 Tab.
• Iribar, V., Izco, F., Tames, P., Da Silva, A. & Antigüedad, I. (1999): Use of a Tailings Pond as an aerobic Wetland at the closed Troya Mine (Gipuzkoa, Northern Spain). – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 563–568, 4 Abb., 2 Tab.; Sevilla (International Mine Water Association).
• Iribar, V., Izco, F., Tamés, P., Velasco, F. & Yusta, I. (2005): Hydrology, mineralogy and management effects on the hydrochemistry of a sulphide tailings pond (Troya mine, Spain): Mine Water 2005 – Mine Closure. – 95–100 p., 3 Abb., 4 Tab.; Oviedo (University of Oviedo).
• Iribarne, A. P., Iribarne, J. V., Anthony, E. J. & Blondin, J. (1994): The phase-analysis of coal combustion ashes. – J. Energy Resour. Technol.-Trans. ASME, 116(4):278–286.
• Iró, S. & Radvanec, M. (1997): Geochemical and mineralogical research of carbonate minerals at Nižná Slaná-Mano Deposit (Gemericum, Western Carpathians). – Acta Geol. Univ. Comen. Bratisl., 52:19–28.
• Isgró, M. A., Basallote, M. D. & Barbero, L. (2021): Prediction Of Water Quality Parameters Using Unmanned Aerial Vehicle Multispectral Imagery In Acidic Water Bodies In The Iberian Pyrite Belt (Tharsis, SW Spain). Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 200–205; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Isgró, M. A., Basallote, M. D. & Barbero, L. (2022): Unmanned Aerial System-Based Multispectral Water Quality Monitoring in the Iberian Pyrite Belt (SW Spain). – Mine Water Environ., 41(1):30–41, doi:10.1007/s10230-021-00837-4.
• Islam, M. S., Kashem, M. A. & Osman, K. T. (2016): Phytoextraction Efficiency of Lead by Arum (Colocasia esculenta L.) Grown in Soil. – Int. J. Soil Sci., 11(4):130–136, doi:10.3923/ijss.2016.130.136.
• Ismail, Y. L., Sayed, E. E. & Gomaa., M. A. A. (2005): Preliminary Hydrogeologic Investigations of Nubia Sandstone and fractured Basement Aquifers in the Area between El Shalateen and Halayeb, Eastern Desert, Egypt. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 619–638, Heidelberg (Springer).
• Isomäki, O.-P. (1986): The Sulphide Ore Deposits in the Orijarvi-Aijala Field. – In: Gaál, G. (ed) 17e Nordiska Geologmötet 1986 – Excursion guide, excursion C 3 – Metallogeny and ore deposits in South Finland Guide 16. – p. 46–56, 5 Abb., 3 Tab.; Espoo (Geologian Tutkimuskeskus).
• Issar, A. & Gilad, D. (1982): Groundwater flow systems in the arid crystalline province of southern Sinai. – Hydrol. Sci. J.-J. Sci. Hydrol., 27(3):309–325, Refs: 15; illus.
• Isser, M. v. (1881): Die Blei- & Zinkwerke der Gewerkschaft „Silberleithen” zu Biberwier im Oberinnthale in Tirol. – Z. d. Ferdinandeums f. Tirol u. Vorarlberg, 25:137–188, 2 Tab.
• Isser, M. v. (1881): Die Blei- und Zinkwerke der Gewerkschaft Silberleithen zu Biberwier im Oberinnthale (Tirol). – Österr. Z. f. Berg- u. Hüttenwesen, 29(7, 8, 10):89–90, 104–110, 129–134, 3 Fig.
• Isser, M. v. (1883): Beitrag zur Geschichte des Röhrerbühler Bergbaues. – Österr. Z. f. Berg- u. Hüttenwesen, 31(6):75–79, 90–94, 106–108, 130–133, 148–150, 163–166, 176–180, 1 Taf.
• Isser, M. v. (1884): Der alte Kupfer- und Silber-Bergbau am Röhrerbühl bei Kitzbühel in culturhistorischer, geschichtlicher und geognostischer Beziehung. – Z. Dt.-Österr. Alpenver., 15:28–50.
• Isser, M. v. (1886): Tiroler Landreim. – Österr. Z. f. Berg- u. Hüttenwesen, 34:569–576.
• Isser, M. v. (1888): Die Bitumenschätze von Seefeld. – Berg- u. Hüttenm. Jb. der k. k. Bergakademien zu Leoben und Příbram und der königlich ungarischen Bergakademie zu Schemnitz, 36:1–31.
• Isser, M. v. (1888): Mittheilungen über einige alte Erzbergbaue im nordtiroler Kalkalpenzuge. – Österr. Z. f. Berg- u. Hüttenwesen, 36(15-22, 23-26):187ff, 204ff, 218ff, 231f, 249ff, 261ff, 273ff, 285ff, 297ff, 312ff, 327f.
• Isser, M. v. (1891): Neue Bergbau-Unternehmung in Tirol. – Österr. Z. f. Berg- u. Hüttenwesen, 39:71–72.
• Isser, M. v. (1896): Das Bohnenerzlager von Delémont im Schweizer Juragebirge. – Österr. Z. f. Berg- u. Hüttenwesen, 44:200–204, 1 Tafc.
• Isser, M. v. (1906): Sage und Geschichte über die Entdeckung der Tiroler Bergwerke. – Der Sammler – Blätter für tirolische Heimatkunde und Heimatschutz, 1(8):15–19.
• Isser, M. v. (1909): Wiederaufnahme des Bergwerksbetriebes in Rabenstein im Sarntal in Tirol. – Österr. Z. f. Berg- u. Hüttenwesen, 57:329–331.
• Isser, M. v. (1910): Nekrolog – Bergingenieur Leopold Stamm in Hall in Tirol. – Österr. Z. f. Berg- u. Hüttenwesen, 58:375–376.
• Isser, M. v. (1911): Einige neue Erzaufschlüsse in Tirol. – Österr. Z. f. Berg- u. Hüttenwesen, 59:567–569.
• Isser, M. v. (1911): Über neue Erzaufschlüsse in Tirol. – Montan-Z. für Österreich-Ungarn, die Balkanländer und das Deutsche Reich, 18:276–278.
• Isser, M. v. (1915): Die Tiroler Asphaltschiefer-Vorkommen. – Montan. Rdsch., 7:267–268.
• Isser, M. v. (1915): Die Tiroler Asphaltschiefer-Vorkommen. – Petroleum, 15:578–580.
• Isser, M. v. (1919): Das Eisen- und Kupfererzvorkommen am „Arzberg“ bei Schwaz im Unterinntal in Tirol. – Montan. Rdsch., 11(17):547–549.
• Isser, M. v. (1919): Der Bergbau auf Edelerze in Tirol. – Montan-Z., 26:62–64.
• Isser, M. v. (1919): Die Blei- und Molydänerz-Vorkommen im Oberinntal in Tirol. – Bergbau u. Hütte, 5:91–95.
• Isser, M. v. (1919): Die Kohlenversorgung Deutschösterreichs. – Bergbau u. Hütte, 5:140–143.
• Isser, M. v. (1919): Die neuerschürften Kupfererzvorkommen im Iseltal. – Montan. Rdsch., 11(16):511–513.
• Isser, M. v. (1919): Mittheilungen über neuerschlossene Erzvorkommen in den Alpenländern. – Bergbau u. Hütte, 5(6-8):91–98, 117–125, 133–139, 8 Abb.
• Isser, M. v. (1920): Das Goldvorkommen in Katschtal in Kärnten. – Montan. Rdsch., 12(12):241–244, 1 Abb.
• Isser, M. v. (1921): Die Bergbau- und Schurftätigkeit in Tirol im Jahre 1920. – Montan. Rdsch., 13(6):123–125.
• Isser-Gaudententhurm, M. v. (1888): Die Montanwerke und Schurfbaue Tirols der Vergangenheit und Gegenwart. – Berg- u. Hüttenm. Jb., 36:226–324.
• Isser-Gaudententhurm, M. v. (1893): Beitrag zur Schwazer Bergwerksgeschichte. – Z. d. Ferdinandeums f. Tirol u. Vorarlberg, 37:144–201.
• Isser-Gaudententhurm, M. v. (1905): Schwazer Bergwerksgeschichte II. – Berg- u. Hüttenm. Jb. der k. k. montanistischen Hochschulen zu Leoben und Příbram, 53:39–84.
• Isser-Gaudententhurm, M. v. (1924): Schwazer Bergwerks-Geschichte – Eine Monographie über die Schwazer Erzbergbaue – Mit sieben artistischen Kartenbeilagen und einen Anhang „Die Schwazer Bergchronik“. – 336 p., 7 Abb.; Maschinenschrift.
• Itoh, K. & Yatome, C. (2004): Decolorization and Degradation of Xanthene Dyes by a White Rot Fungus, Coriolus Versicolor. – J. Environ. Sci. Health A Tox. Hazard. Subst. Environ. Eng., 39(9):2383–2389, 2 Abb., 3 Tab.; doi:10.1081/ESE-200026292.
• Ivanets, A., Kitikova, N., Shashkova, I. & Sillanpää, M. (2017): A Novel Sorbents of Metal Ions Based on Thermally Activated, Acidic and Non-acidic Treated Dolomite. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1055–1062, Lappeenranta (Lappeenranta University of Technology).
• Ivanets, A. I., Kitikova, N. V., Shashkova, I. L., Oleksiienko, O. V., Levchuk, I. & Sillanpää, M. (2014): Removal of Zn²⁺, Fe²⁺, Cu²⁺, Pb²⁺, Cd²⁺, Ni²⁺ and Co²⁺ ions from aqueous solutions using modified phosphate dolomite. – Journal of Environmental Chemical Engineering, 2(2):981–987, doi:10.1016/j.jece.2014.03.018.
• Ivey, G. N., Winters, K. B. & Koseff, J. R. (2008): Density Stratification, Turbulence, but How Much Mixing? – Ann. Rev. Fluid Mech., 40(1):169–184, doi:10.1146/annurev.fluid.39.050905.110314.
• Ivy-Ochs, S., Kerschner, H., Maisch, M., Christl, M., Kubik, P. W. & Schlüchter, C. (2009): Latest Pleistocene and Holocene glacier variations in the European Alps. – Quat. Sci. Rev., 28(21):2137–2149, doi:10.1016/j.quascirev.2009.03.009.
• Iwanoff, A. (1998): Environmental Impacts of deep opencast Limestone Mines in Lägerdorf, Northern Germany. – Mine Water Environ., 17(1):52–61, 2 Abb., 2 Tab.
• Iwaz, J. (2023): What to tell and never tell a reviewer. – Sci. Ed., 10(2):181–185, doi:10.6087/kcse.305.
• Iwegbue, C. M. A., Bebenimibo, E., Tesi, G. O., Egobueze, F. E. & Martincigh, B. S. (2020): Spatial characteristics and risk assessment of polychlorinated biphenyls in surficial sediments around crude oil production facilities in the Escravos River Basin, Niger Delta, Nigeria. – Mar. Pollut. Bull., 159:111–462, doi:10.1016/j.marpolbul.2020.111462.
• Izdebski, A., Guzowski, P., Poniat, R., Masci, L., Palli, J., Vignola, C., Bauch, M., Cocozza, C., Fernandes, R., Ljungqvist, F. C., Newfield, T., Seim, A., Abel-Schaad, D., Alba-Sanchez, F., Bjorkman, L., Brauer, A., Brown, A., Czerwinski, S., Ejarque, A., Filoc, M., Florenzano, A., Fredh, E. D., Fyfe, R., Jasiunas, N., Kolaczek, P., Kouli, K., Kozakova, R., Kupryjanowicz, M., Lageras, P., Lamentowicz, M., Lindbladh, M., Lopez-Saez, J. A., Luelmo-Lautenschlaeger, R., Marcisz, K., Mazier, F., Mensing, S., Mercuri, A. M., Milecka, K., Miras, Y., Noryskiewicz, A. M., Novenko, E., Obremska, M., Panajiotidis, S., Papadopoulou, M. L., Pedziszewska, A., Perez-Diaz, S., Piovesan, G., Pluskowski, A., Pokorny, P., Poska, A., Reitalu, T., Rosch, M., Sadori, L., Sa Ferreira, C., Sebag, D., Slowinski, M., Stancikaite, M., Stivrins, N., Tunno, I., Veski, S., Wacnik, A. & Masi, A. (2022): Palaeoecological data indicates land-use changes across Europe linked to spatial heterogeneity in mortality during the Black Death pandemic. – Nat Ecol Evol, doi:10.1038/s41559-021-01652-4.
• Izquierdo-Díaz, M., Ordóñez, A., Serrano-García, H., Álvarez, R., García-Fernández, C. C., García-Ordiales, E., De Miguel, E. & Barrio-Parra, F. (2025): Diffusive Gradients in Thin Films (DGT) as an aid to risk assessment in watercourses affected by mine drainage. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 993–998; Braga (International Mine Water Association).
• Jablonka, P. (2014): Der Raum: Die Fundstelle und ihre geographische Lage. – In: Pernicka, E., Rose, C. B. & Jablonka, P. (eds): Troia 1987–2012: Grabungen und Forschungen I – Forschungsgeschichte, Methoden und Landschaft. – p. 218–261, Bonn (Habelt).
• Jachimko, B. (2012): The Influence of Lignite Mining on Water Quality: Water Quality Monitoring and Assessment. – 6 Abb., 5 Tab.; Shanghai (InTech); doi:10.5772/32897.
• Jackowicz-Korczynski, J. (2000): Assessing of planed inflow and water quality for the closing down mines: example Niwka – Modrzejów Mine. – Proceedings, 7th International Mine Water Association Congress:260–270, 2 Abb., 2 Tab.
• Jackson, C. B. & Hach, C. (2004): Report on the Validation of Proposed EPA Method 360.3 (Luminescence) for the Measurement of Dissolved Oxygen in Water and Wastewater. – 42 p., 14 Abb., 3 Tab.; Loveland (Hach Company).
• Jackson, E. & Walton, G. (1983): Note on a Possible Approach to the Assessment of Surface Water in Opencast Mines in the British Isles. – Int. J. Mine Water, 2(1):15–22, 3 Abb.
• Jackson, J. E. (1991): A user’s guide to principal components: Wiley series in probability and statistics. – 569 p., Hoboken (Wiley-Interscience).
• Jackson, L., Parbhakar-Fox, A., Gregory, D., Hughes, A., Agius, J., Ferguson, T. & Lester, D. (2015): Evaluating the Benefits of Water Covers as a Rehabilitation Strategy in Temperate Climates – A Tasmanian Perspective. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Jackson, L. M., Parbhakar-Fox, A., Fox, N., Cooke, D. R., Harris, A. & Savinova, E. (2018): Integrating Hyperspectral Analysis And Mineral Chemistry for Geoenvironmental Prediction. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1075–1080; (Tshwane University of Technology).
• Jackson, S., Fraser, C. & Aygün, O. (2025): Practical Guidance for Adjusting Rainfall Annual Exceedance Probability Estimates for Climate Change. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 393–397; Braga (International Mine Water Association).
• Jackson, S., Momeyer, S., Stockwell, J. & Francoeur, N. (2023): A Flexible Approach To Modelling Seepage From Coal Mine Waste Rock. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 243–249; (International Mine Water Association).
• Jackson, T. A. & Bistricki, T. (1995): Selective Scavenging of Copper, Zinc, Lead, and Arsenic by Iron and Manganese Oxyhydroxide Coatings on Plankton in Lakes Polluted with Mine and Smelter Wastes – Results of Energy-dispersive X-ray-microanalysis. – J. Geochem. Explor., 52(1-2):97–125.
• Jackson, T. R. & Zhan, G. (2024): Coupled Baseline Estimation and Trend Analysis Approach to Differentiate Natural and Mine-Related Stresses on Groundwater Levels. – Mine Water Environ., 43(2):294–312, doi:10.1007/s10230-024-00988-0.
• Jacob, C. E. (1947): Drawdown test to determine effective radius of artesian wel. – Trans. Am. Soc. Civ. Eng., 112:1047–1070, 8 Abb.
• Jacob, D. L. & Otte, M. L. (2004): Long-term Effects of Submergence and Wetland Vegetation on Metals in a 90-year old Abandoned Pb-zn mine Tailings Pond. – Environ. Pollut., 130(3):337–345.
• Jacob, J., Moreau, U., Dure, F., Engevin, J., Huron, J., Lassin, A. & Guerin, V. (2023): AMD Passive Treatment Using DAS At An Old Tin Mine In France. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 250–256; (International Mine Water Association).
• Jacob, J., Pino Herrera, D. & Plat, E. (2025): Treatment of AMD liming sludge for metals recovery and mining site rehabilitation. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 482–488; Braga (International Mine Water Association).
• Jacob, J. C., Save, M. & Menard, Y. (2018): Treatment of Mine Drainage with Significant Topographical Constraints: Case Study of the Bodennec Site (France). – Mine Water Environ., 37(4):839–848, doi:10.1007/s10230-018-0522-4.
• Jacobs, J. A., Lehr, J. H. & Testa, S. M. (2014): Acid mine drainage, rock drainage, and acid sulfate soils – causes, assessment, prediction, prevention, and remediation. – 486 p., Hoboken (Wiley); doi:10.1002/9781118749197.
• Jacobs, J. A., Testa, S. M., Alpers, C. N. & Nordstrom, D. K. (2016): An overview of environmental impacts and reclamation efforts at the Iron Mountain mine, Shasta County, California. – In: Anderson, R. & Ferriz, H. (eds): Applied geology in California 26. – p. 427–446, 13 Abb., 2 Tab.; Belmont (Association of Environmental and Engineering Geologists).
• Jacobs, M., Ferrario, J. & Byrne, C. (2002): Investigation of polychlorinated dibenzo-p-dioxins, dibenzo-p-furans and selected coplanar biphenyls in Scottish farmed Atlantic salmon (Salmo salar). – Chemosphere, 47(2):183–191, doi:10.1016/S0045-6535(01)00201-6.
• Jacobs, P. & Pulles, W. (2007): Best Practice Guideline H4 – Water Treatment. – 77 p., 9 Abb., 9 Tab., 5 Anh.; Pretoria (Department of Water Affairs and Forestry).
• Jacobshagen, V. (1964): Lias und Dogger im West-Abschnitt der Nördlichen Kalkalpen. – Geologica Romana, 3:303–318.
• Jacobshagen, V. (1965): Die Allgäu-Schichten (Jura-Fleckenmergel) zwischen Wettersteingebirge und Rhein. – Jb. Geol. B.-A., 108:1–118.
• Jacobshagen, V. & Münnich, K. O. (1964): C14-Altersbestimmung und andere Isotopen-Untersuchungen an Thermalsolen des Ruhr-Karbons – Kurzfassung. – Z. dt. geol. Ges., 116(1):160, doi:10.1127/zdgg/116/1964/160.
• Jacques Whitford & Associates Limited (1987): Town of Springhill Geothermal Committee Town of Springhill Geothermal Demonstration Project – Report on the Test Drilling and Pumping Test Results. – (Report Nr. 4215). – 33 p., Halifax.
• Jacques Whitford & Associates Limited (1996): Environmental Engineering Study Update Status of Flooding Mines. – Unpubl. Report for Cape Breton Development, C. (Report Nr. 11545). – 52 p., 1 Anl.; Dartmouth (Jacques Whitford and Associates Limited).
• Jaeger, M. & De Reffye, P. (1999): Basic Concepts of Computer Simulation of Plant Growth. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 125–131, 10 Abb.; Sevilla (International Mine Water Association).
• Jaeger-Collantes, J. L., Barquero-Peralbo, J. I., Jiménez-Oyola, S. T., Bacale-Mbengono, F. M., García-Ordiales, E. & Higueras, P. L. (2025): Probabilistic analysis of human health risks linked to Procambarus Clarkii consumption in Almadén Hg Mining District. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 598–603; Braga (International Mine Water Association).
• Jafari, M., Abdollahzadeh, A. A. & Aghababaei, F. (2017): Copper Ion Recovery from Mine Water by Ion Flotation. – Mine Water Environ., 36(2):323–327, doi:10.1007/s10230-016-0408-2.
• Jaffal, A., Givaudan, N., Betoulle, S., Terreau, A., Paris-Palacios, S., Biagianti-Risbourg, S., Beall, E. & Roche, H. (2011): Polychlorinated biphenyls in freshwater salmonids from the Kerguelen Islands in the Southern Ocean. – Environ. Pollut., 159(5):1381–1389, doi:10.1016/j.envpol.2011.01.003.
• Jageman, T. C., Yokley, R. A. & Heunisch, G. W. (1988): The Use of Pre-Aeration to Reduce the Cost of Neutralizing Acid Mine Drainage. Paper presented at the America Society of Mining and Reclamation. – p. 131–135, 5 Abb., 2 Tab.
• Jäger, A. (1875): Beitrag zur tirolisch-salzburgischen Bergwerks-Geschichte. – Archiv für Österreichische Geschichte, 53(2):335–456, 2 Beil.
• Jäger, B., Obermann, P. & Wilke, F. L. (1991): Studie zur Eignung von Steinkohlebergwerken im rechtsrheinischen Ruhrkohlebezirk zur Untertageverbringung von Abfall- und Reststoffen – Kurzfassung. – LWA Materialien, 2/91:1–73, 3 Abb., 4 Tab.
• Jäger, B., Obermann, P., Wilke, F. L., Heidrich, F., Rüterkamp, P. & Skrzyppek, J. (1990): Studie zur Eignung von Steinkohlebergwerken im rechtsrheinischen Ruhrkohlebezirk zur Untertageverbringung von Abfall- und Reststoffen, 1 – 4. – (Report Nr. LWA Studie 1990). – 628 p., 54 Anl.; Düsseldorf (Institut für Techn. Umweltschutz der Technischen Universität Berlin, Ruhr Universität Bochum, Institut für Bergbauwissenschaften, Bergbaukunde II der Technischen Universität Berlin).
• Jagert, F., Hahn, F., Ignacy, R., Bussmann, G. & Bracke, R. (2018): Mine Water Of Abandoned Coal Mines For Geothermal Heat Storage: Hydrogeochemical Modeling And Predictions. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 375–380; (Tshwane University of Technology).
• Jagtap, S. B., Pande, A. R. & Gokarn, A. N. (1990): Effect of catalysts on the kinetics of reduction of barite by carbon. – Ind. Eng. Chem. Res., 29(5):795–799, doi:10.1021/ie00101a014.
• Jahanshahi, R. & Zare, M. (2017): Delineating the Origin of Groundwater in the Golgohar Mine Area of Iran Using Stable Isotopes of 2H and 18O and Hydrochemistry. – Mine Water Environ., 36(4):550–563, doi:10.1007/s10230-017-0444-6.
• Jahanshahi, R., Zare, M. & Schneider, M. (2014): A Metal Sorption/Desorption Study to Assess the Potential Efficiency of a Tailings Dam at the Golgohar Iron Ore Mine, Iran. – Mine Water Environ., 33(3):228–240, 10 Abb., 8 Tab.; doi:10.1007/s10230-014-0260-1.
• Jahn, M. (1960): Der älteste Bergbau in Europa. – Abhandlungen der Sächsischen Akademie der Wissenschaften zu Leipzig / Philologisch-historische Klasse, 52(2):9–62, doi:10.1515/9783112741931.
• Jahnke, J. C. & Hornbuckle, K. C. (2019): PCB Emissions from Paint Colorants. – Environ. Sci. Technol., 53(9):5187–5194, doi:10.1021/acs.est.9b01087.
• Jain, B., Singh, A. K. & Susan, M. A. B. H. (2019): The World around Bottled Water. – In: Grumezescu, A. M. & Holban, A. M. (eds): The Science of Beverages 4. – p. 39–61, Cambridge (Woodhead); doi:10.1016/B978-0-12-815272-0.00002-7.
• Jain, R., Lakaniemi, A.-M., Peräniemi, S., Kankkunen, J., Turunen, J. & Vepsäläinen, J. (2017): Uranium Removal via Sorption Using Peat and Waste Digested Activated Sludge. Paper presented at the IMWA 2017 – Mine Water & Circular Economy, Lappeenranta. – p. 1375–1380; (Lappeenranta University of Technology).
• Jain, R. K., Zengdi, C. C. & Domen, J. K. (2016): Environmental impact of mining and mineral processing –Management, monitoring, and auditing strategies. – 307 p., Amsterdam (Elsevier).
• Jain, Z. (1988): On the Application of the Method of Exhaustion in Seeking a Proper Formula for Discharge Estimation. – Proceedings, 3rd International Mine Water Congress, Melbourne:361–370, 7 Tab.
• Jáki, R. (1982): The Re-Evaluation of the Geological and Hydrogeological Conditions of the Nagyegyháza Coalfield based on the Underground Data. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:103–112, 1 Abb.
• Jaksch, K. (1968): Aptychen aus dem Neokom zwischen Kaisergebirge und Saalach. – Verh. Geol. B.-A.:105–125, 100 Abb., 1 Tab.
• Jakubick, A. T., Jenk, U. & Kahnt, R. (2002): Modelling of mine flooding and consequences in the mine hydrogeological environment: flooding of the Königstein mine, Germany. – Environ. Geol., 42(2-3):222–234, 11 Abb., 6 Tab.; doi:10.1007/s00254-001-0492-9.
• Jakubick, A. T. & Kahnt, R. (2002): Remediation oriented use of conceptual site models at WISMUT GmbH: Rehabilitation of the Trünzig tailings management area. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 8–24, 8 Abb.; 1 Tab.; Heidelberg (Springer).
• Jakubowski, R., Haws, N., Ellerbroek, D., Murtagh, J. & Macfarlane, D. (2014): Development of a Management Tool to Support the Beneficial Use of Treated Coal Seam Gas Water for Irrigation in Eastern Australia. – Mine Water Environ., 33(2):133–145, 8 Abb., 3 Tab.; doi:10.1007/s10230-013-0246-4.
• Jakubowski, R. T., Haws, N. W. & Ellerbroek, D. A. (2012): Development of a management tool to optimize the beneficial reuse of associated (produced) water in eastern Australia: International Mine Water Association Symposium. – 115–130 p., Bunbury (Edith Cowan University).
• Jamal, A., Dhar, B. B. & Ratan, S. (1991): Acid Mine Drainage Control in an Opencast Coal Mine. – Mine Water Environ., 10(1-4):1–16, 7 Abb., 4 Tab.
• Jamal, A., Ratan, S. & Dhar, B. B. (1994): Water Quality Assessment and its Management in Opencast Coalmines – A Case Study. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:429–434, 1 Abb.
• Jamal, A., Sudhansu, S., Dhar, B. B. & Tiwary, R. K. (1997): Prediction of Water Quality Drainage in Coal Mines – Case Study. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:243–248, 1 Abb., 2 Tab.
• Jambor, J. L. & Blowes, D. W. (1994): Environmental geochemistry of Sulfide Mine-Wastes: Short Course Handbook on Environmental geochemistry of Sulfide Mine-Wastes 22. – 438 p., zahlr. Abb., zahlr. Tab.; Waterloo, Ontario (Mineralogical Association of Canada).
• Jambor, J. L., Nordstrom, D. K. & Alpers, C. N. (2000): Metal-sulfate Salts from Sulfide Mineral Oxidation. – Rev. Mineral. Geochem., 40(1):303–350, 24 Abb., 5 Tab.; doi:10.2138/rmg.2000.40.6.
• Jambrik, R. J. (1985): Drainage of Mining Development in a neogene Lignite Deposit in Hungary. – Proceedings, 2nd International Mine Water Association Congress, 1:113–123, 6 Abb., 5 Tab.
• Jambrik, R. J. (1987): Hydrogeology of an Open Pit Mine in Hungary: Hydrogeology of Coal Basins. – 291–301 p., 5 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Jambrik, R. J. (1991): Hydrogeological Aspects on the Origin of “Borsod Mineral Water”. – Proceedings, 4th International Mine Water Association Congress, 1:65–72, 3 Abb.
• Jambrik, R. J. (1993): Computer Aided Prediction of Land Subsidence Due to Groundwater Withdrawal. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 168–175, 3 Abb.; Chililabombwe (Konkola Division).
• Jambrik, R. J. (1994): Determination of Consolidation Characteristics of Rockmass on the Basis of Water Level and Surface Subsidence Observations. – Mine Water Environ., 13(3-4):25–34, 6 Abb., 2 Tab.
• Jambrik, R. J. (1994): Environmental Effects of Dewatered Open Pit Mines. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:435–440, 4 Abb.
• Jambrik, R. J. (1995): Analysis of Water Level and Land Subsidence Data from Thorez Open-Pit Mine, Hungary. – Mine Water Environ., 14(1-4):13–22, 7 Abb., 1 Tab.
• Jambrik, R. J. (1995): Environmental Effects of Closing a Hungarian Non-Ferrous Ore Mine. – Mine Water Environ., 14(1-4):1–12, 9 Abb., 1 Tab.
• Jambrik, R. J. & Bartha, M. (1994): Groundwater Quality Affected by Mining in the East Borsod Brown Coal Basin, Hungary. – Mine Water Environ., 13(3-4):49–57, 6 Abb., 1 Tab.
• Jambrik, R. J. & Kovács, F. (1982): A combined Method for Dewatering the Mátraverebély Mine Field. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:458–476, 6 Abb., 1 Tab.
• James, A. (1982): Mathematical modelling of estuaries and coastal waters. – Wat. Sci. Tech., 14(9):1109–1123, 2 Tab.; doi:10.2166/wst.1982.0146.
• James L. Palandri, R. J. R. Y. K. K. (2005): Ferric iron in sediments as a novel CO₂ mineral trap: CO₂–SO2 reaction with hematite. – Appl. Geochem., 20(11):2038–2048, 9 Abb.; doi:10.1016/j.apgeochem.2005.06.005.
• James, M. N. & Li, W. F. (1999): Fatigue crack growth in austempered ductile and grey cast irons – stress ratio effects in air and mine water. – Mater. Sci. Eng. A-Struct. Mater. Prop. Microstruct. Process., 265(1-2):129–139.
• Jamieson, H. E., Robinson, C., Alpers, C. N., Nordstrom, D. K., Poustovetov, A. & Lowers, H. A. (2005): The Composition of Coexisting Jarosite-Group Minerals and Water from the Richmond Mine, Iron Mountain, California. – Can. Mineral., 43(4):1225–1242, 8 Abb., 6 Tab.; doi:10.2113/gscanmin.43.4.1225.
• Jamieson, H. E., Walker, S. R. & Parsons, M. B. (2015): Mineralogical characterization of mine waste. – Appl. Geochem., 57:85–105, doi:10.1016/j.apgeochem.2014.12.014.
• Jamil, I. N. & Clarke, W. P. (2013): Bioremediation for Acid Mine Drainage: Organic Solid Waste as Carbon Sources For Sulfate-Reducing Bacteria: A Review. – J. Mech. Eng. Sci., 5:569–581, doi:10.15282/jmes.5.2013.3.0054.
• Jandel, S. (1995): SigmaPlot: Scientific Graphing Software. Version 3 for Windows 95, NT, and 3.1 User’s Manual: 1MLSPW30. – D-40699 Erkrath (Jandel Scientific GmbH).
• Jang, A., Lee, J.-H., Bhadri, P. R., Kumar, S. A., Timmons, W., Beyette jr, F. R., Papautsky, I. & Bishop, P. L. (2005): Miniaturized Redox Potential Probe for In Situ Environmental Monitoring. – Environ. Sci. Technol., 39(16):6191–6197, 9 Abb., 1 Tab.; doi:10.1021/es050377a.
• Janiak, H. (1992): Mine drainage treatment in Polish lignite mining. – Mine Water Environ., 11(1):35–44, 1 Abb., 3 Tab.
• Janisch, B. (2024): Ensuring the water quality of post-mining lakes in Central Germany by implementing two different aftercare strategies to meet alkalinity demand. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 304–309; Morgantown (International Mine Water Association).
• Janisch, H. R. (1981 [1885]): Extracts from the St. Helena Records and Chronicles of Cape Commanders, 4th edn. – 244 p., St. Helena (Thorpe & Sons).
• Jankowski, J., Ward, C. R., French, D. & Groves, S. (2006): Mobility of trace elements from selected Australian fly ashes and its potential impact on aquatic ecosystems. – Fuel, 85:243–256, 9 Abb., 4 Tab.
• Jankowski, J. A., Malcherek, A. & Zielke, W. (1996): Numerical modeling of suspended sediment due to deep-sea mining. – J. Geophys. Res., C 101(2):3545–3560, doi:10.1029/95JC03564.
• Jankulár, M., Klimko, T., Jurkovič, L., Lalinská, B., Šottník, P., Lintnerová, O. & Šutriepka, M. (2008): Mineralogical and Geochemical Research in a Contaminated Environment near the Abandoned Poproè Sb Deposit (Slovakia). – Proceedings, 10th International Mine Water Association Congress:147–150.
• Janneck, E. (1997): Untersuchungen zur passiven Behandlung saurer Sickerwässer aus dem Schieferbergbau. – 1–8 p., 10 Abb., 1 Tab.; Chemnitz (Workshop „Wasserbehandlung und Rückstandsentsorgung – Konventionelle und innovative Lösungen“).
• Janneck, E., Arnold, I., Koch, T., Meyer, J., Burghardt, D. & Ehinger, S. (2010): Microbial synthesis of schwertmannite from lignite mine water and its utilization for removal of arsenic from mine waters and for production of iron pigments. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 131–135, Sydney, NS (Cape Breton University Press); doi:10.13140/2.1.4353.9201.
• Janneck, E., Burghardt, D., Martin, M., Damian, C., Schöne, G., Meyer, J. & Peiffer, S. (2011): From Waste to Valuable Substance: Utilization of Schwertmannite and Lignite Filter Ash for Removal of Arsenic and Uranium from Mine Drainage: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 359–364 p., Aachen (RWTH Aachen University).
• Janneck, E., Burghardt, D., Simon, E., Peiffer, S., Paul, M. & Koch, T. (2015): Development of an Adsorbent Comprising Schwertmannite and its Utilization in Mine Water Treatment. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Janneck, E., Cook, M., Kunze, C., Sommer, K. & Dinu, L. (2012): Ettringite Precipitation vs. Nano-Filtration for Efficient Sulphate Removal from Mine Water: International Mine Water Association Symposium. – 206 I–206 R p., Bunbury (Edith Cowan University).
• Janneck, E., Glombitza, F., Aubel, T., Schönherr, P., Palitzsch, W., Killenberg, A., Schubert, V. & Weber, L. (2018): Utilization Of Iron Ochre – Making Auxiliary Water Treatment Materials From Mine Water Treatment Waste. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 899–903; (Tshwane University of Technology).
• Janneck, E., Glombitza, F., Terno, D., Wolf, M., Patzig, A., Fischer, H., Rätzel, G. & Herbach, K.-D. (2007): Umweltfreundliche biotechnologische Gewinnung von Eisenhydroxisulfaten aus der Bergbauwasserbehandlung und deren Verwertung als Roh- und Grundstoff in der keramischen, Baustoffe produzierenden sowie Farben und Pigmente herstellenden Industrie zur Kosten-, Rohstoff- und Ressourceneinsparung, Teilprojekt 1: Koordination sowie Anlagenbetrieb und Produktherstellung. – Unpubl. Report for Bundesministerium für Bildung und Forschung (Report Nr. 01 RI05013). – 114 p., 61 Abb., 24 Tab.; Freiberg (G.E.O.S. Freiberg Ingenieurgesellschaft mbH).
• Janneck, E. & Krüger, H. G. (1999): Sanierung von Bergbauwässern aus Altablagerungen des Schieferbergbaus – Pilotanlage für die Behandlung saurer Bergbauwässer. – 75 p., 27 Abb., 12 Tab., 5 Anl.; Freiberg (Unveröff. Ergebnisbericht G.E.O.S. Freiberg).
• Janneck, E., Martin, M., Stevens, C. & Hiller, A. (2024): Reducing water quality impacts from abandoned mines in Saxony – Challenges and benefits for passive treatment options. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 310–316; Morgantown (International Mine Water Association).
• Janneck, E., Schlee, K., Arnold, I. & Glombitza, F. (2006): Einsatz neuer Belüftungssysteme zur Effizienzsteigerung bei der Grubenwasserbehandlung in der Lausitz. – Wiss. Mitt. Inst. Geol., 31:29–35, 5 Abb., 1 Tab.
• Janneck, E., Schröder, A., Schlee, K., Glombitza, F. & Rolland, W. (2007): Senkung des Kalkverbrauches bei der Grubenwasserreinigung durch physikalische Entfernung der ungebundenen Kohlensäure. – Wiss. Mitt. Inst. Geol., 35:27–34, 8 Abb., 3 Tab.
• Jannesar Malakooti, S., Shafaei Tonkaboni, S., Noaparast, M., Doulati Ardejani, F. & Naseh, R. (2014): Characterisation of the Sarcheshmeh copper mine tailings, Kerman province, southeast of Iran. – Environ. Earth Sci., 71(5):2267–2291, doi:10.1007/s12665-013-2630-6.
• Jannesar Malakooti, S., Shahhosseini, M., Doulati Ardejani, F., Ziaeddin Shafaei Tonkaboni, S. & Noaparast, M. (2015): Hydrochemical characterisation of water quality in the Sarcheshmeh copper complex, SE Iran. – Environ Earth Sci, 74(4):3171–3190, doi:10.1007/s12665-015-4355-1.
• Jánová, V. & Vrana, K. (2004): Mining, Mining Waste and Related Environmental Issues in Slovakia. EUR 20868 EN. – p. 139–153, 7 Abb.; Ispra (Joint Research Centre of the European Commission).
• Jansen, H. (1977): The Geology of the Country Around Pretoria – An Explanation of Sheets 2527DA, DB, DC, DD and 2528CA, CB, CC, CD. – 141 p., Pretoria (The Government Printer).
• Jansen, M. (1907): Die Anfänge der Fugger bis 1494. – Studien zur Fugger-Geschichte, 1:1–200.
• Jansen, R., Makaka, L., Little, I. T. & Dippenaar-Schoeman, A. (2013): Response of ground-dwelling spider assemblages (Arachnida, Araneae) to Montane Grassland management practices in South Africa. – Insect Conserv. Divers., 6(5):572–589, 7 Abb., 5 Tab., 4 Anl.; doi:10.1111/icad.12013.
• Janson, E. (2008): Wpływ zatapiania i odwadniania zlikwidowanych kopalń węgla kamiennego na środowisko zlewni Przemszy [Influence of flooding and dewatering of abandoned coal mines on the environment in the Przemsza River basin]. – Zesz. Nauk. Politech. Slask., Gorn., 285:105–115.
• Janson, E., Boyce, A. J., Burnside, N. & Gzyl, G. (2016): Preliminary investigation on temperature, chemistry and isotopes of mine water pumped in Bytom geological basin (USCB Poland) as a potential geothermal energy source. – Int. J. Coal Geol., 164:104–114, doi:10.1016/j.coal.2016.06.007.
• Janson, E., Gzyl, G. & Banks, D. (2009): The Occurrence and Quality of Mine Water in the Upper Silesian Coal Basin, Poland. – Mine Water Environ., 28(3):232–244, 8 Abb., 3 Tab.; doi:10.1007/s10230-009-0079-3.
• Janson, E., Gzyl, G., Głodniok, M. & Markowska, M. (2017): Use of Geothermal Heat of Mine Waters in Upper Silesian Coal Basin, Southern Poland – Possibilities and Impediments. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 415–421, Lappeenranta (Lappeenranta University of Technology).
• Janssen, R. J. A. & Henkes, R. A. W. M. (1994): Stability of the Natural-Convection Flow in Differentially Heated Rectangular Enclosures with Adiabatic Horizontal Walls. – In: Voke, P. R., Kleiser, L. & Chollet, J.-P. (eds): Direct and Large-Eddy Simulation I: Selected papers from the First ERCOFTAC Workshop on Direct and Large-Eddy Simulation. – p. 201–212, Dordrecht (Springer Netherlands); doi:10.1007/978-94-011-1000-6_18.
• Jansson, K., Kauppi, J., Huhtanen, M. & Häkkinen, A. (2017): Novel Mine Water Treatment for Sulphate Reduction and Metal Removal with Stable Residue. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1212–1213, Lappeenranta (Lappeenranta University of Technology).
• Jany, S. (2004): Basisgrundlage für Desastermanagement – Digitale Höhenmodelle generiert mit Airborne Laser Scanning – Anwendungen aus Projekten. – Wiss. Mitt. Inst. Geol., 25:33–38, 8 Abb.
• Jany, S. (2006): Erfassung sowie mathematische Korrelierung von Airborne Laser Scanning Daten mit 3 D Terrestrischen Daten als Grundlage für Projektanwendungen. – Wiss. Mitt. Inst. Geol., 31:287–296, 16 Abb., 1 Tab.
• Janyasuthiwong, S., Rene, E. R., Esposito, G. & Lens, P. N. L. (2017): Techniques for Metal Removal and Recovery from Waste Stream. – In: Rene, E. R., Sahinkaya, E., Lewis, A. & Lens, P. N. L. (eds): Sustainable Heavy Metal Remediation – Principles and Processes 1. – p. 1–23, Cham (Springer); doi:10.1007/978-3-319-58622-9_1.
• Jaques, R. O., Moorhouse-Parry, A. M. L., Carline, R., Mayes, W. M. & Hull, S. L. (2021): Biodiversity Benefits Of Coal Mine Water Remediation Schemes For Bird Life. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 206–211; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Jaramillo, N., Restrepo, O. J., Marqués, A. L., Fernandez, B. & Ayala, J. (2025): Recovery of sands from gold mining tailings for clinker manufacture. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1061–1063; Braga (International Mine Water Association).
• Jardón Palacio, J. S. (2010): Aprovechamiento de Las Aguas de Mina En La Cuenca Central Asturiana Como Recurso Energético – Aplicación Al Embalse Minero Barredo-Figaredo. – 270 p., Universidad de Oviedo; Oviedo.
• Jardón, S., Ordóñez, A., Álvarez, R., Cienfuegos, P. & Loredo, J. (2013): Mine Water for Energy and Water Supply in the Central Coal Basin of Asturias (Spain). – Mine Water Environ., 32(2):139–151, 5 Abb., 4 Tab.; doi:10.1007/s10230-013-0224-x.
• Jares Salguero, I., García Ordiales, E., González Genicio, L., Laine Cuervo, G. & del Campo, J. J. (2025): An approach to green corrosion inhibitors in acid mine drainage (AMD). Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 433–439; Braga (International Mine Water Association).
• Jartun, M., Ottesen, R. T., Steinnes, E. & Volden, T. (2009): Painted surfaces – Important sources of polychlorinated biphenyls (PCBs) contamination to the urban and marine environment. – Environ. Pollut., 157(1):295–302, doi:10.1016/j.envpol.2008.06.036.
• Jartun, M., Ottesen, R. T., Volden, T. & Lundkvist, Q. (2009): Local Sources of Polychlorinated Biphenyls (PCB) in Russian and Norwegian Settlements on Spitsbergen Island, Norway. – J. Toxicol. Environ. Heal. A, 72(3-4):284–294, doi:10.1080/15287390802539426.
• Jarvie-Eggart, M. E. (2015): Responsible mining – Case studies in managing social & environmental risks in the developed world. – 788 p., Englewood (Society for Mining, Metallurgy & Exploration).
• Järvinen, T. (2013): Valumavesien käsittely suljetulla kaivosalueella – Seuranta ja puhdistusmenetelmät [Runoff Water Treatment in Closed Oremine Area – Monitoring and treatment methods]. – Master Thesis, Savonia University of Applied Sciences, 21 Abb., 8 Tab.; Kuopio.
• Jarvis, A. & Banks, D. (2018): Paul Lawrence Younger 1962 – 2018. – Mine Water Environ., 37(4):858–860, doi:10.1007/s10230-018-0558-5.
• Jarvis, A., Davis, J., Orme, P., Potter, H. & Gandy, C. (2018): Evaluating Metal Behaviour And Mine Water Treatment Benefits In Abandoned Mine Catchments With Variable Pollutant Load Inputs. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 826–832; (Tshwane University of Technology).
• Jarvis, A. & England, A. (2002): Operational and treatment performance of an unique Reducing and Alkalinity Producing System (RAPS) for acidic leachate remediation in Lancashire, UK. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1019–1026, 4 Abb., 1 Tab.; Heidelberg (Springer).
• Jarvis, A., England, A. & Mee, S. (2003): Mine water treatment at Six Bells colliery, South Wales: problems and solutions, from conception to completion. – Land Contam. Reclam., 11(2):153–160, doi:10.2462/09670513.809.
• Jarvis, A., Fox, A., Gozzard, E., Hill, S., Mayes, W. & Potter, H. (2007): Prospects for effective national Management of abandoned Metal Mine Water Pollution in the UK: Water in Mining Environments. – 77–81 p., 1 Abb., 2 Tab.; Cagliari (Mako Edizioni).
• Jarvis, A., Gandy, C., Bailey, M., Davis, J., Orme, P., Malley, J., Potter, H. & Moorhouse, A. (2015): Metal Removal and Secondary Contamination in a Passive Metal Mine Drainage Treatment System. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Jarvis, A. P. (1997): Towards a Complete Methodology for Mine Water Impact Assessment and Site Remediation. – In: Younger, P. L. (ed) Minewater Treatment Using Wetlands. – p. 165–177, 1 Abb., 5 Tab.; London (Chartered Institution of Water and Environmental Management).
• Jarvis, A. P. (2000): Design, Construction and Performance of Passive Systems for the Treatment of Mine and Spoil Heap Drainage. – 231 p., University of Newcastle upon Tyne, 39 Abb., 19 Tab.; Newcastle upon Tyne.
• Jarvis, A. P. (2006): The Role of Dissolved Carbon Dioxide in Governing deep Coal Mine Water Quality and Determining Treatment Process Selection: ICARD 2006 7. – 833–843 [CD–ROM] p., 1 Abb., 5 Tab.; St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06020833.
• Jarvis, A. P., Alakangas, L., Azzie, B., Lindahl, L., Loredo, J., Madai, F., Walder, I. F. & Wolkersdorfer, Ch. (2012): Developments and Challenges in the Management of Mining Wastes and Waters in Europe. – 1–12 [USB flash drive] p., 3 Abb., 4 Tab.; Ottawa (Proceedings 9th International Conference on Acid Rock Drainage (ICARD)).
• Jarvis, A. P., Banks, V., Crewdson, E., Lofts, S., Palumbo-Roe, B., Pullen, J. & Gandy, C. J. (2023): Sources Of Diffuse Zinc And Lead Contamination In An Abandoned Mine Watershed. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 257–262; (International Mine Water Association).
• Jarvis, A. P. & Gandy, C. J. (2010): A case study of long-term geochemical evolution of coal waste rock drainage and its remediation. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 241–245, Sydney, NS (Cape Breton University Press).
• Jarvis, A. P., Johnston, D., Mayes, W. M. & Potter, H. (2008): Application of a New methodology for Assessing the Priorities for Abandoned Mine Water Pollution Remediation at a National Scale: Results and Implications from a Study across England and Wales. – Proceedings, 10th International Mine Water Association Congress:525–528.
• Jarvis, A. P. & Wolkersdorfer, Ch. (2009): Acid and metalliferous drainage remediation: Legislative drivers, and research and development activities in Europe. – 1–7 [electronic document] p., 2 Tab.; Skellefteå (Proceedings Securing the Future 2009 & 8th ICARD).
• Jarvis, A. P. & Younger, P. L. (1999): Design, Construction and Performance of a Full-Scale Compost Wetland for Mine-Spoil Drainage Treatment at Quaking Houses. – Water Environ. Manage., 13(5):313–318, 4 Abb., 2 Tab.; doi:10.1111/j.1747-6593.1999.tb01054.x.
• Jarvis, A. P. & Younger, P. L. (2000): Broadening the scope of mine water environmental impact assessment – a UK perspective. – Environ. Impact Assess. Rev., 20:85–96.
• Jarvis, A. P. & Younger, P. L. (2000): Passive treatment of net-acidic mine waters: field experiences in the UK. – Proceedings, 7th International Mine Water Association Congress:398–406.
• Jarvis, A. P. & Younger, P. L. (2001): Passive treatment of ferruginous mine waters using high surface area media. – Water Res., 35(15):3643–3648, 3 Abb., 1 Tab.
• Jasch, C. & Stasiškienė, Ž. (2005): From Environmental Management Accounting to Sustainability Management Accounting. – Aplinkos tyrimai, inžinerija ir vadyba [Environmental research, engineering and management], 4(34):77–88, 3 Abb., 3 Tab.
• Jasensky, J. (2001): Residential waterbourne radon removal study using granular activated carbon (GAC) filtration systems. Paper presented at the AARST 2001 International Radon Symposium, Daytona Beach. – p. 120–127, 5 Abb., 2 Tab.
• Jasinski, R. & Gaines, L. (1972): Electrochemical treatment of acid mine waters. – Wat. Poll. Contr. Res. Ser., 14010 FNQ 02-72:81, 26 Abb., 17 Tab.
• Jasnowski-Peters, H. & Melchers, Ch. (2021): Natural Tracers For Mine Water Fingerprinting – A First Step To A Hydrogeochemical Monitoring Plan For Risk Assessment During Mine Water Rebound In The Ruhr District Area, Germany. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 212–217; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Jasnowski-Peters, H. & Melchers, Ch. (2022): Natural Tracers For Mine Water Fingerprinting II – a multi tracer approach to unravel underground fluid movements during Mine Water Rebound in the Ruhr District Area. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 167–173; (International Mine Water Association).
• Jasnowski-Peters, H. & Melchers, Ch. (2023): Natural Tracers For Mine Water Fingerprinting III – an Approach to Identify Mine Waters from Distinct Mine Water Provinces during Mine Water Rebound in the Ruhr District Area. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 263–269; (International Mine Water Association).
• Jasnowski-Peters, H., Westermann, S. & Melchers, Ch. (2024): Hydrogeochemical Monitoring of Mine Waters for a controlled and sustainable Mine Water Rebound – from a univariate to a multivariate Tracer Monitoring Concept. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 317–322; Morgantown (International Mine Water Association).
• Jawecki, B., Dąbek, P. B., Pawęska, K. & Wei, X. (2018): Estimating Water Retention in Post-mining Excavations Using LiDAR ALS Data for the Strzelin Quarry, in Lower Silesia. – Mine Water Environ., 37(4):744–753, doi:10.1007/s10230-018-0526-0.
• Jayatilaka, C. J., Gillham, R. W., Blowes, D. W. & Nathan, R. J. (1996): A deterministic-empirical model of the effect of the capillary fringe on near-stream area runoff 2. Testing and application. – J. Hydrol., 184(3-4):317–336.
• Jean-Baptiste, P., Charlou, J. L. & Stievenard, M. (1997): Oxygen isotope study of mid-ocean ridge hydrothermal fluids: Implication for the oxygen-18 budget of the oceans. – Geochim. Cosmochim. Acta, 61(13):2669–2677.
• Jeannot, M. A. & Cantwell, F. F. (1996): Solvent Microextraction into a Single Drop. – Anal. Chem., 68:2236–2240, doi:10.1021/ac960042z.
• Jeannot, M. A. & Cantwell, F. F. (1997): Mass Transfer Characteristics of Solvent Extraction into a Single Drop at the Tip of a Syringe Needle. – Anal. Chem., 69:235–239, doi:10.1021/ac960814r.
• Jeffers, T. H., Ferguson, C. R. & Bennett, P. G. (1991): Biosorption of Metal Contaminants Using Immobilized Biomass – A Laboratory Study. – Bur. Mines Rep. Invest., 9340:289–298, 5 Abb., 1 Tab.
• Jeffery, G. H., Bassett, J., Mendham, J. & Denney, R. C. (1991): Vogel’s textbook of quantitative chemical analysis, 5th edn. – 877 p., Harlow (Longman).
• Jeffery, J. J., Lowson, R. T., Sarbutt, J. V. & Bowdler, R. J. (1988): Sulphide Oxidation in Pyritic Overburden – A Controlled Leach Column Study. – Proceedings, 3rd International Mine Water Congress, Melbourne:157–164, 2 Abb., 3 Tab.
• Jeffery, R. I., Lloyd, J. W. & Stopher, A. (1994): Hydrogeological and Hydrochemical problems relation to the Smotherfly Opencast Coal Site: An Intergrated Approach to the Granting of a Discharge Licence. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:401–427, 15 Abb., 5 Tab.
• Jeffery, R. I., Summers, J. W. & North, M. D. (1991): The Numerical Analysis of Subsurface Deformation in Relation to Minewater Ingress at Wistow Colliery. – Proceedings, 4th International Mine Water Association Congress, 2:73–84, 9 Abb.
• Jeffrey, L. S. (2005): Characterization of the coal resources of South Africa. – J. S. Afr. Inst. Min. Metall., 105(2):95–102, 1 Abb., 6 Tab.
• Jeneta, J. G. & Prabakar, J. (2019): Evaluation of pH and buffering capacity of sports drinks and carbonated drinks. – Drug Invent. Today, 11(11):2763–2766.
• Jenk, U., Frenzel, M., Metschies, T. & Paul, M. (2014): Flooding of the Underground Uranium Leach Operation at Königstein (Germany) – A Multidisciplinary Report. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 715–719, Xuzhou (International Mine Water Association).
• Jenk, U., Kleditz, N., Bilek, F. & Uhlig, U. (2023): Field Test to Restore Original Geochemical Conditions in a Flooded Mine Area-An Essential Milestone for the Complete Remediation of the Königstein Uranium Mine. – Mine Water Environ., 42(1):50–58, doi:10.1007/s10230-023-00927-5.
• Jenk, U., Meyer, J. & Paul, M. (2009): Flooding of WISMUT’s uranium mines after closure – Key findings and unexpected effects. Paper presented at the Proceedings Securing the Future 2009 & 8th ICARD, Skellefteå. – p. 1–11 [electronic document], 3 Abb., 1 Tab.
• Jenk, U., Michalek, B., Paul, M., Meyer, J., Zabojnik, P. & Lusk, K. (2010): Hydrochemical Development in Flooded Uranium Mines – A comparison between the Mines at Olsi (Czech Repbulic) and Pöhla (Germany). – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 43–47, Sydney, NS (Cape Breton University Press).
• Jenk, U., Paul, M. & Schöpke, R. (2009): Development of a Novel Approach to Source Manipulation to be Applied at the Flooded Underground Uranium Mine at Königstein, Germany. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 801–806, 3 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Jenk, U., Paul, M., Ziegenbalg, G. & Klinger, C. (2004): Alternative Methods of Mine Water Treatment – Feasibility and technical Limitations for a Full-Scale Application at WISMUT’s Königstein Mine Site (Germany). – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 245–252, 5 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Jenk, U., Schreyer, J. & Klinger, C. (2003): Fe(0)/lignitic coal: An efficient and mechanically stable reactive material for purification of water containing heavy metals, radionuclides, and nitroaromatics. – Environ. Sci. Technol., 37(3):644–651, 9 Abb., 9 Tab.
• Jenk, U., Zimmermann, U. & Paul, M. (2010): Die Flutung der Urangrube Königsstein – Verfahrensentwicklungen zur In-situ- Sanierung. – Wiss. Mitt. Inst. Geol., 42:15–20.
• Jenk, U., Zimmermann, U., Paul, M., Uhlig, U. & Schöpke, R. (2011): Development of an in-situ mine water treatment approach for the flooded Königstein Uranium mine (Germany) – Field experiment: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 365–370 p., Aachen (RWTH Aachen University).
• Jenk, U., Zimmermann, U., Uhlig, U., Schöpke, R. & Paul, M. (2014): In Situ Mine Water Treatment: Field Experiment at the Flooded Königstein Uranium Mine (Germany). – Mine Water Environ., 33(1):39–47, 10 Abb., 1 Tab.; doi:10.1007/s10230-013-0241-9.
• Jenk, U., Zimmermann, U. & Ziegenbalg, G. (2005): The use of BaSO4 supersaturated solutions for in-situ immobilization of heavy metals in the abandoned Wismut GmbH uranium mine at Königstein. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment. – p. 721–727, 5 Abb.; Heidelberg (Springer); doi:10.1007/3-540-28367-6_73.
• Jenke, D. R. & Diebold, F. E. (1984): Electroprecipitation Treatment of Acid Mine Wastewater. – Water Res., 18(7):855–859, 2 Abb., 4 Tab.; doi:10.1016/0043-1354(84)90269-0.
• Jenkins, C. D. & Boyer, C. M. (2008): Coalbed- and Shale-Gas Reservoirs. –:92–99, 2 Abb., 4 Tab.
• Jenkins, G. A. (2003): Modelling the Hydraulic Characteristics of Artificial Wetlands. Paper presented at the Integrative Modelling of Biophysical, Social and Economic Systems for Resource Management Solutions, Canberra. – p. 1–6, 4 Abb., 1 Tab.; (Proceedings MODSIM 2003 International Congress on Modelling and Simulation).
• Jenkins, H. & Yakovleva, N. (2006): Corporate social responsibility in the mining industry: Exploring trends in social and environmental disclosure. – J. Clean. Prod., 14(3-4):271–284, 1 Abb., 4 Tab.; doi:10.1016/j.jclepro.2004.10.004.
• Jenny, S. (1879): Die St. Agatha-Capelle auf Christberg. – Mittheilungen der k.k. Central-Commission zur Erforschung und Erhaltung der Kunst- und historischen Denkmale, 5:67–69, 3 Abb.
• Jensch, E. (1894): Grubenwässer. – Angew. Chem., 7(16):508, doi:10.1002/ange.18940071605.
• Jensen, E. B. (1983): Mine Water Used to Heat Ventilation Air at Henderson Molybdenum Mine. – Min. Eng., 35(1):17–20, 4 Abb., 1 Tab.
• Jensen, S. (1972): The PCB Story. – Ambio, 1(4):123–131.
• Jensen, S., Johnels, A. G., Olsson, M. & Otterlind, G. (1969): DDT and PCB in Marine Animals from Swedish Waters. – Nature, 224(5216):247–250, doi:10.1038/224247a0.
• Jensen, S. R., Clark, C., Noel, M.-C. & Foster, J. (2018): Mine Design for In-Situ Control of Selenium and Nitrate. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 518–523; (Tshwane University of Technology).
• Jensen, W. B. (2004): The Symbol for pH. – J. Chem. Educ., 81(1):21, 1 Abb.; doi:10.1021/ed081p21.
• Jentzsch, A. & Berg, G. (1913): Die Geologie der Braunkohlenablagerungen im östlichen Deutschland. – Abhandlungen der königlich Preußischen Geologischen Landesanstalt NF, 72:1–141, 20 Abb., 1 Taf., 7 Anl.
• Jeong, J.-Y., Kim, H.-K., Kim, J.-H. & Park, J.-Y. (2012): Electrochemical removal of nitrate using ZVI packed bed bipolar electrolytic cell. – Chemosphere, 2:172–178, 6 Abb., 1 Tab.; doi:10.1016/j.chemosphere.2012.05.104.
• Jeremiassen, N., Jia, Y., Hansen, V., Friis, H., Larsen, M. B., Olsen, M. & Ulrich, T. (2024): Leaching dynamics of Pb, Zn, and F: Long-term leaching of waste rock from mine site of Ivittuut, South Greenland. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 323–325; Morgantown (International Mine Water Association).
• Jeschke, C., Knöller, K., Simon, A., Gast, M. & Hoth, N. (2013): Assessment of glycerol-enhanced bacterial sulfate degradation in lignite mining sediments by stable isotope investigations. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 611–611, Golden (International Mine Water Association).
• Jessop, A. M. (1995): Geothermal Energy from Old Mines at Springhill, Nova Scotia, Canada. Paper presented at the World Geothermal Congress. – p. 463–468; (International Geothermal Association).
• Jessop, A. M. (1998): Geothermal Energy in Canada. – Geosci. Can., 25(1):33–41, 8 Abb.
• Jessop, A. M., Macdonald, J. K. & Spence, H. (1995): Clean Energy from Abandoned Mines at Springhill, Nova Scotia. – Energy Sources, 17(1):93–106, 5 Abb., 2 Tab.
• Jeuken, B., Märten, H. & Phillips, R. (2008): Uranium ISL Operation and Water Management under the Arid Climate Conditions at Beverley, Australia. – Proceedings, 10th International Mine Water Association Congress:487–490.
• Jevons, W. S. (1866): The Coal Question – An Inquiry Concerning the Progress of the Nation, and the Probable Exhaustion of Our Coal-Mines, 2 edn. – 383 p., London (Macmillan and Co.).
• Jewiss, C., Craw, D., Pope, J., Christenson, H. & Trumm, D. (2020): Dilution Processes of Rainfall-Enhanced Acid Mine Drainage Discharges from Historic Underground Coal Mines, New Zealand. – Mine Water Environ., 39(1):27–41, doi:10.1007/s10230-019-00650-0.
• Jewiss, C. S., Pope, J. & Craw, D. (2018): The Influence of Rainfall on the Characteristics of Historic Acid Mine Drainage on the Denniston Plateau, New Zealand. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 80; (Tshwane University of Technology).
• Jezerský, Z. (1987): Chemical Composition of Groundwater in the Foreland of the Ceskoslovenská Armáda Open Pit Lignite Mine (North Bohemia): Hydrogeology of Coal Basins. – 303–317 p., 7 Abb., 1 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Jezierski, P., Szynkiewicz, A. & Jsunędrysek, M.-O. (2006): Natural and Anthropogenic Origin Sulphate in an Mountainous Groundwater System: S and O Isotope Evidences. – Water Air Soil Pollut., 173(1-4):81–101, doi:10.1007/s11270-005-9028-3.
• Jezný, M. & Kovác, J. (1987): Hydrogeological Survey Works at Lignite Deposits in the Slovak Part of the Vienna Basin: Hydrogeology of Coal Basins. – 89–98 p., 2 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Jha, A. (2012): What is a representative pan factor value for the eastern Pilbara?: International Mine Water Association Symposium. – 399–408 p., Bunbury (Edith Cowan University).
• Jha, B. M. (2007): Ground Water Development and Management Strategies in India. – Bhu-Jal News, 22:1–15, 9 Abb., 2 Tab.
• Ji, M., Li, B., Majdi, A., Alkhalifah, T., Alturise, F. & Ali, H. E. (2023): Application of nano remediation of mine polluted in acid mine drainage water using machine learning model. – Chemosphere, 311(Part_2):136926, doi:10.1016/j.chemosphere.2022.136926.
• Ji, M., Li, X., Wu, S., Gao, Y. & Ge, L. (2011): Use of SAR interferometry for monitoring illegal mining activities: A case study at Xishimen Iron Ore Mine. – Min. Sci. Technol., 21(6):781–786, 4 Abb., 2 Tab.; doi:10.1016/j.mstc.2011.05.039.
• Ji, S. W., Yim, G. J., Cheong, Y. W., Lee, H. S., Min, J. S., Choi, Y. S. & Bhattacharya, J. (2010): The Impact of water chemistry in the vicinity of Imgi mine on the pollution potential in the Soo-young river, Korea. Paper presented at the Mine Water and Innovative Thinking – International Mine Water Association Symposium, Sydney, NS. – p. 355–359; (Cape Breton University Press).
• Ji, X. H., Liu, S. H., Juan, H., Jiang, J., He, A., Bocharnikova, E. & Matichenkov, V. (2017): Prospect for Treating Antimony-Laden Mine Wastewater Using Local Materials. – Mine Water Environ., 36(3):379–385, doi:10.1007/s10230-017-0460-6.
• Ji, Y., Dong, D., Gao, J., Wei, Z., Ding, J. & Hu, Z. (2022): Source Discrimination of Mine Water Inrush Based on Spectral Data and EGA–PNN Model: A Case Study of Huangyuchuan mine. – Mine Water Environ., 41(2):583–593, doi:10.1007/s10230-021-00840-9.
• Ji, Y. D., Cao, H. D. & Zhao, B. F. (2021): Mechanism and Control of Water Inrush from Separated Roof Layers in the Jurassic Coalfields. – Mine Water Environ., 40(2):357–365, doi:10.1007/s10230-021-00755-5.
• Ji, Z.-G. (2008): Hydrodynamics and water quality – modeling rivers, lakes, and estuaries. – 676 p., Hoboken (Wiley).
• Ji, Z.-G. (2017): Hydrodynamics and water quality – modeling rivers, lakes, and estuaries, 2nd edn. – 676 p., Hoboken (Wiley).
• Jia, Y., Maurice, C. & Öhlander, B. (2015): Metal Mobilization in Tailings Covered with Alkaline Residue Products: Results from a Leaching Test Using Fly Ash, Green Liquor Dregs, and Lime Mud. – Mine Water Environ., 34(3):270–287, doi:10.1007/s10230-014-0317-1.
• Jia, Y., Yang, W. & Li, D. (2014): From Seismic Tomography to Channel wave Tomography. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 282–285, Xuzhou (International Mine Water Association).
• Jiahong, B. D., Jie, W. & Lanyun, C. (1998): Present Situation and new Methods of High Pressure Jet Grouting Technology in China: Mine Water and Environmental Impacts 1. – 115–119 p., 1 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Jiahong, D. (1982): Application of new Lignin Grouts in Sealing of Soils. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:259–277, 12 Abb., 9 Tab.
• Jiahong, D. & Pinghui, J. (1988): Studies of FUL Grout by Experiment. – Proceedings, 3rd International Mine Water Congress, Melbourne:633–639, 4 Abb., 1 Tab.
• Jiahong, D., Weigang, W., Jie, W. & Xiaopei, Q. (1997): Sealing Water in Shaft Wall with C-S Grout and Chemical Grout. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:29–33, 1 Tab.
• Jiang, C. L., An, Y. Q., Zheng, L. G. & Huang, W. W. (2021): Water Source Discrimination in a Multiaquifer Mine Using a Comprehensive Stepwise Discriminant Method. – Mine Water Environ., 40(2):442–455, doi:10.1007/s10230-020-00742-2.
• Jiang, J., Auckland, A., Long, D., Mackenzie, I. & Bender, M. (2013): Numerical Simulation of Total Suspended Solid Concentration in Oil Sands Tailings Ponds. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 371–376, 5 Abb.; Golden (International Mine Water Association).
• Jiang, X., Lei, M. & Gao, Y. (2018): New Karst Sinkhole Formation Mechanism Discovered in a Mine Dewatering Area in Hunan, China. – Mine Water Environ., 37(3):625–635, doi:10.1007/s10230-017-0486-9.
• Jiang, X., Liu, G., Wang, M. & Zheng, M. (2015): Formation of Polychlorinated Biphenyls on Secondary Copper Production Fly Ash: Mechanistic Aspects and Correlation to Other Persistent Organic Pollutants. – Sci. Rep., 5:13903, doi:10.1038/srep13903.
• Jiang, Z. & Liu, S. (2014): Research on Ground-Roadway Transient Electromagnetic Method to Detect Disaster Water Source. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 308, Xuzhou (International Mine Water Association).
• Jiang, Z., Mallants, D., Peeters, L., Gao, L., Soerensen, C. & Mariethoz, G. (2019): High-resolution paleovalley classification from airborne electromagnetic imaging and deep neural network training using digital elevation model data. – Hydrol. Earth Syst. Sci., 23(6):2561–2580, doi:10.5194/hess-23-2561-2019.
• Jicha jr, H. L. (1951): Alpine lead-zinc ores of Europe. – Econ. Geol., 46(7):707–730, doi:10.2113/gsecongeo.46.7.707.
• Jijelava, D. & Vanclay, F. (2017): Legitimacy, credibility and trust as the key components of a social licence to operate: An analysis of BP’s projects in Georgia. – J. Clean. Prod., 140:1077–1086, doi:10.1016/j.jclepro.2016.10.070.
• Jijelava, D. & Vanclay, F. (2018): How a large project was halted by the lack of a social Licence to operate: Testing the applicability of the Thomson and Boutilier model. – Environ. Impact Assess. Rev., 73:31–40, doi:10.1016/j.eiar.2018.07.001.
• Jimoh, A. A., Booysen, E., van Zyl, L. & Trindade, M. (2023): Do biosurfactants as anti-biofilm agents have a future in industrial water systems? – Front. Bioeng. Biotechnol., 11:1244595, 3 Abb., 4 Tab.; doi:10.3389/fbioe.2023.1244595.
• Jin, D., Zhu, M. & Liu, Z. (2014): Characteristics of Typical Shaft Engineering Water Hazards and The Key Control Techniques and Processes. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 593–599, Xuzhou (International Mine Water Association).
• Jin, D. W., Zheng, G., Liu, Z. B. & Chen, B. H. (2021): Real-Time Monitoring and Early Warning of Water Inrush in a Coal Seam Floor: A Case Study. – Mine Water Environ., 40(2):378–388, doi:10.1007/s10230-021-00767-1.
• Jin, S., Cooper, J. S., Fallgren, P. H. & Stearns, M. W. (2006): Biological Source Treatment of Acid Mine Drainage. Paper presented at the 2006 Billings Land Reclamation Symposium, Billings. – p. 283–300, 10 Abb., 4 Tab.; (BLRS, ASMR).
• Jin, S., Fallgren, P., Morris, J. & Gossard, R. (2008): Biological Source Treatment of Acid Mine Drainage Using Microbial and Substrate Amendments: Microcosm Studies. – Mine Water Environ., 27(1):20–30, 7 Abb., 3 Tab.; doi:10.1007/s10230-007-0026-0.
• Jing, R., Fusi, S. & Kjellerup, B. V. (2018): Remediation of Polychlorinated Biphenyls (PCBs) in Contaminated Soils and Sediment – State of Knowledge and Perspectives. – Front. Environ. Sci., 6:Art. 79, doi:10.3389/fenvs.2018.00079.
• Jinkai, L. (1985): Problems of mud solid intrusions into mining pits. – Proceedings, 2nd International Mine Water Association Congress, 2:967–978.
• Jinkai, L., Wanfang, Z. & Jianli, N. (1991): The Existing and Extending of High Runnoff-zones of Karst Water in Coal mines of Karst Type and Water Hazards Prevention in North China. – Proceedings, 4th International Mine Water Association Congress, 1:257–263, 3 Abb., 1 Tab.
• Jinkai, L., Wanfang, Z. & Yulin, L. (1991): Desing of Rehabilitating Submerged Mines Economically Speedily and the Relative Factors. – Proceedings, 4th International Mine Water Association Congress, 2:105–111, 1 Tab.
• Jiries, A., El-Hasan, T., Al-Hweiti, M. & Seiler, K.-P. (2004): Evaluation of the Effluent Water Quality Produced at Phosphate Mines in Central Jordan. – Mine Water Environ., 23(3):133–137, 4 Abb., 4 Tab.
• Job, B. (1994): The formation and early development of the mines inspectorate. – Min. Eng., 153:249–255, 6 Abb.
• Job, C. & Mutschlechner, G. (1969): Hydrochemische Untersuchungen im Wettersteinkalk und im Hauptdolomit des Karwendelgebirges. – Ber. nat.-med. Verein Innsbruck, 57:19–38.
• Job, C., Mutschlechner, G. & Zötl, J. G. (1969): Vergleichende Markierungsversuche an Hangwässern in einem Bergsturzgelände. – Steir. Beitr. Hydrogeol., 21:181–191, 4 Abb., 1 Tab.
• Jodeiri Shokri, B., Ramazi, H., Doulati Ardejani, F. & Moradzadeh, A. (2014): Integrated Time-Lapse Geoelectrical–Geochemical Investigation at a Reactive Coal Washing Waste Pile in Northeastern Iran. – Mine Water Environ., 33(3):256–265, 8 Abb.; doi:10.1007/s10230-014-0265-9.
• Joeckel, R. M., Ang Clement, B. J. & VanFleet Bates, L. R. (2005): Sulfate-mineral crusts from pyrite weathering and acid rock drainage in the Dakota Formation and Graneros Shale, Jefferson County, Nebraska. – Chem. Geol., 215(1–4):433–452, doi:10.1016/j.chemgeo.2004.06.044.
• Joehnk, K. & Uhlmann, W. (2016): Persistence of meromictic stratification in post mining lakes. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 199–200, Freiberg (TU Bergakademie Freiberg).
• Johannesson, K. H. & Lyons, W. B. (1995): Rare-earth element geochemistry of Colour Lake, an acidic freshwater lake on Axel Heiberg Island, Northwest Territories, Canada. – Chem. Geol., 119(1-4):209–223, Refs: 45; illus. incl. 3 tables, sketch map.
• Johannesson, K. H., Lyons, W. B., Yelken, M. A., Gaudette, H. E. & Stetzenbach, K. J. (1996): Geochemistry of the rare-earth elements in hypersaline and dilute acidic natural terrestrial waters; complexation behavior and middle rare-earth element enrichments. – Chem. Geol., 133(1-4):125–144, Refs: 92; illus. incl. 3 tables, sketch map.
• Johannesson, K. H., Stetzenbach, K. J., Hodge, V. F. & Lyons, W. B. (1996): Rare earth element complexation behavior in circumneutral pH groundwaters; assessing the role of carbonate and phosphate ions. – Earth Planet. Sci. Lett., 139(1-2):305–320, Refs: 32; illus. incl. 3 tables, sketch map.
• Johannesson, K. H., Zhou, X., Guo, C., Stetzenbach, K. J. & Hodge, V. F. (2000): Origin of rare earth element signatures in groundwaters of circumneutral pH from southern Nevada and eastern California, USA. – Chem. Geol., 164(3-4):239–257, Refs: 62; illus. incl. 2 tables, sketch map.
• Johannsen, K. (2002): The elder problem—Bifurcations and steady state solutions. – In: Hassanizadeh, S. M., Schotting, R. J., Gray, W. G. & Pinder, G. F. (eds): Developments in Water Science 47. – p. 485–492, (Elsevier); doi:10.1016/S0167-5648(02)80099-5.
• Johansen, P. & Munkhansen, M. (1985): Heavy metal pollution from mining in greenland. – Proceedings, 2nd International Mine Water Association Congress, 2:685–693.
• Johansson, P., Räisänen, J. & Sarala, P. (2016): LiDAR-based geomorphological mapping and Quaternary stratigraphy in the Sodankylä region northern Finland. Paper presented at the 32nd Nordic Geological Winter Meeting, Helsinki, 13th–15th January 2016. – p. 314–315; Helsinki (Geological Society of Finland).
• Johansson, V., Pondja, E. & Persson, K. M. (2020): Effects of Coal Mining on the Lower Zambezi Basin, Tete Province, Mozambique. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 32–37; (International Mine Water Association).
• John, M. & Heuss-Aßbichler, S. (2017): “Spop” (Specific Product Oriented Precipitation): a New Concept To Recover Metals from Mining Wastewater Avoiding Hydroxide Sludge. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1214–1221, Lappeenranta (Lappeenranta University of Technology).
• John Miedecke Partners Pty. Ltd. (1996): Mount Lyell Remediation – Remediation options to reduce acid drainage from historical mining operations at Mount Lyell, Western Tasmania: Supervising Scientist Report 108. – 90 p., 23 Abb., 18 Tab.; Barton (Commonwealth of Australia).
• John, S. O. O., Olukotun, S. F., Kupi, T. G. & Mathuthu, M. (2024): Health risk assessment of heavy metals and physicochemical parameters in natural mineral bottled drinking water using ICP-MS in South Africa. – Appl. Water Sci., 14(9) doi:10.1007/s13201-024-02267-3.
• John, T. (2020): Grassroots Literacy and the Written Record – A Textual History of Asbestos Activism in South Africa: Studies in Knowledge Production and Participation 00002. – Bristol (Multilingual Matters).
• Johnson, A. G., Nel, J. M. & Reynolds-Clausen, K. (2019): Hydro-Geochemical Properties of Class F Fly Ash When Leached With Acid Mine Drainage. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 369–374; Perm, Russia (Perm State University).
• Johnson, A. M. (1985): A synergetic approach to control acid mine drainage: a michigan case history. – Proceedings, 2nd International Mine Water Association Congress, 2:695–708.
• Johnson, B., Parkison, G. & Cincilla, W. (2015): Innovative Mine Waste Management Planning at a Site with Multiple Waste Streams. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Johnson, B., Santos, A. L., Falagán, C., Jones, R. M., Grail, B. M., Holanda, R. & Hedrich, S. (2016): Developing sustainable biotechnologies for mine watere treatment in the 21st century. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 782–789, Freiberg (TU Bergakademie Freiberg).
• Johnson, B. C., Rohal, P. A. & Eary, L. E. T. (2018): Coupling PHREEQC with GoldSim for a More Dynamic Water Modeling Experience. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1081–1086; (Tshwane University of Technology).
• Johnson, C., Sundine, J. E. & Curtis, M. (2010): Testing a multistage fluid treatment. – World oil, 2010:153–157.
• Johnson, C. A. (2015): The fate of cyanide in leach wastes at gold mines: An environmental perspective. – Appl. Geochem., 57:194–205, doi:10.1016/j.apgeochem.2014.05.023.
• Johnson, C. M., Roden, E. E., Welch, S. A. & Beard, B. L. (2005): Experimental constraints on Fe isotope fractionation during magnetite and Fe carbonate formation coupled to dissimilatory hydrous ferric oxide reduction. – Geochim. Cosmochim. Acta, 69(4):963–993, 14 Abb., 8 Tab.
• Johnson, C. S. & Cooper, L. (2010): Estimating Mine Inflow Rates Real Time Using Analytical Methods. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 657–661, Sydney, NS (Cape Breton University Press).
• Johnson, D. B. (2003): Chemical and microbiological characteristics of mineral spoils and drainage waters at abandoned coal and metal mine. – Water Air Soil Pollut., Focus 3:47–66, 2 Abb., 3 Tab.
• Johnson, D. B. (2009): Extremophiles: Acidic Environments. – In: Schaechter, M. (ed) Encyclopedia of Microbiology (Third Edition). – p. 107–126, Oxford (Academic Press); doi:https://doi.org/10.1016/B978-012373944-5.00278-9.
• Johnson, D. B. (2015): Biomining goes underground. – Nature Geosci., 8(3):165–166, doi:10.1038/ngeo2384.
• Johnson, D. B., Dziurla, M. A., Kolmert, A. & Hallberg, K. B. (2002): The microbiology of acid mine drainage: genesis and biotreatment. – S. Afr. J. Sci., 98(5-6):249–255.
• Johnson, D. B. & Hallberg, K. B. (2002): Pitfalls of passive mine water treatment. – Re/Views in Environmental Science & Bio/Technology, 1:335–343, 4 Abb., 1 Tab.
• Johnson, D. B. & Hallberg, K. B. (2003): The microbiology of acidic mine waters. – Res. Microbiol., 154(7):466–473, doi:10.1016/S0923-2508(03)00114-1.
• Johnson, D. B. & Hallberg, K. B. (2005): Acid mine drainage remediation options – a review. – Sci. Total Environ., 338:3–14, 5 Abb.; doi:10.1016/j.scitotenv.2004.09.002.
• Johnson, D. B. & Rang, L. (1993): Effects of acidophilic protozoa on populations of metal-mobilizing bacteria during the leaching of pyritic coal. – J. Gen. Microbiol., 139:1417–1423.
• Johnson, D. B., Rowe, O., Kimura, S. & Hallberg, K. B. (2004): Development of an integrated microbiological Approach for Remediation of Acid Mine Drainage and Recovery of Heavy Metals. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 151–157, 4 Abb., 2 Tab.; Newcastle upon Tyne (University of Newcastle).
• Johnson, I., Spence, M. T. Z., Adai, S., Gregory, J., Richter, G. & Browne, B. (2010): The Molecular Probes™ Handbook – A Guide to Fluorescent Probes and Labeling Technologies. – (Life Technologies Corporation).
• Johnson, J. & Ball, B. (2015): Water Quality Facility Sizing and Technology Evaluation – South Park Pump Station and Water Quality Facility: Options Analysis (Technical Memorandum). – (Report Nr. 135668.209). – 44 + 117 in Appendices p., Seattle (Brown & Caldwell).
• Johnson, K. L. (2003): The importance of aeration in passive treatment schemes for manganese removal. – Land Contam. Reclam., 11(2):205–212, doi:10.2462/09670513.816.
• Johnson, K. L. (2003): Oxidative passive treatment to remove Mn²⁺ from mine waters: What is the best substrate? – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 85–97, 7 Abb., 5 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Johnson, K. L. & Younger, P. L. (2000): Abandonment of Frazer’s Grove Fluorspar Mine, North Pennines, UK: Prediction and observation of Water level and chemistry changes after closure. – Proceedings, 7th International Mine Water Association Congress:271–279, 4 Abb.
• Johnson, K. L. & Younger, P. L. (2002): Hydrogeological and geochemical consequences of the abandonment of Frazer’s Grove carbonate hosted Pb/Zn fluorspar mine, North Pennines, UK. – Spec. Publ. – Geol. Soc. London, 198:347–363, 13 Abb., 2 Tab.; doi:10.1144/GSL.SP.2002.198.01.24.
• Johnson, K. S. & Gunay, G. (2002): Karst in evaporite rocks of the United States. – Carbonate Evaporite, 17(2):90–97.
• Johnson, L., Cai, M., Chun, C. L., Hanson, A., Hudak, G., Kolomitsyn, I., Shashi, R., Bernhardt, B., Deen, T. & Henneck, J. (2019): Responding to Minnesota’s Regulatory Sulfate Standard for Wild Rice Waters. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 199–205; Perm, Russia (Perm State University).
• Johnson, M. (1988): Balancing Competing Water Resource Demands and Mining in a Costal Environment. – Proceedings, 3rd International Mine Water Congress, Melbourne:425–434, 6 Abb.
• Johnson, M. E. & Baarli, B. G. (2015): Charles Darwin in the Cape Verde and Galapagos Archipelagos: the Role of Serendipity in Development of Theories on the Ups and Downs of Oceanic Islands. – Earth Sci. Hist., 34(2):220–242, 9 Abb., 2 Tab.
• Johnson, M. R., Vuuren, C. J. V., Visser, J. N. J., Cole, D. I., Wickens, H. D. V., Christie, A. D. M. & Roberts, D. L. (1997): The Foreland Karoo Basin, South Africa. – In: Selley, R. C. (ed) Sedimentary Basins of the World Volume 3. – p. 269–317, 34 Abb.; Amsterdam (Elsevier); doi:10.1016/S1874-5997(97)80015-9.
• Johnson, M. S., Cooke, J. A. & Stevenson, J. K. W. (1994): Revegetation of metalliferous wastes and land after metal mining. – In: Hester, R. E. & Harrison, R. M. (eds): Mining and its Environmental Impact 1. – p. 31–48, (The Royal Society of Chemistry); doi:10.1039/9781847551467-00031.
• Johnson, R., Dam, W. L., Campbell, S., Noël, V., Bone, S. E., Bargar, J. R. & Dayvault, J. (2016): Persistent Secondary Contaminant Sources at a Former Uranium Mill Site, Riverton, Wyoming, USA. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 398–404, Freiberg (TU Bergakademie Freiberg).
• Johnson, R., Morrison, S., Morris, S., Tigar, A., Dam, W. L. & Dayvault, J. (2016): Column Testing and 1D Reactive Transport Modeling to Evaluate Uranium Plume Persistence Processes. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 652–659, Freiberg (TU Bergakademie Freiberg).
• Johnson, R. H. (2011): Reactive Transport Modeling for the Proposed Dewey Burdock Uranium In-Situ Recovery Mine, Edgemont, South Dakota, USA: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 221–224 p., Aachen (RWTH Aachen University).
• Johnson, R. H. (2013): IMWA 2013 Mid-Conference Tour to Leadville, Colorado: August 7th, 2013. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1237–1240, 3 Abb.; Golden (International Mine Water Association).
• Johnson, R. H. (2013): Mines, Mountains, and Hot Springs: IMWA 2013 Post-Conference Tour to Silverton, Colorado: August 10-13, 2013. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1241–1246, 4 Abb.; Golden (International Mine Water Association).
• Johnson, R. H., Paradis, C. J., Kent, R. D., Tigar, A. D. & Reimus, P. W. (2023): Single-Well Push–Pull Tracer Test Analyses to Determine Aquifer Reactive Transport Parameters at a Former Uranium Mill Site Grand Junction Colorado. – Minerals, 13(228):1–26, 9 Abb., 4 Tab.; doi:10.3390/min13020228.
• Johnson, R. H., Tigar, A., Morris, S., Campbell, S., Tafoya, K., Bush, R. & Frazier, W. (2018): Column Tests and Multilevel Well Geochemistry to Explain Contaminant Plume Persistence Issues Downgradient of a Former Uranium Mill Site. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 629–634; (Tshwane University of Technology).
• Johnson, R. H., Truax, R. A., Lankford, D. A. & Stone, J. J. (2016): Sorption Testing and Generalized Composite Surface Complexation Models for Determining Uranium Sorption Parameters at a Proposed In-situ Recovery Site. – Mine Water Environ., 35(4):435–446, doi:10.1007/s10230-016-0384-6.
• Johnson, R. H. & Tutu, H. (2013): Reactive transport modeling at uranium in-situ recovery sites: uncertainties in uranium sorption on iron hydroxides. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 377–382, 12 Abb.; Golden (International Mine Water Association).
• Johnson, R. H. & Tutu, H. (2016): Predictive Reactive Transport Modeling at a Proposed Uranium In Situ Recovery Site with a General Data Collection Guide. – Mine Water Environ., 35(3):369–380, doi:10.1007/s10230-015-0376-y.
• Johnson, R. H., Yoshino, M. E., Hall, S. M. & Shea, V. R. (2010): Predictive Modeling Strategies for Operations and Closure at Uranium In-Situ Recovery Mines. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 475–479, Sydney, NS (Cape Breton University Press).
• Johnson, T. M. & DePaolo, D. J. (1994): Interpretation of Isotopic data in Groundwater-rock Systems – Model Development and Application to Sr Isotope data from Yucca Mountain. – Water Resour. Res., 30(5):1571–1587, doi:10.1029/94wr00157.
• Johnston, A., Runkel, R. L., Navarre-Sitchler, A. & Singha, K. (2017): Exploration of Diffuse and Discrete Sources of Acid Mine Drainage to a Headwater Mountain Stream in Colorado, USA. – Mine Water Environ., 36(4):463–478, doi:10.1007/s10230-017-0452-6.
• Johnston, D. (2004): A metal mines strategy for Wales. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 17–23, 1 Abb., 2 Tab.; Newcastle upon Tyne (University of Newcastle).
• Johnston, D., Parker, K. & Pritchard, J. (2007): Management of abandoned Minewater Pollution in the United Kingdom: Water in Mining Environments. – 209–213 p., 1 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Johnston, D., Potter, H., Jones, C., Rolley, S., Watson, I. & Pritchard, J. (2008): Abandoned mines and the water environment. – 31 p., 13 Abb., 3 Tab.; Aztec West (Environment Agency).
• Johnston, D. & Rolley, S. (2008): Abandoned Mines and the Water Framework Directive in the United Kingdom. – Proceedings, 10th International Mine Water Association Congress:529–532.
• Johnston, I. (2022): Toorwater – A wellness retreat that captures the stories of Toorwater a natural hot spring in the Klein Karoo. – 177 p., Masters of Architecture, University of the Free State; Bloemfontein.
• Johnstone, A. & Hinz, R. (1999): A Procedure to determine the Potential Hydrochemical Contamination from Coal Mines. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 503–508, 2 Tab.; Sevilla (International Mine Water Association).
• Johnstone, A., Kriel, D. & Vermeulen, P. D. (2016): Ghaghoo Mine Dewatering and Injection of Excess Water. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 463–467, Freiberg (TU Bergakademie Freiberg).
• Johnstone, A. C. (2019): Are Pitlakes an Environmentally Sustainable Closure Option for South African Coal Mines. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 469–476; Perm, Russia (Perm State University).
• Johnstone, A. C. (2025): The Enviromental and Financial Aspects for the Use of Pitlakes for Sustainable Mine Closure. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 945–950; Braga (International Mine Water Association).
• Johnstone, A. C., Dennis, I. & McGeorge, N. (2013): Groundwater Stratification and Impact on Coal Mine Closure. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1003–1008, 5 Abb.; Golden (International Mine Water Association).
• Johnstone, A. C. & Kennedy, L. (2017): Coal Mine Pit Lakes in South Africa. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 403–414, Lappeenranta (Lappeenranta University of Technology).
• Jokanovic, V., Radosevic, S. & Ristic, M. (1972): The Uranium Deposit of Žirovski Vrh [abstr., with discussion]. – Geologija, 15:91–93.
• Jolivet, J.-P., Chaneac, C. & Tronc, E. (2004): Iron oxide chemistry – From molecular clusters to extended solid networks. – Chem. Commun., 0(5):481–483, 15 Abb.; doi:10.1039/B304532N.
• Jolley, S. J., Freeman, S. R., Barnicoat, A. C., Phillips, G. M., Knipe, R. J., Pather, A., Fox, N. P. C., Strydom, D., Birch, M. T. G., Henderson, I. H. C. & Rowland, T. W. (2004): Structural controls on Witwatersrand gold mineralisation. – J. Struct. Geol., 26(6):1067–1086, doi:10.1016/j.jsg.2003.11.011.
• Jonecko, A. (1996): Der Oberschlesier Gustav Giemsa (1867-1948), seine universelle mikroskopische Färbemethode und seine tropenmedizinischen sowie chemotherapeutischen Verdienste. – Archiwum historii i filozofii medycyny (Arch. hist. filoz. med.), 59(1):31–40.
• Jones, A., Rogerson, M., Greenway, G. & Mayes, W. M. (2013): Controls on zinc uptake from circum-neutral mine drainage in freshwater biofilms. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 383–389, 3 Abb., 1 Tab.; Golden (International Mine Water Association).
• Jones, A., Rogerson, M., Greenway, G. & Mayes, W. M. (2015): Zinc Uptake from Circumneutral Mine Drainage in Freshwater Biofilms: New Insights from In Vitro Experiments. – Mine Water Environ., 34(3):295–307, doi:10.1007/s10230-015-0325-9.
• Jones, A., Rogerson, M., Greenway, G., Potter, H. A. B. & Mayes, W. M. (2013): Mine water geochemistry and metal flux in a major historic Pb-Zn-F orefield, the Yorkshire Pennines, UK. – Environ. Sci. Pollut. Res., 20(11):7570–7581, doi:10.1007/s11356-013-1513-4.
• Jones, A. N. & Howells, W. R. (1975): The partial recovery of the metal polluted River Rheidol. – In: Chadwick, M. J. & Goodman, G. T. (eds): The Ecology of Resource Degradation and Renewal. – p. 443–459, 4 Abb., 6 Tab.; Oxford (Blackwell).
• Jones, A. P. (2002): Komatiites: new information on the type locality (Barberton), and some new ideas. – Geol. Today 18(1):23–25, 3 Abb.; doi:10.1046/j.1365-2451.2002.00325.x.
• Jones, C. I. & Silva, M. F. (1990): The Treatment and Removal of Mine Water at Neves Corvo Mine. – Int. J. Mine Water, 9(1-4):165–178, 4 Abb., 4 Tab.
• Jones, D. (2012): Water in mining challenges for the Australian and international mining industry: International Mine Water Association Symposium. – 10 A–10 I p., Bunbury (Edith Cowan University).
• Jones, D., Ferguson, P. & Hartnett, J. (2020): Characterisation of Secondary Minerals to Minimise Post Rehabilitation Downstream Water Quality Issues at Legacy Mine Sites. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 38–42; (International Mine Water Association).
• Jones, D., Humphrey, C., Iles, M. & van Dam, R. (2008): Deriving Surface Water Quality Closure Criteria – an Australian Uranium Mine Case Study. – Proceedings, 10th International Mine Water Association Congress:209–212.
• Jones, D., Jung, R. & Chapman, B. (2015): Removal of Metals from pH Circum-Neutral Mine Water by Biologically-Induced Diurnal pH Cycling. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Jones, D. R. & Chapman, B. M. (1995): Wetlands to Treat AMD – Facts and Fallacies. – 127–145 p., 1 Abb., 4 Tab.; (Second Australian Acid Mine Drainage Workshop).
• Jones, D. R., Humphrey, C., Dam, R. v., Harford, A., Turner, K. & Bollhöfer, A. (2009): Integrated Chemical, Radiological and Biological Monitoring for an Australian Uranium Mine – A Best Practice Case Study. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 95–104, 6 Abb; Pretoria (Document Transformation Technologies).
• Jones, D. S., Kohl, C., Grettenberger, C., Larson, L. N., Burgos, W. D. & Macalady, J. L. (2015): Geochemical Niches of Iron-Oxidizing Acidophiles in Acidic Coal Mine Drainage. – Applied and Environmental Microbiology, 81(4):1242–1250, doi:10.1128/aem.02919-14.
• Jones, H. (1988): Hydrological Prediction and Problems in Mine Planning – General Report. – Proceedings, 3rd International Mine Water Congress, Melbourne:271–280.
• Jones, J. B. & Ruggeri, S. (1969): Abatement of Pollution from Abandoned Coal Mines by Means of In-Situ Precipitation Techniques. – Am. Chem. Soc., Div. Fuel Chem., Prepr., 13(2):116–119.
• Jones, M. M., McKnight, D. M. & Runkel, R. L. (2023): To Remediate or Not? Source Identification in an Acid Mine Drainage Stream, Warden Gulch, Colorado. – Mine Water Environ., 42(3):383–398, doi:10.1007/s10230-023-00948-0.
• Jones, O. T. (1922): Lead and Zinc – The Mining District of North Cardiganshire and West Montgomeryshire: Memoirs of the Geological Survey – Special Reports on the Mineral Resources of Great Britain 20. – 207 p., 28 Taf.; London (Geological Survey).
• Jones, O. T. & Pugh, W. J. (1935): The geology of the districts around Machynlleth and Aberystwyth. – Proceedings of the Geologists’ Association, 46(3):247–IN2, doi:10.1016/S0016-7878(35)80001-1.
• Jones, W. K. (1984): Analysis and Interpretation of Data from Tracer Tests in Karst Areas. – Natl. Speleol. Soc. Bull., 46(2):41–47, 9 Abb., 1 Tab.
• Jones, W. K. (1984): Dye Tracer Tests in Karst Areas. – Natl. Speleol. Soc. Bull., 46(2):3–9, 4 Abb., 2 Tab.
• Jordan, G., D’Alessandro, M., Hamor, T., Liedekerke, M. V., Panagos, P., Puura, E., Sommer, S. & Vijdea, A.-M. (2004): Mining, mining waste and related environmental issues: problems and solutions in Central and Eastern European Candidate Countries: EUR 20868 EN. – 207 p., Ispra (Joint Research Centre of the European Commission).
• Jordan, H. (1987): The Contribution of Isotope-Hydrogeological Investigations to Mining safety: Hydrogeology of Coal Basins. – 99–104 p., 3 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Jordan, I. & Welsing, R. (2017): Einstellung der Grubenwasserhaltung nach Beendigung der Steinkohlengewinnung – Bergrechtliche Betrachtung. – Z. Bergr., 158:121–141.
• Jordan, I. & Welsing, R. (2017): Einstellung der Grubenwasserhaltung nach Beendigung der Steinkohlengewinnung – Wasserrechtliche Betrachtung. – Z. Wassserr., 56(3):231–248.
• Joshi, P. K. & Punia, A. (2019): Thermal Infrared Imaging to Identify Surface Mines. – Mine Water Environ., 38(3):700–704, doi:10.1007/s10230-019-00631-3.
• Joubert, M. & Guenther, L. (2017): In the footsteps of Einstein, Sagan and Barnard: Identifying South Africa’s most visible scientists. – S. Afr. J. Sci., 113(11/12) doi:10.17159/sajs.2017/20170033.
• Jourdan, P. (1990): The Minerals Industry of Swaziland. – IMR Open Rep. Inst. Min. Res., 104:1–8, 2 Abb., 4 Tab.
• Jovanovic, N., Annandale, J. G., Van Der Westhuizen, A. M. & Steyn, J. M. (2004): Monitoring the Effect of Irrigation with Gypsiferous mine Wastewater on crop Production Potential as Affected by soil Water and salt Balance. – J. S. Afr. Inst. Min. Metall., 104(2):73–81.
• Jovanovic, N. Z., Annandale, J. G., Claassens, A. S., Lorentz, S. A. & Tanner, P. D. (2001): Modeling irrigation with gypsiferous Mine Water – a case study in Botswana. – Mine Water Environ., 20(2):65–72, 2 Abb., 4 Tab.; doi:10.1007/s10230-001-8084-1.
• Jovanovic, N. Z., Annandale, J. G., Claassens, A. S., Lorentz, S. A., Tanner, P. D., Aken, M. E. & Hodgson, F. D. I. (2002): Commercial production of crops irrigated with gypsiferous mine water. – Water SA, 28(4):413–421.
• Jovanovski, M., Gapkovski, N., Mansiev, J. & Martinovic, A. (1997): Methodology an Results from Investigation of Groundwater Conditions on the N.E Part of Coal Mine “Suvodol” – R. Macedonia. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:293–306, 10 Abb., 1 Tab.
• Joyce, K. E., Anderson, K. & Bartolo, R. E. (2021): Of Course We Fly Unmanned—We’re Women! – Drones, 5(1) doi:10.3390/drones5010021.
• Juby, G. J. G. (1992): Membrane desalination of service water from gold mines. – J. S. Afr. Inst. Min. Metall., 92(3):65–69, 4 Tab.
• Juby, G. J. G., Harries, R. C. & Greig, J. D. (1985): Improving the Quality of Mine Service Waters in Goldmines in South Africa. – Proceedings, 2nd International Mine Water Association Congress, 1:353–363, 5 Abb., 1 Tab.
• Juby, G. J. G. & Pulles, W. (1990): Evaluation of Electrodialysis Reversal for the Desalination of Brackish Mine Service Water, 179/1/90. – (Report Nr. 0 947447 94 6). – 54 p., 12 Abb., 15 Tab.; Pretoria (Water Research Commission).
• Juby, G. J. G. & Schutte, C. F. (2000): Membrane life in a seeded-slurry reverse osmosis system. – Water SA, 26(2):239–248, 6 Abb., 5 Tab.
• Juby, G. J. G., Schutte, C. F. & van Leeuwen, J. (1996): Desalination of calcium sulphate scaling mine water: Design and operation of the SPARRO process. – Water SA, 22(2):161–172, 6 Abb., 8 Tab.
• Judell, T. L. & Anderson, J. D. C. (1988): Investigation into the Predictability of Volumes and Characteristics of Mine Waters in Coal Seams of the Sydney Basin. – Proceedings, 3rd International Mine Water Congress, Melbourne:319–333, 2 Abb., 4 Tab.
• Juei Shen, W., Hong Nong, C., Fan, J.-J. & Chen, C.-M. (1998): Uptake and transfer of high PCB concentrations from phytoplankton to aquatic biota. – Chemosphere, 36(6):1201–1210, doi:10.1016/S0045-6535(97)83101-3.
• Juhász, J. & Savanyu, K. (1982): Roof Water Control in extremely Streamful High Roofs. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:477–500, 6 Abb., 4 Tab.
• Juholin, P., Haanpää, K.-M., Laurila, T., Anttila, E.-L. & Picken, P. (2023): Minimizing Xanthate Impacts on Watercourses in Cold Climate – Review on Available and Potential Approaches. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 270–275; (International Mine Water Association).
• Juholin, P., Haanpää, K.-M., Torresi, E. & Morgan-Sagastume, F. (2021): Enhancing Biological Nitrogen Removal from Mine Site Water in Cold Climate. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 218–223; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Jun, M., Wei, L., Yingjie, Z. & Chunjuan, L. (2008): Enhanced Removal of Cadmium and Lead from Water by Ferrate Preoxidation in the Process of Coagulation. – In: Virender, K. S. (ed) Ferrates – Synthesis, Properties, and Applications in Water and Wastewater Treatment 985. – p. 456–465, (American Chemical Society); doi:10.1021/bk-2008-0985.ch029.
• Juncosa, R., Delgado, J., Cereijo, J. L. & Muñoz, A. (2019): Hydrochemical Evolution of the filling of the Mining Lake of As Pontes (Spain). – Mine Water Environ., 38(3):556–565, doi:10.1007/s10230-019-00612-6.
• Juncosa, R., Delgado, J., Padilla, F., Rdgz-Vellando, P. & Hernández, H. (2016): Improvements in Mero River Basin Water Supply Regulation Through Integration of a Mining Pit Lake as a Water Supply Source. – Mine Water Environ., 35(3):389–397, doi:10.1007/s10230-015-0378-9.
• Jung, H. G. (2002): Sekundäre Prozesse in Bergbauhalden und Aufbereitungsabgängen. – 202 p., 148 Abb., 25 Tab., 18 Anh.; Hannover (Bundesanstalt für Geowissenschaften und Rohstoffe).
• Jung, M. C., Thornton, I. & Chon, H. T. (2002): Arsenic, Sb and Bi contamination of soils, plants, waters and sediments in the vicinity of the Dalsung Cu-W mine in Korea. – Sci. Total Environ., 295(1-3):81–89, 2 Abb., 4 Tab.
• Junge, F. & Schultze, M. (2016): Open cast mines as river sediment and pollutant sinks. The example Mulde Reservoir (East Germany). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 159–166, Freiberg (TU Bergakademie Freiberg).
• Junghans, M. & Tichomirowa, M. (2003): Hydrochemische und isotopengeochemische (S, O) Veränderungen von Grubenwasser auf einem vertikalen Fließwe. – Wiss. Mitt. Inst. Geol., 24:49–55, 4 Abb., 1 Tab.
• Junghans, M. & Tichomirowa, M. (2009): Using sulfur and oxygen isotope data for sulfide oxidation assessment in the Freiberg polymetallic sulfide mine. – Appl. Geochem., 24(11):2034–2050, 10 Abb., 12 Tab.; doi:10.1016/j.apgeochem.2009.08.001.
• Junghans, U., Arndt, O., Kaden, S., Schätzl, P., Thilo, F. & Gaedeke, A. (2010): Results and experiences using grid-based optimization in groundwater management. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 81–85, Sydney, NS (Cape Breton University Press).
• Jung-Hüttl, A. (2006): Treibhausgas ins Kraftwerk. – Süddeutsche Zeitung, 29.06.2006.
• Jungreis, E. (1981): A simple Microdetermination of Polymer Flocculants (Polyacrylamides and Guar) in Mine Water. – Anal. Lett., 14(A14):1177–1183, 3 Tab.
• Junkersdorf, J. (2007): Wirtschaftlichkeitsabschätzung der Erdwärmenutzung in Oberbayern. – 135 p., unveröff. Diplomarbeit, Universität der Bundeswehr München, 72 Abb., 24 Tab.; München.
• Junqua, G., Baurès, E., Hélias, E. & Thomas, O. (2009): Use of Screening Methods in US Water Regulation. – In: Gonzalez, C., Greenwood, R. & Quevauviller, P. (eds): Rapid Chemical and Biological Techniques for Water Monitoring. – p. 15–37, 10 Abb., 1 Tab.; Chichester (Wiley & Sons).
• Jurado-Sanchez, B., Sattayasamitsathit, S., Gao, W., Santos, L., Fedorak, Y., Singh, V. V., Orozco, J., Galarnyk, M. & Wang, J. (2015): Self-Propelled Activated Carbon Janus Micromotors for Efficient Water Purification. – Small, 11(4):499–506, doi:10.1002/smll.201402215.
• Jurjovec, J., Blowes, D. W. & Ptacek, C. J. (1995): Acid Neutralization in Mill Tailings and the Effect of Natrojarosite Addition. Paper presented at the Sudbury ’95 – Mining and the Environment. – p. 29–38, 5 Abb., 1 Tab.
• Juvanc, A. (1996): Highways and Railways in Karst: Engineering in Karst. – 17 p., 14 Abb.; Portoroz (Proceedings International Mine Water Association Workshop).
• Jwair, R., Tischler, J. S., Janneck, E. & Schlömann, M. (2016): Acid Mine Water Treatment Using Novel Acidophilic Iron-Oxidizing Bacteria of the Genus “Ferrovum”: Effect of Oxygen and Carbon Dioxide on Survival. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1060–1063, Freiberg (TU Bergakademie Freiberg).
• K.K. Statistische Zentralkommission (1852): Tirol – Berghauptmannschaft Hall. – Mittheilungen aus dem Gebiete der Statistik, 18(2):147.
• Kaaden, G. v. d. (1959): Age Relations of Magmatic Activity and of Metamorphic Processes in the Northwestern Part of Anatolia – Turkey. – Bulletin of the Mineral Research and Exploration Institute of Turkey, 52:15–33, 4 Abb., 2 Taf.
• Kaartinen, T., Arnold, M. & Kangas, P. (2017): Valorisation of Separated Solids from Mine Water Treatment. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 55–63, Lappeenranta (Lappeenranta University of Technology).
• Kaartinen, T., Laine-Ylijoki, J., Ahoranta, S., Korhonen, T. & Neitola, R. (2017): Arsenic Removal from Mine Waters with Sorption Techniques. – Mine Water Environ., 36(2):199–208, doi:10.1007/s10230-017-0450-8.
• Kaasa, B. & Ostvold, T. (1997): Alkalinity in Oil Field Waters – What Alkalinity is and how it is Measured. – SPE International Symposium on Oil Field Chemistry, SPE 37277:657–660, 4 Abb.
• Kabisch, S. & Linke, S. (2000): Revitalisierung von Gemeinden in der Bergbaufolgelandschaft: Forschung Soziologie 97. – 298 p., Wiesbaden (VS Verlag für Sozialwissenschaften); doi:10.1007/978-3-663-11305-8.
• Kabongo, J. D. (2013): Waste Valorization. – In: Idowu, S. O., Capaldi, N., Zu, L. & Gupta, A. D. (eds): Encyclopedia of Corporate Social Responsibility. – p. 2701–2706, Berlin, Heidelberg (Springer Berlin Heidelberg); doi:10.1007/978-3-642-28036-8_680.
• Kachienga, L. & Momba, M. N. B. (2014): Biodegradation of Hydrocarbon Chains of Crude Oil By-products by Selected Protozoan Isolates in Polluted Wastewaters. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 743–756, Xuzhou (International Mine Water Association).
• Kadebskaya, O. I., Dublyansky, Y. & Kadebskaya, L. (2019): The Isotopic Composition of Hydrothermal Waters and Carbonate Deposits in the Adits of the Baksan Neutrino Observatory. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 625–628; Perm, Russia (Perm State University).
• Kaden, S. (1997): Water Resources Modeling for Decision Support in Open-pit Lignite Mining Areas. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:385–395, 6 Abb., 2 Tab.
• Kaden, S., Luckner, L., Peukert, D. & Tiemer, K. (1985): Decision support model system for the analysis of regional water policies in an open-pit lignite mining area of the gd. – Proceedings, 2nd International Mine Water Association Congress, 1:503–514.
• Kaden, S., Luckner, L., Peukert, D. & Tiemer, K. (1985): Decision Support Model Systems for Regional Water Policies in Open-Pit Lignite Mining Areas. – Int. J. Mine Water, 4(1):1–16, 4 Abb.
• Kaden, S. & Schramm, M. (2000): Control model Spree/Schwarze Elster – a tool to optimise rehabilitation of water resources in the Lusatian mining district. – Landsc. Urban Plan., 51(2-4):101–108, 3 Abb., 2 Tab.
• Kadir, S. & Akbulut, A. (2001): Occurrence of sepiolite in the Hirsizdere sedimentary magnesite deposit, Bozkurt-Denizli, SW Turkey. – Carbonate Evaporite, 16(1):17–25.
• Kadlec, R. H. (1994): Detention and Mixing in Free-water Wetlands. – Ecol. Eng., 3(4):345–380, 19 Abb., 5 Tab.; doi:10.1016/0925-8574(94)00007-7.
• Kadlec, R. H. (2000): The inadequacy of first-order treatment wetland models. – Ecol. Eng., 15(1–2):105–119, doi:10.1016/S0925-8574(99)00039-7.
• Kadlec, R. H. (2003): Effects of Pollutant Speciation in Treatment Wetlands Design. – Ecol. Eng., 20(1):1–16.
• Kadlec, R. H. & Robbins, J. A. (1984): Sedimentation and sediment accretion in Michigan coastal wetlands (U.S.A.). – Chem. Geol., 44:119–150, 18 Abb., 14 Tab.
• Kadlec, R. H. & Wallace, S. D. (2009): Treatment Wetlands, 2nd edn. – 1016 p., Boca Raton (Taylor & Francis); doi:10.1201/9781420012514.
• Kadler, A. (2002): Nutzungskonzepte für Bergbaufolgelandschaften – Planungsaufgaben und Einsatz von Geographischen Informationssystemen. – Zeitschrift für Angewandte Geographie, 26(2):70–75, doi:10.1007/s00548-002-0063-7.
• Kadlícek, T. & Mašín, D. (2023): Surface layer method for analysis of slope stability using finite elements. – Comput. Geotech., 164:105799, doi:10.1016/j.compgeo.2023.105799.
• Kahl, S. & Komischke, H. (2004): Hydrodynamische und hydrogeochemische Untersuchungen im gefluteten Bereich des Besucherbergwerks Felsendome Rabenstein. – 37 p., 20 Abb., 1 Tab., 1 Anl.; Freiberg (Unveröff. Studienarbeit TU Bergakademie Freiberg).
• Kahmann, H.-J. & Heinrich, K. (1998): Zur Sauerwasserproblematik bei der Verwahrung der Südharzer Flußspatgrube Straßberg [Vortragsmanuskript]. – Proceedings, Deutsche Rohstoff- und Metalltage 1998:56, 16 Abb.
• Kahnt, R. & Lochmann, K. (2004): Datenbank-gekoppelte räumliche Interpolation. – Wiss. Mitt. Inst. Geol., 25:39–41, 5 Abb.
• Kahnt, R. & Lochmann, K. (2005): Der Surfer auf dem Server: Freie Interpolation von GIS-Attributen im IE. – Wiss. Mitt. Inst. Geol., 28:117.
• Kahnt, R., Schlegel, M., Helbig, M. & Unland, W. (2017): Überprüfung der Aussagen zur Entwicklung der Mineralisation der Grubenwässer im Zuge des Grubenwasseranstieges im nordrheinwestfälischen Steinkohlerevier im Bereich des ehemaligen Bergwerks Ost. – Unpubl. Report for Land Nordrhein-Westfalen Ministerium für Klimaschutz, U., Landwirtschaft, Natur- und Verbraucherschutz (Report Nr. 30160162). – 91 p., Freiberg (G.E.O.S. Ingenieurgesellschaft mbH).
• Kairies, C. L., Capo, R. C. & Watzlaf, G. R. (2005): Chemical and physical properties of iron hydroxide precipitates associated with passively treated coal mine drainage in the Bituminous Region of Pennsylvania and Maryland. – Appl. Geochem., 20(8):1445–1460, doi:10.1016/j.apgeochem.2005.04.009.
• Kaiser, R. M. (1995): Dipressurization Systems: Design, Construction, and Cost Considerations to Prevent Floor Heave: Water resources at risk. – IMWA.44–52 p., 3 Abb.; Denver (American Institute of Hydrology).
• Kaksonen, A. H. & Puhakka, J. A. (2007): Sulfate Reduction Based Bioprocesses for the Treatment of Acid Mine Drainage and the Recovery of Metals. – Eng. Life Sci., 7(6):541–546, 6 Abb., 5 Tab.; doi:10.1002/elsc.200720216.
• Kaksonen, A. H. & Şahinkaya, E. (2012): Review of sulfate reduction based bioprocesses for acid mine drainage treatment and metals recovery. – In: McCullough, C. D., Lund, M. A. & Wyse, L. (eds): International Mine Water Association Symposium. – p. 207–214, 3 Abb., 1 Tab.; Bunbury (Edith Cowan University).
• Kaláb, Z., Hrubešová, E., Knejzlík, J., Koínek, R., Kukutsch, R., Lednická, M. & Žrek, P. (2008): Mine Water Movement in Shallow Medieval Mine Jeroným (Czech Republic). – Proceedings, 10th International Mine Water Association Congress:19–22.
• Kalafatçioglu, A. (1963): Geology Around Ezine and Bozcaada – The Age of the Limestones and Serpentines. – Bulletin of the Mineral Research and Exploration Institute of Turkey, 60:61–70, 5 Abb.
• Kalayev, V. A. y., Kamentsev, A. V. & Kozlov, V. M. (2006): Sposob ochistki shakhtnykh vod ot vrednykh primesey [Methoden um Grubenwasser von Verunreinigungen zu befreien]. – Ugol [Kohle]:57–59, 2 Abb., 4 Tab.
• Kale, S., Ejder, T., Hisar, O. & Mutlu, F. (2016): Climate Change Impacts On Streamflow of Karamenderes River (Çanakkale, Turkey). – Mar. Sci. Technol. Bull., 5(2):1–6.
• Kalf, F. R. P. & Dudgeon, C. R. (2000): Contaminant transport from proposed Jabilika mine uranium tailings paste repositories – model analysis. – Proceedings, 7th International Mine Water Association Congress:115–126, 6 Abb., 1 Tab.
• Kaliampakos, D., Mavropoulos, A. & Prousiotis, I. (2003): Abandoned mines as hazardous waste repositories in Europe. – 924–934 p., 5 Abb., 3 Tab.; Philadelphia (Proceedings 18th International Conference on Solid Waste Technology and Management).
• Kalilo, G. & Nkandu, C. (1993): The Law on the Environment and Inspection. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 313–320, 1 Tab.; Chililabombwe (Konkola Division).
• Kalin, M. (1992): Decommissioning Open Pits with Ecological Engineering. – Proceedings, 16th Annual British Columbia Mine Reclamation Symposium:239–246, 6 Abb., 2 Tab.
• Kalin, M. (1993): The Application of Ecological Engineering to Selminco Summit. – Unpubl. Report for G. Landry 68 p., Sydney (Boojum Research Limited).
• Kalin, M. (2004): Passive mine water treatment – The correct approach. – Wiss. Mitt. Inst. Geol., 25:107–112.
• Kalin, M. (2004): Passive mine water treatment: the correct approach? – Ecol. Eng., 22:299–304, doi:10.1016/j.ecoleng.2004.06.008.
• Kalin, M. (2004): Slow progress in controlling acid mine drainage (AMD): A perspective and a new approach. – Peckiana, 3:101–112, 2 Abb., 2 Tab.
• Kalin, M. & Caetano Chaves, W. L. (2003): Acid reduction using microbiology – treating AMD effluent emerging from an abandoned mine portal. – Hydrometallurgy, 71(1):217–225, doi:10.1016/S0304-386X(03)00159-2.
• Kalin, M., Fyson, A. & Meinrath, G. (2005): Observations on the groundwater chemistry in and below a pyretic tailings pile and microbiology: Mine Water 2005 – Mine Closure. – 29–35 p., 4 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Kalin, M., Fyson, A. & Smith, M. P. (1993): ARUM – Acid Reduction Using Microbiology. Paper presented at the Fossil Energy Materials Bioremediation, Microbial Physiology, Jackson Hole, August 22–25, 1993. – p. 319–328.
• Kalin, M., Fyson, A. & Wheeler, W. N. (2006): The chemistry of conventional and alternative treatment systems for the neutralization of acid mine drainage. – Sci. Total Environ., 366:395–408, 4 Abb.; doi:10.1016/j.scitotenv.2005.11.015.
• Kalin, M., Paulo, C. & Sleep, B. (2010): Proactive Prevention of Acid Generation: Reduction/Inhibition of Sulphide Oxidation. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 479–483, Sydney, NS (Cape Breton University Press).
• Kalin, M. & Smith, M. P. (1991): Biological Amelioration of Acidic Seepage Streams. Kamloops. – p. 351–362, 7 Abb., 1 Tab.; (Proceedings of the 15th Annual British Columbia Mine Reclamation Symposium).
• Kalin, M., Smith, M. P. & Landry, G. (1994): The Application of Ecological Engineering to Acid Coal Seepages in Eastern Canada. Paper presented at the International Land Reclamation and Mine Drainage Conference, Pittsburgh. – p. 296–302, 8 Abb., 1 Tab.
• Kalin, M. & Wheeler, W. N. (1992): Periphyton Growth and Zinc Sequestration. – Proceedings, 9th Annual General Meeting of BIOMINET:49–64, 7 Abb., 4 Tab.
• Kalin, M., Wheeler, W. N. & Olaveson, M. M. (2006): Response of phytoplankton to ecological engineering remediation of a Canadian Shield Lake affected by acid mine drainage. – Ecol. Eng., 28(3):296–310, 7 Abb., 4 Tab.; doi:10.1016/j.ecoleng.2006.08.010.
• Kalin, M., Wheeler, W. N., Sudbury, M. P. & Harris, B. (2018): Mining, Ecological Engineering, and Metals Extraction for the 21st Century. In: Shugart, H. H. (ed) Oxford Research Encyclopedia of Environmental Science. Oxford University Press, Oxford.
• Kalin-Seidenfaden, M. & Wheeler, W. N. (2022): Mine Wastes and Water, Ecological Engineering and Metals Extraction – Sustainability and Circular Economy. – 154 p., 65 Abb., 16 Tab.; Cham (Springer); doi:10.1007/978-3-030-84651-0.
• Kalka, H. (2018): aquaC – aquatische Chemie. – 93 p., 44 Abb., 9 Tab.; Dresden (UIT Report).
• Kalka, H., Märten, H. & Kahnt, R. (2005): Dynamical Models for Uranium Leaching – Production and Remediation Cases. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment. – p. 235–245, 7 Abb.; Heidelberg (Springer).
• Kalka, H., Märten, H. & Münze, R. (2002): Flooding and Post-flooding Scenarios – Dynamics and Geochemistry. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1037–1044, 7 Abb.; Heidelberg (Springer).
• Kallis, P., Bleich, K. E. & Stahr, K. (2000): Micromorphological and geochemical characterization of Tertiary ‘freshwater carbonates’ locally preserved north of the edge of the Miocene Molasse Basin (SW Germany). – Catena, 41:19–42, 10 Abb., 3 Tab.
• Kalous, J. & SEPARA-EKO spol. s. r.o. (2004): Výsledky zonálního monitoringu na lokalitě Příbram – jáma 19 – Závěrečná zpráva [Results of the zonal monitoring at the locality of Příbram – Pit 19 – Final Report]. – (Report Nr. EK-534 Výtisk č. 1). – 4 p., Brno (SEPARA-EKO spol. sr.o.).
• Kaltenborn, K. F. & Kuhn, K. (2003): Der Impact-Faktor als Parameter zur Evaluation von Forscherinnen/Forschern und Forschung. – Med. Klin., 98(3):153–169.
• Kamal, M. A. (2006): Phytoaccumulation of Heavy Metals by Aquatic Plants. – 546 p., Halifax (unpubl. PhD Thesis Dalhousy University).
• Kamel, E. M. (2012): Simultaneous Removal of Iron and Manganese from Ground Water by Combined Photo-Electrochemical Method. – Int. J. Chem., 1(1):1–12, 8 Abb.
• Kamguia, J., Foyang, L., Kande, H.-L., Tongo, L.-E., Gattacceca, T. & Tadjou, J.-M. (2016): Transformation des coordonnées relevées sur la carte topographique ancienne en coordonnées géodésiques RGC11 au Cameroun. – Revue XYZ, 147(2):39–48.
• Kamika, I. & Momba, M. (2013): Bioremediation of V5+ and Ni²⁺ by indigenous Marinobacter Goseongensis isolated from South African Vanadium Mine Waste. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 613–617, 2 Abb., 2 Tab.; Golden (International Mine Water Association).
• Kamika, I. & Momba, M. (2013): Effect of nickel to nutrient removal by selected indigenous protozoan species in wastewater systems. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 619–624, 3 Abb., 3 Tab.; Golden (International Mine Water Association).
• Kamika, I. & Momba, M. N. B. (2014): Microbial Diversity of Emalahleni Mine Water in South Africa and Tolerance Ability of the Predominant Organism to Vanadium and Nickel. – PloS one, 9(1):e86189.1–13, doi:10.1371/journal.pone.0086189.
• Kamkar-Rouhani, A. (2007): 2D Modelling of Groundwater Flow using Finite Element Method in an object-oriented Approach: Water in Mining Environments. – 337–341 p., 5 Abb.; Cagliari (Mako Edizioni).
• Kamkar-Rouhani, A. (2008): A Finite Difference Groundwater Modelling and Comparison of the Results with Those Obtained Using Finite element modelling approach. – Proceedings, 10th International Mine Water Association Congress:449–452.
• Kamkar-Rouhani, A. & Hojat, A. (2004): Determination of Groundwater and geological Factors using geoelectrical Methods to design a suitable Drainage System in Gol-e-Gohar Iron Ore Mine, Iran. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 219–224, 5 Abb.; Newcastle upon Tyne (University of Newcastle).
• Kampire, E., Rubidge, G. & Adams, J. B. (2017): Characterization of polychlorinated biphenyls in surface sediments of the North End Lake, Port Elizabeth, South Africa. – Water SA, 43(4) doi:10.4314/wsa.v43i4.12.
• Kan, A. T. & Tomson, M. B. (1990): Ground water transport of hydrophobic organic compounds in the presence of dissolved organic matter. – Environ. Toxicol. Chem., 9(3):253–263, doi:10.1002/etc.5620090302.
• Kandji, E.-H., Plante, B., Bussière, B., Awoh, A.-S., Saïb, B.-A. I. & Dupont, P.-P. (2015): Prediction of Drainage Water Quality from Mining Waste with Carbon Sequestration Potential. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Kang, C. U., Jeon, B. H., Kumar, R., Park, S. S., Park, H. S. & Kim, S. J. (2017): Stability of Coatings on Sulfide Minerals in Acidic and Low-Temperature Environments. – Mine Water Environ., 36(3):436–442, doi:10.1007/s10230-017-0437-5.
• Kansy, M. (2000): In situ und on site Techniken zur Reduzierung des Schadstoffaustrages von Erzbergwerken. – 125 p., 66 Abb., 6 Tab.; Freiberg (Unveröff. Dipl.-Arb. TU Bergakademie Freiberg).
• Kant, H. (1986): Alfred Nobel: Biographien hervorragender Naturwissenschaftler, Techniker und Mediziner 63, 2 edn. – 128 p., Wiesbaden, (Springer); doi:10.1007/978-3-663-05886-1.
• Kappel, F. & Schroll, E. (1982): Ablauf und Bildungstemperatur der Blei-Zink-Vererzung von Bleiberg-Kreuth/Kärnten. – Carinthia II, 92:49–62, 4 Abb., 3 Tab.
• Kapusta, N. D., Mossaheb, N., Etzersdorfer, E., Hlavin, G., Thau, K., Willeit, M., Praschak-Rieder, N., Sonneck, G. & Leithner-Dziubas, K. (2011): Lithium in drinking water and suicide mortality. – The British Journal of Psychiatry, 198:346–350, 2 Abb., 2 Tab., 4 Anh.; doi:10.1192/bjp.bp.110.091041.
• Karadeniz, M. (2005): Asit Maden (Kaya) Drenajinda Aktif ve Pasif Çözüm Yöntemler. – Proceedings, Madencilik ve Çevre Sempozyumu:91–97, 2 Tab.
• Karafistan, A. & Gemikonakli, E. (2019): Contaminant Evaluation in Fish from the Mining-Impacted Morphou Bay, Cyprus, Using Statistical and Artificial Neural Network Analysis. – Mine Water Environ., 38(1):178–186, doi:10.1007/s10230-018-0559-4.
• Karakas, G., Brookland, I. & Boehrer, B. (2003): Physical characteristics of Acidic Mining Lake 111. – Aquat. Sci., 65(3):297–307, 11 Abb., 2 Tab.
• Karakas, Z. & Kadir, S. (1998): Mineralogical and genetic relationships between carbonate and sepiolite-palygorskite formations in the Neogene lacustrine Konya Basin, Turkey. – Carbonate Evaporite, 13(2):198–206.
• Karakatsanis, K. & Cogho, V. (2010): Drinking Water From Mine Water Using The Hipro® Process – Optimum Coal Mine Water Reclamation Plant. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 135–139, 1 Abb.; Sydney, NS (Cape Breton University Press).
• Karakaya, E. & Nuur, C. (2018): Social sciences and the mining sector: Some insights into recent research trends. – Resour. Policy, 58:257–267, doi:10.1016/j.resourpol.2018.05.014.
• Karamalidis, A. K. & Dzombak, D. A. (2010): Surface Complexation Modeling – Gibbsite. – 294 p., New York (Wiley).
• Karami, G. H. & Younger, P. L. (2002): Analysing step-drawdown tests in heterogeneous aquifers. – Q. J. Eng. Geol. Hydrogeol., 35:295–303, 6 Abb., 3 Tab.
• Karathanasis, A. D., Edwards, J. D. & Barton, C. D. (2010): Manganese and Sulfate Removal from a Synthetic Mine Drainage Through Pilot Scale Bioreactor Batch Experiments. – Mine Water Environ., 29(2):144–153, 5 Abb., 2 Tab.; doi:10.1007/s10230-009-0095-3.
• Karathanasis, A. D. & Johnson, C. M. (2003): Metal Removal Potential by Three Aquatic Plants in an Acid Mine Drainage Wetland. – Mine Water Environ., 22(1):22–30, 7 Abb., 1 Tab.
• Karavaeva, T., Ushakova, E. & Irina, S. (2019): Disposal Of Open-Pit And Wastewaters Of EVRAZ KGOK. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 297–300; Perm, Russia (Perm State University).
• Karickhoff, S., Brown, D. & Scott, T. (1979): Sorption of hydrophobic pollutants on natural sediments. – Water Res., 13(3):241–248, 5 Abb., 4 Tab.; doi:10.1016/0043-1354(79)90201-x.
• Karinen, T., Hanski, E. & Taipale, A. (2015): Chapter 3.5 – The Mustavaara Fe-Ti-V Oxide Deposit. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 179–194, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00007-8.
• Karl, J., Mangelsdorf, J. & Scheurmann, K. (1977): Die Isar – ein Gebirgsfluß im Spannungsfeld zwischen Natur und Zivilisation. – Jb. Verein Schutz Bergwelt, 42:175–224, 19 Abb., 2 Tab.
• Karlsch, R. (2005): Hitlers Bombe – Die geheime Geschichte der deutschen Kernwaffenversuche. – 415 p., 21 Abb.; München (Deutsche Verlags-Anstalt).
• Karlsson, L., Karlsson, S., Allard, B., Sjöberg, V. & Bäckström, M. (2013): Release of metals from unprocessed and processed black shale due to natural weathering. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 391–396, 2 Abb., 3 Tab.; Golden (International Mine Water Association).
• Karlsson, S., Allard, B. & Bäckström, M. (2010): Weathering mechanisms and composition of effluents from a sulphide mine waste deposit after covering – Twenty years of field data. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 359–363, Sydney, NS (Cape Breton University Press).
• Karlsson, S., Allard, B. & Håkansson, K. (1988): Characterization of suspended solids in a stream receiving acid mine effluents, Bersbo, Sweden. – Appl. Geochem., 3(3):345–356, doi:10.1016/0883-2927(88)90111-4.
• Karlsson, S., Karlsson, L., Allard, B., Sjöberg, V. & Bäckström, M. (2014): Water Quality in a Black Shale Mining Area – Effects of pH and Natural Organic Acids on Weathering and Subsequent Metal Releases. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 136, Xuzhou (International Mine Water Association).
• Karlsson, S. & Sjöberg, V. (2014): Analysis of Acid Rock Drainage (ARD) with Micro Plasma Atomic Emission Spectroscopy (MP AES) – Comparison with ICP-MS. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 131–135, Xuzhou (International Mine Water Association).
• Karlsson, S., Sjöberg, V., Grandin, A. & Allard, B. (2012): Revegetation of historic acidic mine waste with Agrostis capillaris – Impact on leachate composition in pot experiments: International Mine Water Association Symposium. – 489–498 p., Bunbury (Edith Cowan University).
• Karlsson, S., Sjöberg, V., Grandin, A. & Allard, B. (2012): Revegetation of historic acidic mine waste with Agrostis capillaris – Remediation strategy: International Mine Water Association Symposium. – 317–326 p., Bunbury (Edith Cowan University).
• Karlsson, S., Sjöberg, V., Grandin, A. & Allard, B. (2013): Leaching pattern of metals from historic sulphidic mine waste upon addition of bark compost. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 625–631, 3 Abb., 3 Tab.; Golden (International Mine Water Association).
• Karlsson, S., Sjöberg, V. & Grandin, A. M. (2011): Heterotrophic leaching of LD-slag – Formation of organic ligands: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 371–374 p., Aachen (RWTH Aachen University).
• Karlsson, S., Sjöberg, V., Ogar, A. & Bäckström, M. (2014): Leachability of Cu, Zn, As, Ba and Pb from Refuse in the Zelazny Most Tailings Dam. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 121–125, Xuzhou (International Mine Water Association).
• Karlsson, T., Alakangas, L., Kauppila, P. & Raisanen, M. L. (2021): A Test of Two Methods for Waste Rock Drainage Quality Prediction: Aqua Regia Extraction and Single-addition Net-acid Generation Test Leachate Analysis. – Mine Water Environ., 40(3):736–751, doi:10.1007/s10230-021-00784-0.
• Karlsson, T. & Kauppila, P. (2016): Waste rock characterisation versus the actual seepage water quality. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 405–409, Freiberg (TU Bergakademie Freiberg).
• Karlsson, T., Kauppila, P. & Lehtonen, M. (2017): Assessment of the Effects of Mine Closure Activities to Waste Rock Drainage Quality at the Hitura Ni-Cu mine, Finland. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 80–87, Lappeenranta (Lappeenranta University of Technology).
• Karlsson, T. & Kauppila, T. (2015): Release of Explosives Originated Nitrogen from the Waste Rocks of a Dimension Stone Quarry. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–8 [electronic document], Santiago/Chile (Gecamin).
• Karlsson, T. & Räisänen, M. L. (2011): Care of mine districts and the environment after closure of mines – Excursion guide, 18 – 20 August 2011. – Vuorimiesyhdistys – Finnish Association of Mining and Metallurgical Engineers, Serie B, 92-8:1–32, 20 Abb., 1 Tab.
• Karlsson, T. E., Muniruzzaman, M., Kauppila, P. M., Alakangas, L. & Lehtonen, M. (2021): The Importance of Adequate Waste Rock Characterization: A Case Study of Unsuccessful Drainage Quality Prediction. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 224–230; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Karlsson, T. E., Paalumäki, V.-P., Kauppila, T. & Hietaharju, E. (2023): Effect of a Till Cover in Harmful Element Reduction in Waste Rock Drainage. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 276–280; (International Mine Water Association).
• Karmakar, H. N. & Das, P. K. (1991): Impact of Mining on Ground and Surface Waters. – Proceedings, 4th International Mine Water Association Congress, 1:187–198, 7 Tab.
• Karp, K. E. & Metzler, D. R. (2005): Moab, Utah, UMTRA Site: The last large uranium mill tailings pile to be cleaned up in the United States. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 671–682, Heidelberg (Springer).
• Karrenberg, H. (1981): Hydrogeologie der nichtverkarstungsfähigen Festgesteine. – 284 p., 83 Abb.; Wien (Springer); doi:10.1007/978-3-7091-7037-3.
• Karrenberg, H., Nieder, R. & Quitzow, E. (1964): Hydrogeologie des linksrheinischen Braunkohlegebietes. – Z. dt. geol. Ges., 116(1):33–37, 2 Abb.
• Kasaoka, S. & Sakata, Y. (1984): Fundamental Study on Development of Catalytic Coal Gasification Process. – 239–248 p., Spey.
• Kasaoka, S., Sakata, Y., Kayano, S. & Masuoka, Y. (1983): The development of rate expressions and the evaluation of reactivity for gasification of various coal chars with steam and oxygen. – Int. Chem. Eng., 23(3):477–485.
• Kasedde, H., Bäbler, M., Kirabira, J. B., Tilliander, A. & Jonsson, S. (2013): Mineral recovery from Lake Katwe brines using isothermal evaporation. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 855–860, 3 Abb., 2 Tab.; Golden (International Mine Water Association).
• Kashkovsky, G. N. (1985): Prediction of fissure-karst water inflows into mines by simulation. – Proceedings, 2nd International Mine Water Association Congress, 1:515–521.
• Kašiarova, E. & Sikorová, E. (1997): Die künstlerische Gestaltung der im Staatlichen Zentralbergbauarchiv in Schemnitz aufbewahrten Bergkarten vom 17. bis zum 19. Jahrhundert. – 8. Erbe-Symposium, 41:121–128, 8 Abb.
• Kasone, J. M. (1993): Some Highlights on the Water Quality of Kafue River on the Copperbelt. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 425–442, 3 Abb., 16 Tab.; Chililabombwe (Konkola Division).
• Kasper, K. & Pernicka, E. (2003): Neutronenaktivierungsanalyse zur Herkunftsbestimmung archäologischer Obsidianartefakte. – Wiss. Mitt. Inst. Geol., 24:57–58.
• Kasper, M. (2006): Das älteste Steuerbuch des Montafons aus dem Jahr 1645 – Eine Untersuchung zur Sozialgeschichte des Montafons in der Frühen Neuzeit. – 124 p., 48 Abb., 4 Tab.; Innsbruck (unveröff. Dipl.-Arb. Universität Innsbruck).
• Käß, W. (1982): Floureszierende Sporen als Markierungsmittel. – Beitr. Geol. Schweiz – Hydrol., 28(I):131–134, 1 Fig.
• Käß, W. (1982): Routinemäßige Bestimmung von zwei Fluoreszentracern nebeneinander. – Beitr. Geol. Schweiz – Hydrol., 28(I):51–62, 7 Abb., 4 Tab.
• Käß, W. (1994): Hydrologic tracing practice on underground contaminations. – Environ. Geol., 23:23–29.
• Käß, W. (1998): Tracing Technique in Geohydrology. – 581 p., 270 Abb., 40 Tab., 8 Plat.; Rotterdam (Balkema); doi:10.1201/9780203735282.
• Kassahun, A., Jenk, U. & Paul, M. (2015): Investigation of Microbial In-Situ Remediation of Uranium Mine Site Pollutants in the Flooded Mine Königstein. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Kassahun, A., Laubrich, J. & Paul, M. (2016): Feasibility study on seepage water treatment at a uranium TMF site by ion exchange and ferric hydroxide adsorption. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 858, Freiberg (TU Bergakademie Freiberg).
• Kassahun, A. & Paul, M. (2018): Mine Water Tracer Substances for Biogeochemical Processes in Flooded Uranium Mines. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 635–640; (Tshwane University of Technology).
• Kassai, F. & Benke, I. (1982): Sealing Water Inflows and Solidification of Rocks by a chemical Agent. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:290–309, 8 Abb.
• Kassebaum, C. (2006): Exploration von Trinkwasser aus geklüftetem Hauptdolomit in den Nördlichen Kalkalpen – Rottach-Egern/Kreuth (Lkr. Miesbach, Bayern) und Reit im Winkl (Lkr. Traunstein, Bayern). – 118 p., 30 Abb., 19 Tab., 14 Anl.
• Kassegne, A. B., Okonkwo, J. O., Berhanu, T., Daso, A. P., Olukunle, O. I. & Asfaw, S. L. (2020): Ecological risk assessment of organochlorine pesticides and polychlorinated biphenyls in water and surface sediment samples from Akaki River catchment, central Ethiopia. – Emerging Contaminants, 6:396–404, doi:10.1016/j.emcon.2020.11.004.
• Katayama, T., Watanabe, M., Miyata, N., Komura, Y., Tum, S. & Yasutaka, T. (2025): Manganese(II) removal bioreactor system of mine drainage is dominated by chemolithotrophic manganese oxidizing microorganisms. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 295–300; Braga (International Mine Water Association).
• Kater, M. (1998): GOCAD-3D-gestützte Bilanzierung und Interpretation der hydrologischen Situation im ehemaligen Steinkohlerevier Zwickau. – 102 p., 27 Abb., 26 Tab., 24 Anl.; Freiberg (Unveröff. Dipl.-Arb. TU Bergakademie Freiberg).
• Katz, A. (1901): Ueber saure Grubenwässer und deren Verwendung zur Kesselspeisung. – Angew. Chem., 14(4):82–83, doi:10.1002/ange.19010140403.
• Katz, J. T. (2018): Exercises in wile. Conference on Dynamics of Wordplay - Interdisciplinary Perspectives, Univ Trier, Trier, GERMANY, Sep 29–Oct 01 2016. Dynamics of Wordplay, vol 6. Walter De Gruyter Gmbh, BERLIN, 137–163 S.
• Kaufmann, B. (1965): Die Entwicklung des Wallis vom Agrar- zum Industriekanton. – Staatswissenschaftliche Studien – Neue Folge, 53:173.
• Kaufmann, G. (2016): Modelling karst aquifer evolution in fractured, porous rocks. – J. Hydrol., 539:396–407, 14 Abb., 1 Tab.; doi:10.1016/j.jhydrol.2016.10.049.
• Kauppila, P., Kauppila, T., Turunen, K., Pasanen, A., Wahlström, M., Punkkinen, H., Karlsson, T., Räisänen, M. L., Solismaa, L. & Tornivaara, A. (2016): Mine Closure Wiki – Databank for Mine Closure. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 538–545, Freiberg (TU Bergakademie Freiberg).
• Kauppila, P. & Liisa, R. (2015): Effluent Chemistry of Closed Sulfide Mine Tailings – Influence of Ore Type. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Kauppila, P., Räisänen, M. L. & Myllyoja, S. (2011): Metallimalmikaivostoiminnan parhaat ympäristökäytännöt [Best environmental practices in metal mining operations]: Suomen ympäristö 29. – 213 p., 43 Abb., 49 Tab.; Helsinki (Finlands miljöcentral [Finnish Environment Institute]).
• Kauppila, P., Räisänen, M. L. & Myllyoja, S. (2013): Best environmental practices in metal mining operations [Metallimalmikaivostoiminnan parhaat ympäristökäytännöt]: Suomen ympäristö 29en/2011. – 219 p., 43 Abb., 49 Tab.; Helsinki (Finlands miljöcentral [Finnish Environment Institute]).
• Kauppila, P. M., Kauppila, T., Mäkinen, J., Kihlman, S. & Räisänen, M. L. (2011): Geochemistry in the Characterisation and Management of Environmental Impacts of Sulfide Mine Sites. – Special paper – Geological Survey of Finland, 49:91–102, 8 Abb.
• Kauppila, P. M., Taskinen, A., Tornivaara, A., Heino, N., Lehtonen, M., Tiljander, M., Karlsson, T. & Korhonen, T. (2017): The KaiHaMe Project – Increasing Raw Material Value of Exploited Ores. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 931–938, Lappeenranta (Lappeenranta University of Technology).
• Kauppila, T., Mäkinen, J. & Solismaa, L. (2017): Sediment And Pore Water Properties Across The Chemocline Of A Mine Water-Impacted Boreal Lake During Winter Stagnation And Autumn Overturn. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 167–174, Lappeenranta (Lappeenranta University of Technology).
• Kausch, P., Bertau, M., Gutzmer, J. & Matschullat, J. (2014): Strategische Rohstoffe – Risikovorsorge. – 281 p., Berlin (Springer); doi:10.1007/978-3-642-39704-2.
• Kawabata, H., Hanyu, T., Chang, Q., Kimura, J.-I., Nichols, A. R. L. & Tatsumi, Y. (2011): The Petrology and Geochemistry of St. Helena Alkali Basalts: Evaluation of the Oceanic Crust-recycling Model for HIMU OIB. – J. Petrol., 52(4):791–838, doi:10.1093/petrology/egr003.
• Kay, C. M., Haanela, A. & Johnson, D. B. (2014): Microorganisms in subterranean acidic waters within Europe’s deepest metal mine. – Res. Microbiol., 165(9):705–12, 4 Abb., 1 Tab.; doi:10.1016/j.resmic.2014.07.007.
• Kay, J. T., Conklin, M. H., Fuller, C. C. & O’Day, P. A. (2001): Processes of Nickel and Cobalt Uptake by a Manganese Oxide Forming Sediment in Pinal Creek, Globe Mining District, Arizona. – Environ. Sci. Technol., 35(24):4719–4725, doi:10.1021/es010514d.
• Kayan, İ. (1996): Holocene coastal development and archaeology in Turkey. – Z. f. Geomorphologie, Supplementband, 102:37–59, 8 Abb.
• Kayan, İ. (1996): Holocene Stratigraphy of the Lower Karamenderes-Dümrek Plain and archaeological Material in the alluvial Sediments to the North of the Troia Ridge. – Studia Troica, 6:239–249, 4 Abb.
• Kayan, İ. (1997): Geomorphological Evolution of the Çıplak Valley and Archaeological Material in the Alluvial Sediments to the South of the Lower City of Troia. – Studia Troica, 7:489–506, 12 Abb.
• Kayan, İ. (1999): Holocene stratigraphy and geomorphological evolution of the Aegean coastal plains of Anatolia. – Quat. Sci. Rev., 18:541–548, 7 Abb.; doi:10.1016/S0277-3791(98)90095-6.
• Kayan, İ. (2000): The Water Supply of Troia. – Studia Troica, 10:135–145, 12 Abb.
• Kayan, İ. (2014): Geoarchaeological Research at Troia and its Environs. – In: Pernicka, E., Rose, C. B. & Jablonka, P. (eds): Troia 1987–2012: Grabungen und Forschungen I – Forschungsgeschichte, Methoden und Landschaft. – p. 694–727, Bonn (Habelt).
• Kayan, İ. (2019): Landscape Development and Changing Environment of Troia (North-western Anatolia). – In: Kuzucuoğlu, C., Çiner, A. & Kazancı, N. (eds): Landscapes and Landforms of Turkey. – p. 277–291, Cham (Springer); doi:10.1007/978-3-030-03515-0_12.
• Kazakis, N., Kantiranis, N., Voudouris, K. S., Mitrakas, M., Kaprara, E. & Pavlou, A. (2015): Geogenic Cr oxidation on the surface of mafic minerals and the hydrogeological conditions influencing hexavalent chromium concentrations in groundwater. – Sci. Total Environ., 514:224–238, doi:10.1016/j.scitotenv.2015.01.080.
• Kazan-Allen, L. (2003): Asbestos Abroad – An International Overview. – British Asbestos Newsletter, 51:1–17.
• Kazemi, G. A., Lehr, J. H. & Pierre, P. (2006): Groundwater Age. – 325 p., zahlr. Abb., zahlr. Tab.; Hoboken (Wiley-Interscience).
• Kaźmierczak, U. (2014): Dostępność złóż kopalin skalnych w kontekście obszarów prawnie chronionych województwa dolnośląskiego [Availability of Rock Raw Materials in the Context of Legally Protected Areas of the Dolnoslaskie Voivodeship]. – Gospod. Surow. Miner. – Miner. Resour. Manage., 30(2):35–49, doi:10.2478/gospo-2014-0013.
• Kearns, M. S. (2024): Pell road doser upgrade project. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 332–332; Morgantown (International Mine Water Association).
• Kecojević, V. J., Mrugala, M. J., Simić, R. D. & Stanković, R. M. (2003): A Computer-Aided System for Design of Drainage Facilities in Surface Mining. – Mine Water Environ., 22(3):149–154, 10 Abb.
• Keefe, S. H., Barber, L. B., Runkel, R. L., Ryan, J. N., McKnight, D. M. & Wass, R. D. (2004): Conservative and Reactive Solute Transport in Constructed Wetlands. – Water Resour. Res., 40(1):1–12, 6 Abb., 2 Tab.; doi:10.1029/2003WR002130.
• Keet, B. (1982): Statistical Hydrogeochemistry as a Tool to Facilitate the Control of Mine Water. – Int. J. Mine Water, 1(3):1–11, 4 Abb., 3 Tab.
• Kefeni, K. K., Msagati, T. A. M. & Mamba, B. B. (2017): Acid mine drainage: Prevention, treatment options, and resource recovery: A review. – J. Clean. Prod., 151:475–493, doi:10.1016/j.jclepro.2017.03.082.
• Kefeni, K. K., Msagati, T. M., Maree, J. P. & Mamba, B. B. (2015): Metals and sulphate removal from acid mine drainage in two steps via ferrite sludge and barium sulphate formation. – Miner. Eng., 81:79–87, doi:10.1016/j.mineng.2015.07.016.
• Keferstein, C. (1821): Teutschland geognostisch-geologisch dargestellt und mit Charten und Durchschnittszeichnungen erläutert: 1/2. – 2 Kart.; Weimar (Landes-Industrie-Comptoir).
• Kehusmaa, K., Kauppila, T., Österholm, P., Juntunen, J. & Saarni, S. (2023): Properties and Stability of Mining-Induced Meromixis in Two Small Boreal Lakes in Eastern Finland. – Mine Water Environ., 42(1):24–39, doi:10.1007/s10230-023-00915-9.
• Keil, K. (1933): Über die Ursachen der charakteristischen Paragenesenbildung von gediegen Silber und gediegen Wismut mit den Kobalt-Nickel-Eisen-Arseniden auf den Gängen der Kobalt-Nickel-Wismut-Silber-Erzformation im sächsisch-böhmischen Erzgebirge und dem Cobalt-Distrikt. – N. Jb. Beil Bd Abt A, 66(3):407–424, 10 Taf.
• Kellenbenz, H. (1988): Kapitalverflechtung im mittleren Alpenraum – Das Beispiel des Bunt- und Edelmetallbergbaus vom fünfzehnten bis zur Mitte des siebzehnten Jahrhunderts. – Z. Bayer. Landesgesch., 51:13–50.
• Keller, B. (1992): Hydrogeologie des schweizerischen Molasse-Beckens – aktueller Wissensstand und weiterführende Betrachtungen. – Eclogae geol. Helv., 85:611–651, 16 Abb.; doi:10.5169/seals-167023.
• Keller, F. S., Boff, C., Silva, D., Grigorieff, A., Weber, C. C., Weiler, J. & Schneider, I. A. H. (2025): Attenuation of Acid Mine Drainage in a Coal Waste Deposit in Southern Brazil and the Prospect of Transitioning from Active to Passive Treatment. – Minerals, 15(10) doi:10.3390/min15101068.
• Keller, G. (1968): Zur Geologie des Piesberges bei Osnabrück. – Z. dt. geol. Ges., 117:743–748, doi:10.1127/zdgg/117/1968/743.
• Keller, G. (1981): Die heutigen geohydrologischen Verhältnisse des Ibbenbürener Tales im nördlichen Münsterland. – Osnabrücker naturwiss. Mitt., 8:63–96, 5 Abb., 1 Tab.
• Keller, J., Milczarek, M. & Zhan, G. (2015): Water Balance Modeling of Preferential Flow in Waste Rock Material. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Keller, J. M., Banuelos, J., Bunting, L., Milczarek, M., Lattin, D., Moore, S. & Zhan, G. (2018): Monitoring of Waste Rock Dump Surface Water Drainage and Channel Infiltration. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 641–646; (Tshwane University of Technology).
• Keller, S. & Hoyer, M. v. (1992): Erkundung und Bewirtschaftung von präkambrischen Karstaquiferen im südlichen Afrika. – Z. dt. geol. Ges., 143(2):277–290, Refs: 25; 5 tables, sketch map; doi:10.1127/zdgg/143/1992/277.
• Kellerhoff, S. F. (2005): Glaube an Homer: Troja-Ausgräber Manfred Korfmann gestorben. – Die Welt, 12.08.2005.
• Kelley, D. E. (2001): Six questions about double-diffusive convection. Paper presented at the From Stirring to Mixing in a Stratified Ocean – Hawaiian Winter Workshop, Manoa, 16–19 January 2001. – p. 191–198; (University of Hawaii at Manoa).
• Kelley, D. E., Fernando, H. J. S., Gargett, A. E., Tanny, J. & Özsoy, E. (2003): The Diffusive Regime of Double-Diffusive Convection. – Prog. Oceanogr., 56:461–481, 7 Abb.; doi:10.1016/S0079-6611(03)00026-0.
• Kelly, D. P. & Wood, A. P. (2000): Reclassification of some species of Thiobacillus to the newly designated genera Acidithiobacillus gen. nov., Halothiobacillus gen. nov. and Thermithiobacillus gen. nov. – Int. J. Syst. Evol. Microbiol., 50:511–516, 1 Abb., 1 Tab.; doi:10.1099/00207713-50-2-511.
• Kelly, J., Champagne, P. & Michel, F. (2007): Assessment of Metal Attenuation in a Natural Wetland System Impacted by Alkaline Mine Tailings, Cobalt, Ontario, Canada. – Mine Water Environ., 26(3):181–190, 2 Abb., 5 Tab.; doi:10.1007/s10230-007-0007-3.
• Kelly, M., Allison, W. J., Garman, A. R. & Symon, C. J. (1988): Mining and the Freshwater Environment. – 231 p., London (Elsevier Applied Science); doi:10.1007/978-94-009-1359-2.
• Kelly, M. G. (1999): Effects of Heavy Metals on the Aquatic Biota. – In: Plumlee, G. S. & Logsdon, M. J. (eds): The Environmental Geochemistry of Mineral Deposits 6A. – p. 363–371, 7 Abb.; Littleton (Society of Economic Geologists).
• Kelm, U., Helle, S., Matthies, R. & Morales, A. (2008): Distribution of trace elements in soils surrounding the El Teniente porphyry copper deposit, Chile: the influence of smelter emissions and a tailings deposit. – Environ. Geol., 9 Abb., 2 Tab.; doi:10.1007/s00254-008-1305-1.
• Kelty, R. & Kelty, R. (2011): Human Dimensions of a Fishery at a Crossroads – Resource Valuation, Identity, and Way of Life in a Seasonal Fishing Community. – Soc. Nat. Resour., 24(4):334–348, doi:10.1080/08941920903476814.
• Kemmer, H.-G. (1985): Knappen aus dem Labor – Mikroben gewinnen Metalle und entschwefeln Kohle. – Die Zeit, 7.6.1985, 24:20.
• Kemp, D. & Owen, J. R. (2013): Community relations and mining: Core to business but not “core business”. – Resour. Policy, 38(4):523–531, doi:10.1016/j.resourpol.2013.08.003.
• Kemp, P. & Griffiths, J. (1999): Quaking Houses – Art, science and the community: a collaborative approach to water pollution. – 142 p., 41 Abb.; Charlbury (Jon Carpenter).
• Kempster, P. L., van Vliet, H. R. & Kühn, A. (1997): The need for guidelines to bridge the gap between ideal drinking-water quality and that quality which is practically achievable and acceptable. – Water SA, 23(2):163–167, 1 Tab.
• Kendall, C. & McDonnell, J. J. (1998): Isotope Tracers in Catchment Hydrology. – 839 p., Amsterdam (Elsevier).
• Keng, P.-s., Lee, S.-l., Ha, S.-t., Hung, Y.-t. & Ong, S.-t. (2014): Removal of hazardous heavy metals from aqueous environment by low-cost adsorption materials. – Environ. Chem. Lett., 12(1):15–25, doi:10.1007/s10311-013-0427-1.
• Kennedy, A. (1997): Compartmentalization of formation waters, Prince Colliery, Cape Breton, Nova Scotia. – Halifax (Bachelor Thesis Dalhousie University).
• Kennedy, C. (2002): Alternatives for the Reclamation of Surface Mined Lands. – In: Mudroch, A., Stottmeister, U., Kennedy, C. & Klapper, H. (eds): Remediation of Abandoned Surface Coal Mining Sites. – p. 37–56, 8 Tab.; Berlin (Springer).
• Kennedy, C., Day, S., Mackie, D. & Pesonen, N. (2015): Biogeochemical Selenium Sequestration in Unsaturated Coal Reject Piles. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Kennedy, D. J., Stokes, A. W. & Klinowski, W. G. (1987): Resolving Complex Mine Ventilation Problems with Multiple Tracer Gases. – In: Mutmansky, J. M. (ed). – p. 213–218, 5 Abb., 1 Tab.; University Park (Proceedings 3rd Mine Ventilation Symposium).
• Kennedy, J. (2022): Circular Economy Potential of Widescale Implementation of Sodium Carbonate Dosing for Circumneutral Zinc-rich Mine Water in Wales. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 175–180; (International Mine Water Association).
• Kennedy, L. & Johnstone, A. C. (2018): An Investigation of the Water Quality of Four Coal Mine Pit Lakes in South Africa. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 647–653; (Tshwane University of Technology).
• Kennedy, T. (2016): Pulling together mine water management across site & business for performance: principles, business role & inclusive governance, strategic & practice framework. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 27–34, Freiberg (TU Bergakademie Freiberg).
• Kennedy, T. (2016): The waves of change in water resource management & the rising challenge for water professionals: calling time for a Water Resource Classification & Reporting Code (WRCRC). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 99–100, Freiberg (TU Bergakademie Freiberg).
• Kennedy, V. C., Kendall, C., Zellweger, G. W., Wyerman, T. A. & Avanzino, R. J. (1986): Determination of the components of stormflow using water chemistry and environmental isotopes, Mattole River Basin, California. – J. Hydrol., 84(1-2):107–140, 9 Abb., 2 Tab.; doi:10.1016/0022-1694(86)90047-8.
• Kennett, J. P. & Ingram, B. L. (1995): A 20,000 year record of ocean circulation and climate change from the Santa Barbara basin. – Nature, 377(6549):510–514.
• Kenny, J. F., Barber, N. L., Hutson, S. S., Linsey, K. S., Lovelace, J. K. & Maupin, M. A. (2009): Estimated Use of Water in the United States in 2005. – U. S. Geol. Surv. Circular, 1344:52.
• Kent, L. E. (1949): The thermal waters of the Union of South Africa and South West Africa. – Trans. Geol. Soc. S. Afr. , 52(1):231–264.
• Kent, T. (2001): Cape Breton provides pointers for the adjustment programs required by the decline of the old economy. – School of Policy Studies Working Paper, 14:1–8.
• Kentgen, G. A. (1984): Chemical microscopy. – Anal. Chem., 56(5):69R–83R, doi:10.1021/ac00269a006.
• Kepler, D. A. & McCleary, E. C. (1994): Successive Alkalinity-Producing Systems (SAPS) for the Treatment of Acid Mine Drainage. Paper presented at the International Land Reclamation and Mine Drainage Conference, Pittsburgh. – p. 195–204, 2 Abb., 9 Tab.
• Kepler, D. A. & McCleary, E. C. (1995): Successive Alkalinity-producing Systems (SAPS). – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 16:elektronisches Dokument, 1 Abb., 5 Tab.
• Kepler, D. A. & McCleary, E. C. (1997): Passive Aluminum Treatment Successes. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 18:elektronisches Dokument, 1 Abb., 4 Tab.
• Keppie, J. D. (1976): Interpretation of P.P.I. Radad Imagery of Nova Scotia: ME 1976-3. – 16 Abb., 1 Kart.; Halifax (Province of Nova Scotia Department of Mines).
• Keppner, L. (2011): Die neue Grundwasserverordnung. – Grundwasser, 16(3):145–153, 1 Abb., 1 Tab.; doi:10.1007/s00767-011-0170-0.
• Keqiang, H., Wancheng, Y. & Wenfu, J. (2011): Analysis of Groundwater Inrush Conditions and Critical Inspection Parameters at the Baixiangshan Iron Mine, China. – Mine Water Environ., 30(4):274–283, 7 Abb., 2 Tab.; doi:10.1007/s10230-011-0158-0.
• Kerkhoff, M. J., Files, L. A. & Winefordner, J. D. (1985): Identification of polyaromatic hydrocarbon mixtures by low-temperature constant energy synchronous fluorescence spectrometry. – Anal. Chem., 57(8):1673–1676, doi:10.1021/ac00285a036.
• Kern, M. L., Vieiro, A. P. & Machado, G. (2008): The fluoride in the groundwater of Guarani Aquifer System: the origin associated with black shales of Paraná Basin. – Environ. Geol., 55:1219–1233, doi:10.1007/s00254-007-1067-1.
• Kerner von Marilaun, F. (1912): Beitrag zur Thermik der Karstquellen. – Verh. k.-k. geol. R.-A.:327–330.
• Kerr, G., Craw, D. & Pope, J. (2022): Dissolution Rates of Arsenic Minerals in Natural and Mining Environments, New Zealand. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 181–186; (International Mine Water Association).
• Kerr, G., Druzbicka, J., Lilly, K. & Craw, D. (2015): Jarosite Solid Solution Associated with Arsenic-Rich Mine Waters, Macraes Mine, New Zealand. – Mine Water Environ., 34(4):364–374, doi:10.1007/s10230-014-0285-5.
• Kerr, G., Pope, J., Trumm, D. & Craw, D. (2015): Experimental Metalloid Mobilisation from a New Zealand Orogenic Gold Deposit. – Mine Water Environ., 34(4):404–416, doi:10.1007/s10230-015-0332-x.
• Kerr, H. (2003): CO₂ Capture Project – An Integrated, Collaborative Technology Development Project for Next Generation CO₂ Separation, Capture and Geologic Sequestration – Technical Progress Report. – 1093 p., zahlr. Abb., zahlr. Tab.; Washington (BP Corporation North America Inc).
• Kerr, H. (2004): CO₂ Capture Project – An Integrated, Collaborative Technology Development Project for Next Generation CO₂ Separation, Capture and Geologic Sequestration Technical – Progress Report. – 173 p., 3 Abb., 2 Tab.; Washington (BP Corporation North America Inc).
• Kerschner, H., Hertl, A., Gross, G., Ivy-Ochs, S. & Kubik, P. W. (2006): Surface exposure dating of moraines in the Kromer valley (Silvretta Mountains, Austria)-evidence for glacial response to the 8.2 ka event in the Eastern Alps? – The Holocene, 16(1):7–15, 1 Abb., 3 Tab.; doi:10.1196/0959683606hl902rp.
• Kersten, M., Garbe-Schönberg, C.-D., Thomsen, S., Anagnostou, C. & Sioulas, A. (1997): Source Apportionment of Pb Pollution in the Coastal Waters of Elefsis Bay, Greece. – Environ. Sci. Technol., 31(5):1295–1301, doi:10.1021/es960473z.
• Keshri, J., Mankazana, B. B. & Momba, M. N. (2015): Profile of bacterial communities in South African mine-water samples using Illumina next-generation sequencing platform. – Appl. Microbiol. Biotechnol., 99(7):3233–42, doi:10.1007/s00253-014-6213-6.
• Keshtgar, A. (2020): Tailings dam failure: Estimation of Outflow Volume. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 135–139; (International Mine Water Association).
• Kesieme, U. K., Milne, N., Aral, H., Cheng, C. Y. & Duke, M. (2012): Novel application of membrane distillation for acid and water recovery from mining waste waters: International Mine Water Association Symposium. – 623–630 p., Bunbury (Edith Cowan University).
• Kesserü, Z. (1982): Field Trips – First International Mine Water Congress. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, Field Trips:5–105, 45 Abb.
• Kesserü, Z. (1982): Water Barrier Pillars. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:91–117, 12 Abb.
• Kesserü, Z. (1984): Empirical and Theoretical Methods for Designing Soft Semi-impermeable Protective Barriers. – Int. J. Mine Water, 3(2):1–12, 6 Abb.
• Kesserü, Z. (1985): The Origin and Process Control of Wet Rock Material Inrushe. – Proceedings, 2nd International Mine Water Association Congress, 1:255–267, 7 Abb.
• Kesserü, Z. (1988): Computer Aided Design of Mine Water Management. – Proceedings, 3rd International Mine Water Congress, Melbourne:533–543, 2 Abb.
• Kesserü, Z. (1991): Spontaneous Hydrofracturing: a Frequent Way of Failure in Natural and in Engineering Rock/Soil Barriers and New Ways for Process Control. – Proceedings, 4th International Mine Water Association Congress, 1:245–255.
• Kesserü, Z. (1994): In-mine sealing of water inrushes. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:269–280.
• Kesserü, Z. (1994): Utilising the experience of mine water engineering for siting deep waste repositories. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:715–726.
• Kesserü, Z. (1995): New Approaches and Results on the Assessment of Risks due to Undermining for Mine’s Safety and for Protecting of Water Resources: Water resources at risk. – IMWA.53–72 p., 3 Abb.; Minneapolis (American Institute of Hydrology).
• Kesserü, Z. (1996): New Approaches and Results on the Assessment of Risks due to Undermining for Mine’s Safety and for Protecting of Water Resources: Engineering in Karst. – 20 p., 3 Abb.; Portoroz (Proceedings International Mine Water Association Workshop).
• Kesserü, Z. (1997): Argilliceous Geological Barrieres – Multi-Disciplinary View. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:397–413.
• Kesserü, Z. (1999): Environment-Compatible, Safe and Feasible Mining Options in the Vicinity of Aquifers. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 609–617, 7 Abb.; Sevilla (International Mine Water Association).
• Kesserü, Z., Bagdy, I., Szentirmai, L., Kovacs, G., Benyöcs, F. & Szikrai, M. (1991): Bulkheads Operating Successfully under 25–30 bar Water Pressure in Weak Rocks. – Proceedings, 4th International Mine Water Association Congress, 2:85–93, 6 Abb.
• Kesserü, Z., Bogárdi, I. & Szidarovszky, F. (1978): Systems approach for mine water control. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 789–804; Maracena (Asociación Nacional de lngenieros de Minas).
• Kesserü, Z., Dusza, L., Widder, A. & Máté, C. K. (1987): Simultaneous Modeling of Rock Freezing and Water Seepage and its Practical Applications. – Int. J. Mine Water, 6(1):1–32, 17 Abb., 1 Tab.
• Kesserü, Z., Farkas, I. & Kovacsics, Á. (2000): Abandonment of Kincses Bauxite Mine connected to a water supply plant – professional and public acceptance aspects. – Proceedings, 7th International Mine Water Association Congress:280–291, 3 Abb.
• Kesserü, Z., Havasy, I. & Bagdy, I. (1985): Proposals on Mine Water Control System for Kotredez Coal Mine. – Proceedings, 2nd International Mine Water Association Congress, 1:13–26, 6 Abb.
• Kesserü, Z., Kempf, J., Duckstein, L. & Casti, J. (1982): A bifurcation theory model of minewater inrushes. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:346–375, 8 Abb., 1 Tab.
• Kesserü, Z., Szilágyi, G., Szentai, G., Havasy, I. & Tóth, I. (1987): Exploration and Evaluation of the hydrogeological Conditions of Coal Deposits, where the Water Danger strongly denpends on Mining Methods: Hydrogeology of Coal Basins. – 105–123 p., 4 Abb., 1 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Kessler, T., Mugova, E., Jasnowski-Peters, H., Rinder, T., Stemke, M., Wolkersdorfer, Ch., Hilberg, S., Melchers, Ch., Struckmeier, W., Wieber, G. & Schafmeister, M.-T. (2020): Grundwasser in ehemaligen deutschen Steinkohlenrevieren – ein wissenschaftlicher Blickwinkel auf Grubenflutungen. – Grundwasser, 25(4):259–272, 2 Abb., 1 Tab.; doi:10.1007/s00767-020-00460-0.
• Kessler, T. & Schafmeister, M.-T. (2021): Finite-element Modelling Approach To Study Flow Processes During Groundwater Rebound In Abandoned Underground Hard Coal Mines. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 231–236; Cardiff (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Kester, D. R., Byrne, R. H. & Liang, Y.-J. (1975): Redox Reactions and Solution Complexes of Iron in Marine Systems. – ACS Symp. Ser., 18:56–79, 6 Abb., 9 Tab.; doi:10.1021/bk-1975-0018.ch003.
• Keswick, B. H., Wang, D.-S. & Gerba, C. P. (1982): The Use of Microorganisms as Ground-Water Tracers – A Review. – Ground Water, 20(2):142–149, 4 Tab.
• Kettner, T. (2022): Die Bergbau-Projekte des Willy von Dulong Willy von Dulong und der Bergbau an der Kalteiche bei Wilnsdorf. – In: Garner, J., Weber, M. & Zeiler, M. (eds): 23. Internationaler Bergbau- & Montanhistorik-Workshop Wilnsdorf/Siegerland. – p. 297–312, 20 Abb.; Clausthal-Zellerfeld (Papierflieger).
• Kettunen, A. & Vidqvist, M. (2017): Chemolithotrophic Microbes in Transition of Neutral Rock Drainage to Acid Rock Drainage. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 998–1005, Lappeenranta (Lappeenranta University of Technology).
• Keul, M. (1960): Staatliche Gewerbepoltik in Tirol (1648–1740) – Ein Beitrag zur Geschichte des Widerstreites zwischen merkantilistischer Idee und liberalistischer Praxis. – Tiroler Wirtschaftsstudien, 8:300.
• Kgari, T., Wyk, Y. V., Coetzee, H. & Dippenaar, M. (2016): Mine Water approach using Tracers in South African abandoned Coal Mines. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 410–416, Freiberg (TU Bergakademie Freiberg).
• Khabubu, M. G. & Gumbo, J. R. (2014): Identification of Cyanobacterial Communities and Their Microcystin Congeners in Soda Pits at Nyala Magnesite Mine, South Africa. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 384–388, Xuzhou (International Mine Water Association).
• Khadra, W. M. (2020): Authenticity of bottled water chemical composition inferred from brand labels: example of the Lebanese market. – J. Food Compos. Anal., 93:103609, doi:10.1016/j.jfca.2020.103609.
• Khairy, M., Brault, E., Dickhut, R., Harding, K. C., Harkonen, T., Karlsson, O., Lehnert, K., Teilmann, J. & Lohmann, R. (2021): Bioaccumulation of PCBs, OCPs and PBDEs in Marine Mammals From West Antarctica. – Front. Mar. Sci., 8 doi:10.3389/fmars.2021.768715.
• Khajeh, M., Yamini, Y. & Hassan, J. (2006): Trace analysis of chlorobenzenes in water samples using headspace solvent microextraction and gas chromatography/electron capture detection. – Talanta, 69:1088–1094, doi:10.1016/j.talanta.2005.12.020.
• Khaknazarov, S. (2017): The study of public opinion on industrial mining in the Nefteyugansk district of Yugra. – Arct. North, 28:106–117, doi:10.17238/issn2221-2698.2017.28.106.
• Khan, A. H., Jha, V. N., Kumar, R., Sahoo, S. K., Shukla, A. K., Tripathi, R. M. & Puranik, V. D. (2005): Management of uranium mill tailings and associated environmental monitoring in India. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 729–738, Heidelberg (Springer).
• Khan, M. (2017): Dealing with illegal miners. – Inside Min., 10(2):34–35.
• Khan, N. B. & Chohan, A. N. (2010): Accuracy of bottled drinking water label content. – Environ. Monit. Assess., 166(1-4):169–76, doi:10.1007/s10661-009-0993-7.
• Khan, R., Israili, S. H., Ahmad, H. & Mohan, A. (2005): Heavy Metal Pollution Assessment in Surface Water Bodies and its Suitability for Irrigation around the Neyevli Lignite Mines and Associated Industrial Complex, Tamil Nadu, India. – Mine Water Environ., 24(3):155–161, 5 Abb., 2 Tab.
• Khan, U. A. (2020): Challenges in Using Natural Peatlands for Treatment of Mining influenced Water in a Cold Climate – Considerations for Arsenic, Antimony, Nickel, Nitrogen, and Sulfate Removal. – 91 p., PhD, University of Oulu; Oulu.
• Khan, U. A., Luostarinen, V., Ziegelhöfer, A. & Kujala, K. (2021): Mobilization of Bound Arsenic and Antimony from Peat used for the Treatment of Mining-Affected Waters. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 268–273; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Khandelwal, M. & Singh, T. N. (2005): Prediction of mine water quality by physical parameters. – Journal of Scientific & Industrial Research, 64(8):564–570.
• Khanniche, M. S., Morgan, P. G., Khanniche, K. N., Jobling, C. P. & Khanniche, N. (2001): A Novel Electro-Chemical Process for Water Treatment. – Rev. Energ. Ren – Power Engineering:63–67, 1 Abb., 7 Tab.
• Khansefid, A., Yadollahi, S. M., Muller, G. & Taddei, F. (2022): Induced Earthquake Hazard by Geothermal Power Plants: Statistical Evaluation and Probabilistic Modeling. – International Journal of Disaster Risk Science, 13(5):758–777, doi:10.1007/s13753-022-00441-2.
• Kharaka, Y. K. & Hanor, J. S. (2007): Deep Fluids in the Continents: I. Sedimentary Basins. – In: Turekian, H. D. & Holland, K. K. (eds): Treatise on Geochemistry. – p. 499–540, 17 Abb., 6 Tab.; Oxford (Pergamon); doi:10.1016/B0-08-043751-6/05085-4.
• Khater, A. (2005): Distribution Pattern Uranium Isotopes in Lake Sediments. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment. – p. 841–846, 1 Abb., 2 Tab.; Heidelberg (Springer).
• Khaydarov, R. A., Khaydarov, R. R., Gapurova, O., Estrin, Y. & Scheper, T. (2009): Electrochemical method for the synthesis of silver nanoparticles. – J. Nanopart Res., 11(5):1193–1200, 9 Abb., 1 Tab.; doi:10.1007/s11051-008-9513-x.
• Khayrulina, E. (2016): Aspects of the environmental Monitoring on the Territory of Verhnekamskoye Potash Deposit (Russia). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 383–387, Freiberg (TU Bergakademie Freiberg).
• Khayrulina, E., Khmurchik, V. & Maksimovich, N. (2016): The Kizel coal basin (The Western Urals, Russia): Environmental problems and solutions. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 766–771, Freiberg (TU Bergakademie Freiberg).
• Khayrulina, E. & Maksimovich, N. (2018): Influence of Drainage with High Levels of Water-Soluble Salts on the Environment in the Verhnekamskoe Potash Deposit, Russia. – Mine Water Environ., 37(3):595–603, doi:10.1007/s10230-017-0509-6.
• Khayrulina, E. & Mitrakova, N. (2021): Long-time Effect of Ancient Salt Production (Perm Krai, Russia). Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 237–242; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Kheirkhah Gildeh, H., Sreekumar, U., Mohammadian, A., Nistor, I. & Rennie, C. (2024): Tailings dam breach assessment – a review. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 218–224; Morgantown (International Mine Water Association).
• Khodadad, A., Teimoury, P., Abdolahi, M. & Samiee, A. (2008): Detoxification of Cyanide in a Gold Processing Plant Tailings Water Using Calcium and Sodium Hypochlorite. – Mine Water Environ., 27(1):52–55, 8 Abb.; doi:10.1007/s10230-007-0024-2.
• Khoeurn, K., Sasaki, A., Tomiyama, S. & Igarashi, T. (2019): Distribution of Zinc, Copper, and Iron in the Tailings Dam of an Abandoned Mine in Shimokawa, Hokkaido, Japan. – Mine Water Environ., 38(1):119–129, doi:10.1007/s10230-018-0566-5.
• Khoi Tran, T., Nigel, G. & Jia-Qian, J. (2008): Evaluating the Coagulation Performance of Ferrate: A Preliminary Study. – In: Virender, K. S. (ed) Ferrates – Synthesis, Properties, and Applications in Water and Wastewater Treatment 985. – p. 292–305, (American Chemical Society); doi:10.1021/bk-2008-0985.ch017.
• Khorasanipour, M. & Eslami, A. (2014): Hydrogeochemistry and Contamination of Trace Elements in Cu-Porphyry Mine Tailings: A Case Study from the Sarcheshmeh Mine, SE Iran. – Mine Water Environ., 33(4):335–352, 7 Abb., 4 Tab.; doi:10.1007/s10230-014-0272-x.
• Khorasanipour, M. & Esmaeilzadeh, E. (2020): Environmental Aspects of Cu Recovery from Evaporative Solids on the Surface of Old Weathered Tailings: Sarcheshmeh Mine, SE Iran. – Mine Water Environ., 39(4):684–698, doi:10.1007/s10230-020-00700-y.
• Khorasanipour, M., Moore, F. & Naseh, R. (2011): Lime Treatment of Mine Drainage at the Sarcheshmeh Porphyry Copper Mine, Iran. – Mine Water Environ., 30(3):216–230, 7 Abb., 6 Tab.; doi:10.1007/s10230-011-0142-8.
• Khorasanipour, M., Tangestani, M. H., Naseh, R. & Hajmohammadi, H. (2012): Chemical Fractionation and Contamination Intensity of Trace Elements in Stream Sediments at the Sarcheshmeh Porphyry Copper Mine, SE Iran. – Mine Water Environ., 31(3):199–213, 3 Abb., 7 Tab.; doi:10.1007/s10230-012-0198-0.
• Khusainova, A. (2019): Supergene Gold In The Gold-Bearing Wastes Of Sulfide Deposits. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 504–508; Perm, Russia (Perm State University).
• Khyamyalyainen, V. A. (1993): Formation of Grouting Curtains applying unstable Cement Solutions. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 553–563; Chililabombwe (Konkola Division).
• Khyamylayainen, V. A. & Syrkin, P. S. (1994): Improved Technology of the Preliminary Cementation of Water-bearing Rocks. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:281–286, 3 Tab.
• Kibler, R. & Gleissenthall, J. L.-v. (1990): Zufuhr von Polychlorierten Biphenylen (PCB) über den Gesamtverzehr. – Zeitschrift für Lebensmittel-Untersuchung und -Forschung, 191(3):214–216, doi:10.1007/BF01197623.
• Kidd, C. H. (1988): Chemical Characteristics and Prediction Capability – Gerneral Report. – Proceedings, 3rd International Mine Water Congress, Melbourne:103–119.
• Kidd, C. H. (1988): Prediction of Solute Transport from Gold Mine Waste, Coromandel, New Zealand. – Proceedings, 3rd International Mine Water Congress, Melbourne:173–184, 4 Abb., 4 Tab.
• Kieffer, R. & Benesovsky, F. (1949): Zur Geschichte der Metallwerk Plansee G. m. b. H. in Reutte, Tirol. – Bl. Technikgesch., 11:82–91, 6 Abb.
• Kießig, G. (2000): Entwicklung von verfahrenstechnischen Lösungen zur Sanierung von Grundwasserschäden im Abstrom von Absetzbecken der Uranerzaufbereitung mittels permeabler reaktiver Wände – Teil 1: PRW/ Laboruntersuchungen, Modellierung und Parametrisierung. – 212 p., Chemnitz (Wismut GmbH, FhG-Institut Angewandte Polymerforschung, B.P.S. Engineering GmbH).
• Kießig, G. & Hermann, E. (2000): Nachfolgelösungen für die konventionelle Behandlung kontaminierter Wässer. Paper presented at the Proceedings Wismut 2000 – Bergbausanierung Internationale Konferenz, Schlema. – p. 9, 10 Abb., 2 Tab.; (Eigenverlag Wismut GmbH).
• Kießig, G., Kunze, C., Küchler, A., Zellmer, A., Meyer, J. & Kalin, M. (2004): Kostengünstige passive Nachsorgelösung mit einem Constructed Wetland auf der Grundlage von Prognosen der Entwicklung des Grubenwassers der Grube Pöhla. – Wiss. Mitt. Inst. Geol., 25:113–118, 5 Abb., 1 Tab.
• Kihlman, S. & Kauppila, T. (2008): Effects of a Historical Cu-Au Mine on Testate Amoebae in Lacustrine Sediments in Southern Finland (Haveri, Ylöjärvi). – Proceedings, 10th International Mine Water Association Congress:151–153.
• Kihlman, S. & Kauppila, T. (2010): Tracking the Aquatic Impacts of a Historical Metal Mine Using Lacustrine Protists and Diatom Algae. – Mine Water Environ., 29(2):116–134, 9 Abb., 1 Tab.; doi:10.1007/s10230-009-0096-2.
• Kilborn Inc. (1999): Review of Passive Systems for Treatment of Acid Mine Drainage: MEND Report MEND 3.14.1, 2nd edn. – 75 p., 6 Abb., 16 Tab.; Ottawa (The Mine Environment Neutral Drainage [MEND] Program).
• Kilburn, J. E. & Sutley, S. J. (1997): Analytical results and comparative overview of geochemical studies conducted at the Holden Mine, spring 1996. – Open-File Rep. US Geol. Surv., OF 97-0128:38, 5 Abb., 6 Tab.
• Kilger, F. (1887): Seebensee, Drachensee und Grünsteinscharte. – Z. Dt.-Österr. Alpenver., 18:313–316.
• Kilger, F. (1890): Wanderungen im Mieminger Gebirge. – Z. Dt.-Österr. Alpenver., 21:252–289, 9 Abb.
• Kilger, F. (1892): Hochtouren im Mieminger Gebirge. – Z. Dt.-Österr. Alpenver., 23:84–123, 5 Abb.
• Kilian, S. & Ortner, H. (2019): Structural evidence of in-sequence and out-of-sequence thrusting in the Karwendel mountains and the tectonic subdivision of the western Northern Calcareous Alps. – Austrian J. Earth Sci., 112(1):62–83, doi:10.17738/ajes.2019.0005.
• Kiliç, M. G. (2009): A Parametric Comparative Study of Electrocoagulation and Coagulation of Aqueous Suspensions of Kaolinite and Quartz Powders. – 139 p., 49 Abb., 14 Tab.; Ankara (Middle East Technical University).
• Kill Eagle, J. L., Gammons, C. H., Weight, W. D., Babcock, J. N., Jepson, W. & Langner, H. W. (2009): Results and Lessons Learned from a Continuous Injection Tracer Test in a Small Mountain Stream Receiving Acid Mine Drainage. – Mine Water Environ., 28(3):182–193, 10 Abb., 1 Tab., 1 Anh.; doi:10.1007/s10230-009-0082-8.
• Kilpatrick, F. A. (1993): Simulation of Soluble Waste Transport and Buildup in Surface Waters Using Tracers. Techniques of Water-Resources Investigations of the United States Geological Survey TWRI 3-A20. – p., 31 Abb., 4 Tab.; Washington (U.S. Geol. Survey).
• Kilpatrick, F. A. & Cobb, E. D. (1985): Measurement of discharge using tracers. Techniques of Water-Resources Investigations of the United States Geological Survey TWRI 3-A16. – p., 30 Abb., 7 Tab., 2 Anl.; Washington (U.S. Geol. Survey).
• Kilpatrick, F. A. & Schneider, V. R. (1983): Use of Flumes in Measuring Discharge. Techniques of Water-Resources Investigations of the United States Geological Survey TWRI 3-A14. – p.
• Kilpatrick, F. A. & Wilson, J. F. j. (1989): Measurement of Time of Travel in Streams by Dye Tracing. Techniques of Water-Resources Investigations of the United States Geological Survey TWRI 3-A9. – p. 1–27.
• Kim, A. G., Heisey, B. S., Kleinmann, R. L. P. & Deul, M. (1982): Acid Mine Drainage: Control and Abatement Research. – Bur. Mines Inf. Circ., IC-8905:22, 16 Abb., 3 Tab.
• Kim, D. & Kim, D. (2017): Assessment of Dewatering Process Using Flocculation and Self-filtration According to the Characteristics of Mine Drainage Sludge. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1178–1184, Lappeenranta (Lappeenranta University of Technology).
• Kim, D. M., Lee, K. R. & Park, M. S. (2025): Potential generation and consumption of carbon dioxide during treatment of mine drainages in South Korea. – Sci. Total Environ., 975:179270, doi:10.1016/j.scitotenv.2025.179270.
• Kim, D. M., Park, H. S., Hong, J. H. & Lee, J. H. (2022): Assessing Pilot-Scale Treatment Facilities with Steel Slag-Limestone Reactors to Remove Mn from Mine Drainage. – Mine Water Environ., 41(2):402–414, doi:10.1007/s10230-021-00819-6.
• Kim, D.-M., Bottger-Gamarra, J. C., Rodriguez-Vasquez, C., Jeon, J.-W., Choi, E.-A., Im, Y.-J. & Kang, S. (2025): Active treatment experiments including coprecipitation-adsorption of arsenic for mine drainages in Peru. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 156–161; Braga (International Mine Water Association).
• Kim, D.-M., Im, D.-G., Lee, J.-H. & Park, M.-S. (2023): Flow and Baffle Configurations of Reactor and Settling Pond for Treatment of Mine Drainage. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 281–286; (International Mine Water Association).
• Kim, D.-M., Kwon, H.-L. & Park, M.-S. (2024): Underestimation of alkaline dosage and precipitate amount during water treatment: Role of inorganic carbon and use of PHREEQ-N-AMDTreat. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 333–334; Morgantown (International Mine Water Association).
• Kim, D.-M., Lee, K.-R. & Ko, J.-I. (2025): Potential generation and consumption of carbon dioxide during treatment of mine drainages in South Korea. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 77–83; Braga (International Mine Water Association).
• Kim, D.-M., Oh, Y.-S., Park, H.-S., Im, D.-G., Lim, W.-L., Kwon, H.-R. & Lee, J.-H. (2021): Steel Slag-Limestone Reactor with Resistance to Fe: Laboratory and Pilot Scale Evaluations of Mn Treatment Efficiency. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 243–248; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Kim, D.-M., Park, H.-S., Kim, D.-K. & Lee, S.-H. (2017): Enhanced Mn Treatment in Mine Drainage Using Autocatalysis in a Steel Slag-Limestone Reactor. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1063–1069, Lappeenranta (Lappeenranta University of Technology).
• Kim, D.-M., Rodriguez-Vasquez, C., Bottger-Gamarra, J. C., Jeon, J.-W., Choi, E.-A., Im, Y.-J. & Kang, S. (2025): Passive treatment experiments including slag reactor and As adsorption reactor for mine drainages in Peru. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 227–233; Braga (International Mine Water Association).
• Kim, D. W., Jang, Y. Y., Shin, M. G., Shin, J. H., Suh, S. P., Ryang, D. W., Yoon, M., Lee, J. J., Kim, S. K. & Cho, D. (2013): Overnight Storage of Blood in ACD Tubes at 4 °C Increases NK Cell Fraction in Peripheral Blood Mononuclear Cells. – Ann. Clin. Lab. Sci., 43(3):267–273.
• Kim, H. W., Han, S. K. & Shin, H. S. (2006): Simultaneous treatment of sewage sludge and food waste by the unified high-rate anaerobic digestion system. – Water Sci. Technol., 53(6):29–35, doi:10.2166/wst.2006.166.
• Kim, J. J., Myneni, S. C. B. & Peters, C. A. (2021): Distribution of Metals and Toxic Elements Between Carbonate, Sulfate, and Oxide Mineral Precipitates. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 249–254; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Kim, S.-M. & Choi, Y. (2018): SIMPL: A Simplified Model-Based Program for the Analysis and Visualization of Groundwater Rebound in Abandoned Mines to Prevent Contamination of Water and Soils by Acid Mine Drainage. – Int. J. Environ. Res. Public Health, 15(5):951, doi:10.3390/ijerph15050951.
• Kim, Y. W., Kim, M. J., Chung, B. Y., Bang du, Y., Lim, S. K., Choi, S. M., Lim, D. S., Cho, M. C., Yoon, K., Kim, H. S., Kim, K. B., Kim, Y. S., Kwack, S. J. & Lee, B. M. (2013): Safety evaluation and risk assessment of d-Limonene. – J. Toxicol. Environ. Heal. B Crit. Rev., 16(1):17–38, doi:10.1080/10937404.2013.769418.
• Kimball, B., Bianchi, F., Walton-Day, K., Runkel, R. L., Nannucci, M. & Salvadori, A. (2007): Quantification of Changes in Metal Loading from Storm Runoff, Merse River (Tuscany, Italy). – Mine Water Environ., 26(4):209–216, 5 Abb.; doi:10.1007/s10230-007-0020-6.
• Kimball, B. A. (1997): Use of tracer injections and synoptic sampling to measure metal loading from acid mine drainage. – Fact Sheet – U.S. Geological Survey, FS 0245-96:4, 6 Abb.
• Kimball, B. A., Bianchi, F., Walton-Day, K., Runkel, R. L., Nannucci, M. & Salvadori, A. (2007): Quantification of Changes in Metal loading from Storm Runoff, Merse River (Tuscany, Italy): Water in Mining Environments. – 83–87 p., 4 Abb.; Cagliari (Mako Edizioni).
• Kimball, B. A., Broshears, R. E., Bencala, K. E. & McKnight, D. M. (1994): Coupling of hydrologic transport and chemical reactions in a stream affected by acid mine drainage. – Environ. Sci. Technol., 28(12):2065–2073, doi:10.1021/es00061a014.
• Kimball, B. A. & Runkel, R. L. (2002): Evaluating remedial alternatives for an acid mine drainage stream: Application of a reactive transport model. – Environ. Sci. Technol., 36(5):1093–1101.
• Kimball, B. A. & Runkel, R. L. (2009): Spatially Detailed Quantification of Metal Loading for Decision Making: Metal Mass Loading to American Fork and Mary Ellen Gulch, Utah. – Mine Water Environ., 28(4):274–290, 9 Abb., 4 Tab.; doi:10.1007/s10230-009-0085-5.
• Kimball, B. A., Runkel, R. L., Bencala, K. E. & Walton-Day, K. (1999): Use of tracer injections and synoptic sampling to measure metal loading from acid mine drainage. – Water Resour. Investig. Rep., WRI 99-4018A(1):31–36, 6 Abb.
• Kimball, B. A., Runkel, R. L. & Gerner, L. J. (2001): Quantification of mine-drainage inflows to Little Cottonwood Creek, Utah, using a tracer-injection and synoptic-sampling study. – Environ. Geol., 40(11-12):1390–1404, 11 Abb., 1 Tab.
• Kimball, B. A., Runkel, R. L., Walton-Day, K. & Bencala, K. E. (2002): Assessment of metal loads in watersheds affected by acid mine drainage by using tracer injection and synoptic sampling: Cement Creek, Colorado, USA. – Appl. Geochem., 17(9):1183–1207, 10 Abb., 5 Tab.; doi:10.1016/S0883-2927(02)00017-3.
• Kimball, B. A., Runkel, R. L., Walton-Day, K. & Bove, D. J. (2002): Integrating Hydrologic and Geologic Controls on Metal Loading to Streams : Mass-Loading Analysis of Mineral Creek , Colorado. Paper presented at the Annual Conference of National Association of Abandoned Mine Land Programs (NAAMP), Park City. – p. 1–20, 9 Abb.
• Kimbrough, R. D. & Jensen, A. A. (1989): Halogenated biphenyls, terphenyls, naphthalenes, dibenzodioxins and related products, 2nd edn. – Amsterdam (Elsevier); doi:10.1016/C2009-0-12642-9.
• Kimizuka, K.-i., Kajiwara, S. & Tsuruga, T. (2001): Process for producing persulfate. US 6214197 B1.
• Kimrey, J. O. & Fayard, L. D. (1984): Geohydrologic Reconnaissance of Drainage Wells in Florida. – Water Resour. Investig. Rep., 84-4021:1–68, 15 Abb., 7 Tab.
• Kimura, H., Matsumoto, R., Kakuma, Y., Hamdi, B. & Zibaseresht, H. (1997): The Vendian-Cambrian δ13C record, North Iran: evidence for overturning of the ocean before the Cambrian Explosion. – Earth Planet. Sci. Lett., 147:E1–E7, doi:10.1016/S0012-821X(97)00014-9.
• Kinčl, J., Jiříček, T., Fehér, J., Amrich, M., Neděla, D., Toman, F., Velen, B., Cakl, J. & Kroupa, J. (2017): Electromembrane Processes in Mine Water Treatment. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1154–1161, Lappeenranta (Lappeenranta University of Technology).
• Kindermann, L. (1998): Kontrolle geochemischer Parameter beim Wiedereinbau von Reststoffen in ein stillgelegtes Bergwerk. – Wiss. Mitt. Inst. Geol., 7:196–201, 5 Abb.
• Kindermann, L. & Klemm, W. (1996): Untersuchungen der provisorischen Wasseraufbereitungsanlage Straßberg der BST-Mansfeld GmbH (ehemalige Flußspatgrube Straßberg). – Unveröff. Bericht TU Bergakademie Feiberg:48, 32 Abb., 2 Tab., 1 Anl.
• King, A. C., Mitchell, C. A. & Howes, T. (1997): Hydraulic tracer studies in a pilot scale subsurface flow constructed wetland. – Water Sci. Technol., 35(5):189–196, 6 Abb., 1 Tab.
• King, C. Y., King, B. S. & Evans, W. C. (1996): Spatial radon anomalies on active faults in California. – Appl. Geochem., 11(4):497–510, 15 Abb., 1 Tab.
• King, D. J., Simmler, J. J., Decker, C. S. & Ogg, C. W. (1974): Acid strip mine lake recovery. – J. Water Pollut. Control Fed., 42(10):2301–2316, 11 Abb., 1 Tab.
• King, E., Bottrell, S., Sapsford, D. & Raiswell, R. (2003): Modelling carbon fluxes in a constructed wetland. – Land Contam. Reclam., 11(2):199–203, doi:10.2462/09670513.815.
• King, K. N. & Lottreaux, G. (2018): Yanfolila Gold Mine Open Pit Slope Depressurisation, Mali. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 524–528; (Tshwane University of Technology).
• King, M., Waldo, P., John, K., Frits, R. & Eduardo, P. (2010): A Novel Form of Mine Water: A Lithium Brine Deposit Under Dry Salt Lakes (Salars) in the Puna Region of Argentina. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 305–309, Sydney, NS (Cape Breton University Press).
• King, P. P. (1827): Narrative of a survey of the intertropical and western coasts of Australia. Performed between the years 1818 and 1822; with an appendix, containing various subjects relating to hydrography and natural history; in two volumes: 1. – 451 p., London.
• Kingsley-Hughes, A., Kingsley-Hughes, K. & Read, D. (2007): VBScript Programmer’s Reference. – 819 p., (Wrox).
• Kink, R. (1852): Codex Wangianus – Urkundenbuch des Hochstiftes Trient begonnen unter Friedrich von Wangen, Bischofe von Trient und Kaiser Friedrich’s II. Reichsvikar für Italien. Fortgesetzt von seinen Nachfolgern. – Fontes rerum Austriacarum II – Diplomataria et Acta, 5:560.
• Kinnear, W. J. (1988): High Reliability Multistage Mine Dewatering Pumpsets. – Int. J. Mine Water, 7(2):7–18, 5 Abb.
• Kinnunen, P. (2013): Literature review, PuMi task 1: Water Recycling in the Mining Industry. – 44 p., 16 Abb., 25 Tab.; Lappeenranta (Lappeenranta University of Technology VTT Technical Research Centre of Finland).
• Kinser, K., Sansom, S. & Oliver, D. S. (2013): A Global Perspective on Boron Removal: Treatment Technologies and Practical Applications. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 633–637, 3 Abb., 3 Tab.; Golden (International Mine Water Association).
• Kinze, M. (2002): Dose Limits and Maximum Concentration Limits (MCL´s) for Radionuclides – Implication on Remediation of Uranium Mining and Milling Facilities in Saxony, Germany. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1–7, 1 Abb.; Heidelberg (Springer).
• Kinzel, T. (2004): Untersuchungen zur Belastungssituation und zu Bindungsformen von Schadelementen in industriell geprägten Fließgewässern. – 313 p., 132 Abb., 54 Tab.; Hamburg (unveröff. Dissertation Universität Hamburg).
• Kipco, E. J. & Lushnikova, O. J. (1987): Size Estimation of Water-Sealing Curtains around Mine Workings by hydrodynamic Testing: Hydrogeology of Coal Basins. – 125–129 p., Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Kipko, B. J., Polozov, J. A. & Spichak, J. N. (1984): Hydrosealing and Consolidation of geological Faults during Tunnel Driving. – Int. J. Mine Water, 3(3):35–41, 3 Abb., 1 Tab.
• Kipko, E. J. (1982): Integrated Method for Grouting of aquiferous Formations developed at the P/O “Spetstamponazhgeologia”. Paper presented at the Proceedings, 1st International Mine Water Congress, Budapest, Hungary. – p. 310–319, 1 Tab.
• Kipko, E. J. (1985): Grouting of Large Karstic Caverns in Dobrogea Coalfield, Bulgaria. – Int. J. Mine Water, 4(2):35–39, 1 Abb., 2 Tab.
• Kipko, E. J. (1985): New Developments in the Field of Grouting using Integrated Method. Paper presented at the Proceedings, 2nd International Mine Water Association Congress. – p. 365–376, 2 Abb., 1 Tab.
• Kipko, E. J. (1986): Water Control by integrated Grouting Method in Mining. – Int. J. Mine Water, 5(4):41–47, 1 Tab.
• Kipko, E. J. (1988): Application of Grouting Techniques for the Solution of Environmental Problems during Mining. Paper presented at the Proceedings, 3rd International Mine Water Congress, Melbourne. – p. 655–666, 4 Abb.
• Kipko, E. J. (1989): Groundwater control during shaft sinking. Paper presented at the Shaft Engineering, Harrogate, 5 to 7 June, 1989. – p. 262–265, 1 Abb.; London (Taylor & Francis).
• Kipko, E. J. (1996): Grouting large karst zones at Dobrugea Coal Field in Bulgaria. Paper presented at the Engineering in Karst, Portoroz. – p. 1–13, 2 Abb., 1 Tab., 1 Anh.; (Proceedings International Mine Water Association Workshop).
• Kipko, E. J., Allred, C. S., Hanley, J. E., Spichak, Y., N. & Hartley, R. M. (1993): Use of the STG Integrated Grouting Technology for the Prevention of Acid Mine Drainage in the United States. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 377–399, 4 Abb., 4 Tab.; Chililabombwe (Konkola Division).
• Kipko, E. J. & Kipko, A. E. (1990): A new technique for grouting old mine workings. – Mining Science and Technology, 11:199–206.
• Kipko, E. J., Lagunov, V. A. & Polozov, J. A. (1985): Elimination of abandoned flooded Workings during Shaft Sinking at Yuzhnaya Mine. – Proceedings, 2nd International Mine Water Association Congress, 1:377–383, 2 Abb., 1 Tab.
• Kipko, E. J. & Polozov, J. A. (1993): Design and Implementation of Grouting Programs for Mine Shafts sunk in complex Geological Conditions. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 532–542, 3 Abb.; Chililabombwe (Konkola Division).
• Kipko, E. J., Polozov, Y. A., Spichak, Y. N. & Donchenko, V. A. (1991): Grouting of Karstified Aquifers During Shaft Drilling at Palazu-Mare Iron Ore Deposit. Paper presented at the Proceedings, 4th International Mine Water Association Congress. – p. 95–104, 2 Abb., 3 Tab.
• Kipko, E. J., Spichak, Y. & Polozov, Y. (1998): Water Sealing of Fault Zones at Ping Lin Pilot Tunnel in Taiwan. Paper presented at the Mine Water and Environmental Impacts, Johannesburg. – p. 141–148, 3 Abb., 1 Tab.; (Proceedings International Mine Water Association Symposium).
• Kipko, E. J., Spichak, Y. N., Grinenko, A. N., Hartley, R. M., Raymondi, R. R. & Levihn, K. A. (1995): Clay-based Grouting Demonstration Project at the Mike Horse Mine in Lincoln, Montana. Paper presented at the Water resources at risk, Denver. – p. IMWA.148–156, 3 Abb., 6 Tab.; (American Institute of Hydrology).
• Kipko, E. J., Spychak, Y. N. & Polozov, Y. A. (2001): Water Control in Metals Mining. Paper presented at the Proceedings IMWA Symposium Belo Horizonte, Belo Horizonte. – p. 1–7 [CD–ROM], 1 Tab.
• Kipko, E. Y., Polozov, J. A. & Lagunov, V. A. (1984): Experience in Sealing Water Bearing Strata During Deep Shaft Sinking. – Int. J. Mine Water, 3(4):55–62, 3 Abb., 2 Tab.
• Kipko, E. Y., Polozov, Y. A. & Spichak, Y. N. (1994): Environmental Projection During Mining Diamond Deposits of Yakutiya with the Use of Grouting Curtains. Paper presented at the Proceedings, 5th International Mine Water Congress, Nottingham, U.K. – p. 217–227, 3 Abb., 3 Tab.
• Kipko, E. Y., Polozov, Y. A., Spichak, Y. N. & Popov, A. V. (1997): Stabilized Clay Sealants for Mining and Hydraulic Structure. Paper presented at the Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia. – p. 211–219, 6 Abb.
• Kipko, E. Y., Polozov, Y. A., Zabora, V. V. & Smorondin, G. M. (1994): Groundwater Control in a Shaft Boring Operation. – Mine Water Environ., 13(2):27–31, 2 Abb., 1 Tab.
• Kipko, E. Y., Spichak, Y. N., Polozov, Y. A., Kipko, A. E. & Hepnar, P. (1993): Grouting of Old Flooded Workings at M. Mayerova Mine in Czechoslovakia. – Mine Water Environ., 12(1-4):21–26, 1 Abb., 2 Tab.
• Kipko, O. E., Kipko, J. V. & Wolkersdorfer, Ch. (2018): Ernest Iakovlevich Kipko 1932 – 2016. – Mine Water Environ., 37(4):861–863, 1 Abb.; doi:10.1007/s10230-018-0555-8.
• Kiraly, L. (2002): Karstification and Groundwater Flow. – In: Gabrovšek, F. (ed) Evolution of karst: from prekarst to cessation. – p. 155–190, 24 Abb.; Ljubljana (Založba).
• Kirby, C. S. & Brady, J. A. E. (1998): Field determination of Fe²⁺ oxidation rates in acid mine drainage using a continuously-stirred tank reactor. – Appl. Geochem., 13(4):509–520, 9 Abb., 4 Tab.
• Kirby, C. S. & Cravotta, C. A., III (2005): Net alkalinity and net acidity 1: Theoretical consideration. – Appl. Geochem., 20(10):1920–1940, 11 Abb., 2 Tab.; doi:10.1016/j.apgeochem.2005.07.002.
• Kirby, C. S. & Cravotta, C. A., III (2005): Net alkalinity and net acidity 2: Practical considerations. – Appl. Geochem., 20(10):1941–1961, 8 Abb., 9 Tab.; doi:10.1016/j.apgeochem.2005.07.003.
• Kirby, C. S., Decker, S. M. & Macander, N. K. (1999): Comparison of color, chemical and mineralogical compositions of mine drainage sediments to pigment. – Environ. Geol. Water Sci., 37(3):243–254, 9 Abb., 3 Tab.; doi:10.1007/s002540050382.
• Kirby, C. S., Dennis, A. & Kahler, A. (2009): Aeration to degas CO₂, increase pH, and increase iron oxidation rates for efficient treatment of net alkaline mine drainage. – Appl. Geochem., 24:1175–1184, 7 Abb., 5 Tab.; doi:10.1016/j.apgeochem.2009.02.028.
• Kirby, C. S., Thomas, H. M., Southam, G. & Donald, R. (1999): Relative contributions of abiotic and biological factors in Fe(II) oxidation in mine drainage. – Appl. Geochem., 14(4):511–530, 7 Abb., 7 Tab.; doi:10.1016/S0883-2927(98)00071-7.
• Kirby, M. E., Bullen, J. C., Hanif, M. D., Heiba, H. F., Liu, F., Northover, G. H. R., Resongles, E. & Weiss, D. J. (2020): Determining the Effect of pH on Iron Oxidation Kinetics in Aquatic Environments: Exploring a Fundamental Chemical Reaction To Grasp the Significant Ecosystem Implications of Iron Bioavailability. – J. Chem. Educ., 97(1):215–220, doi:10.1021/acs.jchemed.8b01036.
• Kirchmayr, M. (2016): Bericht zu den archäologischen Untersuchungen in Ehrwald 2016 – Eine eisenzeitliche Altwegtrasse im Loisachtal. – Fundberichte aus Österreich, 55:1–30.
• Kirchmayr, M. (2017): Archäologie im Bezirk Reutte – Bisheriger Forschungsstand und aktuelle Projekte. – Extra Verren, 12:7–24, 3 Abb., 8 Taf.
• Kirchmayr, M. (2019): Eine eisenzeitliche Wegtrasse im Loisachtal – ein Vorbericht. Paper presented at the Die frühe Eisenzeit in Mitteleuropa (zgl. Beiträge zur Vorgeschichte Nordostbayerns), Nürnberg. – p. 251–258; Nürnberg (Naturhistorische Gesellschaft Nürnberg e.V., Abteilung für Vorgeschichte).
• Kirchmayr, M. (2019): Prähistorische Wege und transalpine Verkehrsverbindungen in Nordtirol – Beispiele und Methodische Grundlagen. – Münchner Beiträge zur Vor- und Frühgeschichte, 67:457–479, 11 Abb., 1 Tab.
• Kirchmayr, M., Lueger, D., Neuhauser, G., Proc, M., Tsiobanidis, V., Turri, D., Waldhart, E. & Wallner, J. (2017): Eisenzeitliche Siedlungen in Nordtirol. In: Kirchmayr, M. (ed). Institut für Archäologien. Universität Innsbruck, Innsbruck, 114.
• Kirchmayr, M. & Schumacher, S. (2019): Ein Miniaturschild mit rätischer Inschrit vom Fernpass. – In: Hye, S. & Töchterle, U. (eds): UPIKU:TAUKE – Festschrift für Gerhard Tomedi zum 65. Geburtstag 339. – p. 257–268, 6 Abb.; Bonn (Habelt).
• Kirchner, E. C. (1980): Vulkanite aus dem Permoskyth der Nördlichen Kalkalpen und ihre Metamorphose. – Mitt. Österr. Geol. Ges., 71/72:385–396.
• Kirchner, M. (2016): Altbergbau in NRW – aktueller Überblick. – Veröff. Dt. Bergbau-Mus. Bochum, 217:8–15.
• Kirchner, M., Fegg, W., Römmelt, H., Leuchner, M., Ries, L., Zimmermann, R., Michalke, B., Wallasch, M., Maguhn, J., Faus-Kessler, T. & Jakobi, G. (2014): Nitrogen deposition along differently exposed slopes in the Bavarian Alps. – Sci. Total Environ., 470–471:895–906, 10 Abb., 2 Tab.; doi:10.1016/j.scitotenv.2013.10.036.
• Kirchner, T., Marsh, N. & Mattson, B. (2016): Geochemical trends in evaporative tailings ponds – an experimental study. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 313–320, Freiberg (TU Bergakademie Freiberg).
• Kirchner, T. & Mattson, B. (2015): Scaling Geochemical Loads in Mine Drainage Chemistry Modelling – An Empirical Derivation of Bulk Scaling Factors. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Kirk, A. R., Bogert, H., Marks, M. B. & Curiel, E. (2013): Stemming Flow using Hydraulic Adit Plug Closure, a Comparison: Glengarry Mine, New World District, Montana and World’s Fair Mine, Patagonia, Arizona. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1009–1010, 1 Tab.; Golden (International Mine Water Association).
• Kirk, L. B., Bozeman, L. R., Kirk, A. R. & Marks, M. B. (2013): Geochemistry of Improved Groundwater Quality Resulting from Adit Plugging, Glengarry Mine, New World District, Cooke City MT USA. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1011–1016, 4 Abb., 1 Tab.; Golden (International Mine Water Association).
• Kirk, L. B., Hwang, C., Ertuna, C., Kennedy, C. & Peyton, B. (2017): Column Tests of Selenium Biomineralization in Support of Mine Facility Design. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1191–1195, Lappeenranta (Lappeenranta University of Technology).
• Kirkwood, D. T. & Wu, K. K. (1995): Technical Considerations for the Design and Construction of Mine Seals to Withstand Hydraulic Heads in Underground Mine. – 4 Abb.; (U.S. Department of Labor).
• Kirnbauer, F. (1958): Die Bergordnung von Trient aus dem Jahre 1208 und ihre Beziehung zur Bergbautechnik. – Bl. Technikgesch., 20:1–24, 2 Abb.
• Kirnbauer, T. (2022): Buntmetall-, Schwermetall- und Edelmetall-Vererzungen im Siegerland – Ein Überblick. Paper presented at the 23. Internationaler Bergbau- & Montanhistorik-Workshop, Wilnsdorf. – p. 55–80, 33 Abb., 3 Tab.; Clausthal-Zellerfeld (Papierflieger Verlag GmbH).
• Kirnbauer, T. & Hucko, S. (2011): Hydrothermale Mineralisation und Vererzung im Siegerland. – Der Aufschluss, 62(Juli - Okt.):257–296, 40 Abb., 1 Tab.
• Kirsch, S. (2022): Scientific Ghostwriting in the Amazon? The Role of Experts in the Lawsuit against Chevron in Ecuador. – Comp. Stud. Soc. Hist., 64(2):335–362, doi:10.1017/s0010417522000020.
• Kirschner, F. E., Jr., Williams, R. E. & Ralston, D. R. (1990): Ground-surface delineation of fractures over mined-out openings using carbon dioxide emissions. – Ground Water, 28(4):576–582, Refs: 35; illus. incl. 1 table, sect., geol. sketch maps; doi:10.1111/j.1745-6584.1990.tb01714.x.
• Kissel, D. E., Sonon, L., Vendrell, P. F. & Isaac, R. A. (2009): Salt Concentration and Measurement of Soil pH. – Commun. Soil Sci. Plant Anal., 40(1-6):179–187, doi:10.1080/00103620802625377.
• Kissinger, A., Helmig, R., Ebigbo, A., Class, H., Lange, T., Sauter, M., Heitfeld, M., Klünker, J. & Jahnke, W. (2013): Hydraulic fracturing in unconventional gas reservoirs: risks in the geological system, part 2. – Environ. Earth Sci., 70(8):3855–3873, 19 Abb., 8 Tab.
• Kiss-Máté, C. (1988): Numerical Simulation of Chemical and Nuclear Contamination Transport in Aquifers and its Possible Application for the Control of Environmental Impacts due to Mining Activity. – Proceedings, 3rd International Mine Water Congress, Melbourne:185–201, 7 Abb., 1 Tab.
• Kistinger, S. (1999): Reclamation Strategy at the Ronneburg Uranium Mining Site before Flooding the Mine. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 299–303, 2 Abb.; Sevilla (International Mine Water Association).
• Kistinger, S., Deissmann, G., Goldsworthy, M. & Stollenwerk, R. H. (2002): Evaluation of the long-term durability of engineered dry covers for mining wastes, and consideration of associated design constraints. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 157–166, Heidelberg (Springer).
• Kitanidis, P. K. (1994): The Concept of the Dilution Index. – Water Resour. Res., 30(7):2011–2026, doi:10.1029/94wr00762.
• Kite, G. (1993): Computerized streamflow measurement using slug injection. – Hydrol. Processes, 7(2):227–233, 3 Abb., 1 Tab.; doi:10.1002/hyp.3360070212.
• Kitoh, A. (1997): Mountain uplift and surface temperature changes. – Geoph. Res. Letters, 24(2):185–188.
• Kittel, J. (2006): Symptome und Zeichen der chronischen Kupfervergiftung. – 174 p., Ludwig-Maximilians-Universität München; München.
• Kiváková, O. & ížková, H. (2008): Sandpit Lakes in the Tebo Basin Biosphere Reserve (Czech Republic). – Proceedings, 10th International Mine Water Association Congress:583–586.
• Klaar, K. (1914): Ein Kupfer- und Silberbergwerk in Sankt Bartlmeberg in Montafon ca. 1730. – Forschungen und Mitteilungen zur Geschichte Tirols und Vorarlbergs, 11:182–184.
• Klapper, H. (2002): Mining Lakes – Generation, Loading and Water Quality Control. – In: Mudroch, A., Stottmeister, U., Kennedy, C. & Klapper, H. (eds): Remediation of Abandoned Surface Coal Mining Sites. – p. 57–110, 21 Abb., 9 Tab.; Berlin (Springer).
• Klapper, H., Friese, K., Scharf, B., Schimmele, M. & Schultze, M. (1998): Ways of Controlling Acid by Ecotechnology. – In: Geller, W., Klapper, H. & Salomons, W. (eds): Acidic Mining Lakes – Acid Mine Drainage, Limnology and Reclamation. – p. 401–416, 7 Abb.; Berlin (Springer).
• Klapper, H. & Geller, W. (2001): Water Quality Management of Mining Lakes – a New Field of Applied Hydrobiology. – Acta Hydrochim. Hydrobiol., 29(6-7):363–374, 7 Abb., 5 Tab.
• Klapper, H., Geller, W. & Schultze, M. (1996): Abatement of acidification in mining lakes in Germany. – Lakes and Reservoirs Research and Management, 2(1-2):7–16, 6 Abb., 3 Tab.
• Klaus, R. (2013): Glass Bead Filter Packs in Water Wells for Higher Efficiency and Reduced O & M costs. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 861–865, 4 Abb., 2 Tab.; Golden (International Mine Water Association).
• Klebelsberg, R. v. (1935): Geologie von Tirol. – 872 p., 1 Karte, 11 Beil.; Berlin (Borntraeger).
• Klebelsberg, R. v. (1939): Nutzbare Bodenvorkommnisse in Nordtirol. – Veröff. Mus. Ferdinandeum, 19:1–56.
• Klebelsberg, R. v. (1947): Otto Ampferers geologisches Lebenswerk. – Jb. Geol. B.-A., 92:93–116, 1 Abb.
• Kleeberg, K. (2005): Eine ArcGIS-Anwendung für sächsische Rohstoffe. – Wiss. Mitt. Inst. Geol., 28:119–122, 3 Abb.
• Kleiman, D. B. (1982): Mine Drainage in Karst. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:501–516, 4 Abb., 1 Tab.
• Klein, D. B. & Neufeld, R. D. (2005): Use of a Multiple Orifice Spray Reactor to Accelerate Ferrous Iron Oxidation in Acidic Mine Water. – Mine Water Environ., 24(4):186–193, 4 Abb., 2 Tab.
• Klein, R., Jr. & Hach, C. (1977): Standard Additions – Uses and Limitations in Spectrophotometric Analysis. – American Laboratory, 9:21–30, 5 Abb., 1 Tab.
• Klein, S. (1935): Paragenetische Verhältnisse und Bildungsweise der Mineralien und Pseudomorphosen des Wendelsteiner Höhenzuges bei Nürnberg. – Zentralbl. Mineral., Geol. Paläontol.,(Abt. A.):231–242, 257–266, 3 Abb.
• Klein, S. (1935): Schwerspat-Anreicherung durch alkalische Verwitterungslösungen in einer fränkischen Keuper-Arkose und ihre regionale und geochemische Bedeutung. – Z. dt. geol. Ges., 87:320–332.
• Klein, T. (1996): Der Altersunterschied zwischen Ehepartnern – Ein neues Analysemodell. – Zeitschrift für Soziologie, 25(5):346–370, 7 Abb., 2 Tab.
• Kleinhans, I. & Van Rooy, J. L. (2016): Guidelines for sinkhole and subsidence rehabilitation based on generic geological models of a dolomite environment on the East Rand, South Africa. – J. Afr. Earth Sci., 117:86–101, doi:10.1016/j.jafrearsci.2016.01.001.
• Kleinmann, B. (2020): Dear Reader. – Mine Water Environ., 39(4):667–668, doi:10.1007/s10230-020-00733-3.
• Kleinmann, B. (2020): Dear Reader. – Mine Water Environ., 39(3):423–424, doi:10.1007/s10230-020-00708-4.
• Kleinmann, B. (2020): Dear Readers. – Mine Water Environ., 39(2):163–164, doi:10.1007/s10230-020-00688-5.
• Kleinmann, B. (2021): Dear Reader. – Mine Water Environ., 40(3):555–556, doi:10.1007/s10230-021-00796-w.
• Kleinmann, B. (2021): Dear Reader. – Mine Water Environ., 40(4):809–810, doi:10.1007/s10230-021-00835-6.
• Kleinmann, B. (2022): Dear Reader. – Mine Water Environ., doi:10.1007/s10230-022-00910-6.
• Kleinmann, B. (2022): Dear Reader. – Mine Water Environ., doi:10.1007/s10230-022-00880-9.
• Kleinmann, B. (2023): Dear Reader. – Mine Water Environ., doi:10.1007/s10230-023-00928-4.
• Kleinmann, B. (2024): Dear Reader. – Mine Water Environ., 43(4):561–562, doi:10.1007/s10230-024-01014-z.
• Kleinmann, B. & Ackman, T. (2024): Simultaneous Aeration and Neutralization of Mine Water: An Apparently Forgotten Discovery. – Mine Water Environ., 43(2):195–197, doi:10.1007/s10230-024-00992-4.
• Kleinmann, B., Skousen, J., Wildeman, T., Hedin, B., Nairn, B. & Gusek, J. (2021): The Early Development of Passive Treatment Systems for Mining-Influenced Water: A North American Perspective. – Mine Water Environ., 40(4):818–830, doi:10.1007/s10230-021-00817-8.
• Kleinmann, B., Sobolewski, A. & Skousen, J. (2022): The Evolving Nature of Active, Passive, and Semi-Passive Mine Water Treatment Technologies. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 187–193; (International Mine Water Association).
• Kleinmann, R., Sobolewski, A. & Skousen, J. (2023): The Evolving Nature of Semi-passive Mine Water Treatment. – Mine Water Environ., 42(1):170–177, doi:10.1007/s10230-023-00922-w.
• Kleinmann, R. L. P. (1982): Prevention of Acid Mine Drainage. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 3:elektronisches Dokument.
• Kleinmann, R. L. P. (1983): At-Source Control of AMD: A Progress Report. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 4:elektronisches Dokument.
• Kleinmann, R. L. P. (1990): Acid Mine Water Treatment using Engineered Wetlands. – Int. J. Mine Water, 9(1-4):269–276, doi:10.1007/BF02503697.
• Kleinmann, R. L. P. (1990): At-Source Control of Acid Mine Drainage. – Int. J. Mine Water, 9(1-4):85–96, 1 Abb.; doi:10.1007/BF02503685.
• Kleinmann, R. L. P. (2001): Mine Water Quality Prediction at Surface Coal Mines in the United States. – 1–15 [CD–ROM] p., 3 Abb., 5 Tab.; Belo Horizonte (Proceedings IMWA Symposium Belo Horizonte).
• Kleinmann, R. L. P. (2001): Predicting Mine Water Quality at Surface (Opencast) Coal Mine [Abstract]. – 1 [CD–ROM] p., Belo Horizonte (Proceedings IMWA Symposium Belo Horizonte).
• Kleinmann, R. L. P. & Crerar, D. A. (1979): Thiobacillus ferrooxidans and the Formation of Acidity in Simulated Coal-Mine Environments. – Geomicrobiol. J., 1(4):373–388, 2 Abb., 3 Tab.; doi:10.1080/01490457909377742.
• Kleinmann, R. L. P. & Erickson, P. M. (1982): Control of Acid Mine Drainage using Anionic Surfactants. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, C:51–64, 8 Abb.
• Kleinmann, R. L. P. & Erickson, P. M. (1984): Prevention of Acid Drainage from Stored Coal – Discussion. – J. Energy Eng.-ASCE, 110(2):176–177, doi:10.1061/(asce)0733-9402(1984)110:2(176).
• Kleinmann, R. L. P., Hornberger, R., Leavitt, Bruce & Hyman, D. M. (2000): Introduction and Recommendations. – In: Prediction Workgroup of the Acid Drainage Technology Initiative & Kleinmann, R. L. P. (eds): Prediction of Water Quality at Surface Coal Mines. – p. 1–7, zahlr. Abb., zahlr. Tab.; Morgantown (National Mine Land Reclamation Center).
• Kleinmann, R. L. P., Watzlaf, G. R. & Ackman, T. E. (1985): Treatment of Mine Water to Remove Manganese. Paper presented at the Symp. Surface Ming. Hydro. Sediment. Reclam., Lexington. – p. 211–217.
• Kleinmann, R. L. P. & Wolkersdorfer, Ch. (2005): Mine Water and the Environment – Notes for Contributors. – Mine Water Environ., 24(3):162–165, 1 Abb., 1 Tab.
• Kleiv, R. A. & Thornhill, M. (2004): Adsorptive retention of copper from acidic mine water at the disused sulphide mine at Løkken, central Norway––initial experiments using olivine. – Miner. Eng., 17(2):195–203, doi:10.1016/j.mineng.2003.09.014.
• Klemm, W. & Degner, T. (2001): Untersuchung von Parametern für die Abschätzung der zukünftigen Verbringungsmöglichkeiten von Eisenhydroxidschlämmen in das Straßberger Grubengebäude. – Unpubl. Report for GmbH, B. S. T. M. & Co, K. G. 43 p., 15 Abb., 14 Tab., 5 Anl.; Freiberg (TU Bergakademie Freiberg – Institut für Mineralogie).
• Klemm, W. & Greif, A. (2006): Reinigung belasteter Haldensickerwässer durch In-situ-Eisenhydroxidfällung – Ergebnisse eines Langzeitversuchs unter Realbedingungen. – Wiss. Mitt. Inst. Geol., 31:47–54, 5 Abb., 2 Tab.
• Klemm, W. & Kindermann, L. (1996): Datenerfassung zur Entwicklung der Wasserqualität in der ehemalige Flußspatgrube Straßberg. – 43 p., Freiberg (Unveröff. Bericht TU Bergakademie Feiberg).
• Klemm, W., Knittel, U., Sachse, S. & Händel, M. (2003): REE Enrichment in Groundwaters of the Polysulphide Ore Deposit Freiberg. – Wiss. Mitt. Inst. Geol., 24:59–63, 7 Abb., 2 Tab.
• Klemm, W. & Krellmann, Y. (2002): Investigations into seepage water acidification of a tailing dam of the tin ore processing. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1117–1124, 6 Abb.; 1 Tab.; Heidelberg (Springer).
• Klenowski, G. & Phillips, R. N. (1988): Determination of Groundwater Inflow Rates for Longwall Mining, German Creek, Bowen Basin, Queensland. – Proceedings, 3rd International Mine Water Congress, Melbourne:21–29, 4 Abb., 4 Tab.
• Klessa, D. A. (2000): Bioavailabilities of radionuclides and nonradiological contaminants in sediment containing uranium mill tailings. – Proceedings, 7th International Mine Water Association Congress:418–429, 2 Abb., 3 Tab.
• Klessa, D. A. (2000): Compartmentalisation of uranium and heavy metals into sediment and plant biomass in a constructed wetland filter. – Proceedings, 7th International Mine Water Association Congress:407–417, 6 Tab.
• Kleta, H., Plewa, F. & Strozik, G. (2005): Application of stabilizing highly thickened slurries for filling of flooded shafts. – Gorn. Geoinz., 29(3, Pt. 2):47–52, 3 Abb., 4 Tab.
• Klett, R. D., Tyner, C. E. & Hertel, E. S., Jr. (1981): Geologic flow characterization using tracer techniques: SAND-80-0454. – 84 p., 36 Abb., 1 Tab.; Paris (Nuclear Energy Agency).
• Klimant, I., Meyer, V. & Kohls, M. (1995): Fibre-optic oxygen microsensors, a new tool in aquatic biology. – Limnol. Oceanogr., 40(6):1159–1165, 5 Abb., 1 Tab.; doi:10.4319/lo.1995.40.6.1159.
• Klimchouk, A., Palmer, A. N., De Waele, J., Auler, A. & Audra, P. (2017): Hypogene Karst Regions and Caves of the World: Cave and Karst Systems of the World. – 911 p., Cham (Springer); doi:10.1007/978-3-319-53348-3.
• Klimchouk, A. B. (2011): Hypogene Speleogenesis – Hydrogeological and Morphogenetic Perspective: Special Paper 1, 2nd edn. – 106 p., Carlsbad (National Cave and Karst Research Institute).
• Klimchouk, A. B., Aksem, S. D., Johnson, K. S. & Gunay, G. (2002): Gypsum karst in the western Ukraine; hydrochemistry and solution rates. – Carbonate Evaporite, 17(2):142–153.
• Klimenko, I. (1991): Hydromineral Resources of Mineral Deposits in the USSR. – Proceedings, 4th International Mine Water Association Congress, 1:73–77, 3 Abb.
• Klimeš, J. (2018): Mapa svahových deformací v širším okolí dálnice D8 v úseku mezi obcemi Dobkovičky a Prackovice nad Labem [Slope deformations map along highway D8 between the villages of Dobkovičky and Prackovice nad Labem]. – Geoscience Research Reports, 51(2):201–205, 4 Abb.; doi:10.3140/zpravy.geol.2018.13.
• Klimko, T., Lalinská, B. & Šottník, P. (2008): Antimony Removal by Zero-valent Iron: Implications for Insitu Groundwater Remediation. – Proceedings, 10th International Mine Water Association Congress:279–280.
• Klímková, Š. & Cerník, M. (2008): Application of Zero-Valent Nanoparticles for Acid Mine Water Remediation. – Proceedings, 10th International Mine Water Association Congress:281–284, 4 Abb., 1 Tab.
• Klímková, Š., Cerník, M., Lacinova, L., Filip, J., Jancik, D. & Zboril, R. (2011): Zero-valent iron nanoparticles in treatment of acid mine water from in situ uranium leaching. – Chemosphere, 82(8):1178–1184, 6 Abb., 1 Tab.; doi:10.1016/j.chemosphere.2010.11.075.
• Klinčić, D., Herceg Romanić, S., Katalinić, M., Zandona, A., Čadež, T., Matek Sarić, M., Šarić, T. & Aćimov, D. (2020): Persistent organic pollutants in tissues of farmed tuna from the Adriatic Sea. – Mar. Pollut. Bull., 158:111413, doi:10.1016/j.marpolbul.2020.111413.
• Klinger, C., Charmoille, A., Bueno, J., Gzyl, G. & Súcar, B. G. (2012): Strategies for follow-up care and utilisation of closing and flooding in European hard coal mining areas. – Int. J. Coal Geol., 89:51–61, doi:10.1016/j.coal.2011.11.008.
• Klinger, C., Eckart, M., Charmoille, A., Gal, N. L., Bueno, J., Gzyl, G., Kura, K. & Garzon, B. (2013): Flooding Management for Underground Coal Mines Considering Regional Mining Networks (Flominet). – 72 p., Luxembourg (European Union Publications Office); doi:10.2777/94695.
• Klinger, C., Eckart, M., Kories, H. & Gzyl, G. (2011): Relevance of sulphate reduction for model based prognosis of mine water quality development with reactive mass transport concepts. – In: Rüde, T. R., Freund, A. & Wolkersdorfer, Ch. (eds): Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – p. 107–112, Aachen (RWTH Aachen University).
• Klinger, C., Eckart, M. & Löchte, J. (2017): Integration of Solid Matter Coupled Contaminant Transport into the 3D Reactive Transport Boxmodel by the Example of PCB in German Hard Coal Mining. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 303–311, Lappeenranta (Lappeenranta University of Technology).
• Klinger, C., Eckart, M., Rüterkamp, P. & Steinmetz, T. (2019): Einfluss eines Wasseranstiegs im Ostfeld des Steinkohlenbergwerkes Ibbenbüren auf die PCB-Gehalte im Grubenwasser. – (Report Nr. DMT GEE5-2018-00188). – 77 p., Essen (DMT GmbH).
• Klinger, C., Hansen, C., Rüterkamp, P. & Heinrich, H. (2000): In situ tests for interactions between acid mine water and ferrihydrite sludge in the pyrite mine „Elbingerode“ (Harz Mts.; Germany). – Proceedings, 7th International Mine Water Association Congress:137–145, 6 Abb., 1 Tab.
• Klinger, C., Jenk, U. & Schreyer, J. (2000): Investigation of efficacy of reactive materials for reduction of pollutants in acid mine water in the former uranium mine of Königstein (Germany). – Proceedings, 7th International Mine Water Association Congress:292–298, 1 Abb., 2 Tab.
• Klinger, C., Jenk, U. & Schreyer, J. (2001): Applicability of Zero-Valent Iron With Lignite Additives as Geochemical In Situ Barrier for Acid Mine Water. – 208.1–208.3 p., 2 Abb.; Orlando (Proceedings International Containment & Remediation Technology Conference & Exhibition).
• Klinger, C., Jenk, U. & Schreyer, J. (2002): Processes in passive mine water remediation with zero-valent iron and lignite as reactive materials. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 569–576, 7 Abb., 2 Tab.; Heidelberg (Springer); doi:10.1007/978-3-642-55668-5_67.
• Klinger, C., Pollmann, N., Sunten, J. N. & von Kleinsorgen, C. (2025): Modelling of mine water discharges with integrated pump management. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1093–1094; Braga (International Mine Water Association).
• Klinger, C., Rüterkamp, P., Kurth, U. & Gutschmidt, K.-V. (2004): Bergwerk Rottleberode – Analyse der Grubenwassersituation mit Vorschlägen für eine geeignete Grubenwasserbehandlung. – (Report Nr. 5745008 vom 2004-06-23). – 69 p., Nordhausen (ARGE DMT / HGN – Arbeitsgemeinschaft zur Bearbeitung von GVV-Bergbaustandorten).
• Kliopova, I. & Staniškis, J. Optimization of Galvanic Wastewater Treatment Processes. In: Omelchenko, A., Pivovarov, A. A. & Swindall, W. J. (eds) Modern Tools and Methods of Water Treatment for Improving Living Standards, 2005. Modern Tools and Methods of Water Treatment for Improving Living Standards. Springer, Dordrecht, 197–208 S.
• Klöckner, T. F. (2019): Airborne Laserscanning als ergänzende Erkundungsmethodik von bergbaubedingten Kleinformen im Bochumer Süden (Ruhrgebiet). – scriptum online, 8:1–48, 36 Abb., 8 Tab.
• Klohn, E. J. (1979): Seepage Control for Tailings Dams: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 671–725 p., 26 Abb.; San Francisco (Freeman).
• Klose, C. (2007): Mine Water Discharge and Flooding: A Cause of Severe Earthquakes. – Mine Water Environ., 26(3):172–180, 7 Abb., 1 Tab.; doi:10.1007/s10230-007-0006-4.
• Kluckner, A. (2012): Aspekte der Gebirgscharakterisierung im Tunnelbau [Aspects of rock characterisation in tunneling]. – 156 p., Master Thesis, Technische Universität Graz, 47 Abb., 21 Tab., 6 Anl.; Graz.
• Klug, M., Janneck, E., Reichel, S. & Peiffer, S. (2016): Treatment of chromate(VI) and vanadate(V) polluted wastewaters using schwertmannite adsorbents. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1012–1014, Freiberg (TU Bergakademie Freiberg).
• Klünker, J., Hordijk, D. & Heitfeld, M. (2013): Tagesbruchbedingter Abriss eines Einkaufszentrums im Innenstadtbereich von Heerlen/Niederlande – Erkundung und Nachweis bergbaulicher Ursachen. – In: Meier, G., et al. (eds): 13. Altbergbau-Kolloquium – Tagungsband. – p. 1–14, 9 Abb.; Nossen (Wagner).
• Kluza, A. & Evans, L. (2018): Practical Applications of Groundwater Modelling for Dewatering Management in Open Pit and Underground Mining, Didipio, Philippines. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 878–883; (Tshwane University of Technology).
• Knaani, A. & Zvirin, Y. (1993): Bifurcation phenomena in two-phase natural circulation. – International Journal of Multiphase Flow, 19(6):1129–1151.
• Knapp, R. (2004): Red Dog Mine Closure and Reclamation Plan SD E4: Assessment of Water Treatment Methods Applicable for Closure. – Unpubl. Report for Teck Cominco Alaska, I. (Report Nr. 1CT006.03). – 34 p., 2 Abb., 17 Tab.; Richmond Hill (SENES Consultants Ltd.).
• Knapp, S., Anselmetti, F. S., Lempe, B. & Krautblatter, M. (2021): Impact of an 0.2 km³ Rock Avalanche on Lake Eibsee (Bavarian Alps, Germany) - Part II: Catchment Response to Consecutive Debris Avalanche and Debris Flow. – Earth Surf. Process. Landf., 46(1):307–319, doi:10.1002/esp.5025.
• Knapp, S., Mamot, P., Lempe, B. & Krautblatter, M. (2020): Impact of an 0.2 km³ Rock Avalanche on Lake Eibsee (Bavarian Alps, Germany) – Part I: Reconstruction of the paleolake and Effects of the Impact. – Earth Surf. Process. Landf., 46(1):296–306, doi:10.1002/esp.5024.
• Knapp, S., Schwenk, M. & Krautblatter, M. (2022): Geophysical evidence of massive hyperconcentrated push waves with embedded toma hills caused by the Flims rockslide, Switzerland. – Earth Surf. Dynam., 10(6):1185–1193, 6 Abb.; doi:10.5194/esurf-10-1185-2022.
• Knappe, A., Sommer v. Jarmerstedt, C., Pekdeğer, A., Bau, M. & Dulski, M. (1998): Gadolinium im Berliner Grund- und Oberflächenwasser [abstract]. – Terra Nostra,(3):V 177.
• Knappenverein Peißenberg e.V. (2012): Schwarzes Gold in Oberbayern – Der Kohlebergbau zwischen Lech und Inn. – 33 p., Peißenberg (Knappenverein Peißenberg e.V.).
• Knauer, J. (1952): Diluviale Talverschüttung und Epigenese im südlichen Bayern. – Geol. Bavarica, 11:1–32, 11 Abb.
• Knidiri, J., Bussière, B., Hakkou, R., Benzaazoua, M., Parent, E. & Maqsoud, A. (2015): Design, Construction and Preliminary Results for an Inclined Store-and-Release Cover Experimental Cell Built on an Abandoned Mine Site in Morocco. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Knoblauch, T. A. K., Trutnevyte, E. & Stauffacher, M. (2019): Siting deep geothermal energy: Acceptance of various risk and benefit scenarios in a Swiss-German cross-national study. – Energy Policy, 128:807–816, doi:10.1016/j.enpol.2019.01.019.
• Knochel, H. (2016): Probleme des Abschlussbetriebsplans im Steinkohlenbergbau. – Veröff. Dt. Bergbau-Mus. Bochum, 217:95–97.
• Knochenhauer, B. (1913): Vorkommen und Verwendung der Steinkohle in Schlesien mit besonderer Berücksichtigung Oberschlesiens. – Z. angew. Chemie, 26:665–668, 1 Abb.
• Knocke, W. R. & Dishman, C. M. M. G. F. (1993): Measurement of chemical sludge floc density and implications related to sludge dewatering. – Water Environ. Res., 65(6):735–743, doi:10.2175/WER.65.6.5.
• Knödel, K., Lange, G. & Voigt, H.-J. r. (2007): Environmental geology – Handbook of field methods and case studies. – 1357 p., 501 Abb., 204 Tab.; Berlin (Springer).
• Knolle, F. (2009): Ein Beitrag zu Vorkommen und Herkunft von Uran in deutschen Mineral- und Leitungswässern: Dissertationen aus dem Julius Kühn-lnstitut PhD. – 161 p., Quedlinburg (Julius Kühn-Institut).
• Knöller, K. (2002): Schwefelisotope in Grundwässern und Tagebaurestseen. – Wiss. Mitt. Inst. Geol., 19:81–90, 10 Abb., 1 Tab.
• Knoller, K., Fauville, A., Mayer, B., Strauch, G., Friese, K. & Veizer, J. (2004): Sulfur cycling in an acid mining lake and its vicinity in Lusatia, Germany. – Chem. Geol., 204(3-4):303–323.
• Knöller, K., Schubert, M., Jeschke, C. & Hoth, N. (2016): Stable isotope tools for assessing flow dynamics and contaminant degradation in mining landscapes. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 15, Freiberg (TU Bergakademie Freiberg).
• Knöller, K., Schubert, M., Osenbrück, K. & Weise, S. M. (2005): Natural isotope tracers for assessing the mechanisms of heavy metal mobilization in copper ore tailings: Mine Water 2005 – Mine Closure. – 1–4 p., 3 Abb.; Oviedo (University of Oviedo).
• Knop, A. (1878): Über die hydrographischen Beziehungen zwischen der Donau und der Aachquelle im badischen Oberlande. – N. Jb. Min. Geol. Pal.:350–363, 1 Tab., 1 Taf.
• Knops, F., de la Mata, M. G., Mendoza Fajardo, C. & Kahne, E. (2012): Seawater desalination of the Chilean coast for water supply to the mining industry: International Mine Water Association Symposium. – 697–704 p., 2 Abb., 1 Tab.; Bunbury (Edith Cowan University).
• Kobal, I., Kristan, J., Škofljanec, M., Jerančič, S. & Ančik, M. (1978): Radioactivity of spring and surface waters in the region of the uranium ore deposit at Žirovski Vrh. – J. Radioanal. Chem., 44:307–315, 4 Abb., 5 Tab.; doi:10.1007/BF02519623.
• Kober, L. (1938): Der Geologische Aufbau Österreichs. – 20 Abb., 1 Tab.; Wien (Springer); doi:10.1007/978-3-7091-9825-4.
• Köber, R., Daus, B., Ebert, M., Mattusch, J., Welter, E. & Dahmke, A. (2005): Compost-Based Permeable Reactive Barriers for the Source Treatment of Arsenic Contaminations in Aquifers: Column Studies and Solid-Phase Investigations. – Environ. Sci. Technol., 39(19):7650–7655, doi:10.1021/es0503579.
• Koc, M., Galioglu, S., Toffoli, D., Ustunel, H. & Akata, B. (2014): Understanding the Effects of Ion-Exchange in Titanosilicate ETS-10: A Joint Theoretical and Experimental Study. – J. Phys. Chem. C, 118(47):27281–27291, doi:10.1021/jp503852t.
• Kocabag, D., Shergold, H. L. & Kelsall, G. H. (1990): Natural oleophilicity/hydrophobicity of sulphide minerals, II. Pyrite. – Int. J. Miner. Process., 29(3-4):211–219, doi:10.1016/0301-7516(90)90054-3.
• Koch, C., Graupner, B. & Werner, F. (2007): Der Einsatz von CO₂ und Alkalien zur Behandlung schwefelsauerer Tagebaufolgeseen. – Wiss. Mitt. Inst. Geol., 35:133–141, 8 Abb., 3 Tab.
• Koch, C., Graupner, B. & Werner, F. (2008): Pit Lake Treatment Using Fly Ash Deposits and Carbon Dioxid. – Proceedings, 10th International Mine Water Association Congress:579–582, 1 Abb., 1 Tab.
• Koch, C. & Mazur, K. (2016): A new pit lake treatment technology using calcium oxide and car-bon dioxide to increase alkalinity. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 284–291, Freiberg (TU Bergakademie Freiberg).
• Koch, G. A. (1883): Garnerathal und Plattenspitze in Vorarlberg. – Z. Dt.-Österr. Alpenver., 14:444–458, 2 Abb.
• Koch, H. G. & Lyons, T. C. (1998): Modeling the Iron Cycle in Stream Systems: Mine Water and Environmental Impacts 2. – 461–469 p., 5 Abb.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Koch, I. M. (1969): Ein Beitrag zur Medizingeschichte. – Ber. nat.-med. Verein Innsbruck, 57:11–18, 3 Abb.
• Kock, D. & Schippers, A. (2006): Geomicrobiological investigation of two different mine waste tailings generating acid mine drainage. – Hydrometallurgy, 83(1-4):167–175, 2 Abb., 1 Tab.; doi:10.1016/j.hydromet.2006.03.022.
• Kock, G., Hofer, R. & Wograth, S. (1995): Accumulation of trace metals (Cd, Pb, Cu, Zn) in Arctic char (Salvelinus alpinus) from oligotrophic Alpine lakes: Relation to alkalinity. – Can. J. Fish. Aquat. Sci., 52(11):2367–2376, 4 Abb., 5 Tab.; doi:10.1139/f95-829.
• Koczy, F. F., Tomic, E. & Hecht, F. (1957): Zur Geochemie des Urans im Ostseebecken. – Geochim. Cosmochim. Acta, 11:86–102, doi:10.1016/0016-7037(57)90007-8.
• Kodavanti, P. R. S. (2017): Polychlorinated Biphenyls (PCBs). – In: Kodavanti, P. R. S. (ed) Reference Module in Neuroscience and Biobehavioral Psychology. – p. 1–6, Amsterdam (Elsevier); doi:10.1016/B978-0-12-809324-5.03955-9.
• Koeberl, C. (2004): Remote sensing studies of impact craters: how to be sure? – C.R. Geosci., 336(11):959–961, doi:10.1016/j.crte.2004.05.001.
• Koeberl, C. (2009): Katastrophen aus dem All – Impaktereignisse in der Erdgeschichte. Science & Fiction – Imagination und Realität des Weltraums. – p. 91–132, 15 Abb., 2 Tab.; Bern (Haupt).
• Koeberlé, N., Levicki, R., Kaiser, J. & Heitz, S. (2013): Treating mine waters in the Lorraine coal field – feedback from the La Houve treatment plant. – In: Fourie, A. B. & Tibbett, M. (eds): Mine Closure 2013. – p. 171–182.
• Koehne, W. (1909): Über die neueren Aufschlüsse im Peißenberger Kohlenrevier. – Geogn. Jh., 22:303–312, 1 Abb., 1 Tab.
• Koehne, W. (1911): Zur Geologie des Peißenberger Kohlenreviers. – Geogn. Jh., 24:209–213.
• Koehne, W. (1912): Zur Stratigraphie und Tektonik des oberbayerischen Oligozän. – Geol. Rdsch., 3(5):407–413, doi:10.1007/bf01790064.
• Koeth, T. & Hiebert, M. (2019): Tracking the journey of a uranium cube. – Physics Today, 72(5):36–43, doi:10.1063/pt.3.4202.
• Koffi, K., Leblanc, M., Jourde, H., Casiot, C., Pistre, S., Gouze, P. & Elbaz-Poulichet, F. (2003): Reverse Oxidation Zoning in Mine Tailings Generating Arsenic-rich Acidic Waters (Carnoulès, France). – Mine Water Environ., 22(1):7–14, 6 Abb.
• Köfler, W. (1972): Das Messingwerk Achenrain. – Schlern-Schr., 262:367–395.
• Kofman, R. S., Herd, C. D. K. & Froese, D. G. (2010): The Whitecourt meteorite impact crater, Alberta, Canada. – Meteorit. Planet. Sci., 45(9):1429–1445, doi:10.1111/j.1945-5100.2010.01118.x.
• Kögl, J. S. & Stanger, O. (2015): Genealogisch-heraldisches Lexikon von Tirol und Vorarlberg. – Schlern-Schr., 364(I / II):1198.
• Kögler, F. & Leussink, H. (1938): Setzungen durch Grundwasserabsenkung. – Die Bautechnik, 15(32):409–413.
• Kogovšek, J. & Petrič, M. (2010): Water temperature as a natural tracer – a case study of the Malenščica karst spring (SW Slovenia). – Geologia Croatica, 63(2):171–177, 6 Abb., 1 Tab.
• Kohfahl, C. (2004): The influence of water table oscillations on pyrite weathering and acidification in open pit lignite mines – column studies and modelling of hydrogeochemical and hydraulic processes in the LOHSA storage system, Germany: 874. – 111 p., Berlin (dissertation.de).
• Kohfahl, C. & Pekdeğer, A. (2004): Modelling the Long-term Release of Sulphate from Dump Sediments of an Abandoned Open Pit Lignite Mine. – Mine Water Environ., 23(1):12–19, 13 Abb., 1 Tab.
• Kohler, E. (1902): Die Amberger Erzlagerstätten. – Geogn. Jh., 15:11–56, 10 Abb., 5 Tab.
• Köhler, M. (1986): Lermooser Tunnel (Außerfern, Tirol) – Baugeologische Verhältnisse, Prognose und tektonische Schlußfolgerungen. – Geol. Paläont. Mitt. Innsbruck, 13(15):363–379, 1 Abb., 1 Taf.
• Köhler, M. & Lumasegger, M. (1992): Hydrogeologische Untersuchung des Fernpaßgebietes. – 239 p., Innsbruck (ILF Consulting).
• Koide, R., Tokoro, C., Murakami, S., Adachi, T. & Takahashi, A. (2012): A Model for Prediction of Neutralizer Usage and Sludge Generation in the Treatment of Acid Mine Drainage from Abandoned Mines – Case Studies in Japan. – Mine Water Environ., 31(4):287–296, 8 Abb., 5 Tab.; doi:10.1007/s10230-012-0200-x.
• Koinig, K. A., Tessadri, R. & Psenner, R. (2010): Early Atmospheric Pollution Recorded in the Sediments of High Mountain Lakes in the Vicinity of Mining Areas. – In: Anreiter, P., et al. (eds): Mining in European History and its Impact on Environment and Human Societies. – p. 75–80, 2 Abb., 1 Tab.; Innsbruck (innsbruck university press).
• Kok, T. S. (1993): Ground Water in the Rocks of the Pretoria Area. – Unpubl. Report for Directorate Geohydrology (Report Nr. GH 3749). – 17 p., Pretoria (Department of Water Affairs and Forestry).
• Kokkinakis, E. N., Fragkiadakis, G. A. & Kokkinaki, A. N. (2008): Monitoring microbiological quality of bottled water as suggested by HACCP methodology. – Food Control, 19(10):957–961, doi:10.1016/j.foodcont.2007.10.001.
• Kola, L. & Lazo, P. (2010): Influence of UV Radiation on SRG Extra Fluorescence in Water Samples. Paper presented at the BALWOIS – Water Observation and Information System for Balkan Countries, Ohrid. – p. 1–5, 5 Abb.
• Kolats, M., Valgma, I. & Karu, V. (2013): Mine Water as a Potential Source of Energy from Underground Mined Areas in Estonian Oil Shale Deposit. – Oil Shale, 30(2S):336, 15 Abb., 8 Tab.; doi:10.3176/oil.2013.2S.12.
• Kolb, G. & Mayer, G. (2010): Das Kupferbergwerk Prettau – ein Altbergbau mit Zukunft. – Berg- u. Hüttenm. Mh., 155(2):75–78, 3 Abb., 1 Tab.; doi:10.1007/s00501-010-0538-y.
• Kolbe, E. A. (1957): Adolf Patera und seine Arbeiten, betreffend die werksmäßige Gewinnung von Uranverbindungen aus Pechblende in St. Joachimstal im böhmischen Erzgebirge vor 100 Jahren. – Bl. Technikgesch., 19:73–77, doi:10.1007/978-3-7091-5534-9_4.
• Kolbe, H. (1964): Hydrologische Aufgaben im Salzgitterer Eisenerzbezirk. – Z. dt. geol. Ges., 116(1):141–159, 15 Abb.; doi:10.1127/zdgg/116/1964/141.
• Kölbl-Ebert, M. (2009): How to Find Water: The State of the Art in the Early Seventeenth Century, Deduced From Writings of Martine de Bertereau (1632 and 1640). – Earth Sciences History, 28(2):204–218, doi:10.17704/eshi.28.2.3675823j24h9uv9r.
• Kolesárová, J., Rodová, A., Nesetril, K. & Zeman, J. (2010): Arsenic occurrence and geochemical evolution of the abandoned ore mine Kank in the Czech Republic. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 363–367, Sydney, NS (Cape Breton University Press).
• Kolesnikov, V. P. & Laskina, T. A. (2019): Complex Electromagnetic Monitoring of Salt Mines. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 666–671; Perm, Russia (Perm State University).
• Kolhinen, V., Vento, T., Jakkila, J., Huttunen, M., Korppoo, M. & Vehviläinen, B. (2017): Operational Water Balance Model for Siilinjärvi Mine Site. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 73–77, Lappeenranta (Lappeenranta University of Technology).
• Kolitsch, S. (2008): Hydrogeologische Analyse und großräumige Modellierung des weiteren Vorerzgebirgssenkenraumes. – 310 p., PhD Thesis, TU Bergakademie Freiberg; Freiberg.
• Kolitsch, S., Junghans, M. & Klemm, W. (2003): Die Auswirkungen des Flutereignisses 2002 auf die Grubenwässer der Erzlagerstätte Freiberg. – Wasser & Boden, 55(7/8):7–14, 13 Abb., 3 Tab.
• Kolitsch, S., Junghans, M., Klemm, W., Degner, T. & Baacke, D. (2005): Hydrochemical monitoring (1970–2003), depth profile and flow measurements in partly flooded underground workings of the central polymetallic vein ore deposit of Freiberg/Germany. – Z. geol. Wiss., 5(1):51–78, 11 Abb., 15 Tab.
• Kolitsch, S., Junghans, M., Klemm, W. & Tichomirova, M. (2001): Der Flutungsraum des Grubenfeldes Freiberg – Hydrochemie, Isotopenchemie und Hydraulik. – Wiss. Mitt. Inst. Geol., 18:14–26, 10 Abb., 4 Tab.
• Koller, F. & Rieder, H. (1997): Chronik des Tiroler Forstvereines 1854 bis 1997. – 301 p., Innsbruck (Tiroler Forstverein).
• Kollias, K., Mylona, E., Adam, K., Papassiopi, N. & Xenidis, A. (2018): Assessment Of Silica Coating As A Technique For The Control of Acid Generation From Pyritic Tailings. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 381–386; (Tshwane University of Technology).
• Kölling, M. (1988): Vom berechneten Sättigungsindex zur Reaktion im Wasser. – Z. dt. geol. Ges., 139:393–405, 6 Abb., 2 Tab.; doi:10.1127/zdgg/139/1988/393.
• Kolpin, D. W., Furlong, E. T., Meyer, M. T., Thurman, E. M., Zaugg, S. D., Barber, L. B. & Buxton, H. T. (2002): Pharmaceuticals, Hormones, and Other Organic Wastewater Contaminants in U.S. Streams, 1999-2000: A National Reconnaissance. – Environ. Sci. Technol., 36:1202–1211, 5 Abb., 2 Tab.
• Kolver, L. (2013): Acid Test – Shift from ‘blame seeking’ will aid efforts to tackle SA’s acid mine drainage challenge. – Mining Weekly, 19(August 16-22):8–9, 31, 6 Abb.
• Komadel, P. & Madejová, J. (2006): Acid Activation of Clay Minerals. – In: Bergaya, F., Theng, B. K. G. & Lagaly, G. (eds): Developments in Clay Science 1. – p. 263–287, Amsterdam (Elsevier); doi:10.1016/S1572-4352(05)01008-1.
• Komnitsas, K., Bartzas, G. & Paspaliaris, I. (2005): Hydraulic performance of laboratory PRBs for the decontamination of acidic mine waters: Mine Water 2005 – Mine Closure. – 347–354 p., 9 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Komoßa, D. & Sandermann, H., Jr. (1995): Plant Metabolic Studies of the Growth-Regulator Maleic Hydrazide. – J. Agric. Food Chem., 43(10):2713–2715, doi:10.1021/jf00058a030.
• Komulainen, J. J. (2017): Posiva Flow Log (PFL), Tool For Detection Of Groundwater Flows In Bedrock. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 556–563, Lappeenranta (Lappeenranta University of Technology).
• Komulainen, J. J., Vaittinen, T., Picken, P. & Heikkinen, E. (2018): Hydrogeological Bedrock Characterisation Based on Posiva Flow Log Measurement Data. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 654–659; (Tshwane University of Technology).
• Komura, Y., Katayama, T., Yasutaka, T., Tum, S., Watanabe, M. & Miyata, N. (2025): Factors controlling manganese(II) removal efficiency in a passive treatment bioreactor with Mn(II)-oxidizing microorganisms. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 266–272; Braga (International Mine Water Association).
• Kończak, B. & Janson, E. (2021): Risk analysis for groundwater intake in an old mining shaft with increased chloride content, Upper Silesia, Southern Poland. – J. Water Health, 19(2):288–305, doi:10.2166/wh.2021.144.
• Kondo, M., Masaki, Y., Hagihara, K., Iguchi, K., Hamai, T., Semoto, Y., Kamiya, T., Ishikawa, N., Okumura, M. & Sato, N. (2025): Annual treatment performances of sulfate-reducing process under ethanol addition conditions with rice bran for zinc containing AMD in Japan. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 364–369; Braga (International Mine Water Association).
• Kondo, M., Masaki, Y., Hagihara, K., Iguchi, K., Hamai, T., Semoto, Y., Kamiya, T., Okumura, M. & Sato, N. (2024): Improving Fe oxidizing/removal process by limestone addition to rice husk bed on large scale passive treatment test for AMD in Japan. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 335–340; Morgantown (International Mine Water Association).
• Konhauser, K. O. (2007): Introduction to Geomicrobiology. – Malden (Wiley-Blackwell).
• König, C. & Blömer, C. (1999): Berechnung von Temperatur- und dichteabhängiger Strömung in gefluteten Schächten. – Unpubl. Report for Essen, D.-G. f. F. u. P. m. G. G. 37 p., 17 Abb., 4 Tab.; Bochum (GKW-Ingenieurgesellschaft mbH).
• König, J. (1894): Zusammensetzung von Steinkohlen-Grubenwässern. – Angew. Chem., 7(13):389–391.
• König, J. (1899): Die Verunreinigung der Gewässer, deren schädliche Folgen sowie die Reinigung von Trink- und Schmutzwasser, 2 edn. – 514 p., 134 Abb., 7 Taf.; Berlin (Springer); doi:10.1007/978-3-642-91824-7.
• Königlich Statistisches Bureau (1908): Stand und Entwicklung der Bayerischen Montanindustrie. – Beiträge zur Statistik des Königreichs Bayern, 70:1–65.
• Königskötter, H. (2005): Bindungsformen und Mobilisierbarkeit des Arsens in ausgewählten Bodenprofilen des Erdinger Mooses. –, unveröff. Dipl.-Arbeit, 35 Abb., 5 Tab., 3. Anh.; München.
• Konnunaho, J., Halkoaho, T., Hanski, E. & Törmänen, T. (2015): Chapter 3.2 – Komatiite-Hosted Ni-Cu-PGE Deposits in Finland. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 93–131, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00004-2.
• Konrad, C., Grund, K., Burghardt, D., Manke, T., Kluge, H., Beckert, A. & Bachmann, S. (2010): Geothermische Grubenwassernutzung für den Standort Reiche Zeche in Freiberg. – Wiss. Mitt. Inst. Geol., 42:159–164.
• Konter, J. G., Staudigel, H., Blichert-Toft, J., Hanan, B. B., Polve, M., Davies, G. R., Shimizu, N. & Schiffman, P. (2009): Geochemical stages at Jasper Seamount and the origin of intraplate volcanoes. – Geochem. Geophys. Geosyst., 10:24, doi:10.1029/2008gc002236.
• Kontinen, A. & Hanski, E. (2015): Chapter 9.1 – The Talvivaara Black Shale-Hosted Ni-Zn-Cu-Co Deposit in Eastern Finland. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 557–612, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00022-4.
• Konzhin, I. A., Kokumov, N. B. & Yakovlev, V. I. (1967): Derivation of mine waters under conditions of spotty permafrost (Yun-Yaga deposit). – Int. Geol. Rev., 9(5):677–683, 2 Abb.; doi:10.1080/00206816709474498.
• Koopman, M. & Rash, R. (1990): A case study of a large open pit uranium AML (Abandoned Mine Land) Project Gas Hills, Wyoming. Paper presented at the West Virginia Surface Mine Drainage Task Force Symposium, Morgantown. – p. 513–519, 1 Abb., 5 Tab.; Morgantown (West Virginia University Publication Services).
• Koopman, M. & Rash, R. (1990): A Case Study of a Large Open Pit Uranium AML Project: Gas Hills, Wyoming. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 11:elektronisches Dokument, 1 Abb., 5 Tab.
• Kopacek, J., Hejzlar, J., Kana, J., Porcal, P. & Klementova, S. (2003): Photochemical, chemical, and biological transformations of dissolved organic carbon and its effect on alkalinity production in acidified lakes. – Limnol. Oceanogr., 48(1):106–117.
• Kopačková-Strnadová, V., Kýhos, M. & Jelének, J. (2025): Efficient Earth Observation System for Acid Mine Drainage Monitoring. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 645–651; Braga (International Mine Water Association).
• Kopačková-Strnadová, V., Kýhos, M., Jelének, J., Zabokas, G., Agali, A. & Gounaris, K. (2025): Multisensor-based surface water quality monitoring: a case study for the Chalkidiki peninsula, Greece. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 107–112; Braga (International Mine Water Association).
• Koperska, W., Stachowiak, M., Duda-Mróz, N., Stefaniak, P., Jachnik, B., Bursa, B. & Stefanek, P. (2022): The Tailings Storage Facility (TSF) stability monitoring system using advanced big data analytics on the example of the Zelazny Most Facility. – Arch. Civ. Eng., 68(2):297–311, doi:10.24425/ace.2022.140643.
• Kopinke, F.-D., Mackenzie, K. & Köhler, R. (2003): Catalytic hydrodechlorination of groundwater contaminants in water and in the gas phase using Pd/γ-Al2O3. – Appl. Catal. B, 44(1):15–24, doi:10.1016/S0926-3373(03)00006-7.
• Kopp, J. & Dichtl, N. (2001): Prediction of full-scale dewatering results of sewage sludges by the physical water distribution. – Water Sci. Technol., 43(11):135–143.
• Koppe, J. C. (2021): Lessons Learned from the Two Major Tailings Dam Accidents in Brazil. – Mine Water Environ., 40(1):166–173, doi:10.1007/s10230-020-00722-6.
• Kopylov, I. S. (2019): Estimation Of Geodynamic Activity And Its Impact On Mining-Geological Conditions And Flooding Of Potassium Mines. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 16–22; Perm, Russia (Perm State University).
• Koren, D. W., Gould, W. D. & Bédard, P. (2000): Biological removal of ammonia and nitrate from simulated mine and mill effluents. – Hydrometallurgy, 56:127–144, 1 Abb; doi:10.1016/S0304-386X(99)00088-2.
• Koren, J. P. F. & Syversen, U. (1995): State-of-the-art electroflocculation. – Filtr. Sep., 32(2):153–156, 146, 2 Abb., 2 Tab.; doi:10.1016/S0015-1882(97)84039-6.
• Korfmann, M. (2000): Homers Troia – Griechischer Außenposten oder hethitischer Vasall? – Spektrum der Wissenschaft,(7):64–70, 8 Abb., 1 Tab.
• Korfmann, M. (2004): Troia in light of new Research. – Dies academicus, 2:9–70.
• Kories, H., Rüterkamp, P. & Sippel, M. (2004): Field and numerical studies of water stratification in flooded shafts. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 149–159, 13 Abb.; Newcastle upon Tyne (University of Newcastle).
• Korkalo, T. (2006): Gold and copper deposits in Central Lapland, Northern Finland, with special reference to their exploration and exploitation. – Acta Univ. Oulo A, 461:122, 26 Abb., 9 Tab.
• Korkka-Niemi, K., Heikkinen, P. M. & Salonen, V.-P. (2006): Surface and groundwater quality in the Aijala and Hitura sulphide mines; AMD versus NMD. – Bull. Geol. Soc. Finl., Special Issue 1:73.
• Korkka-Niemi, K. I., Rautio, A. & Bigler, P. (2017): Characterization of Geo-Hydro-Ecological Factors Affecting the Distribution of Endangered Species of Viiankiaapa Mire, in Ore Prospecting Site. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1022–1028, Lappeenranta (Lappeenranta University of Technology).
• Korneeva, T. V. & Aminov, P. G. (2011): Geochemistry of Interaction of Mine Drainage of Mednogorsk Geotechnical System with Rivers as a Natural Hydrochemical Barriers. Paper presented at the Fifteenth International Water Technology Conference, Alexandria. – p. G91–1 – G91–11, 5 Abb., 1 Tab.
• Körner, E. (1928): Zwei Geschäftsumbauten im Rheinland – I. Bankhaus Simons in Düsseldorf – II. Eisenhandel Gutehoffnungshütte G.m.b.H, Essen. – Dt. Bauz., 25:217–224, 14 Abb.
• Koros, W. J., Ma, Y. H. & Shimidzu, T. (1996): Terminology for membranes and membrane processes (IUPAC Recommendations 1996). – Pure Appl. Chem., 68(7):1479–1489, 2 Abb.; doi:10.1351/pac199668071479.
• Korschelt, F. (1890): Die Haushamer Mulde östlich der Leitzach. – Geogn. Jh., 3:44–64, 1 Abb., 1 Tab.
• Kortas, G., Wilk, J. & Jasinski, Z. (1985): Surface protection problems in conditions of water hazard in diapir salt mines. – Proceedings, 2nd International Mine Water Association Congress, 2:709–722.
• Kortas, L. & Younger, P. L. (2007): Using the GRAM Model to Reconstruct the Important Factors in Historic Groundwater Rebound in Part of the Durham Coalfield, UK. – Mine Water Environ., 26(2):60–69, 7 Abb., 1 Tab.
• Kortatsi, B. K. (2006): Hydrochemical characterization of groundwater in the Accra plains of Ghana. – Environmental Geology, 50(3):299–311, doi:10.1007/s00254-006-0206-4.
• Kortelainen, N. (2007): Isotopic Fingerprints In Surficial Waters – Stable Isotope Methods Applied In Hydrogeological Studies. – 41 p., University of Helsinki; Espoo.
• Körtzinger, A., Schimanski, J. & Send, U. (2005): High-quality oxygen measurements from profiling floats: A promising new techniques. – J. Atmos. Ocean. Technol., 22(3):302–308, 7 Abb.
• Korup, O. (2005): Geomorphic imprint of landslides on alpine river systems, southwest New Zealand. – Earth Surf. Proc. Land., 30(7):783–800, doi:10.1002/esp.1171.
• Korup, O. (2011): Rockslide and Rock Avalanche Dams in the Southern Alps, New Zealand. – In: Reitner, J., Trauth, M. H., Stüwe, K. & Yuen, D. (eds): Lecture notes in earth sciences 133. – p. 123–145, Berlin (Springer); doi:10.1007/978-3-642-04764-0_4.
• Korup, O., Strom, A. L. & Weidinger, J. T. (2006): Fluvial response to large rock-slope failures: Examples from the Himalayas, the Tien Shan, and the Southern Alps in New Zealand. – Geomorphology, 78(1-2):3–21, doi:10.1016/j.geomorph.2006.01.020.
• Kosakowski, G. (2004): Anomalous Transport of Colloids and Solutes in a Shear Zone. – J. Contam. Hydrol., 72(1-4):23–46.
• Kosara, R. (2012): InfoVis Is So Much More: A Comment on Gelman and Unwin and an Invitation to Consider the Opportunities. – Journal of Computational and Graphical Statistics, 22(1):29–32, doi:10.1080/10618600.2012.755465.
• Koschorreck, M., Brookland, I. & Matthias, A. (2003): Biogeochemistry of the Sediment-water Interface in the Littoral of an Acidic Mining Lake Studied with Microsensors and Gel-probes. – J. Exp. Mar. Biol. Ecol., 285:71–84, 5 Abb., 3 Tab.
• Koschorreck, M., Herzsprung, P., Wendt-Potthoff, K., Lorke, A., Geller, W., Luther, G., Elsner, W. & Müller, M. (2002): An In-lake Reactor to Treat an Acidic Lake: the Effect of Substrate Overdosage. – Mine Water Environ., 21(3):137–149, 10 Abb., 3 Tab.; doi:10.1007/s102300200034.
• Koschorreck, M., Kunze, T., Luther, G., Bozau, E. & Wendt-Potthoff, K. (2004): Accumulation and Inhibitory Effects of Acetate in a Sulphate reducing in situ Reactor for the Treatment of an acidic Pit Lake. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 101–109, 3 Abb., 4 Tab.; Newcastle upon Tyne (University of Newcastle).
• Koschorreck, M., Wendt-Potthoff, K., Bozau, E., Herzsprung, P. & Geller, W. (2006): In situ Neutralisation von sauren Bergbaurestseen – Prozesse im Sediment und begrenzende Faktoren. – Wiss. Mitt. Inst. Geol., 31:55–60, 6 Abb., 1 Tab.
• Koschorreck, M., Wendt-Potthoff, K., Bozau, E., Herzsprung, P., Geller, W. & Schultze, M. (2007): In Situ Neutralization of acidic Pit Lakes: Processes in the Sediment and limiting Factors: Water in Mining Environments. – 215–219 p., 6 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Koschorreck, M., Wendt-Potthoff, K. & Geller, W. (2003): Microbial Sulfate Reduction at Low pH in Sediments of an Acidic Lake in Argentina. – Environ. Sci. Technol., 37(6):1159–1162, doi:10.1021/es0259584.
• Koshkovsky, G. N. & Lebedyanskaya, Z. P. (1982): The State and Prospects of Hydrological Development of Hard Mineral Deposits in the USSR. – Int. J. Mine Water, 1(4):57–64.
• Kosík, M., Cadková, Z., Prikryl, I., Seda, J., Pechar, L. & Pecharová, E. (2011): Initial succession of zooplankton and zoobenthos assemblages in newly formed quarry lake Medard (Sokolov, Czech Republic): Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 517–522 p., Aachen (RWTH Aachen University).
• Koss, G. & Wölfle, D. (1999): Dioxin and Dioxin-like Polychlorinated Hydrocarbons and Biphenyls. – In: Marquardt, H., Schäfer, S. G., McClellan, R. & Welsch, F. (eds): Toxicology. – p. 699–728, San Diego (Academic Press); doi:10.1016/B978-012473270-4/50088-2.
• Kostenbader, P. D. (1973): Method for treating acid mine water containing metallic values. United States Patent 3,738,932, 1973-06-12.
• Kostenbader, P. D. & Haines, G. F. (1970): High-density sludge treats acid mine water. – Coal Age, 75(September):90–97, 5 Abb., 3 Tab.
• Kostenzer, J. (1996): Pollenanalytische Untersuchungen zur Vegetationsgeschichte des Montafons (Vorarlberg, Österreich). – Ber. Naturw.-med. Ver. Innsbruck, 83:93–110, 2 Abb.
• Kostin, A., Krechetov, P. & Chernitsova, O. (2019): Alteration Of Physico Chemical And Morphological Characteristics Of Sod-podzolic Soils In Technogenically-affected Landscapes Of Moscow Brown Coal Basin. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 725–730; Perm, Russia (Perm State University).
• Kostov-Kytin, V., Mihailova, B., Kalvachev, Y. & Tarassov, M. (2005): Atomic arrangements in amorphous sodium titanosilicate precursor powders. – Micropor. Mesopor. Mat., 86(1-3):223–230, doi:10.1016/j.micromeso.2005.07.024.
• Košuthová, H., Fecskeová, L. K., Matejová, J., Slovinská, L., Morávek, M., Bártová, Z. & Harvanová, D. (2024): Effects of Replicative Senescence of Human Chorionic MSCs on their EV-miRNA Profile. – Stem Cell Reviews and Reports, 20(8):2318–2335, doi:10.1007/s12015-024-10790-8.
• Kot, B., Baranowski, R. & Rybak, A. (2000): Analysis of mine waters using X-ray fluorescence spectrometry. – Pol. J. Environ. Stud., 9(5):429–431.
• Kotchoni, D. O. V., Vouillamoz, J.-M., Lawson, F. M. A., Adjomayi, P., Boukari, M. & Taylor, R. G. (2018): Relationships between rainfall and groundwater recharge in seasonally humid Benin – A comparative analysis of long-term hydrographs in sedimentary and crystalline aquifers. – Hydrogeol. J., 27(2):447–457, doi:10.1007/s10040-018-1806-2.
• Kotowski, T., Motyka, J., Knap, W. & Bielewski, J. (2020): 17-Year study on the chemical composition of rain, snow and sleet in very dusty air (Krakow, Poland). – J. Hydrol., 582 doi:10.1016/j.jhydrol.2020.124543.
• Kotte Hewa, D. J., Durce, D., Salah, S. & Smolders, E. (2023): Rare Earth Elements Association with Predominant Elements in Solids Precipitated during Alkalinization of Acid Mine Water. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 196–202; (International Mine Water Association).
• Kötter, K. (1964): Die Hydrologische Karte des Rheinisch-Westfälischen Steinkohlenbezirks 1:10 000. – Z. dt. geol. Ges., 116(1):88–95, 1 Abb.; doi:10.1127/zdgg/116/1964/88.
• Kötter, K., Krämer, H., Pilger, A., Stolze, F., Wengel, J. & Wolansky, D. (1964): Grubenfahrt Auguste-Victoria, Marl. – Z. dt. geol. Ges., 116(1):11–20, 5 Abb., 2 Tab.
• Kotze, P. (2013): Thermal springs generate heated interest. – Water Wheel, 12(5):16–19, doi:10.10520/EJC142547.
• Kouhi, R. M., Ardejani, F. D., Tonkaboni, S. Z. S., Moghaddam, M. M. J., Butscher, C. & Taherdangkoo, R. (2024): A Life Cycle Assessment Study of Acid Mine Drainage Treatment Using Steel Dust Mineralization Products. – Mine Water Environ., 43(4):644–657, doi:10.1007/s10230-024-01005-0.
• Koumantakis, I. & Dimitrakopoulos, D. (1999): Impacts of Dewatering of Amynteon Open Lignite Mine on the aquatic Environment of Lake Chimatidis, West Macedonia, Greece. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 63–67, 3 Abb.; Sevilla (International Mine Water Association).
• Kovač, K. (1909): Schürfversuche in Vorarlberg durch tirolische Bergknappen in den Jahren 1772 – 73. – Forschungen und Mitteilungen zur Geschichte Tirols und Vorarlbergs, 6:277–279.
• Kovalevsky, V. S., Kruseman, G. P. & Rushton, K. R. (2004): Groundwater studies – An international guide for hydrogeological investigations: IHP-VI, Series on Groundwater 3. – 430 p., Paris (United Nations Educational, Scientific and Cultural Organization).
• Kovin, O. (2019): Assessment of the Prospective Water Inflow Hazards Using Georadar: Case Study of Upper Kama Potash Deposit. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 23–27; Perm, Russia (Perm State University).
• Kovrizhnykh, S. B., Naumov, V. A. & Abroskin, D. N. (2019): Hydrogenic Processes Of Autigenic Mineralization Of Native Gold Of The Ural Placers. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 509–514; Perm, Russia (Perm State University).
• Kovscek, A. R. & Wang, Y. (2005): Geologic storage of carbon dioxide and enhanced oil recovery. I. Uncertainty quantification employing a streamline based proxy for reservoir flow simulation. – Energy Convers. Manage., 46(11-12):1920–1940, 9 Abb., 1 Tab.; doi:10.1016/j.enconman.2004.09.008.
• Kowalczyk, A., Motyka, J. & Szuwarzyński, M. (2000): Groundwater contamination as a potential result of closing down of the Trzebionka mine, Southern Poland. – Proceedings, 7th International Mine Water Association Congress:299–308, 4 Abb.
• Kowalczyk, A., Witkowski, A. J. & Rubin, K. (2009): Anthropogenic-Influenced Changes in a Groundwater Environment in Urbanised Area of Old Mining Activity (Tarnowskie Góry Region, Poland). – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 233, Pretoria (Document Transformation Technologies).
• Kozelj, J. (1996): Urbanisation in Karst – Some Realistic Ideas About the Possible Future: Engineering in Karst. – 10 p., 7 Abb.; Portoroz (Proceedings International Mine Water Association Workshop).
• Kozik, A., Hutnik, N., Piotrowski, K., Mazienczuk, A. & Matynia, A. (2013): Precipitation and Crystallization of Struvite from Synthetic Wastewater under Stoichiometric Conditions. – Advances in Chemical Engineering and Science, 3:20–26, 4 Abb., 4 Tab.; doi:10.4236/aces.2013.34B004.
• Kozik, A., Hutnik, N., Piotrowski, K., Mazienczuk, A. & Matynia, A. (2014): Precipitation and crystallization of struvite from synthetic wastewater at the magnesium ions excess. – Przem. Chem., 93(5):756–761.
• Kožíšek, F. (2005): Health Risks from Drinking Demineralised Water. – In: World Health Organization (ed) Nutrients in Drinking Water. – p. 148–163, Geneva (World Health Organization).
• Kožíšek, F. (2006): Health effects of long term consumption of water low in calcium, magnesium or TDS: studies from Eastern Europe. Paper presented at the International Symposium on Health Aspects of Calcium and Magnesium in Drinking Water, Baltimore, 24–26 April 2006. – p. 24–26, 3 Tab.; Ann Arbor (NSF International, International Life Sciences Institute (ILSI), World Health Organization (WHO)).
• Krachler, M. & Shotyk, W. (2009): Trace and ultratrace metals in bottled waters: survey of sources worldwide and comparison with refillable metal bottles. – Sci. Total Environ., 407(3):1089–96, doi:10.1016/j.scitotenv.2008.10.014.
• Kraft, J. C., Kayan, İ. & Aschenbrenner, S. E. (1985): Geological Studies of Coastal Change Applied to Archaeological Settings: Archaeological geology. – 57–84 p., 20 Abb.; New Haven (Yale Univ. Press).
• Kraft, J. C., Kayan, İ. & Erol, O. (1980): Geomorphic Reconstructions in the Environs of Ancient Troy. – Science, 209(4458):776–782, 6 Abb.
• Kraft, J. C., Kayan, İ. & Erol, O. (1982): Geology and paleogeographic reconstructions of the vicinity of Troy: Troy – the Archaeological Geology Supp. 4. – 11–41 p., 21 Abb.; Princeton (Princeton Univ. Press).
• Kraft, J. C., Rapp, G., Gifford, J. A. & Aschenbrenner, S. E. (2005): Coastal Change and Archaeological Settings in Elis. – Hesperia, 74(1):1–39, 18 Abb., 2 Tab.
• Kraft, J. C., Rapp, G., Kayan, İ. & Luce, J. V. (2003): Harbor areas at ancient Troy; sedimentology and geomorphology complement Homer’s Iliad. – Geology, 31(2):163–166, 6 Abb.
• Krähenbühl, H. (1980): Der frühere Bergbau in Graubünden. – Bergknappe, 11:71–74, 4 Abb.
• Krähenbühl, H. (1982): Die Bodenschätze des Wallis. – Bergknappe, 21(3):13–16, 2 Abb.
• Krähenbühl, H. (1989): Bergbau im Schams und Ferreratal. – Bergknappe, 50-55:8–14, 2–5, 2–8, 2–8, 2–5, 2–5, 8–11, 34 Abb.
• Krähenbühl, R., Nänni, C. & Donau, F. (2018): Prozesse die zu grossem Fels- und Bergsturz führen. – Bull. angew. Geol., 23(1):29–56, 11 Abb., 10 Tab.
• Krahmann, R. (1936): The geophysical magnetometric investigations on west Witwatersrand areas between Randfontein and Potchefstroom, Transvaal. – J. S. Afr. I. Min. Metall., 36(9):247–279.
• Krahmann, R. (1936): The geophysical magnetometric investigations on west Witwatersrand areas between Randfontein and Potchefstroom, Transvaal – Discussion. – J. S. Afr. I. Min. Metall., 36(10):303–312.
• Krainer, K. & Ribis, M. (2012): A Rock Glacier Inventory of the Tyrolean Alps (Austria). – Austrian J. Earth Sci., 105(2):32–47, 12 Abb., 4 Tab.
• Krajnc, A. (1996): Karst as a Complex System: Engineering in Karst. – 6 p., Portoroz (Proceedings International Mine Water Association Workshop).
• Krakow, L. & Schunke, F. (2016): Aktuelles Tonpotenzial von Deutschland – Teil 3: Rohstoffe aus den Systemen des Karbon und Perm. – ZI (Ziegelind.) Int., 7:10–21.
• Kral, F. (1989): Pollenanalytische Untersuchungen im Fernpaßgebiet (Tirol): Zur Frage des Reliktcharakters der Bergsturz-Kiefernwälder. – Verh. Zool.-Botan. Ges. Österreich, 126:127–138, 3 Abb., 2 Tab.
• Kralik, M. (2000): Environmental Geology in Austria. – Mitt. Österr. Geol. Ges., 92:313–335, 19 Abb., 6 Tab.
• Kralik, M. (2001): Spring dynamics as a tool to evaluate Groundwater-Vulnerability. Paper presented at the 7th conference on Limestone Hydrology and Fissured Media, Besancon. – p. 215–218; Besancon.
• Kralik, M. (2001): Strategie zum Schutz der Karstwassergebiete in Österreich: BE-189. – 99 p., Wien.
• Kralik, M., Zieritz, I., Grath, J., Vincze, G., Philippitsch, R. & Pavlik, H. (2005): Hydrochemische Karte Österreichs [Hydrochemical Map of Austria] – Oberflächennaher Grundwasserkörper und Fließgewässer, 2 edn. – Wien.
• Kralj, P. & Kralj, P. (2000): Thermal and mineral waters in north-eastern Slovenia. – Environ. Geol., 39(5):488–500, 7 Abb., 6 Tab.
• Kramer, W., Weatherall, G. & Offler, R. (2001): Origin and correlation of tuffs in the Permian Newcastle and Wollombi Coal measures, NSW, Australia, using chemical fingerprinting. – Int. J. Coal Geol., 47(2):115–135, 9 Abb., 7 Tab.
• Kranenborg, J. (1996): Double-Diffusive Convection due to lateral thermal forcing. – 125 p., PhD, Utrecht University; Utrecht.
• Kranz, J. R. (1976): Stratiforme und diskordante Zink-Blei-Anomalien im erzhöffigen Oberen Wettersteinkalk (alpine Mitteltrias). – Mineral. Deposita, 11(1):6–23, doi:10.1007/BF00203091.
• Kranz, J. R. (1976): Strontium — ein Fazies-Diagenese-Indikator im Oberen Wettersteinkalk (Mittel-Trias) der Ostalpen. – Geol. Rdsch., 65(1):593–615, 9 Abb., 4 Tab.; doi:10.1007/BF01808483.
• Kranz, K. & Dillenardt, J. (2010): Mine Water Utilization for Geothermal Purposes in Freiberg, Germany: Determination of Hydrogeological and Thermophysical Rock Parameters. – Mine Water Environ., 29(1):68–76, 5 Abb., 4 Tab.; doi:10.1007/s10230-009-0094-4.
• Krapp, L. (1983): Determination of regional rock-mass permeabilities. – Bulletin of the international Association of Engineering Geology, 26-27:443–447, 3 Abb.; doi:10.1007/BF02594256.
• Krasavtseva, E., Gogoi, H., Svetlov, A., Leiviskä, T. & Makarov, D. (2023): Removal of Sulfate and Metals from Wastewater of a Mining Enterprise by a Dual Sorbent System: A Case Study. – Mine Water Environ., 42(1):200–208, doi:10.1007/s10230-023-00923-9.
• Krasavtseva, E., Makarov, D., Masloboev, V., Maksimova, V. & Svetlov, A. (2021): Mobilization Of Environmentally Hazardous Elements Dressing Tailings Of Loparite Ores Under Atmospheric Precipitation. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 255–260; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Kratochvil, D., Ye, S. & Lopez, O. (2015): Commercial Case Studies of Life Cycle Cost Reduction of ARD Treatment with Sulfide Precipitation. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Kratz, S. & Schnug, E. (2005): Rock phosphates and P fertilizers as sources of U contamination in agricultural soils. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 57–68, Heidelberg (Springer).
• Kratzer, M. (2008): Optimierung von Fluoreszenztracern für geflutete Untertagebergwerke. – 81 p., 24 Abb., 27 Tab.; München (unveröff. Diplom-Arbeit LMU München).
• Kratzsch, H. (1983): Mining Subsidence Engineering. – 552 p., 380 Abb.; Heidelberg (Springer); doi:10.1007/978-3-642-81923-0.
• Kraume, M. & Drews, A. (2010): Membrane Bioreactors in Waste Water Treatment – Status and Trends. – Chem. Eng. Technol., 33(8):1251–1259, 7 Abb.; doi:10.1002/ceat.201000104.
• Kraus, E. C. & Lebküchner, R. (1955): Zur Zweigliederung der südbayerischen Würmeiszeit durch eine Innerwürm-Verwitterungsperiode. – Eiszeitalter u. Gegenwart, 6:75–95, 14 Abb., 3 Tab.; doi:10.3285/eg.06.1.09.
• Kraus, H. (1999): Hydrodynamische Prozesse in einem gefluteten Uranbergwerk – Übersicht und Bewertung von in-situ-Messungen und Modellvorstellungen. – 49 p., 36 Abb.; Clausthal (Unveröff. Studienarbeit TU Clausthal).
• Krause, E. & Pokryszka, Z. (2013): Investigations on Methane Emission from Flooded Workings of Closed Coal Mines. – J. Sustainable Min., 12(2):40–45, doi:10.7424/jsm130206.
• Krause, J., Nicolai, J. & Märten, H. (2016): Hydrological Characterization and Optimization of In-Situ Recovery Technology. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1347–1354, Freiberg (TU Bergakademie Freiberg).
• Krause, K.-H. (2001): Die geologisch-hydrogeologische Situation im Jung- und Altmoränengebiet des Andechser Höhenrückens zwischen Ammer- und Würmsee und in der nördlich angrenzenden Wurzelzone der westlichen Münchener Schotterebene (Oberbayern). – 226 p., 94 Abb., 22 Tab., 5 Anh.; München (unveröff. Diss. TU München).
• Krause, P. D. (1978): Statistical Analysis of pH Data. – Anesth. Analg., 57(1):143–144.
• Krause, R. (2004): Eine befestigte Burgsiedlung der Bronzezeit im Montafon – Interdisziplinäre Siedlungsforschungen und Montanarchäologie in Bartholomäberg und in Silbertal –. – Bludenzer Geschichtsblätter, 71:23–44, 15 Abb.
• Krause, R. (2006): Siedlungsarchäologie und Bergbauforschung im Montafon, Vorarlberg. – Forum Archaeologiae, 38(III):http://farch.net, 7 Abb.
• Krause, R. (2006): Zur bronzezeitlichen Siedlungskammer im Montafon – Neue Ausgrabungen in Bartholomäberg, Bezirk Bludenz. – Jb. Vorarlberger Landesmus.ver.:47–60, 9 Abb.
• Krause, R. (2007): The prehistoric settlement of the inneralpine valley of Montafon in Vorarlberg (Austria). – Preistoria Alpina, 42:119–136, 20 Abb.
• Krause, R., Oeggl, K. & Pernicka, E. (2004): Eine befestigte Burgsiedlung der Bronzezeit im Montafon, Vorarlberg – Interdisziplinäre Siedlungsforschungen und Montanarchäologie in Bartholomäberg und im Silbertal. – Archäologie Österreichs, 15(1):4–21, 24 Abb.
• Krauskopf, K. B. (1951): The solubility of gold. – Econ. Geol., 46(8):858–870.
• Krauss, M., Wilcke, W. & Zech, W. (2000): Polycyclic aromatic hydrocarbons and polychlorinated biphenyls in forest soils – depth distribution as indicator of different fate. – Environ. Pollut., 110:79–88, doi:10.1016/s0269-7491(99)00280-8.
• Kraut, K. H. & Bondareva, O. (2000): Anwendung von Flockungsverfahren bei der Regenwasserbehandlung. – 126 p., 43 Abb., 27 Tab., 3 Anl.; Stuttgart (unveröffentlichter Forschungsbericht Universität Stuttgart – FZKA-BWPLUS).
• Kravchuk, S. (1991): Problem of Utilization of Highly Mineralized Mine and Pit Water Under Iron Ore Deposit Mining and Methods of Its Realization. – Proceedings, 4th International Mine Water Association Congress, 2:265–268.
• Kravitz, J. D., Nyaphisi, M., Mandel, R. & Petersen, E. (1999): Quantitative bacterial examination of domestic water supplies in the Lesotho Highlands: water quality, sanitation, and village health. – Bull World Health Organ, 77(10):829–836.
• Krawczyk-Bärsch, E., Drobot, B. & Raff, J. (2025): Bioremediation of uranium-contaminated water: magnetic bacteria as potential supporters. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 21–27; Braga (International Mine Water Association).
• Krawczyk-Barsch, E., Lunsdorf, H., Arnold, T., Brendler, V., Eisbein, E., Jenk, U. & Zimmermann, U. (2011): The influence of biofilms on the migration of uranium in acid mine drainage (AMD) waters. – Sci. Total Environ., 409(16):3059–3065, doi:10.1016/j.scitotenv.2011.04.051.
• Krčmář, D. & Sracek, O. (2014): MODFLOW-USG: the New Possibilities in Mine Hydrogeology Modelling (or What is Not Written in the Manuals). – Mine Water Environ., 33(4):376–383, 11 Abb.; doi:10.1007/s10230-014-0273-9.
• Kreffly, G. & Daróczy, M. (1982): Problems of official Regulation realted to Mine Water Control in Hungary. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:118–133, 1 Tab.
• Kreft, D. (2017): Biofouling durch oberflächennahe und mitteltiefe geothermische Wärmespeicherung. – 73 p., Bachelor Thesis, Hochschule Mittweida; Mittweida.
• Krentz, O., Friebe, A. & Koch, E. A. (2005): Anwendung digitaler Geodaten – Die geologische Karte GK 50-dig von Sachsen. – Wiss. Mitt. Inst. Geol., 28:123–125, 3 Abb.
• Krentz, O., Witthauer, B., Mittag, R., Novak, E., Wendt, S., Buchholz, P., Korn, M., Funke, S., Forkmann, B., Docekal, A., Donner, F., Heinicke, J. & Temmler, T. (2004): Materialien zur Geologie – Erdbebenbeobachtung im Freistaat Sachsen – Zweijahresbericht 2002–2003. – 54 p., 35 Abb.; Dresden (Sächsisches Landesamt für Umwelt und Geologie).
• Krešic, N. (1987): Ground Water Hazard of Coal Extraction from Marlstone Basins due to surrounding Karst: Hydrogeology of Coal Basins. – 131–135 p., 4 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Krestou, A. & Panias, D. (2004): Uranium (VI) speciation diagrams in the UO2²⁺/CO32-/H₂O system at 25°C. – Eur. J. Miner. Process. Environ. Prot., 4(2):113–129, 10 Abb., 4 Tab.
• Kret, E., Czop, M. & Pietrucin, D. (2017): Requirements for numerical hydrogeological model implementation for predicting the environmental impact of the mine closure based on the example of the Zn/Pb mines in the Olkusz area. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 703–709, Lappeenranta (Lappeenranta University of Technology).
• Kretschmann, J. (2016): Stakeholder Orientated Sustainable Land Management: The Ruhr Area as a Role Model for Urban Areas. – Veröff. Dt. Bergbau-Mus. Bochum, 212:153–162.
• Kretschmann, J. (2020): Post-Mining—a Holistic Approach. – Min. Met. Explor., 37(5):1401–1409, doi:10.1007/s42461-020-00265-y.
• Kretschmann, J. & Brueggerhoff, S. (2016): Mining Heritage:Future-orientated Development of an Outstanding Universal Value in Germany. – Veröff. Dt. Bergbau-Mus. Bochum, 212:47–56, 10 Abb.
• Kretschmann, J., Efremenkov, A. B. & Khoreshok, A. A. (2017): From Mining to Post-Mining: The Sustainable Development Strategy of the German Hard Coal Mining Industry. – IOP Conf. Ser. Earth Environ. Sci., 50(50):012024, doi:10.1088/1755-1315/50/1/012024.
• Kretschmann, J. & Goerke-Mallet, P. (2016): The Sustainable Development Strategy of the German Hard Coal Mining Industry. – Veröff. Dt. Bergbau-Mus. Bochum, 212:57–70.
• Kretschmann, J. & Hegemann, F. (2016): New Chances from Old Shafts – Risk Management in Abandoned Mine Sites in Germany. – Veröff. Dt. Bergbau-Mus. Bochum, 212:33–46.
• Kreyßig, E., Hiller, A., Götze, J. & Schröder, K. (2019): Entrance to the Past – Knowledge Transfer Within the Wismut Environmental Rehabilitation Project. – In: Paul, M. (ed) WISSYM19 – Shaping the future: Long-term experiences and innovations in mine remediation. – p. 385–388, 1 Abb.; Chemnitz (Wismut GmbH).
• Kreyszig, E. (1979): Statistische Methoden und ihre Anwendungen mit zahlreichen Tabellen, 7. edn. – 451 p., Göttingen (Vandenhoeck & Ruprecht).
• Krieg, W. (1977): Vorarlberger Naturforscher im Gebirge. – Jb. Vorarlberger Landesmus.ver., 1974/75:13–17.
• Krieg, W. (1990): Der älteste Stein in den Alpen. – Jb. Vorarlberger Landesmus.ver.:13–16, 1 Abb.
• Krieg, W. (1995): Karst zwischen Sulzfluh und Gargellen. – Bludenzer Geschichtsblätter, 24-26:122–136, 17 Abb.
• Krige, D. G. (1951): A statistical approach to some basic mine valuation problems on the Witwatersrand. – J. S. Afr. Inst. Min. Metall., 52(6):119–139.
• Krige, D. G. (1981): Lognormal-de Wijsian Geostatistics for Ore Evaluation, 2nd edn. – 51 p., 41 Abb., 15 Tab.; Johannesburg (South African Institute of Mining and Metallurgy).
• Krige, W. G. (2006): Hydrological/Chemical Aspects of the Tweelopie-/Riet-/Blaauwbankspruit, with Specific Reference to the Impact Water, Decanting from the Western Basin Mine Void, has on this System. – Unpubl. Report for Johan Fourie & Associates & Harmony Gold Mining Co. Ltd. Randfontein Operations 64 p., Sterkfontein (African Environmental Development).
• Krischker, G. A. (1990): Die Baryt-Fahlerz-Lagerstätte St. Gertraudi/Brixlegg. – 206 p., Innsbruck (Unveröff. Dipl.-Arb. Univ. Innsbruck).
• Krischok, S., Hofft, O. & Kempter, V. (2002): Adsorption on Metal Oxides: Studies with the Metastable Impact Electron Spectroscopy. – Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms, 193:466–473, 2 Abb.
• Krishna, M. K., Mattaiah, G. & Venkatappaiah, A. (1985): Hot water seepage into shallow coal mines of Manuguru Coalbelt, Godavary Valley Coalfield, Andhra Pradesh, India. – Proceedings, 2nd International Mine Water Association Congress, 2:979–989, 5 Abb., 2 Tab.
• Krismer, M., Vavtar, F., Tropper, P., Kaindl, R. & Sartory, B. (2011): The chemical composition of tetrahedrite-tennantite ores from the prehistoric and historic Schwaz and Brixlegg mining areas (North Tyrol, Austria). – Eur. J. Mineral., 23(6):925–936, 14 Abb., 3 Tab.; doi:10.1127/0935-1221/2011/0023-2137.
• Krismer, M., Vavtar, F., Tropper, P., Sartory, B. & Kaindl, R. (2011): Mineralogy, Mineral Chemistry and Petrology of the Ag-Bearing Cu-Fe-Pb-Zn Sulfide Mineralizations of the Pfunderer Berg (South Tyrol, Italy). – Austrian J. Earth Sci., 104(1):36–48.
• Kristensen, P., Knudsen, K. L., Lykke Andersen, H., Normark, E., Peacock, J. D. & Sinnott, A. (1998): Interglacial and glacial climate oscillations in a marine shelf sequence from northern – Denmark a multidisciplinary study. – Quat. Sci. Rev., 17(9-10):813–837.
• Kristensen, P., Werner, B., Christiansen, T., Collins, R., Belchior, C., Jacobsen, B., Solheim, A. L., Austnes, K., Kodeš, V., Semaradova, S., Prchalová, H., Filippi, R., Künitzer, A., Peterlin, M., Feher, J., Prins, T., Spiteri, C., Arvela, M., Maitre, J. B., Dominique, Richard, Conde, S., Evans, D., Lenka, Jandova, Dostalova, A. & Ho.ek, M. (2012): European waters – Assessment of status and pressures. – European Environment Agency Report, 8:1–96, doi:10.2800/63266.
• Kroetsch, D. & Wang, C. (2008): Particle Size Distribution. – In: Carter, M. R. & Gregorich, E. G. (eds): Soil Sampling and Methods of Analysis, 2 edn. – p. 713–725, Boca Raton (Taylor & Francis).
• Kroll, A., Amezaga, J. M., Younger, P. L. & Wolkersdorfer, Ch. (2002): Regulation of Mine Waters in the European Union: Contribution of Scientific Research to Policy Development. – Mine Water Environ., 21(4):193–200, 1 Tab.; doi:10.1007/s102300200043.
• Kroll, A. M., Betlem, G. & Amezaga, J. M. (2005): Mine Water Pollution and European Policies. – UNESCO Technical Series, 13/03/03 1 Tab.
• Kromkov, M. & Seko, M. (2020): Drainage of the 12th Mining Field in the Handlova Mine (Slovakia). – Mine Water Environ., 39(2):416–422, doi:10.1007/s10230-020-00672-z.
• Kröner, A. & Hofmann, A. (2019): The Archaean geology of the Kaapvaal Craton, Southern Africa. – 302 p., Cham (Springer); doi:10.1007/978-3-319-78652-0.
• Krones, F. X. v. (1863): Umrisse des Geschichtslebens der deutsch-österreichischen Ländergruppe in seinen staatlichen Grundlagen vom X. bis XVI. Jahrhundert : ein Versuch. – 519 p., Innsbruck (Wagner).
• Kropka, J. (2002): Quantitative analysis of supply from anthropogenic sources to mine workings of closed zinc-lead ore mines in the Bytom Trough (southern Poland). – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1091–1098, 2 Abb.; 1 Tab.; Heidelberg (Springer).
• Kropka, J. (2004): Changes in Mine-Water Hydrology during the Shut-Down Process of the Zinc-Lead Ore Mines in the Bytom Region (S Poland). – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 189–194, 4 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Kropka, J. (2005): Anthropogenic reservoirs in sand pits in the area of Upper Silesian Coal Basin (southern Poland): Mine Water 2005 – Mine Closure. – 195–200 p., 2 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Kropka, J., Janson, E. & Czapnik, A. (2005): Changes of hydrogeological conditions in the area of liquidated hard coal mines in the north-eastern part of Upper Silesia Coal Basin (southern Poland): Mine Water 2005 – Mine Closure. – 209–215 p., 4 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Kropka, J. & Witkowski, A. (1994): Groundwater Quality Degradation in the Area of Abandoned Zn-Pb Ore Mines (Bytom Syncline – Southern Poland). – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:799–809, 2 Abb., 1 Tab.
• Kropka, J. & Wróbel, J. (2000): Hydrogeological problems concerning open digging of filling sands in the area of Upper Silesian Coal Basin (southern Poland). – Proceedings, 7th International Mine Water Association Congress:555–564, 2 Abb., 1 Tab.
• Kruger, J. & Dunning, D. (1999): Unskilled and unaware of it: How difficulties in recognizing one’s own incompetence lead to inflated self-assessments. – J. Pers. Soc. Psychol., 77(6):1121–1134, 4 Abb., 2 Tab.; doi:10.1037/0022-3514.77.6.1121.
• Krüger, K., Schalhorn, A., Werner, E. A., Rottau, N., Roth, M. & Breuss, M. (2015): Double Vision – Albrecht Dürer & William Kentridge. – 207 p., München (Sieveking).
• Krumbeck, L. (1935): Bemerkung zu S. Klein: „Schwerspat-Anreicherungen in einer fränkischen Keuper-Arkose usw.“. – Z. dt. geol. Ges., 87:373–374.
• Krumm, H. (1997): Über historische Verbindungen der alten oberbayerischen Klöster zum Montanwesen. – Berichte der Geologischen Bundesanstalt, 41:129–134, 4 Abb.
• Krusch, P. (1902): Das Goldvorkommen von Roudny in Böhmen. – Z. Dt. Geol. Ges. Verh., 54:58–62.
• Kruse Daniels, N. & Mackey, A. (2016): The effects of a plug of alkaline water in an acid stressed watershed. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 425–429, Freiberg (TU Bergakademie Freiberg).
• Kruse Daniels, N. A., Bowman, J. R., Mackey, A. L. & Lopez, D. (2013): A comparative study of lime doser treatment. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 639–641, 1 Abb.; Golden (International Mine Water Association).
• Kruse Daniels, N. A., Bowman, J. R. & Riefler, R. G. (2024): Watershed scale reclamation and treatment planning with changing reclamation funding sources. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 116–119; Morgantown (International Mine Water Association).
• Kruse Daniels, N. A., Brancho, J. & Vis, M. L. (2021): The Effects Of Storm Events On Sediment, Nutrient, And Biofilm Dynamics In A Stream Recovering From Acid Mine Drainage. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 261–267; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Kruse Daniels, N. A., Breckenridge, L. & Kruse, C. (2013): A simple modeling approach for an acid generating, backfilled mine pit. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 397–397, Golden (International Mine Water Association).
• Kruse Daniels, N. A., Johnson, K. S. & Bowman, J. R. (2013): Habitat and watershed characteristics that limit stream recovery after acid mine drainage treatment. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 643–648, 2 Abb., 1 Tab.; Golden (International Mine Water Association).
• Kruse Daniels, N. A., Quardey, B., Jamshidifard, S., Marma, A. & Madden, B. (2024): Hydrochar for metal removal from acid mine drainage. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 114–115; Morgantown (International Mine Water Association).
• Kruse Daniels, N. A., Sullivan, N., Bowman, J., Burkett, T., Gurrola, A., Pazol, R., Love, K., Mazzone, N., Vis, M. & Johnson, K. (2024): Floodplain reconnection stream restoration in longwall mined watershed increases water and nutrient retention. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 111–113; Morgantown (International Mine Water Association).
• Kruse, E. G. & Dragoun, F. J. (1970): H-Flumes for Measurement of Flows of Water Containing High Concentrations of Suspended Sediment: ARS 41-163. – 1–13 p., 7 Abb., 5 Tab.; (Agricultural Research Service – Soil and Water Conservation Research Division).
• Krüse, K. (1926): Beiträge zur Kenntnis der Radioaktivität der Mineralquellen Tirols – VII. – Jb. Geol. B.-A., 76(1):81–96, 6 Tab.
• Krüse, K. (1937): Beiträge zur Kenntnis der Radioaktivität der Mineralquellen Tirols – VIII. – Jb. geol. B.-A., 87:41–56, 15 Tab.
• Krüse, K. (1940): Beiträge zur Kenntnis der Radioaktivität der Mineralquellen Tirols – IX. und Schluß. – Mitt. Reichstelle f. Bodenforschung (N F Jb. Geol. B.-A.) 1:69–80.
• Kruse, N., Hawkins, C., Lopez, D. L. & Johnson, K. (2019): Recovery of an Acid Mine Drainage-Impacted Stream Treated by Steel Slag Leach Beds. – Mine Water Environ., 38(4):718–734, doi:10.1007/s10230-019-00636-y.
• Kruse, N. & Younger, P. L. (2007): The Rise and Fall of the Coal Industry in the United Kingdom. – Reclam. Matters, 3(2):15–20, 9 Abb.9 Abb., 3 Tab.
• Kruse, N. A., Bowman, J. R., Mackey, A. L., McCament, B. & Johnson, K. (2011): When Dosers Turn Off: A Case Study in Raccoon Creek, Ohio: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 375–380 p., Aachen (RWTH Aachen University).
• Kruse, N. A., Bowman, J. R., Mackey, A. L., McCament, B. & Johnson, K. S. (2012): The Lasting Impacts of Offline Periods in Lime Dosed Streams – A Case Study in Raccoon Creek, Ohio. – Mine Water Environ., 31(4):266–272, 7 Abb., 2 Tab.; doi:10.1007/s10230-012-0194-4.
• Kruse, N. A., Brewster, K., Blair, B. & Shaw, K. (2011): Contribution of Aluminum from Abandoned Surface Mine Pits in Raccoon Creek, Ohio: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 23–28 p., Aachen (RWTH Aachen University).
• Kruse, N. A., Stoertz, M. W., Green, D. H., Bowman, J. R. & Lopez, D. L. (2014): Acidity Loading Behavior in Coal-Mined Watersheds. – Mine Water Environ., 33(2):177–186, 9 Abb., 1 Tab.; doi:10.1007/s10230-014-0269-5.
• Kruse, N. A. & Strosnider, W. H. J. (2015): Carbon Dioxide Dynamics and Sequestration in Mine Water and Waste. – Mine Water Environ., 34(1):3–9, doi:10.1007/s10230-014-0320-6.
• Kruse, N. A. S., Brewster, K. & Riefler, R. G. (2010): A new look at designing steel slag leach beds. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 245–249, Sydney, NS (Cape Breton University Press).
• Kruse, N. A. S., Gozzard, E. & Jarvis, A. P. (2009): Determination of Hydraulic Residence Times in Several UK Mine Water Treatment Systems and their Relationship to Iron Removal. – Mine Water Environ., 28(2):115–123, 2 Abb., 3 Tab.; doi:10.1007/s10230-009-0068-6.
• Kruse, N. A. S., Kerber, R., Brewster, K. & McCosker, L. (2010): A road to progress? The impacts of cutting a new highway through the heavily. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 429–433, Sydney, NS (Cape Breton University Press).
• Kruse, N. A. S. & Younger, P. L. (2005): Computational methods for acid mine drainage management: decision-making for post-closure decision making: Mine Water 2005 – Mine Closure. – 427–433 p., 2 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Kruse, N. A. S. & Younger, P. L. (2008): Using a Novel Reactive Transport Model to Determine Flow Distribution between Major Roadways in a Partially Flooded Abandoned Underground Metal Mine. – Proceedings, 10th International Mine Water Association Congress:453–455.
• Kruse, N. A. S. & Younger, P. L. (2009): Sinks of iron and manganese in underground coal mine workings. – Environ. Geol., 57(8):1893–1899, doi:10.1007/s00254-008-1478-7.
• Kruse, N. A. S., Younger, P. L. & Kutija, V. (2006): Computational methods for acid mine drainage management: Simulation of hydrogeochemical processes in abandoned underground coal mines: ICARD 2006. – 966–979 p., 2 Abb., 3 Tab.; St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06020966.
• Kruse, S., Bendrat, M., Melchers, Ch., vom Berg, B. & Witthaus, H. (2017): Development and installation of a underground measurement technique at the pilot mine “Auguste Victoria” for a mid to long term monitoring of the mine water level rise. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 94–100, Lappeenranta (Lappeenranta University of Technology).
• Kruseman, G. P. & de Ridder, N. A. (1994): Analysis and Evaluation of Pumping Test Data, 2 edn. – 377 p., Wageningen.
• Krysanova, V., Müller-Wohlfeil, D. I. & Becker, A. (1998): Development and test of a spatially distributed hydrological/water quality model for mesoscale watersheds. – Ecol. Model., 106(2-3):261–289.
• Krzemień, A., Suárez Sánchez, A., Riesgo Fernández, P., Zimmermann, K. & González Coto, F. (2016): Towards sustainability in underground coal mine closure contexts: A methodology proposal for environmental risk management. – J. Clean. Prod., 139:1044–1056, doi:10.1016/j.jclepro.2016.08.149.
• Krzowski, Z. (1985): Metodologia de drenaje de las formaciones jurasicas en la cuenca carbonifera de Lublin (Polonia). – Proceedings, 2nd International Mine Water Association Congress, 1:169–179, 4 Abb.
• Kubanek, F. & Willgallis, A. (1970): Beobachtungen zur Dolomitdiagenese im Alpinen Muschelkalk. – Verh. Geol. B.-A., 1970(4):644–647, 1 Abb.
• Kubiak, C. (2007): Characterisation of Low Density Sludge Storage in a flooded Underground Mine. – 24 p., Master's Thesis, Univ. Rennes, 9 Abb., 2 Tab., 1 Anh.; Rennes.
• Kubica, J., Bukowski, P. & Gzyl, G. (2008): Delimiting of Safety Pillars to Separate Multi-layer Thick-seam Mining Systems from an Aquifer in an Adjacent Flooded Mine. – Proceedings, 10th International Mine Water Association Congress:23–26.
• Kubitschek, W. (1935): Bemerkungen zum sogenannten Atlas Austriacus. – Mitt. Geogr. Ges. Wien, 78:118–126.
• Kučera, R. (2012): Staat, Adel und Elitenwandel : die Adelsverleihungen in Schlesien und Böhmen 1806–1871 im Vergleich: Kritische Studien zur Geschichtswissenschaft 205. – 330 p., Göttingen (Vandenhoeck & Ruprecht).
• Kucha, H., Martens, A., Ottenburgs, R., De Vos, W. & Viaene, W. (1997): Primary minerals of Zn-Pb mining and metallurgical dumps and their environmental behavior at Plombères, Belgium. – Environ. Geol., 27:1–15, 8 Abb., 11 Tab.
• Küchler, A., Kießig, G. & Kunze, C. (2005): Passive Biological Treatment Systems of Mine Waters at WISMUT Sites: Mine Water 2005 – Mine Closure. – 361–368 p., 9 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Küchler, A., Kiessig, G. & Kunze, C. (2005): Passive Biological Treatment Systems of Mine Waters at WISMUT Sites. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 329–340, Heidelberg (Springer).
• Kuchovsky, T., Grycz, D. & Drabova, M. (2008): Regional Impact of Mining on Stream Drainage Characteristics in the Rosice – Oslavany Coal Mining District, Czech Republic. – Proceedings, 10th International Mine Water Association Congress:155–158.
• Kuchovsky, T., Ricka, A. & Cervenkova, J. (2008): Impact of Gravel Pits on Ground water: Case Study of Gravel Pits near the Mohelnice City, Czech Republic. – Proceedings, 10th International Mine Water Association Congress:69–72.
• Kuchovský, T., Říčka, A. & Grycz, D. (2017): Using Numerical Modeling to Understand the Discharge from a Flooded Abandoned Underground Mine. – Mine Water Environ., 36(4):606–616, doi:10.1007/s10230-017-0455-3.
• Kudjelka, A. (2002): Pflanzenverfügbarkeit und Mobilität von Schwermetallen in Blei-Zink-Bergwerkshalden des Grazer Paläozoikums –114 p., Diplom, Universität Wien; Wien.
• Kuepper, N. D., Böhm, L., Braun, C., Bustamante, P., Düring, R.-A., Libertelli, M. M. & Quillfeldt, P. (2022): Persistent organic pollutants and mercury in a colony of Antarctic seabirds: higher concentrations in 1998, 2001, and 2003 compared to 2014 to 2016. – Polar Biol., 45(7):1229–1245, doi:10.1007/s00300-022-03065-w.
• Küfmann, C. (2003): Soil types and eolian dust in high-mountainous karst of the Northern Calcareous Alps (Zugspitzplatt, Wetterstein Mountains, Germany) –Catena, 53(3):211–227, 6 Abb., 6 Tab.; doi:10.1016/s0341-8162(03)00075-4.
• Kugler, J. & Weyer, J. (2002): Der Einfluß des Hochwassers am 12.–14. 08. 2002 auf Anlagen des Montanwesens im Freiberger Revier – Größenordnung potentieller Gefahren und bergmännische Aufgaben nach dem Verbruch des Rothschönberger Stollens. – 37 p., 24 Abb.; Freiberg (Eigenverlag).
• Kuhn, K. & Uerpmann, E.-P. (1979): Unterirdische Endlagerung aus internationaler Sicht – Bericht über das IAEO-OECD/NEA- Symposium in Otaniemi/Finnland. – Atomwirtsch.-Atomtech., 24(12):595–597.
• Kühn, L. W. (2025): Die geologische Ausgangssituation des Müsener Bergbaus. – Siegerland – Blätter des Siegerländer Heimat- und Geschichtsvereins, 102(1):89–101, 3 Abb.
• Kühn, R. (1965): Chemische Gesichtspunkte zur Frage der Herkunft der Solen im Ruhrgebiet. – Z. dt. geol. Ges., 116(2):254–256, doi:10.1127/zdgg/116/1965/254.
• Kühne, K. (2006): Das Fachinformationssystem Geophysik und seine Nutzung über das Internet. – Wiss. Mitt. Inst. Geol., 31:227–231, 3 Abb., 1 Tab.
• Kuhr, G. (1976): Waldviertler Exulanten in Deutschland. – Das Waldviertel, 25(1/3):65–78, 4 Abb.
• Kuhr, G. (1987): Österreichische Exulanten: Gründe der Auswanderung, Orte der Zuwanderung und Bedeutung für Franken nach dem Dreißigjährigen Krieg. – Frankenland:161–180, 16 Abb.
• Kuipers, J., Maest, A. S., MacHardy, K. A. & Lawson, G. (2006): Comparison of Predicted and Actual Water Quality at Hardrock Mines – The reliability of predictions in Environmental Impact Statements. – 195 p., Washington (Earthworks).
• Kukkonen, I. T. (2000): Geothermal Energy in Finland. Paper presented at the World Geothermal Congress 2000 Kyushu. – p. 277–282, 3 Abb., 1 Tab.
• Kukkonen, I. T., Jokinen, J. & Seipold, U. (1999): Temperature and pressure dependencies of thermal transport properties of rocks: Implications for uncertainties in thermal lithosphere models and new laboratory measurements of high-grade rocks in the central Fennoscandian Shield. – Surveys in Geophysics, 20(1):33–59, doi:10.1023/A:1006655023894.
• Kukuk, P., Breddin, H., Gothan, W., Hirmer, M., Hoffmann, E., Keller, G., Kühlwein, F. L., Oberste-Brink, K., Schmidt, H., Schröder, F., Wehrli, H., Winter, H. & Wolansky, D. (1938): Geologie des niederrheinisch-westfälischen Steinkohlengebietes. – 706 p., Berlin (Springer).
• Kularatne, R. K. A., Kasturiarachchi, J. C., Manatunge, J. M. A. & Wijeyekoon, S. L. J. (2009): Mechanisms of Manganese Removal from Wastewaters in Constructed Wetlands Comprising Water Hyacinth (Eichhornia crassipes (Mart.) Solms) Grown under Different Nutrient Conditions. – Water Environ. Res., 81(2):165–172, doi:10.2175/106143008x370403.
• Kulin, G. & Compton, P. R. (1975): A Guide to Methods and Standards for the Measurement of Water Flow. – National Bureau of Standards, Special Publication, 421:89.
• Külls, C. & Bittner, A. (2013): Passive barriers for long-term containment of Uranium and Vanadium. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1017–1021, 3 Abb.; Golden (International Mine Water Association).
• Külls, C., Bittner, A. & Marx, V. (2013): Strategic Assessment of Water Resources for the Erongo Uranium Province. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 47–52, 4 Abb., 1 Tab.; Golden (International Mine Water Association).
• Kulo, I. & Santala, E. (1998): Water Services in Finland – Domestic water supply and sewerage. – 20 p., 24 Abb., 1 Tab.; Helsinki (Finnish Environment Institute; Finnish Water and Waste Water Works Association).
• Kuma, J. S., Younger, P. L. & Bowell, R. J. (2002): Expanding the hydrogeological base in mining EIA studies – A focus on Ghana. – Environ. Impact Assess. Rev., 22:273–286, 1 Tab.
• Kuma, J. S., Younger, P. L. & Bowell, R. J. (2002): Hydrogeological framework for assessing the possible environmental impacts of large-scale gold mines. – Spec. Publ. – Geol. Soc. London, 198:121–136, 5 Abb., 5 Tab.; doi:10.1144/GSL.SP.2002.198.01.09.
• Kuma, J. S., Younger, P. L. & Buah, W. K. (2011): Numerical Indices of the Severity of Acidic Mine Drainage: Broadening the Applicability of the Gray Acid Mine Drainage Index. – Mine Water Environ., 30(1):67–74, 1 Abb., 7 Tab.; doi:10.1007/s10230-010-0133-1.
• Kumar, A. & Maiti, S. K. (2015): Assessment of potentially toxic heavy metal contamination in agricultural fields, sediment, and water from an abandoned chromite-asbestos mine waste of Roro hill, Chaibasa, India. – Environ. Earth Sci., 74(3):2617–2633, doi:10.1007/s12665-015-4282-1.
• Kumar, B., Kumar, S., Gaur, R., Goel, G., Mishra, M., Singh, K. S., Prakash, D. & Sharma, S. C. (2011): Persistent organochlorine pesticides and polychlorinated biphenyls in intensive agricultural soils from North India. – Soil and Water Research, 6(4):190–197, doi:10.17221/21/2011-SWR.
• Kumar, N., Fosso-Kankeu, E. & Ray, S. S. (2019): Achieving Controllable MoS2 Nanostructures with Increased Interlayer Spacing for Efficient Removal of Pb(II) from Aquatic Systems. – ACS Appl. Mater. Interfaces, 11(21):19141–19155, doi:10.1021/acsami.9b03853.
• Kumar, N., Tiwari, M. K., Singh, R. & Singh, A. K. (2022): Chemometrics in Ascertaining Hydrogeochemical Characteristics of Coal Mine Discharge vis-à-vis Behaviour of Surface and Groundwater Resources of the Mahan River Catchment Area, Central India. – Mine Water Environ., 41(2):518–532, doi:10.1007/s10230-022-00854-x.
• Kumar, R., Pal, S. K. & Gupta, P. K. (2021): Water Seepage Mapping in an Underground Coal-Mine Barrier Using Self-potential and Electrical Resistivity Tomography. – Mine Water Environ., 40(3):622–638, doi:10.1007/s10230-021-00788-w.
• Kumar, R. N., McCullough, C. D. & Lund, M. A. (2011): Potential of sewage and green waste for acidic pit lake bioremediation: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 381–386 p., Aachen (RWTH Aachen University).
• Kumar, R. N., McCullough, C. D. & Lund, M. A. (2012): Upper and lower concentration thresholds for bioremediation of acid mine drainage using bulk organic substrates. – In: McCullough, C. D., Lund, M. A. & Wyse, L. (eds): International Mine Water Association Symposium. – p. 525–532, 1 Abb., 2 Tab.; Bunbury (Edith Cowan University).
• Kumar, R. N., McCullough, C. D. & Lund, M. A. (2013): Upper and Lower Concentration Thresholds for Bulk Organic Substrates in Bioremediation of Acid Mine Drainage. – Mine Water Environ., 32(4):285–292, 2 Abb., 4 Tab.; doi:10.1007/s10230-013-0242-8.
• Kumar, R. N., McCullough, C. D., Lund, M. A. & Newport, M. (2011): Sourcing Organic Materials for Pit Lake Bioremediation in Remote Mining Regions. – Mine Water Environ., 30(4):296–301, 1 Tab.; doi:10.1007/s10230-011-0144-6.
• Kumar, V. R., Sahay, S. N., Periasamy, N., Prasad, S. S. & Karthikeyan, S. (2010): Ground Water Basin Management at the Neyveli Lignite Mines. – Mine Water Environ., 29(1):23–28, 1 Abb., 6 Tab.; doi:10.1007/s10230-009-0091-7.
• Kumari, B., Tiwary, R. K. & Srivastava, K. K. (2017): Physico-Chemical Analysis and Correlation Study of Water Resources of the Sukinda Chromite Mining Area, Odisha, India. – Mine Water Environ., 36(3):356–362, doi:10.1007/s10230-016-0409-1.
• Kun, L. E. (1972): A Report on the Reduction of the Sulphate Content of Acid Mine Drainage by Precipitation with Barium Carbonate. – (Report Nr. D/3/W/1). – p., Johannesburg (Anglo American Research Laboratories).
• Kuna-Broniowska, I. & Smal, H. (2017): Statistical measures of the central tendency for H+ activity and pH. – Soil Sci. Annu., 68(4):174–181, doi:10.1515/ssa-2017-0022.
• Kunau, J. (2004): Die Schwermetallbelastung der Freiberger Mulde im Abschnitt Muldenhütten–Obergruna unter Bezugnahme auf das Altlastenprojekt SAXONIA. – 104 p., 23 Abb., 7 Tab., 27 Anl.; Chemnitz (unveröff. Praktikumsarbeit Staatl. Umweltfachamt).
• Kunert, M., Friese, K., Weckert, V. & Markert, B. (1999): Lead Isotope Systematics in Polytrichum formosum: An Example from a Biomonitoring Field Study with Mosses. – Environ. Sci. Technol., 33(20):3502–3505, 3 Abb., 3 Tab.
• Kunick, E. (1929): Der Bergbau im Kreise Landeshut. – In: Kunick, E. (ed) Heimatbuch des Kreises Landeshut. – p. 468–486, Landeshut (Verner).
• Kunishi, H. M., Taylor, A. W., Heald, W. R., Gburek, W. J. & Weaver, R. N. (1972): Phosphate movement from an agricultural watershed during two rainfall periods. – J. Agric. Food. Chem., 20(4):900–905, doi:10.1021/jf60182a026.
• Kunkel, T. (2017): Aboriginal values and resource development in Native Space: Lessons from British Columbia. – Extr. Ind. Soc., 4(1):6–14, doi:10.1016/j.exis.2017.01.001.
• Kunsch, P. L., Springael, J. & Brans, J. P. (2004): The zero-emission certificates: A novel CO₂-pollution reduction instrument applied to the electricity market. – Eur. J. Oper. Res., 153(2):386–399, 8 Abb., 2 Tab.
• Kunstmann, H., Kinzelbach, W., Marschall, P. & Li, G. M. (1997): Joint Inversion of Tracer Tests Using Reversed flow Fields. – J. Contam. Hydrol., 26(1-4):215–226.
• Kuntonen-van’t Riet, J. & Lindvall, M. (2012): Social License, The Most Challenging License – A Case Study on a Responsible Approach to Developing Iron Ore Mines in the Arctic. – 1– 9 [electronic resource] p., 4 Abb., 1 Tab.; Ottawa (Proceedings 9th International Conference on Acid Rock Drainage (ICARD)).
• Kuntscher, H. (1998): Alaungewinnung in Tirol. – Tiroler Heimatblätter, 73(2):60–65, 2 Abb.
• Kuntz, G. (1982): High Voltage Submersible Mine Dewatering Pumps for Extremly High Lifts. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:134–152, 9 Abb.
• Kunz, N. C. & Moran, C. J. (2016): The utility of a systems approach for managing strategic water risks at a mine site level. – Water Resour. Ind., 13:1–6, doi:10.1016/j.wri.2016.02.001.
• Kunze, C., Glombitza, F., Gerth, A., Kießig, G. & Küchler, A. (2002): Long-term Stability and Resilience of Passive Mine Water Treatment Facilities: A Joint Experimental and Simulation Approach. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 601–608, 2 Abb.; Heidelberg (Springer).
• Kunze, C., Kießig, G. & Küchler, A. (2007): Management of passive biological water treatment systems for mine effluents: Advanced Science and Technology for Biological Decontamination of Sites Affected by Chemical and Radiological Nuclear Agents 75. – 177–195 p., 10 Abb., 4 Tab.; Heidelberg (Springer).
• Kunze, C. & Küchler, A. (2003): Passive biological treatment systems of mine waters at WISMUT sites. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 187–199, 10 Abb., 1 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Kunze, K. & Blumenstein, O. (2023): Field Trial on the Use of Iron Hydroxide Sludge for Revegetation Measures and to Improve the Productivity of Structurally Weak Soils. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 287–293; (International Mine Water Association).
• Kuo, E. Y. & Ritchie, A. I. M. (1999): Enhanced Oxygen Transport by Convertion in Sulfidic Rock Piles: The Influence of the Form of the Sulfide Oxidation Rate. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 455–460, 6 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Kuper, R. & Kröpelin, S. (2006): Climate-Controlled Holocene Occupation in the Sahara: Motor of Africa’s Evolution. – Science, 313:803–807, 3 Abb.; doi:10.1126/science.1130989.
• Kuperkoch, L., Olbert, K. & Meier, T. (2018): Long-Term Monitoring of Induced Seismicity at the Insheim Geothermal Site, Germany. – Bulletin of the Seismological Society of America, 108(6):3668–3683, doi:10.1785/0120170365.
• Kupka, D., Bártová, Z. & Hagarová, L. (2023): Kinetics study comparing bacterial growth and iron oxidation kinetics over a range of temperatures 5–45 °C. – Hydrometallurgy, 222 doi:10.1016/j.hydromet.2023.106181.
• Kupka, D., Bártová, Z., Hagarová, L., Hroncová, J., Mačingová, E., Stahorský, M., Bačik, M. & Sekula, P. (2022): Ekologická havária na rieke Slaná – Charakteristika banských vôd a návrh postupov ich čistenia [Ecological Disaster on the Slaná River – Geochemistry of Mine Waters and Remediation Procedures]. Paper presented at the Situácia v ekologicky zaťažených regiónoch Slovenka a strednej Európy. XXXI.vedecké sympózium s medzinárodnou účasťou, Hrádok, 24–25. November 2022. – p. 4–12, 10 Abb., 2 Tab.
• Kupka, D., Bártová, Z., Hagarová, L., Melnyk, I., Mačingová, E., Kyshkarova, V. & Zeman, J. (2023): Metal Recovery and Remediation of Mine Water Effluent from Siderite Deposit Nižná Slaná, Eastern Slovakia. Paper presented at the MEI’s 2023 – 11th International Symposium on Biomining, Falmouth, June 5–6, 2023. – p. 1–14, 12 Abb.
• Kupka, D., Hagarová, L., Bártová, Z., Majzlan, J., Hredzák, S., Matik, M., Briančin, J., Kaňuchová, M., Sisol, M., Ďuriška, I. & Jurkovič, Ľ. (2025): Bioleaching of Tetrahedrite by Iron- and Sulfur-Oxidizing Bacteria. – J. Sustainable Metall., doi:10.1007/s40831-025-01089-0.
• Kuppe, G. (1965): Schlesien – Deine Heimat und Du. – 48 p., Recklinghausen (Der Schlesier).
• Kura, B., La Motta, E. J., Tittlebaum, M. & Alawady, M. (1997): Macroscopic BOD Kinetic Model for Microbial Rock Plant Filter Design. – Advances in Environmental Research, 1(1):36–43.
• Kura, K., Korcz, M., Dlugosz, J., Gzyl, G. & Odrzywolek, M. (2008): Application of Conceptual Hydrogeological Site Model Basing on GIS Database for the Area of Mine Waste Rock Pile. – Proceedings, 10th International Mine Water Association Congress:375–378.
• Kurat, G., Pernicka, E., Herrwerth, I. & El, G. A. (1982): Geochemistry of Chainpur chondrules; evidence for evaporation and recondensation. – LPI Contribution, 493:37, 1 Abb.
• Kürçer, A., Chatzipetros, A., Tutkun, S. Z., Pavlides, S., Özden, S., Syrides, G., Vouvalidis, K., Ulugergerli, E., Ateş, Ö. & Ekinci, Y. L. (2012): An Assessment of the Earthquakes of Ancient Troy, NW Anatolia, Turkey. – In: Sharkov, E. (ed) Tectonics – Recent Advances. – p., London (IntechOpen); doi:10.5772/48471.
• Kuretsidis-Haider, C. & Hautmann, H. (2000): Justizverbrechen als Instrument der inneren Kriegsführung und als Gegenstand der Kriegsfolgenbewältigung in Österreich (Vergleich 1. und 2. Weltkrieg). – Bulletin du Comité international d’histoire de la Deuxième Guerre mondiale [Bulletin of the International Committee for the History of the Second World War], 30/31:75–92.
• Kuroda, A., Alexandrov, M., Nishimura, T. & Ishida, T. (2016): Rapid on-site detection of airborne asbestos fibers and potentially hazardous nanomaterials using fluorescence microscopy-based biosensing. – Biotechnol. J., 11(6):757–767, doi:10.1002/biot.201500438.
• Kurtz, S., Denke, P., F., B. & Kochan, H. J. (2010): Vor-Ort-Monitoring und Prozessuntersuchungen zur Prognose der Schlammeigenschaften in einer vietnamesischen Grubenwasserreinigungsanlage bei stark kohlehaltigen Fe- und Mn-reichen Rohwässern. – Wiss. Mitt. Inst. Geol., 42:77–86.
• Kurukulasuriya, D., Howcroft, W., Meredith, K. & Timms, W. (2022): The Conundrum of Incongruent Multiple Age Tracer Results in Mine Water. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 195–200; (International Mine Water Association).
• Kurukulasuriya, D., Howcroft, W., Moon, E., Timms, W. & Meredith, K. (2022): Selecting Environmental Water Tracers to Understand Groundwater around Mines: Opportunities and Limitations. – Mine Water Environ., 41(2):357–369, doi:10.1007/s10230-022-00845-y.
• Kurzweil, R. (2005): The singularity is near – When humans transcend biology. – 652 p., London (Viking).
• Kurzweil, R. (2014): Menschheit 2.0 die Singularität naht, 2., durchgesehene Auflage edn. – 655 p., Berlin (Lola Books).
• Kus, G., Pamer, R. & Wagner, B. (2006): Digitale Erstellung und Vernetzung (hydro-)geologischer Profilschnitte innerhalb bestehender Datenstrukturen. – Wiss. Mitt. Inst. Geol., 31:303–310, 5 Abb., 1 Tab.
• Kus, R. (1999): Compressing Mine Salted Waters into Sandstones of the Upper Silesian Sandstone Series. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 107–112, 6 Abb.; Sevilla (International Mine Water Association).
• Kús, R. & Polozov, Y. (2000): Fighting water hazard by grouting-practical applications. – Proceedings, 7th International Mine Water Association Congress:565–576, 3 Abb., 1 Tab.
• Kuščer, D. (1991): Hydrological Regime of the Water Inrush into the Kotredez Coal Mine (Slovenia, Yugoslavia). – Mine Water Environ., 10(1-4):93–101, 4 Abb.
• Kuscer, D. & Veselič, M. (1985): The Role of Porewater Pressure and Seepage Forces on the Stability of Protection Layers. – Proceedings, 2nd International Mine Water Association Congress, 1:203–213, 4 Abb.
• Kuschka, E. & Franzke, H. J. (1974): Zur Kenntnis der Hydrothermalite des Harzes. – Z. geol. Wiss., 2(12):1417–1436, 3 Abb.
• Kusebauch, C., Gleeson, S. A. & Oelze, M. (2019): Coupled partitioning of Au and As into pyrite controls formation of giant Au deposits. – Science Advances, 5(5):eaav5891, doi:10.1126/sciadv.aav5891.
• Kusel, K., Chabbi, A. & Trinkwalter, T. (2003): Microbial Processes Associated with Roots of Bulbous Rush Coated with Iron Plaques. – Microb. Ecol., 46(3):302–311.
• Kushawaha, D., Yadav, S. & Singh, D. K. (2020): Thermo-solute natural convection with heat and mass lines in a uniformly heated and soluted rectangular enclosure for low Prandtl number fluids. – Int. J. Therm. Sci., 148:106160, doi:10.1016/j.ijthermalsci.2019.106160.
• Kusin, F. M. (2011): Coupled Hydraulic and Geochemical Performance Assessment of Passive Mine Water Treatment Systems in the UK. – 259 p., PhD Thesis, Newcastle University; Newcastle upon Tyne.
• Kusin, F. M., Aris, A. & Misbah, A. S. A. (2013): A comparative study of anoxic limestone drain and open limestone channel for acidic raw water treatment. – Intern. J. Eng. Technol., 13(6):87–92, 4 Abb., 4 Tab.
• Kusin, F. M., Jarvis, A. P. & Gandy, C. J. (2010): Hydraulic residence time and iron removal in a wetland receiving ferruginous mine water over a 4 year period from commissioning. – Water Sci. Technol., 62(8):1937–1946, doi:10.2166/wst.2010.495.
• Kusin, F. M., Jarvis, A. P. & Gandy, C. J. (2012): Hydraulic performance assessment of passive coal mine water treatment systems in the UK. – Ecol. Eng., 49:233–243, doi:10.1016/j.ecoleng.2012.08.008.
• Kusin, F. M., Jarvis, A. P. & Gandy, C. J. (2014): Hydraulic Performance and Iron Removal in Wetlands and Lagoons Treating Ferruginous Coal Mine Waters. – Wetlands, 34(3):555–564, doi:10.1007/s13157-014-0523-4.
• Kusin, F. M., Kruse, N., Mayes, W. M. & Jarvis, A. P. (2009): A comparative study of hydraulic residence time using a multi-tracer approach at a coal mine water treatment wetland, Lambley, Northumberland, UK. Paper presented at the Proceedings Securing the Future 2009 & 8th ICARD, Skellefteå. – p. 1–10 [electronic document].
• Kussin, J. (2004): Experimentelle Studien zur Partikelbewegung und Turbulenzmodifikation in einem horizontalen Kanal bei unterschiedlichen Wandrauhigkeiten. – 114 p., 81 Abb., 8 Tab.; Halle (Unveröff. Diss. Univ. Halle-Wittenberg).
• Kusuma, G. J., Badhurahman, A., Dwiki, S., Salmawati, S., Gautama, R. S. & Paramananda, I. D. (2024): Various rainfall forecasting methods for estimation of pit lake flooding duration in Indonesia. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 347–352; Morgantown (International Mine Water Association).
• Kusuma, G. J., Badhurahman, A., Dwiki, S., Salmawati, S., Gautama, R. S. & Wisnugraha, G. (2024): Evaluation of geochemical reaction rates from different wet-dry cycle intervals in laboratory kinetic test. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 341–346; Morgantown (International Mine Water Association).
• Kusuma, G. J., Badhurahman, A., Gautama, R. S., Dwiki, S. & Salmawati, S. (2023): Acid Mine Drainage from Epithermal Gold Deposits: Characterization and Classifying for Various Rock Types. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 294–298; (International Mine Water Association).
• Kusuma, G. J., Febriana, D., Dwiki, S., Badhurahman, A., Salmawati, S., Paramananda, I. D. & Gautama, R. S. (2025): Settling Characteristics and Physic-Geochemical Stability of Fly Ash for Acid Mine Drainage Neutralization in Pit Lakes: A Laboratory-Scale Study. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1065–1069; Braga (International Mine Water Association).
• Kusuma, G. J., Gautama, R. S., Dwiki, S., Badhurahman, A. & Abfertiawan, M. S. (2022): Performance of Fly Ash and Bottom Ash as Coal Combustion Product to Prevent Acid Mine Drainage Generation: Preliminary Result on A Pilot Scale. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 201–207; (International Mine Water Association).
• Kuszneruk, J. (1987): Regional Changes of hydrogeological Conditions effected by Dewatering of “Belchatów” Lignite Open Pit: Hydrogeology of Coal Basins. – 509–523 p., 3 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Kutter, S. & Baumbach, H.-H. (2005): Lebensräume nach dem Tagebau – GIS-gestützte Flächensanierung in der Praxis. – Wiss. Mitt. Inst. Geol., 28:127–130, 8 Abb.
• Kuyucak, N. (1998): Mining, the environment and the treatment of mine effluents. – Int. J. Environ. Pollut., 10(2):315–325, doi:10.1504/IJEP.1998.005151.
• Kuyucak, N. (1999): Acid Mine Drainage Prevention and Control Options. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 599–606, 6 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Kuyucak, N. (2002): Role of Microorganisms in Mining – Generation of Acid Rock Drainage and its Mitigation and Treatment. – Eur. J. Miner. Process. Environ. Prot., 2(3):179–196, 4 Abb., 1 Tab.
• Kuyucak, N. (2006): Selecting Suitable Methods for Treating Mining Effluents. – 1–34 p., 4 Abb., 1 Tab.; Lima (Proceedings PerCan Mine Closure Course).
• Kuyucak, N. (2021): Water in Mining and Environment for Sustainability. – Mine Water Environ., 40(4):815–817, doi:10.1007/s10230-021-00814-x.
• Kuyucak, N., Lindvall, M., Rufo Serrano, J. A. & Oliva, A. F. (1999): Implementation of a High Density Sludge “HDS” Treatment Process at the Boliden Apirsa Mine Site. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 473–479, 4 Abb., 4 Tab.; Sevilla (International Mine Water Association).
• Kuyucak, N., Payant, S. & Sheremata, T. (1995): Improved Lime Neutralization Process. Paper presented at the Sudbury ’95 – Mining and the Environment, Sudbury. – p. 129–137, 2 Abb., 3 Tab.; Ottawa (Canmet).
• Kuyucak, N. & St-Germain, P. (1994): In situ Treatment of Acid Mine Drainage by Sulphate Reducing Bacteria in Open Pits – Scale-Up Experiences. Paper presented at the lnternational Land Reclamation and Mine Drainage Conference and the Third International Conference on the Abatement of Acidic Drainage, Pittsburgh. – p. 303–310, 2 Abb., 2 Tab.; (U.S. Bureau of Mines).
• Kuyumcu, M. & Hartwig, H.-J. (1998): Aufgaben der GVV – Gesellschaft zur Verwahrung und Verwertung von stillgelegten Bergwerksbetrieben mbH. – Bergbau, 49(1):18–22, 5 Abb., 1 Tab.
• Kuznetsova, A., Afzal, I., Suri, N., Kuznetsov, P. & Siddique, T. (2022): Inhibition of Methanogenesis through Redox Processes in Oil Sands Tailings. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 209–215; (International Mine Water Association).
• Kuzucuoglu, C., Parish, R. & Karabiyikoglu, M. (1998): The dune systems of the Konya Plain (Turkey); their relation to environmental changes in central Anatolia during the late Pleistocene and Holocene. – Geomorphology, 23(2-4):257–271, Refs: 23; illus. incl. block diags., geol. sketch maps.
• Kwakwa, K. A. (1989): Tracer results. – In: Parker, R. H. (ed) Hot dry rock geothermal energy; Phase 2B final report of the Camborne School of Mines Project. – p. 1037–1099, 18 Abb., 3 Tab.; Oxford (Pergamon).
• Kwolek, J. K. (1999): Aspects of geo-legal mitigation of environmental impact from mining and associated waste in the UK. – J. Geochem. Explor., 66(1-2):327–332.
• Kwon, H.-L., Kim, D.-M., Im, D.-G., Kang, B.-S. & Park, M.-S. (2023): Assessment of Feasibility and Scale Generation of Hydrothermal Energy in Abandoned Mine Area. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 299–302; (International Mine Water Association).
• Kwong, Y. T. J. & Van Stempvoort, D. R. (1994): Attenuation of Acid Rock Drainage in a Natural Wetland System. – In: Alpers, C. N. & Blowes, D. W. (eds): Environmental geochemistry of Sulfide Oxidation 550. – p. 382–392, 3 Abb., 2 Tab.; New York (American Chemical Society); doi:10.1021/bk-1994-0550.ch025.
• Ky, V. N. (1987): Hydrogeological Conditions in the Main Coal Basins of Vietnam: Hydrogeology of Coal Basins. – 415–419 p., 3 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Kycl, P. (2025): D8 motorway Dobkovičky landslide: the case history and repair options. Paper presented at the Prague Geotechnical Days 2015 – Landslides – Role of Geology and Geotechnics. – p. 32–34; (Czech and Slovak Society for Soil Mechanics and Geotechnical Engineering; Arcadis CZ a.s.).
• Kyllönen, H., Gronroos, A., Jarvela, E., Heikkinen, J. & Tang, C. Y. (2017): Experimental Aspects of Scaling Control in Membrane Filtration of Mine Water. – Mine Water Environ., 36(2):193–198, doi:10.1007/s10230-016-0415-3.
• Kyllönen, H., Heikkinen, J., Järvelä, E. & Grönroos, A. (2017): Emergent Membrane Technologies for Mine Water Purification. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 36–42, Lappeenranta (Lappeenranta University of Technology).
• Kyte, F. T. & Bohor, B. F. (1995): Nickel-rich magnesiowüstite in Cretaceous/Tertiary boundary spherules crystallized from ultramafic, refractory silicate liquids. – Geochim. Cosmochim. Acta, 59(23):4967–4974.
• L’Annunziata, M. F. & Kessler, M. J. (2012): Liquid Scintillation Analysis: Principles and Practice. – In: L’Annunziata, M. F. (ed) Handbook of Radioactivity Analysis, 3rd edn. – p. 423–573, (Academic Press); doi:10.1016/b978-0-12-384873-4.00007-4.
• La Touche, G. D., Alexander, S., Birch, J. & Gwynn, X. (2019): Application of Multivariate Statistical Methods To Hydrogeological Property Parameterisation from Geotechnical and Geophysical Data. – Mine Water Environ., 38(3):695–699, doi:10.1007/s10230-019-00629-x.
• La Touche, G. D. & Garrick, H. (2012): Hydraulic performance of liners in tailings management and heap leach facilities: International Mine Water Association Symposium. – 371–378 p., Bunbury (Edith Cowan University).
• Laaksoharju, M., Gascoyne, M. & Gurban, I. (2008): Understanding groundwater chemistry using mixing models. – Appl. Geochem., 23:1921–1940, 13 Abb., 2 Tab.
• Laatikainen, O. M., Mulbah, S., Pyhälahti, T. & Prittinen, K. (2019): Stakeholder Participation in Sulphate Monitoring in Lake Nuasjärvi, Finland. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 672–677; Perm, Russia (Perm State University).
• LaBar, J. A. & Nairn, R. W. (2017): Evaluation of the Impact of Na-SO₄ Dominated Ionic Strength on Effluent Water Quality in Bench-Scale Vertical Flow Bioreactors Using Spent Mushroom Compost. – Mine Water Environ., 36(4):572–582, doi:10.1007/s10230-017-0446-4.
• Labbé, M., Molson, J. & Rosa, E. (2024): Hydrogeological Characterization and Numerical Flow Modelling of an Active Mine Tailings Site in Abitibi-Témiscamingue, Québec, Canada: 题目: 加拿大魁北克省Abitib-Témisamingue活性尾矿水文地质特征及数值模拟. – Mine Water Environ., 43(1):16–27, doi:10.1007/s10230-024-00971-9.
• Labuda, J. (2004): Collection fund of the Slovak Mining Museum. Paper presented at the VII International Symposium ‘Cultural Heritage in Geosciences, Mining and Metallurgy: Libraries – Archives – Museums’: “Museums and their collections”, Leiden. – p. 216–222; Leiden (Scripta Geológica Special Issue).
• Labus, K. & Bednarczyk, S. (2000): Waters of the “Szczakowa” sand pit (Poland) – high quality in danger. – Proceedings, 7th International Mine Water Association Congress:577–584, 3 Abb., 3 Tab.
• Labus, K., Grmela, A. & Rapantová, N. (2008): Groundwater in the overburden of the Upper Silesian Coal Basin. – Proceedings, 10th International Mine Water Association Congress:285–288.
• Labuschagne, P. F. & Human, C. (2009): Estimating the Impact of Site Hydrogeology on Groundwater Liability, Closure and Rehabilitation. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 790–800, 5 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Lacey, J., Carr-Cornish, S., Zhang, A. R., Eglinton, K. & Moffat, K. (2017): The art and science of community relations: Procedural fairness at Newmont’s Waihi Gold operations, New Zealand. – Resour. Policy, 52:245–254, doi:10.1016/j.resourpol.2017.03.001.
• Lachenmeier, D. W., Schmidt, B. & Bretschneider, T. (2008): Rapid and mobile brand authentication of vodka using conductivity measurement. – Microchimica Acta, 160(1-2):283–289, 1 Abb., 5 Tab.; doi:10.1007/s00604-007-0825-9.
• Lachmar, T. & Randall, K. (2013): Suitability of Central Utah’s Navajo Sandstone for Disposal of Mined Hydrocarbon Water. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1211–1216, 4 Abb., 1 Tab.; Golden (International Mine Water Association).
• Lachmar, T. E. (1994): Application of fracture-flow hydrogeology to acid-mine drainage at the Bunker Hill Mine, Kellogg, Idaho. – J. Hydrol., 155(2):125–149, 11 Abb., 3 Tab.
• Lachmar, T. E., McDonough, H. L., Burk, N. I., Kolesar, P. T. & Doucette, W. J. (2019): Effect of Ore Mineralogy and Bedrock Lithology on Metal Loading Rates and Acid-Mine Drainage: Bayhorse Creek, Idaho and the North Fork of the American Fork River, Utah. – Mine Water Environ., 38(1):3–15, doi:10.1007/s10230-018-00574-1.
• Lachow, I. (2017): The upside and downside of swarming drones. – Bull. Atom. Scient., 73(2):96–101, doi:10.1080/00963402.2017.1290879.
• Lacko, M. (2013): 11. Medzinárodný Montánnohistorický Kongres: Baníctvo a Umenie III - Technické Diela [The 11 International Mining and Historical Congress: Mining and Art III – Technical Works]. – Historicky Casopis, 61(2):415–416.
• Lacroix, P. & Amitrano, D. (2013): Long-term dynamics of rockslides and damage propagation inferred from mechanical modeling. – Journal of Geophysical Research: Earth Surface, 118(4):2292–2307, 17 Abb., 2 Tab.; doi:10.1002/2013JF002766.
• Ladekarl, U. L., Rasmussen, K. R., Christensen, S., Jensen, K. H. & Hansen, B. (2005): Groundwater recharge and evapotranspiration for two natural ecosystems covered with oak and heather. – J. Hydrol., 300(1-4):76–99, doi:10.1016/j.jhydrol.2004.05.003.
• Ladurner, J. (1870): Veste und Herrschaft Ernberg. – Z. d. Ferdinandeums f. Tirol u. Vorarlberg, 3(15):5–208.
• Ladurner, J. (1953): Allgemeine Kennzeichnung und regionale Stellung alpiner Dolomittektonite. – Jb. Geol. B.-A., 96(2):253–300, 3 Abb., 9 Tab., 1 Taf.
• Ladwig, K. J. (1985): Hydrologic aspects of acid mine drainage control. – Bur. Mines Inf. Circ., IC-9027(V):12–18, 4 Abb., 1 Tab.
• Ladwig, K. J., Erickson, P. M., Kleinmann, R. L. P. & Posluszny, E. T. (1984): Stratification in Water Quality in Inundated Anthracite Mines, Eastern Pennsylvania. – Bur. Mines Rep. Invest., 8837:1–35, 19 Abb., 8 Tab.
• Lafont, C., D. van Hullebusch, E., Battaglia-Brunet, F. & Vaxelaire, S. (2023): Elucidation of The Factors Controlling The Oxidation Kinetics Of Manganese In Passive Treatment Systems : Monitoring Of Aerobic Wetland Removal Technologies. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 303–308; (International Mine Water Association).
• Lage-Yusty, M. A., López-González, J. & Simal-Lozano, J. (2005): Resolution of 13 Polycyclic Aromatic Hydrocarbons by Constant-wavelength Synchronous Spectrofluorometry. – Analytical Sciences, 21(10):1203–1206, 1 Abb., 2 Tab.; doi:10.2116/analsci.21.1203.
• Lagny, C., Lafortune, S., Charmoille, A., Pokryszka, Z., Degrelle, F. & Kimmel, M. (2013): Understanding CO₂ Gas Production Above a Partly Flooded, Former Coal Mining Area. – Procedia Earth and Planetary Science, 7:455–458, doi:10.1016/j.proeps.2013.03.095.
• Lahdenperä, E. & Koiranen, T. (2018): Effects Of Variable Feeds In Wastewater Plants by Means Of Process Simulation. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 387–391; (Tshwane University of Technology).
• Lahmira, B., Lefebvre, R., Hockley, D. & Phillip, M. (2014): Atmospheric Controls on Gas Flow Directions in a Waste Rock Dump. – Vadose Zone J., 13(10) doi:10.2136/vzj2014.03.0032.
• Lai, C. L. & Lin, S. H. (2004): Treatment of chemical mechanical polishing wastewater by electrocoagulation: system performances and sludge settling characteristics. – Chemosphere, 54(3):235–242.
• Lai, R. W. M. (1980): Liquid membrane metal extraction process for recovering copper from mine water (Abstract). – Journal of Metals, 32(12):49.
• Laidler, K. J. (1985): Chemical Kinetics and the Origins of Physical Chemistry. – Arch. Hist. Exact Sci., 32(1):43–75, doi:10.1007/BF00327865.
• Laidlow, A., Parsons, M. & Jamieson, H. (2015): Characterization of U and REE Mobility Downstream of a U Tailings Impoundment near Bancroft, Ontario. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Laín Rodriguez, E. M. (2018): High-power acid Biophotovoltaic cells for the generation of green electricity. –, University of Cambridge Department of Chemical Engineering and Biotechnology Darwin College.
• Laine, D. M. (1998): The Treatment of Pumped and Gravity Mine water Discharges in the UK and an Acidic Tip Seepage in Spain: Mine Water and Environmental Impacts 2. – 471–490 p., Johannesburg (Proceedings International Mine Water Association Symposium).
• Laine, D. M. (1999): Remediation of the Old Meadows Gravity Minewater Discharge. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 581–584, 5 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Laine, D. M. (1999): The treatment of pumped minewater at Woolley Colliery. – Water Environ. J., 13(2):127–130, 3 Abb.; doi:10.1111/j.1747-6593.1999.tb01020.x.
• Laine, D. M. & Dudeney, A. W. L. (2000): Bullhouse mine-water project. – Trans. Inst. Min. Metall. Sect. A, 109(3):A224–A227, 3 Abb.; doi:10.1179/mnt.2000.109.3.224.
• Laine, D. M. & Jarvis, A. P. (2003): Engineering design aspects of passive in situ remediation of mining effluents. – Land Contam. Reclam., 11(2):113–125, 2 Abb., 1 Tab.
• Laitinen, J., Rehell, S., Huttunen, A., Tahvanainen, T., Heikkilä, R. & Lindholm, T. (2007): Mire systems in Finland – special view to aapa mires and their water-flow pattern. – Suoseura, 58(1):1–26, 4 Abb., 4 Tab., 1 Anl.
• Lajlar, B. & Supovec, I. (1997): Prognosis of the Dewatering Effects in the Pliocene Aquifers in Velenje Colliery Using Mathematical Model. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:159–173, 7 Abb.
• Lakhraj-Govender, R. & Grab, S. W. (2019): Assessing the impact of El Niño–Southern Oscillation on South African temperatures during austral summer. – Int. J. Climatol., 39(1):143–156, doi:10.1002/joc.5791.
• Lakowicz, J. R. (2006): Principles of Fluorescence Spectroscopy, 3 edn. – 954 p., Heidelberg (Springer).
• Laliberté, D. & Tremblay, G. (2002): Metal PCB Dioxin and Furan Concentrations in Fish and Sediments from four Lakes in Northern Québec in 2001. – (Report Nr. ENV/2002/0203 – QE-129). – 39 p., 12 Abb., 9 Tab., 4 Anl.; Québec (Ministère de l’Environnement – Direction du suivi de l’état de l’environnement).
• Lalik, M. M. (2025): Phytoremediation of Mine Waters: comparing the efficiency of Alyssum, Pensylvania Mallow amd Giant Miscantus in removing heavy metals. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1102–1103; Braga (International Mine Water Association).
• Lam, S. M. & Sin, J. C. (2019): Investigation of By-products from Acetylene Manufacturing for Acid Mine Drainage Remediation. – Mine Water Environ., 38(4):757–766, doi:10.1007/s10230-019-00640-2.
• Lam, W. F. & Ostrom, E. (2009): Analyzing the dynamic complexity of development interventions: lessons from an irrigation experiment in Nepal. – Policy Sciences, 43(1):1–25, doi:10.1007/s11077-009-9082-6.
• Lamb, S., Jennings, J. & Calain, P. (2017): The evolving role of CSR in international development: Evidence from Canadian extractive companies’ involvement in community health initiatives in low-income countries. – Extr. Ind. Soc., 4(3):614–621, doi:10.1016/j.exis.2017.05.011.
• Lambarth, M. & Martin, M. (2011): Markierungsversuche mit einer umweltschonenden Tracertechnik in der Falkensteiner Höhle, Schwäbische Alb. – Mitt. Verb. dt. Höhlen- u. Karstforscher, 57(3):68–74, 9 Abb., 1 Tab.
• Lambert, D. C., Dzombak, D. A. & Aljoe, W. W. (2000): Evaluation of natural amelioration of acidic deep mine discharges in the Uniontown Syncline, Pennsylvania. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 21:1–10, 5 Abb., 2 Tab.
• Lambert, D. C., McDonough, K. M. & Dzombak, D. A. (2004): Long-term changes in quality of discharge water from abandoned underground coal mines in Uniontown Syncline, Fayette County, PA, USA. – Water Res., 38(2):277–88, doi:10.1016/j.watres.2003.09.017.
• Lambert, J. (2018): A multitude of “lishes”. – Engl. World-Wide J. Varieties Engl., 39(1):1–33, doi:10.1075/eww.00001.lam.
• Lambiase, S., Serpe, F. P., Pilia, M., Fiorito, F., Iaccarino, D., Gallo, P. & Esposito, M. (2021): Polychlorinated organic pollutants (PCDD/Fs and DL-PCBs) in loggerhead (Caretta caretta) and green (Chelonia mydas) turtles from Central-Southern Tyrrhenian Sea. – Chemosphere, 263:128226, doi:10.1016/j.chemosphere.2020.128226.
• Lambo, A. J. & Patel, T. R. (2006): Isolation and characterization of a biphenyl-utilizing psychrotrophic bacterium, Hydrogenophaga taeniospiralis IA3-A, that cometabolize dichlorobiphenyls and polychlorinated biphenyl congeners in Aroclor 1221. – J. Basic Microbiol., 46(2):94–107, 2 Abb., 2 Tab.; doi:10.1002/jobm.200510006.
• Lambropoulou, D. A., Konstantinou, I. K. & Albanis, T. A. (2006): Coupling of headspace solid phase microextraction with ultrasonic extraction for the determination of chlorinated pesticides in bird livers using gas chromatography. – Anal. Chim. Acta, 573–574:223–230, doi:10.1016/j.aca.2006.05.048.
• Lamego, F., Santos, R. R., Ferreira da Silva, L. & Monken Fernandes, H. (2008): Water Management of the Uranium Production Facility in Brazil (Caetité, BA) – Potential Impacts over Groundwater Quality. Paper presented at the 12. International congress of the International Radiation Protection Association (IRPA): Strengthening radiation protection worldwide, Buenos Aires. –.
• Lamont, T., Hutchings, L., van den Berg, M. A., Goschen, W. S. & Barlow, R. G. (2015): Hydrographic variability in the St. Helena Bay region of the southern Benguela ecosystem. – J. Geophys. Res.-Oceans, 120(4):2920–2944, doi:10.1002/2014jc010619.
• LaMoreaux, P. E. & Tanner, J. T. (2001): Springs and Bottled Waters of the World – Ancient History, Source, Occurence, Quality and Use. – 315 p., 209 Abb., 53 Tab.; Berlin (Springer); doi:10.1007/978-3-642-56414-7.
• Land, L. S. & Lynch, F. L. (1996): d18O values of mudrocks: More evidence for an 18O-buffered ocean. – Geochim. Cosmochim. Acta, 60(17):3347–3352.
• Landa, E. R. (2004): Uranium mill Tailings: Nuclear Waste and Natural Laboratory for Geochemical and Radioecological Investigations. – J. Environ. Radioact., 77(1):1–27.
• Landau, G. (1836): Ritterburg Wolkersdorf: Die hessischen Ritterburgen und ihre Besitzer 3. – 29–37 p., Cassel (Bohné).
• Länderarbeitsgemeinschaft Abfall & LAGA-Forum Abfalluntersuchung (2016): LAGA Methodensammlung Abfalluntersuchung. – (Report Nr. Version 3.0 | 14. Oktober 2016). – 202 p., Stuttgart (Ministerium für Umwelt, Klima und Energiewirtschaft).
• Länderarbeitsgemeinschaft Wasser (2004): Ableitung von Geringfügigkeitsschwellenwerten für das Grundwasser. – Düsseldorf (Länderarbeitsgemeinschaft Wasser).
• Länderarbeitsgemeinschaft Wasser (2017): Ableitung von Geringfügigkeitsschwellenwerten für das Grundwasser – Aktualisierte und überarbeitete Fassung 2016. – 28 p., Berlin (Kulturbuch-Verlag).
• Landers, M., Harris, D., Usher, B., Morris, R. & Moser, A. (2012): Hydrochemical compatibility assessments of aquifer injection of treated coal seam gas water into Surat Basin aquifers: International Mine Water Association Symposium. – 131–138 p., Bunbury (Edith Cowan University).
• Landers, M., Maddocks, G., Forbes, A., Nucifora, C., Jones, J., Mandaran, K., Wilson, W. & Stephen, N. (2018): Mount Isa Mines Rehabilitation Materials Sampling and Analysis Program for Closure Planning. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 21–26; (Tshwane University of Technology).
• Landers, M. & Usher, B. (2012): Acid metalliferous leaching of a mineral sands deposit: From field to laboratory: International Mine Water Association Symposium. – 215–222 p., Bunbury (Edith Cowan University).
• Landers, M. & Usher, B. (2015): Management of Spontaneous Combustion for Metalliferous Mines. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Landesamt für Natur‚ Umwelt und Verbraucherschutz NRW, Brusske, A., Eckartz-Nolden, G., Fichthorn, U., Grund, I., Kalinka, G., Müller, W., Piegsa, W., Reinders, D., Schäfer, K. & Rosenbaum-Mertens, J. (2007): Gefährliche Stoffe – Bericht zur Umsetzung der Gewässerschutzrichtlinie 76/464/EWG in NRW. – (Report Nr. LANUV-Fachbericht 6). – 117 p., Recklinghausen (Landesamt für Natur, Umwelt und Verbraucherschutz NRW).
• Landesamt für Natur‚ Umwelt und Verbraucherschutz NRW, Rahm, H., Obschernicat, K., Dittmar, M., Rosenbaum-Mertens, J. & Selent, K. (2018): Belastungen von Oberflächengewässern und von aktiven Grubenwassereinleitungen mit bergbaubürtigen PCB (und PCB-Ersatzstoffen) – Ergebnisse des LANUV-Sondermessprogramms [Pollution of surface waters and of active mine water discharges with PCBs (and PCB substitutes) due to mining – Results of the LANUV special measurement programme], 1. Folgebericht. – (Report Nr. 1. Folgebericht 2018). – 109 p., 68 Abb., 43 Tab.; Recklinghausen (Landesamt für Natur, Umwelt und Verbraucherschutz NRW).
• Landesamt für Natur‚ Umwelt und Verbraucherschutz NRW, Rahm, H., Schweden, U., Selent, K. & Düwel, U. (2015): Belastungen von Oberflächengewässern und von aktiven Grubenwassereinleitungen mit bergbaubürtigen PCB (und PCB-Ersatzstoffen) – Ergebnisse des LANUV-Sondermessprogramms 2015. – 38 p., 7 Abb., 11 Tab., 2 Anh.; Recklinghausen (Landesamt für Natur, Umwelt und Verbraucherschutz NRW).
• Landesamt für Umweltschutz und Gewerbeaufsicht, R.-P. & Landesamt für, W. (1997): Altablagerungen und Altstandorte – Informationsblatt 07 – Ergänzungen zum Merkblatt ALEX 02 – Hinweise zur Anwendung der oSW- und oPW-Wasserwerte. – 1–5 p., Oppenheim (Landesamt für Umweltschutz und Gewerbeaufsicht).
• Landesamt für Wasser und Abfall N. W. (1991): Allgemeine Güteanforderungen für Fließgewässer (AGA) – Entscheidungshilfe für die Wasserbehörden in wasserrechtlichen Erlaubnisverfahren. – 17 p., 1 Abb., 1 Tab., 3 Anl.
• Landesanstalt für Umweltschutz Baden-Württemberg (2002): Durchflussermittlung mit der Salzverdünnungsmethode: Arbeitsanleitung Pegel- und Datendienst Baden-Württemberg. – 66 p., 23 Abb., 6 Tab.; Karlsruhe (Landesanstalt für Umweltschutz Baden-Württemberg).
• Landesanstalt für Umweltschutz Baden-Württemberg (2002): Durchflussermittlung mit Messflügeln: Arbeitsanleitung Pegel- und Datendienst Baden-Württemberg. – 92 p., 39 Abb., 16 Tab.; Karlsruhe (Landesanstalt für Umweltschutz Baden-Württemberg).
• Landesregierung Nordrhein-Westfalen (2015): Erkenntnisse der Landesregierung zum Einsatz PCB-haltiger Betriebsstoffe im Steinkohlenbergbau in Nordrhein-Westfalen und etwaigen Umweltauswirkungen. – (Report Nr. Vorlage 16/2791). – 27 p., Düsseldorf (Ministerium für Wirtschaft, Energie, Industrie, Mittelstand und Handwerk des Landes Nordrhein-Westfalen).
• Landesumweltamt Nordrhein-Westfalen (2002): Gewässergütebericht 2001 Nordrhein-Westfalen: Berichtszeitraum 1995–2000. – 274 p., 59 Abb., 68 Tab.; Essen (Landesumweltamt Nordrhein-Westfalen).
• Landgraeber, W. F. (1916): Die Bleizinkerzvorkommen in den Mieminger-Wetterstein-Alpen. – Der Bergbau, 29(40):625f, 641f, 657f, 673f, 1 Abb.
• Landkamer, L. L., Lee, I., Drennan, D., Sharp, J. O. & Figueroa, L. A. (2013): Substrate and biogeochemical design considerations for sulfate reducing bioreactors. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1023–1028, 2 Abb., 3 Tab.; Golden (International Mine Water Association).
• Landolt, H. H. (1875): F. W. Hasenclever. Nekrolog. – Ber. dtsch. chem. Ges., 8:703–706.
• Landriault, D. (2001): Backfill in Underground Mining. – In: Hustrulid, W. A. & Bullock, R. L. (eds): Underground Mining Methods – Engineering Fundamentals and International Case Studies. – p. 601–614, 16 Abb., 3 Tab.; Littleton (Society for Mining Metallurgy and Exploration).
• Lane, A. (2016): Development and Validation of an Acid Mine Drainage Treatment Process for Source Water. – p., 20 Abb., 10 Tab.; Columbus (Battelle Memorial Institute).
• Lang, B. (1999): Permanent Sealing of Tunnels to retain Tailings or Acid Rock Drainage. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 647–655, 6 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Lang, H.-J. & Huder, J. (1994): Bodenmechanik und Grundbau – Das Verhalten von Böden und die wichtigsten grundbaulichen Konzepte, 5 edn. – 278 p., 316 Abb., 59 Tab.; Berlin (Springer).
• Lang, V. (1992): Polychlorinated biphenyls in the environment. – J. Chromatogr. A, 595(1-2):1–43, 12 Abb., 2 Tab.; doi:10.1016/0021-9673(92)85144-I.
• Lange, T., Sauter, M., Heitfeld, M., Schetelig, K., Brosig, K., Jahnke, W., Kissinger, A., Helmig, R., Ebigbo, A. & Class, H. (2013): Hydraulic fracturing in unconventional gas reservoirs: risks in the geological system part 1. – Environ. Earth Sci., 70:3839–3853, 5 Abb., 4 Tab.; doi:10.1007/s12665-013-2803-3.
• Langenkämper, D., Goesmann, A. & Nattkemper, T. W. (2014): AKE - the Accelerated k-mer Exploration web-tool for rapid taxonomic classification and visualization. – BMC Bioinformatics, 15:384, doi:10.1186/s12859-014-0384-0.
• Langer, W. H. & Arbogast, B. F. (1998): Environmental Impacts of Mining Natural Aggregate. – In: Fabbri, A. G., Gaal, G. & McCammon, R. B. (eds): Deposit and Geoenvironmental Models for Resource Exploitation and Environmental Security. – p. 151–169, Matrahaza (Springer); doi:10.1007/978-94-010-0303-2_8.
• Langergraber, G. (2008): Modeling of Processes in Subsurface Flow Constructed Wetlands: A Review. – Vadose Zone J., 7(2):830–842, doi:10.2136/vzj2007.0054.
• Langguth, H. R. & Voigt, R. (2004): Auswertung von Korngrößenanalysen: Hydrogeologische Methoden, 2nd edn. – 80–94 p., 3 Abb., 7 Tab.; Berlin (Springer).
• Langguth, H. R. & Voigt, R. (2004): Hydrogeologische Methoden, 2 edn. – 1005 p., 304 Abb.; Berlin (Springer).
• Langmuir, D. (1997): Aqueous Environmental Geochemistry. – 602 p., Upper Sadle River (Prentice Hall).
• Langmuir, D., Chrostowski, P., Vigneault, B. & Chaney, R. L. (2005): Issue Paper on the Environmental Chemistry of Metals, 2. korr edn. – 106 p., 36 Abb., 15 Tab.; Lexington (ERG – US EPA).
• Laniado, M. (1996): How to present research data consistently in a scientific paper. – Eur. Radiol., 6(2):S16–S18, doi:10.1007/BF00181169.
• Läntzsch, M. K. (2017): Pechkohlenbergbau in Oberbayern – Geschichte der Lagerstätten und Geologie der Molasse. Paper presented at the 20. Internationaler Bergbau- & Montanhistorik-Workshop, Zeche Zollern, Essen. – 16 Abb.; Clausthal-Zellerfeld (Netzwerk Altbergbau West).
• Lapakko, K. & Olson, M. (2015): Scaling Laboratory Sulfate Release Rates to Operational Waste Rock Piles. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–15 [electronic document], Santiago/Chile (Gecamin).
• Lapakko, K. & Trujillo, E. (2015): Pyrite Oxidation Rates from Laboratory Tests on Waste Rock. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–14 [electronic document], Santiago/Chile (Gecamin).
• Lapakko, K. A. (2015): Preoperational assessment of solute release from waste rock at proposed mining operations. – Appl. Geochem., 57:106–124, doi:10.1016/j.apgeochem.2015.01.010.
• LaPierre, A. B. (1999): Characterization of Discharges from Abandoned Mines of the Sydney Coalfield, Nova Scotia. – 312 p., unpubl. Master Thesis Dalhousie University Daltech, 84 Abb., 68 Tab.; Halifax.
• Laplante, J. P. & Nolin, C. (2014): Consultas and Socially Responsible Investing in Guatemala: A Case Study Examining Maya Perspectives on the Indigenous Right to Free, Prior, and Informed Consent. – Society & Natural Resources, 27(3):231–248, doi:10.1080/08941920.2013.861554.
• Lapointe, F., Fytas, K. & McConchie, D. (2006): Efficiency of Bauxsol™ in Permeable Reactive Barriers to Treat Acid Rock Drainage. – Mine Water Environ., 25(1):37–44, 7 Abb., 4 Tab.
• Lara, L. M., Colinas, I. G., Mallada, M. T., Hernández-Battez, A. E. & Viesca, J. L. (2017): Geothermal use of mine water. – European Geologist Journal 43:40–45, 9 Abb., 1 Tab.
• Lares, M., Ncibi, M. C., Sillanpää, M. & Sillanpää, M. (2018): Occurrence, identification and removal of microplastic particles and fibers in conventional activated sludge process and advanced MBR technology. – Water Res., 133:236–246, doi:10.1016/j.watres.2018.01.049.
• Lares, M., Ncibi, M. C., Sillanpää, M. & Sillanpää, M. (2019): Intercomparison study on commonly used methods to determine microplastics in wastewater and sludge samples. – Environ. Sci. Pollut. Res., 26(12):12109–12122, doi:10.1007/s11356-019-04584-6.
• Large, R. R., Doyle, M., Raymond, O. L., Cooke, D., Jones, A. & Heasman, L. (1996): Evaluation of the role of Cambrian granites in the genesis of world class VHMS deposits in Tasmania. – Ore Geol. Rev., 10(3-6):215–230, Refs: 35; illus. incl. sects., 2 tables, sketch maps.
• Larios, R., Silva, V., Loredo, J. L., Fernández-Martínez, R., Ordóñez, A., Calderón, A. & Rucandio, I. (2011): Implications of several physicochemical parameters in the arsenic speciation in mine waters from Asturias mercury mining district (Spain): Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 593–598 p., Aachen (RWTH Aachen University).
• LaRosa, P. J., Karnavas, J. A. & Pelczarski, E. A. (1971): Evaluation of a New Acid Mine Drainage Treatment Process. – Wat. Poll. Contr. Res. Ser., 14010 DYI 02/71:155, 60 Abb., 23 Tab.
• Larsen, B. M., Sandlund, O. T., Berger, H. M. & Hesthagen, T. (2007): Invasives, introductions and acidification: the dynamics of a stressed river fish community. – Water Air Soil Pollut.,(7):285–291, doi:10.1007/s11267-006-9073-y.
• Larsen, M. B., Jia, Y. & Joensen, S. (2018): Use of Residues Generated from Construction and Fish Industries to Remediate Mine Drainage in Greenland. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 529–534; (Tshwane University of Technology).
• Larsen, R. K., Osterlin, C. & Guia, L. (2018): Do voluntary corporate actions improve cumulative effects assessment? Mining companies’ performance on Sami lands. – Extr. Ind. Soc., 5(3):375–383, doi:10.1016/j.exis.2018.04.003.
• Larue, O. & Vorobiev, E. (2003): Floc size estimation in iron induced electrocoagulation and coagulation using sedimentation data. – Int. J. Miner. Process., 71:1–15, 10 Abb., 1 Tab.; doi:10.1016/S0301-7516(03)00026-7.
• Laspeyres, H. (1872): Ueber die chemische Zusammensetzung des Maxit. – J. Prakt. Chem., 5(1):470–476, doi:10.1002/prac.18720050150.
• Laspeyres, H. (1876): Ueber Die chemische Constitution des Maxit. – J. Prakt. Chem., 13(1):370–385.
• Lasseter, F. P., Gardner, G. R. & Reilly, E. A. (1950): Slurries, Sludges, Slimes and Water Treatment: Coal Preparation. – 568–599 p., 15 Abb., 5 Tab.; New York (The American Institute of Mining and Metallurgical Engineer).
• Lassila, M. M. (2024): An Irreplaceable Place: Onto-Epistemological Contestation in the Environmental Impact Assessment Process of the Green Anglo American Sakatti Mine, Arctic Finland. – Soc. Nat. Resour., 37(5):623–643, doi:10.1080/08941920.2023.2166182.
• Lasslett, K. (2010): Winning hearts and mines – The Bougainville crisis, 1988–90: Contemporary State Terrorism: Theory and Practice. – 141–162 p., London (Routledge).
• Lasslett, K. (2017): The violence of war, the violence of peace Mining, conflict and social justice on Bougainville: Routledge International Handbook of Criminology and Human Rights. – 247–257 p., Abingdon (Routledge).
• Lata, S., Singh, P. K. & Samadder, S. R. (2015): Regeneration of adsorbents and recovery of heavy metals: a review. – Int. J. Environ. Sci. Technol., 12(4):1461–1478, doi:10.1007/s13762-014-0714-9.
• Latacz, J. (2001): Wilusa (Wilios/Troia) – Zentrum eines hethitischen Gliedstaates in Nordwest-Kleinasien. – 10 p., Tübingen (Universität Tübingen).
• Latacz, J. (2004): Troy and Homer – Towards a Solution of an Old Mystery. – 342 p., Oxford (Oxford University Press).
• Latk, H. M. (2000): Zur Geschichte des Wettiner Steinkohlenbergbaus. – 104 p., Sangerhausen (Eigenverlag Latk).
• Lattanzi, P., Zuddas, P. & Frau, F. (1998): Otavite from Montevecchio, Sardinia, Italy. – Mineral. Mag., 62(3):367–370, 2 Abb.
• Latvalahti, U. (1979): Cu-Zn-Pb ores in the Aijala-Orijarvi area, southwest Finland. – Econ. Geol., 74(5):1035–1059, doi:10.2113/gsecongeo.74.5.1035.
• Latypov, R. & Chistyakova, S. (2025): Where are the feeder channels for platinum reefs in the Bushveld Complex? – Mineralium Deposita, 60(2):281–288, doi:10.1007/s00126-024-01272-5.
• Lau, J. S. O. & Chandler, N. A. (2004): Innovative laboratory testing. – Int. J. Rock Mech. Min. Sci, 41(8):1427–1445.
• Lauber, U. & Goldscheider, N. (2014): Use of artificial and natural tracers to assess groundwater transit-time distribution and flow systems in a high-alpine karst system (Wetterstein Mountains, Germany). – Hydrogeol. J., 22(8):1807–1824, doi:10.1007/s10040-014-1173-6.
• Laubereau, P. G. (1985): The Status of the Development of Standard Procedures for the Analysis of Organic Priority Pollutants in Water Samples in the Federal Republic of Germany. Paper presented at the Fourth European Symposium – Organic Micropollutants in the Aquatic Environment, Wien, October 22–24,1985. – p. 40–65; Dordrecht (Reidel).
• Laublättner, M. & Rödel, B. (2007): Erinnerungen an eine Befahrung des Altbergwerks in Dalaas. – Nn, 22 Abb.
• Laubmann, H. (1874): Ueber das Vorkommen, die Production und Circulation nebst Consumtion der Mineralkohle in Bayern und seiner Umgebung: Bayer. Industrie- & Gewerbeblatt. – 11 p., München (Literarisch-artisitische Anstalt (Th. Riedel)).
• Laubrich, J., Metschies, T. & Kassahun, A. (2019): Sustainable Salt Management In Mine Affected Surface Waters. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 28–33; Perm, Russia (Perm State University).
• Laubrich, J. & Rosemann, R. (2018): Water Management at the Former Uranium Production Tailings Pond Helmsdorf. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 833–837; (Tshwane University of Technology).
• Laudon, H., Westling, O., Bergquist, A. & Bishop, K. (2004): Episodic acidification in northern Sweden: a regional assessment of the anthropogenic component. – J. Hydrol., 297(1-4):162–173.
• Laurence, D. (2005): Optimization of the mine closure process. – J. Clean. Prod., 14:285–298, doi:10.1016/j.jclepro.2004.04.011.
• Laurenzi, L., Mayer, K. U. & Beckie, R. (2015): A Metal Attenuation Study on Waste Rock Collected from the East Dump, Antamina Mine, Peru – A Combined Mineralogical and Geochemical Approach. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Lausch, H. (1997): Grube „Himmelfürst“, Februar 1997: Befahrung endet mit tragischem Unfall. – Lapis, 22(4):8, 1 Abb.
• Lausitzer und Mitteldeutsche Bergbau-Verwaltungsgesellschaft mbH (2020): Wasserwirtschaftlicher Jahresbericht der LMBV mbH – Zeitraum 01. Januar – 31. Dezember 2019 [Water Management Annual Report of LMBV mbH – Period of 01 January – 31 December 2019]. – 59 p., Senftenberg (Lausitzer und Mitteldeutsche Bergbau-Verwaltungsgesellschaft mbH).
• Lausitzer und Mitteldeutsche Bergbau-Verwaltungsgesellschaft mbH. (2011): Merkblatt – Montanhydrologisches Monitoring in der LMBV mbH. – 51 p., 1 Abb., 4 Tab., 2 Anl.; Senftenberg (Lausitzer und Mitteldeutsche Bergbau-Verwaltungsgesellschaft mbH).
• Lausitzer und Mitteldeutsche Bergbau-Verwaltungsgesellschaft mbH. (2019): Merkblatt – Montanhydrologisches Monitoring in der LMBV mbH. – 35 p., 1 Abb., 4 Tab., 2 Anl.; Senftenberg (Lausitzer und Mitteldeutsche Bergbau-Verwaltungsgesellschaft mbH).
• Lautenschlager, M., Toussaint, F., Thiemann, H. & Reinke, M. (1998): The CERA-2 Data Model. – Technical Report – Deutsches Klimarechenzentrum, 15:1–53, 4 Abb., 4 Anl.
• Lauzon, N. (2010): Mine Water Characterization for Probabilistic Modelling and Uncertainty Analysis. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 367–371, Sydney, NS (Cape Breton University Press).
• Lavanchy, F., Fortini, S. & Meyer, T. (2004): Reaction Calorimetry as a New Tool for Supercritical Fluids. – Org. Proc. Res. Dev., 8(3):504–510, 10 Abb., 1 Tab.; doi:10.1021/op034174n.
• Lawrence, A. R. (1983): The Groundwater Resources of St Helena. – BGS Technical Report, WD/OS/83/12.
• Lawrence, A. R. (1987): A review of the Groundwater Investigation Programme on St Helena. – BGS Technical Report, WD/OS/87/13.
• Lawrence, C. R. (1988): Technology for Mine Water Management – General Report. – Proceedings, 3rd International Mine Water Congress, Melbourne:451–455, 1 Tab.
• Lawrence, R. W. & Higgs, T. W. (1999): Removing and stabilizing As in acid mine water. – JOM-J. Miner. Met. Mater. Soc., 51(9):27–29.
• Lawson, D. C. & Sonderegger, J. L. (1978): Geothermal data-base study – Mine-water temperatures. – Special Publication – State of Montana Bureau of Mines and Geology, 79:38, 4 Abb., 1 Tab., 1 Anh.; doi:10.2172/6031879.
• Lawton, R. W., Ross, M. R., Feingold, J. & Brown, J. F. (1985): Effects of PCB Exposure on Biochemical and Hematological Findings in Capacitor Workers. – Environ. Health Perspect., 60:165–184, 4 Abb., 9 Tab.; doi:10.2307/3429959.
• Laxander, M., Schmidt, S., Schüth, C. & Schiedek, T. (2019): PAK- und PCB-Deposition in zwei alpinen Gebieten. – Grundwasser, 25(1):81–92, 5 Abb., 3 Tab.; doi:10.1007/s00767-019-00437-8.
• Lazik, D. & Geistlinger, H. (2005): A new method for membrane-based gas measurements. – Sensors and Actuators A: Physical, 117(2):241–251, 10 Abb., 3 Tab., 1 Anh.
• Le Beux, A., Boubacar, A., Assalack, F. & Grizard, P. (2019): Open Pit Dewatering in Niger, from Groundwater Modeling Forecast to in-pit Water Management. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 585–590; Perm, Russia (Perm State University).
• Le Chatelier, H. (1888): Recherches expérimentales et théoriques sur les équilibres chimiques [Experimental and Theoretical Research on Chemical Equilibria]. – Ann. Mines, 13(2):157–380.
• Le Gal, N., Lagneau, V. & Charmoille, A. (2010): Mechanisms of gas migration in flooding post-mining context. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 483–487, Sydney, NS (Cape Breton University Press).
• Le Maitre, D. & O’Farrell, P. J. (2008): Social-Ecological Resilience in a Dry Environment: People and Water Resources in the Little Karoo. – In: Burns, M. & Weaver, A. (eds): Exploring Sustainability Science, 1st edn. – p. 339–381, 13 Abb., 3 Tab.; Stellenbosch (African Sun Media); doi:10.18820/9781920109561.
• Le Maitre, R. W., Streckeisen, A., Zanettin, B., Le Bas, M. J., Bonin, B., Bateman, P., Bellieni, G., Dudek, A., Efremova, S., Keller, J., Lameyre, J., Sabine, P. A., Schmid, R., Sorensen, H. & Woolley, A. R. (2002): Igneous Rocks – A classification and glossary of terms, 2nd edn. – 236 p., 21 Abb., 20 Tab.; Cambridge (Cambridge University Press); doi:10.1017/CBO9780511535581.
• le Roux, H. & Hooimeijer, F. (2023): LONGUE DURÉE of the WEF NEXUS – Learning from the Gauteng and Limpopo Regions to develop an interdisciplinary approach. – p.
• Lea, G. (1999): Isues of access and content regulation arising from the EU draft Directives on copyright in the Information Society and e-comerce. – Communications Law, 4(6):207–213.
• Lea, I., Waygood, C. & Duthie, A. (2003): Water management strategies to reduce longterm liabilities at Grootvlei gold mine. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 441–449, 7 Abb., 1 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Leach, D. L., Taylor, R. D., Fey, D. L., Diehl, S. F. & Saltus, R. W. (2010): A deposit model for Mississippi Valley-Type lead-zinc ores – Mineral deposit models for resource assessment. – U. S. Geol. Surv. Sci. Investig. Rep., 2010-5070A:52, doi:10.3133/sir20105070A.
• Leach, D. L., Viets, J. B., Foley-Ayuso, N. & Klein, D. P. (1995): Mississippi Valley-Type Pb-Zn Deposits. – Open-File Rep. US Geol. Surv., OF 95-0831:234–243, 3 Abb.
• Leach, S. J. (1968): Stratification and Mixing of Fluids of Different Densities. – IChemE Symposium series, 25:17–25.
• Leaf, W. (1923): Skepsis in the Troad. – Anatolian Studies presented to Sir William Mitchell Ramsay, 1923:359–390.
• Leahy, K., Collin, T., Tanhai, S. & Gibbons, S. (2025): Mine Water in the Global Industry Standard on Tailings Management. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 664–669; Braga (International Mine Water Association).
• Leavitt, B. R. (2011): Aeration of Mine Water Using a TROMPE. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 32:1–11 [elektronisches Dokument], 17 Abb., 1 Tab.
• Leavitt, B. R., Danehy, T., Mahony, R., Page, B., Neely, C., Denholm, C., Busler, S. & Dunn, M. H. (2013): Trompe Technology for Mine Drainage Treatment. – Reclam. Matters, 2013(Fall):31–33, 9 Abb.
• Leavitt, B. R., Danehy, T. & Page, B. (2012): Passive Mixing to Improve Calcium Oxide Dissolution. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 33:1–15 [elektronisches Dokument], 19 Abb., 1 Tab.
• Lebecka, J., Chałupnik, S., Michalik, B., Wysocka, M., Skubacz, K. & Mielnikow, A. (1994): Radioactivity of Mine Waters in Upper Silesian Coal Basin and its Influence on Natural Envrionment. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:657–662, 1 Abb., 1 Tab.
• Lebecka, J., Luksik, B. & Chałupnik, S. (1994): Purification of Saline Waters from Coal Mines from Radium and Barium. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:663–672, 6 Abb., 1 Tab.
• Lebecka, J., Mielnikow, A., Chałupnik, S., Wysocka, M., Skubacz, K. & Michalik, B. (1997): Radium in Mine Waters in Poland – Occurence and Impact on River Waters. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:415–421, 1 Abb.
• LeBlanc, D. R. & Celia, M. A. (1991): Density-Induced downward Movement of Solutes during a Natural-Gradient Tracer Test, Cape Cod, Massachusetts. – Water Resour. Investig. Rep., WRI 91-4034:10–14, 4 Abb., 1 Tab.
• Leblanc, M., Morales, J. A., Borrego, J. & Elbaz-Poulichet, F. (2000): 4,500-Year-Old Mining Pollution in Southwest Spain: Long-Term Implications from Modern Mining Pollution. – Econ. Geol., 95:655–662, 3 Abb., 1 Tab.; doi:10.2113/gsecongeo.95.3.655.
• LeChevalier, J. B. (1791): Description of the plain of Troy – with a map of that region. – 154 p., Edinburgh (Cadell).
• Lechner, K. & Plöchinger, B. (1956): Die Manganerzlagerstätten Österreichs: Symposium sobre yacimientos de manganeso 5. – 299–313 p., 2 Abb., 2 Tab.; Mexico (20th International Geological Congress).
• Lechtenböhmer, S., Altmann, M., Capito, S., Matra, Z., Weindorf, W. & Zittel, W. (2011): Impacts of shale gas and shale oil extraction on the environment and on human health: IP/A/ENVI/ST/2011-07 – PE 464.425. – 88 p., Brussels (Directorate General for Internal Policies Policy Department A: Economic and Scientific Policy).
• Lecureuil, A., Delpierre, S., Grossin, C. & Sauzay, C. (2008): Salsigne Gold Mine Water Flow Modeling. – Proceedings, 10th International Mine Water Association Congress:457–460.
• Léczfalvy, S. (1982): Simplified mathematical models for the calculation of dewatering. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, ABCD Supplementary volume:28–46, 11 Abb., 2 Tab.
• Ledin, M. & Pedersen, K. (1996): The environmental impact of mine wastes; roles of microorganisms and their significance in treatment of mine wastes. – Earth-Sci. Rev., 41(1-2):67–108, 3 Abb., 6 Tab.
• Lee, C. H., Lee, H. K. & Lee, J. C. (2001): Hydrogeochemistry of mine, surface and groundwaters from the Sanggok mine creek in the upper Chungju Lake, Republic of Korea. – Environ. Geol., 40(4-5):482–494, 11 Abb., 3 Tab.
• Lee, D. J. (1996): Moisture distribution and removal efficiency of waste activated sludges. – Water Sci. Technol., 33(12):269–272, doi:10.2166/wst.1996.0347.
• Lee, D. J. & Hsu, Y. H. (1995): Measurements of bound water in sludges – a comparative study. – Water Environ. Res., 67:310–317, doi:10.2175/106143095X131529.
• Lee, D. J., Lee, C. Y. & Chang, J. S. (2012): Treatment and electricity harvesting from sulfate/sulfide-containing wastewaters using microbial fuel cell with enriched sulfate-reducing mixed culture. – J. Hazard. Mater., 243:67–72, doi:10.1016/j.jhazmat.2012.09.071.
• Lee, D.-K., Cheong, Y., Ji, S., Yim, G. & Cho, Y.-c. (2025): Experimental approach to designing a flushing system for SAPS pond. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 559–564; Braga (International Mine Water Association).
• Lee, D.-k. & Cheong, Y.-w. (2014): A numerical flow analysis using the concept of inflow age for oxidation pond design. – J. Environ. Manage., 133:388–396, doi:10.1016/j.jenvman.2013.10.026.
• Lee, D.-K. & Cheong, Y.-w. (2016): Characteristic variation of precipitate in limestone layer. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 451–452, Freiberg (TU Bergakademie Freiberg).
• Lee, D.-K. & Cheong, Y.-W. (2016): The Relationship Between Flow Paths and Water Quality in Mine Water Oxidation Ponds in South Korea. – Mine Water Environ., 35(4):469–479, doi:10.1007/s10230-016-0383-7.
• Lee, D.-k., Shin, S.-w. & Cheong, Y.-w. (2018): Characterization of Iron Precipitates in a SAPS Limestone Layer for Flushing System Design. – Mine Water Environ., 37(4):796–806, doi:10.1007/s10230-018-0542-0.
• Lee, D.-k., Yim, G.-J., Ji, S.-W. & Cheong, Y.-W. (2013): Study on distribution characteristics of some water parameters properties of mine drainage in an oxidation pond, Hwangji-Yuchang coal mine, South Korea. – Environ. Earth Sci., 68(1):241–249, doi:10.1007/s12665-012-1735-7.
• Lee, E. M., Hall, J. W. & Meadowcroft, I. C. (2001): Coastal cliff recession: the use of probabilistic prediction methods. – Geomorphology, 40(3-4):253–269, doi:10.1016/s0169-555x(01)00053-8.
• Lee, G., Bigham, J. M. & Faure, G. (2002): Removal of trace metals by coprecipitation with Fe, Al and Mn from natural waters contaminated with acid mine drainage in the Ducktown Mining District, Tennessee. – Applied Geochemistry, 17(5):569–581, doi:10.1016/s0883-2927(01)00125-1.
• Lee, H. J., Laskin, A., Laskin, J. & Nizkorodov, S. A. (2013): Excitation–Emission Spectra and Fluorescence Quantum Yields for Fresh and Aged Biogenic Secondary Organic Aerosols. – Environ. Sci. Technol., 47(11):5763–5770, doi:10.1021/es400644c.
• Lee, J. Y., Bak, G. & Han, M. (2012): Quality of roof-harvested rainwater – Comparison of different roofing materials. – Environ. Pollut., 162:422–429, doi:10.1016/j.envpol.2011.12.005.
• Lee, J. Y., Choi, J. C. & Lee, K. K. (2005): Variations in heavy metal contamination of stream water and groundwater affected by an abandoned lead-zinc mine in Korea. – Environ Geochem Health, 27(3):237–57, doi:10.1007/s10653-004-3480-7.
• Lee, J. Y., Choi, J. C., Yi, M. J., Kim, J. W., Cheon, J. Y. & Lee, K. K. (2004): Evaluation of Groundwater Chemistry Affected by an Abandoned Metal mine within a dam Construction Site, South Korea. – Q. J. Eng. Geol. Hydrogeol., 37:241–256, 8 Abb., 4 Tab.
• Lee, K., Lee, D. & Lieu, A. (2012): Trace Metals Removal with Precipitated Solids from Uranium Mine Effluent at Cameco’s Key Lake Operation: Water in Mineral Processing. – 291–300 p., 4 Abb., 3 Tab.; Littleton (SME).
• Lee, K.-R., Kim, D.-M., Kwon, H.-L., Kim, N.-K., Kim, Y.-M., Im, D.-G., Kim, S.-D., Koo, S.-K., Ko, J.-I. & Mok, J.-H. (2025): A Comprehensive Approach to Fluoride Treatment in Mine Drainage: Chemical Precipitation and Adsorption. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 214–220; Braga (International Mine Water Association).
• Lee, K.-R., Kim, D.-M., Kwon, H.-L., Kim, N.-K., Kim, Y.-M., Im, D.-G. & Kwon, O.-H. (2024): Economical and Environmentally Friendly Adsorption of Arsenic from Mine Drainage: Comparison between CMDS-Bead and GFH. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 353–354; Morgantown (International Mine Water Association).
• Lee, P. F., Cook, M. V. & Conly, A. G. (2008): Predicting Discharge Water Quality from Steeprock Pit Lakes in Atikokan, Ontario, Canada. – Proceedings, 10th International Mine Water Association Congress:587–590.
• Lee, S.-K., Boron, W. F. & Parker, M. D. (2013): Monitoring Ion Activities In and Around Cells Using Ion-Selective Liquid-Membrane Microelectrodes. – Sensors, 13:984–1003, 5 Abb., 4 Tab.; doi:10.3390/s130100984.
• Leech, S. & McGann, M. (2008): Open Pit Slope Depressurization using Horizontal Drains – a Case Study. – Proceedings, 10th International Mine Water Association Congress:73–76.
• Leeyun, W. (1985): The Research of Grouting Technic of Consolidating Sand and Sealing Water by a new chemical Material for Water-drain Tunnel. – Proceedings, 2nd International Mine Water Association Congress, 1:385–394, 5 Abb., 3 Tab.
• Lefèvre, W. (2010): Picturing the world of mining in the renaissance – the Schwazer Bergbuch (1556). – Max-Planck-Institut für Wissenschaftsgeschichte: Preprint, 407:1–27, 28 Abb.
• Lefrou, C., Fabry, P. & Poignet, J.-C. (2012): Electrochemistry. – 352 p., Heidelberg (Springer).
• Lefticariu, L., Bowman, R. L., Lewinski, M., Specht, J. & Behum, P. T. (2025): The role of colloidal and particulate fractions in REEs enrichments in coal-based acid mine drainage systems. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 102–106; Braga (International Mine Water Association).
• Legrini, O., Oliveros, E. & Braun, A. M. (1993): Photochemical processes for water treatment. – Chem. Rev., 93(2):671–698, doi:10.1021/cr00018a003.
• Lehotský, M. & Boltižiar, M. (2022): Landscapes and landforms of Slovakia: World geomorphological landscapes. – 467 p., Cham, Switzerland (Springer); doi:10.1007/978-3-030-89293-7.
• Lehr, J. H. (2004): Wiley’s Remediation Technologies Handbook – Major Contaminant Chemicals and Chemical Groups. – 1271 p., Hoboken (John Wiley & Sons); doi:10.1002/0471655473.
• Lehrberger, G. (1997): Gold in Bayern – Vorkommen am Westrand der Böhmischen Masse. – Geol. Bavarica, 102:1–424.
• Lehrberger, G., Haller, R. & Schink, C. (2006): Oleum – die Vitriolhütte am Kleinen Schwarzbach bei Bodenmais (1787 – 1829) – Technik- und wirtschaftshistorische Untersuchungen zu den Anfängen der chemischen Industrie in Bayern im mitteleuropäischen Kontex. – 148 p., zahlr. Abb., zahlr. Tab.; Bodenmais (Förderverein Bodenmaiser Geschichte und Kulturdenkmäler).
• Lehtinen, M. J. (2015): Industrial Minerals and Rocks. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 685–710, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00026-1.
• Lei, M., Feng, Q., Liu, P. & Ding, E. (2014): Research on Key Technologies of Coal Mine Groundwater Perception Based on IoT. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 437–440, Xuzhou (International Mine Water Association).
• Lei, Y., He, M., Chen, B. & Hu, B. (2016): Polyaniline/cyclodextrin composite coated stir bar sorptive extraction combined with high performance liquid chromatography-ultraviolet detection for the analysis of trace polychlorinated biphenyls in environmental waters. – Talanta, 150:310–318, doi:https://doi.org/10.1016/j.talanta.2015.12.025.
• Leib, S. (2009): Alltag unter Tage – Mittelalterlicher und frühneuzeitlicher Bergbau rekonstruiert anhand archäologischer und historischer Quellen. – Bludenzer Geschichtsblätter:53–64, 10 Abb.
• Leib, S. & Neuhauser, G. (2013): „Am perg bey der arbeit beleiben“ – Ein montanarchäologischer Survey zur Bergbaugeschichte im südlichen Vorarlberg. – Vorarlberger Landesmuseumsverein, 2013:76–95, 17 Abb.
• Leibundgut, C., Małoszewski, P. & Külls, C. (2009): Tracers in Hydrology. – 432 p., Oxford (Wiley-Blackwell); doi:10.1002/9780470747148.
• Leibundgut, C., Moeri, T., Peschel, H., Petermann, J., Stampfli, M. & Wälti, R. (1983): Strömungsuntersuchungen mittels Tracerversuchen im Bledsee. – 40 p., 16 Abb., 6 Tab.; Bern (Universität Bern – Geographisches Institut – Abteilung Gewässerkunde).
• Leiffmann, M. (1912): Stellung und Aufgaben des Privatbankiers im heutigen Wirtschaftsleben. – Verhandlungen des Allgemeinen Deutschen Bankiertages, 4:48–55.
• Lein, R., Schlaf, J., Müller, P. J., Krystyn, L. & Jesiner, D. (1995): Neue Daten zur Geologie des Karawanken-Straßentunnels. – Geol. Paläont. Mitt. Innsbruck, 20:371–387, 6 Abb., 1 Taf.
• Leins, A., Bregnard, D., Vieth-Hillebrand, A., Junier, P. & Regenspurg, S. (2022): Dissolved organic compounds in geothermal fluids used for energy production: a review. – Geothermal Energy, 10(1):9, doi:10.1186/s40517-022-00220-8.
• Leitch, R. D. (1935): Sealing of Coal Mines – Will Reduce Acidity of their Effluent Waters. – Coal Age, 40:323–326, 7 Abb.
• Leitch, R. D. & Yant, W. P. (1928): A Comparison of the Acidity of Waters From Some Active and Abandoned mines. – Bur. Mines Rep. Invest., 2895:8.
• Leiter, H. (2003): Schwefelsäure aus Prettauer Erz oder Schwefelkies und der weite Weg nach Heufeld in Bayern. – Tiroler Chronist, 92:12–18, 5 Abb., 2 Tab.
• Leithner, R. (2000): Klimakatastrophe und Energiewirtschaft. – 64 p., 53 Abb., 7 Tab.; Braunschweig (Ringvorlesung an der TU Braunschweig).
• Leitner, W., Brandl, M. & Bachnetzer, T. (2015): Die Ostalpen als Abbaugebiet und Versorgungsregion für Silex und Bergkristall in der Prähistorie. – In: Stöllner, T. & Oeggl, K. (eds): Bergauf Bergab – 10.000 Jahre Bergbau in den Ostalpen. – p. 59–69, 22 Abb., 1 Tab.; Bochum (VML Verlag Marie Leidorf).
• Leland McInnes, J. H., James Melville (2018): UMAP: Uniform Manifold Approximation and Projection for Dimension Reduction. – ArXiv e-prints, 1802.03426 doi:10.48550/arXiv.1802.03426.
• Lemaire, E., Mreyen, A. S., Dufresne, A. & Havenith, H. B. (2020): Analysis of the Influence of Structural Geology on the Massive Seismic Slope Failure Potential Supported by Numerical Modelling. – Geosciences, 10(8):30, doi:10.3390/geosciences10080323.
• Lemière, B. (2010): Neutralisation distance of acid drainage and migration range of pollutants. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 371–375, Sydney, NS (Cape Breton University Press).
• Lemière, B., Jacob, J. & Bellenfant, G. (2018): Geology, Genetic Processes And Their Consequences On Environmental Impacts At The Abandoned W Mine Of Enguialès, Aveyron, France. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 27–33; (Tshwane University of Technology).
• Lemke, D., Schnegg, P.-A., Schwientek, M., Osenbrück, K. & Cirpka, O. A. (2013): On-line fluorometry of multiple reactive and conservative tracers in streams. – Environ. Earth Sci., 69(2):349–358, doi:10.1007/s12665-013-2305-3.
• Lemon, R. (1991): Pumping and disposal of deep strata mine water. – Mining Technology, 73(843):69–76, 8 Abb., 6 Tab.
• Lemos, F., Sullivan, T., Friese, K., Ross, T. & Barbosa, M. (2002): Translating natural concentrations and fluxes into safety indicators for radioactive waste repositories. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 149–156, 1 Abb.; 2 Tab.; Heidelberg (Springer).
• Lemos, M., Valente, T., Marinho, P., Fonseca, R., Filho, J. G., Dumont, J. A., Ventura, J. & Delben, I. (2021): Characterization of Arsenical Mud from Effluent Treatment of Au Concentration Plants, Minas Gerais – Brazil. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 274–279; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Lemos, M., Valente, T., Marinho-Reis, A., Sequeira Braga, A., Fonseca, R., da Mata Filho, J. & Magalhães, M. (2024): The potential of reprocessing Au and by-products from a tailing dam in the Iron Quadrangle – The case of the Cuiaba Dam, Sabará, Minas Gerais. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 355–360; Morgantown (International Mine Water Association).
• Lemos, M., Valente, T. M., Marinho Reis, P., Fonseca, R., Delbem, I., Filho, J. G., Guabiroba, F., Pantaleão, J. & Magalhães, M. (2022): Geoenvironmental Characterization of Gold Mine Tailings from Minas Gerais and Goiás, Brazil. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 217–222; (International Mine Water Association).
• Lemos, M. G., Valente, T., Marinho-Reis, A. P., Fonsceca, R., Dumont, J. M., Ferreira, G. M. M. & Delbem, I. D. (2021): Geoenvironmental Study of Gold Mining Tailings in a Circular Economy Context: Santa Barbara, Minas Gerais, Brazil. – Mine Water Environ., 40(1):257–269, doi:10.1007/s10230-021-00754-6.
• Lengke, M., Davis, A. & Bucknam, C. (2010): Improving Management of Potentially Acid Generating Waste Rock. – Mine Water Environ., 29(1):29–44, 9 Abb., 6 Tab.; doi:10.1007/s10230-009-0097-1.
• Lengke, M. F. & Tempel, R. N. (2005): Geochemical Modeling of Arsenic Sulfide Oxidation Kinetics in a Mining Environment. – Geochim. Cosmochim. Acta, 69(2):341–356.
• Lennox, C. A. (2024): Self-organizing wetland bioreactors (SOWBs) application to mining reclamation: direct and indirect bioremediation as a design tool for mine influenced water (MIW) benefaction. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 361–366; Morgantown (International Mine Water Association).
• Lensch, G. (1961): Stratigraphie, Fazies und Kleintektonik der kohleführenden Schichten in der bayerischen Faltenmolasse – (Peißenberg, Peiting, Penzberg, Hausham, Marienstein). – Geol. Bavarica, 46:3–52, 19 Abb., 4 Tab., 6 Beil.
• Lenter, C. M., McDonald, L. M., Skousen, J. G., Jr. & Ziemkiewicz, P. F. (2002): The Effects of Sulfate on the Physical and Chemical Properties of Actively Treated Acid Mine Drainage Floc. – Mine Water Environ., 21(3):114–120, 3 Abb., 3 Tab.; doi:10.1007/s102300200032.
• Lentz, R. D., Sojka, R. E. & Foerster, J. A. (1996): Estimating polyacrylamide concentration in irrigation water. – J. Environ. Qual., 25(5):1015–1024, doi:10.2134/jeq1996.00472425002500050013x.
• León, E. A., Westhuizen, C. v. d. & Du, L. X. (2015): Acid Mine and Metalliferous Drainage (AMD) – Sample Selection an Intricate Task. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Leonard, L. & Langton, A. (2016): Challenges facing tourist attractions due to acid mine drainage in the West Rand, Gauteng. – Afr. J. Hospitality Tourism Leisure, 5(1):open access.
• Leonhardt, H., Gordon, L. & Livingston, R. (1971): Acid-base equilibriums of fluorescein and 2’,7’-dichlorofluorescein in their ground and fluorescent states. – J. Phys. Chem., 75(2):245–249, 8 Abb., 2 Tab.; doi:10.1021/j100672a011.
• Lepitre, M. E., Allen, D. M., Mortensen, J. K. & Gabites, J. E. (2003): Differentiating sources of dissolved lead in mine waters using lead isotope techniques, Sullivan Mine, British Columbia. – Water Resour. Res., 39(1):HWC 1–1–HWC 1–13, doi:10.1029/2001WR000606.
• Lerman, A., Imboden, D. M. & Gat, J. (1995): Physics and chemistry of lakes. – 334 p., 176 Abb., 48 Tab.; Berlin (Springer); doi:10.1007/978-3-642-85132-2.
• Lerro, C. C., Jones, R. R., Langseth, H., Grimsrud, T. K., Engel, L. S., Sjödin, A., Choo-Wosoba, H., Albert, P. & Ward, M. H. (2018): A nested case-control study of polychlorinated biphenyls, organochlorine pesticides, and thyroid cancer in the Janus Serum Bank cohort. – Environmental Research, 165:125–132, doi:10.1016/j.envres.2018.04.012.
• Lesley, P. L. (1863): On the Coal Measures of Cape Beton, N. B. – Am. J. Sci., 36:179–196, 1 Abb., 2 Tab.
• Lesouple, J., Baudoin, C., Spigai, M. & Tourneret, J.-Y. (2021): Generalized isolation forest for anomaly detection. – Pattern Recognit. Lett., 149:109–119, doi:10.1016/j.patrec.2021.05.022.
• Leßmöllmann, A., Dascal, M. & Gloning, T. (2020): Science Communication: Handbooks of Communication Science 17. – 718 p., Berlin (De Gruyter Mouto); doi:10.1515/9783110255522.
• Letjiane, L., Maree, J. P., Onyango, M. & Adeniyi, A. (2019): Pre-treatment of Coal Dump Leachate With MgO For Pigment Recovery. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 101–106; Perm, Russia (Perm State University).
• LeTourneau, R. L. (1959): Petroleum. – Anal. Chem., 31(4):730–749, doi:10.1021/ac60148a012.
• Letsch, D. (2015): RA Daly’s early model of seafloor generation 40 years before the Vine-Matthews hypothesis: an outstanding theoretical achievement inspired by field work on St. Helena in 1921–1922. – Can. J. Earth Sci., 52(10):893–902, doi:10.1139/cjes-2015-0040.
• Lettinga, G. (1995): Anaerobic digestion and wastewater treatment systems. – Anton. Leeuw. Int. J. G., 67(1):3–28, doi:10.1007/bf00872193.
• Lettinga, G., Roersma, R. & Grin, P. (1983): Anaerobic Treatment of Raw Domestic Sewage at Ambient-Temperatures Using a Granular Bed UASB Reactor. – Biotechnol. Bioeng., 25(7):1701–1723, doi:10.1002/bit.260250703.
• Leuchs, K. (1921): Die Ursachen des Bergsturzes am Reintalanger (Wettersteingebirge). – Geol. Rundsch., 12:189–192.
• Leuchs, K. (1921): Geologischer Führer durch die Kalk-Alpen vom Bodensee bis Salzburg und ihr Vorland – Überblick über Entstehungsgeschichte und Bau des Gebietes. – 144 p., 60 Abb.; München (Lindauersche Universitätsbuchhandlung).
• Leuchs, K. (1930): Der Bau der Südrandstörung des Wettersteingebirges. – Geol. Rundsch., 21:81–96, 3 Abb.; doi:10.1007/BF01802266.
• Leung, R. W. M., Pandey, R. N. & Das, B. S. (1987): Determination of residual polyacrylamide flocculants in coal washery effluents by ultrafiltration/sise exclusion chromatography-ultraviolet detection techniques. – Environ. Sci. Technol., 21(5):476–481, 4 Abb., 3 Tab.; doi:10.1021/es00159a008.
• Leupolt, G. & Hocker, M. (1999): Befahrerhandbuch – Streitschrift zu Arbeitsweisen der praktischen bergbauhistorischen Forschung. – 264 p., Dresden, Freiberg (Eigenverlag).
• Leuprecht, A. (1994): Zur Geschichte des Bergbaues in Vorarlberg. – Bludenzer Geschichtsblätter, 18/19:46–56.
• Leutwein, F. & Weise, L. (1962): Hydrogeochemische Untersuchungen an erzgebirgischen Gruben- und Oberflächenwässern. – Geochim. Cosmochim. Acta, 26(12):1333–1348, 2 Abb., 13 Tab.; doi:10.1016/0016-7037(62)90058-3.
• Levaniemi, H. & Hokka, J. (2022): Petrophysical target characterization with lithogeochemical clustering: the Metsämonttu Zn-Pb-Cu deposit, southern Finland. – Near Surf. Geophys., doi:10.1002/nsg.12182.
• Levay, G., Smart, R. S. & Skinner, W. M. (2001): The impact of water quality on flotation performance. – J. S. Afr. Inst. Min. Metall., 101(2):69–75.
• Levenick, J. L., Zawadzki, W., Haynes, A. & Manrique, R. (2009): Hydrogeological Assessment of Seepage through the Antamina Tailings Dam – Antamina Copper/Zinc Mine, Peru, South America. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 730–737, 7 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Levenspiel, O. (1999): Chemical Reaction Engineering, 3rd edn. – 668 p.
• Levenspiel, O. (2012): Tracer technology – Modeling the flow of fluids: Fluid mechanics and its applications. – 137 p., New York (Springer); doi:10.1007/978-1-4419-8074-8.
• Leventhal, J. S. (1995): Carbon-sulfur plots to show diagenetic and epigenetic sulfidation in sediments. – Geochim. Cosmochim. Acta, 59(6):1207–1211.
• Levin, R. M. (1985): Hegemony and Crisis – Swazi Royal Power in Transition. – 579 p., PhD, University of Liverpool; Liverpool.
• Levins, G. (2007): Temple Mine Survey. – 86 p., Edgbaston (Welsh Mines Preservation Trust).
• Levy, D. B., Custis, K. H., Casey, W. H. & Rock, P. A. (1997): The aqueous geochemistry of the abandoned Spenceville copper Pit, Nevada County, California. – J. Environ. Qual., 26(1):233–243, 3 Abb., 4 Tab.
• Levy, D. B., Custis, K. H., Casey, W. H. & Rock, P. A. (1997): A comparison of metal attenuation in mine residue and overburden material from an abandoned copper mine. – Appl. Geochem., 12(2):203–211, 5 Abb., 3 Tab.
• Lewandowski, K. (1999): Die Organisation der Bergbehörden in den Österreichischen Kronländern Salzburg und Tirol im 19. Jh. – 52 p., 23 Abb.; (Eigenverlag).
• Lewicki, J. L. & Oldenburg, C. M. (2004): Strategies for Detecting Hidden Geothermal Systems by Near-Surface Gas Monitoring. – 76 p., 29 Abb., 4 Tab.; Berkeley (Ernest Orlando Lawrence Berkeley National Laboratory).
• Lewicki, J. L. & Oldenburg, C. M. (2005): Near-Surface CO₂ Monitoring and Analysis to detect hidden Geothermal Systems: SGP-TR-176. – 1–8 p., 5 Abb., 2 Tab.; Stanford (Proceedings 30th Workshop on Geothermal Reservoir Engineering).
• Lewis, C. A., Reimer, P. J. & Reimer, R. W. (2008): Marine Reservoir Corrections: St. Helena, South Atlantic Ocean. – Radiocarbon, 50(2):275–280, 3 Abb., 1 Tab.
• Lewis, D. M. (1977): The use of 210Pb as a heavy metal tracer in the Susquehanna River system. – Geochim. Cosmochim. Acta, 41(11):1557–1564, 3 Abb., 7 Tab.; doi:10.1016/0016-7037(77)90167-3.
• Lewis, G. P., Coughlin, L. L., Jusko, W. J. & Hartz, S. (1972): Contribution of Cigarette Smoking to Cadmium Accumulation in Man. – The Lancet, 299(7745):291–292, 1 Abb.; doi:10.1016/S0140-6736(72)90294-2.
• Leybourne, M. & Cameron, E. (2008): Source, transport, and fate of rhenium, selenium, molybdenum, arsenic, and copper in groundwater associated with porphyry–Cu deposits, Atacama Desert, Chile. – Chem. Geol., 247(1-2):208–228, doi:10.1016/j.chemgeo.2007.10.017.
• Leybourne, M. I., Goodfellow, W. D. & Boyle, D. R. (1998): Hydrogeochemical, isotopic, and rare earth element evidence for contrasting water-rock interactions at two undisturbed Zn-Pb massive sulphide deposits, Bathurst Mining Camp, N.B., Canada. – J. Geochem. Explor., 64(1-3):237–261, 10 Abb., 1 Tab.
• Lghoul, M., Teixidó, T., Pena, J. A., Hakkou, R., Kchikach, A., Guérin, R., Jaffal, M. & Zouhri, L. (2012): Electrical and Seismic Tomography Used to Image the Structure of a Tailings Pond at the Abandoned Kettara Mine, Morocco. – Mine Water Environ., 31(1):53–61, 4 Abb.; doi:10.1007/s10230-012-0172-x.
• Li, A., Mu, Q., Ma, L., Liu, C. Y., Wang, S. Q., Wang, F. & Mou, L. (2021): Numerical Analysis of the Water-blocking Performance of a Floor with a Composite Structure under Fluid-solid Coupling. – Mine Water Environ., 40(2):479–496, doi:10.1007/s10230-021-00758-2.
• Li, A., Yang, Y., Ji, B., Ding, X., Zhu, M. & Zhang, W. (2022): Design Theory and Physical Simulation Test Using a Textile Bag to Control Water Inrush in a Coal Mine Roadway. – Mine Water Environ., 41(3):654–665, doi:10.1007/s10230-022-00869-4.
• Li, B., Liu, G., Nie, Y. H. & Ye, Z. (2021): Causes and Effects of a Water Spill from the Underground Pit of the Dashu Pyrite Mine, Southern Sichuan Basin, Southwest China. – Mine Water Environ., 40(4):864–876, doi:10.1007/s10230-021-00825-8.
• Li, B. & Wu, Q. (2019): Catastrophic Evolution of Water Inrush from A Water-Rich Fault in Front of Roadway Development: A Case Study of The Hongcai Coal Mine. – Mine Water Environ., 38(2):421–430, doi:10.1007/s10230-018-00584-z.
• Li, C., Zhang, X., Gao, X., Li, C., Jiang, C., Liu, W., Lin, G., Zhang, X., Fang, J., Ma, L. & Zhang, X. (2022): Spatial and Temporal Evolution of Groundwater Chemistry of Baotu Karst Water System at Northern China. – Minerals, 12(3) doi:10.3390/min12030348.
• Li, C., Zuo, J., Wu, G., Huang, X., Li, Y. & Xing, S. (2022): Water Inrush Modes Through a Thick Aquifuge Floor in a Deep Coal Mine and Appropriate Control Technology: A Case Study from Hebei, China. – Mine Water Environ., 41(4):954–969, doi:10.1007/s10230-022-00891-6.
• Li, D., Zhu, J., Wang, M., Bi, W., Huang, X. & Chen, D. D. Y. (2017): Extraction of trace polychlorinated biphenyls in environmental waters by well-dispersed velvet-like magnetic carbon nitride nanocomposites. – J. Chromatogr. A, 1491:27–35, doi:10.1016/j.chroma.2017.02.048.
• Li, G., Wang, X., Meng, Z. & Zhao, H. (2014): Seawater inrush assessment based on hydrochemical analysis enhanced by hierarchy clustering in an undersea goldmine pit, China. – Environ. Earth Sci., 71(12):4977–4987, doi:10.1007/s12665-013-2888-8.
• Li, G. & Zhou, W. (1999): Sinkholes in karst mining areas in China and some methods of prevention. – Eng. Geol., 52(1-2):45–50, 5 Abb.; doi:10.1016/S0013-7952(98)00053-2.
• Li, G. Q., Meng, Z. P., Wang, X. Q. & Yang, J. (2017): Hydrochemical Prediction of Mine Water Inrush at the Xinli Mine, China. – Mine Water Environ., 36(1):78–86, doi:10.1007/s10230-016-0405-5.
• Li, H., Bai, H., Wu, J., Meng, Q., Ma, K., Wu, L., Meng, F. & Wang, S. (2019): A Set of Methods to Predict Water Inrush from an Ordovician Karst Aquifer: A Case Study from the Chengzhuang Mine, China. – Mine Water Environ., 38(1):39–48, doi:10.1007/s10230-018-00572-3.
• Li, H., Tao, Y. & Liu, P. (2014): Mine Water Inflow Prediction Based on Double Groundwater Level Flow in Continuous Medium. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 56–58, Xuzhou (International Mine Water Association).
• Li, H., Ye, S., Ye, J., Fan, J., Gao, M. & Guo, H. (2017): Baseline survey of sediments and marine organisms in Liaohe Estuary: Heavy metals, polychlorinated biphenyls and organochlorine pesticides. – Mar. Pollut. Bull., 114(1):555–563, doi:10.1016/j.marpolbul.2016.09.002.
• Li, J., Deng, J., Cheng, W., Zhou, L. & Chang, J. (2013): Treatment on U and Mn in Drainage of a Uranium Mill Tailing Pond. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. A5.3–A5.6, 1 Abb., 5 Tab.; Golden (International Mine Water Association).
• Li, J., Gerson, A. R., Kawashima, N., Fan, R. & Smart, R. (2015): Estimation of Immediate Acid and Neutralization Rates within ARD Waste Rock Storage Facilities. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Li, J. X., Singh, V. V., Sattayasamitsathit, S., Orozco, J., Kaufmann, K., Dong, R. F., Gao, W., Jurado-Sanchez, B., Fedorak, Y. & Wang, J. (2014): Water-Driven Micromotors for Rapid Photocatalytic Degradation of Biological and Chemical Warfare Agents. – ACS Nano, 8(11):11118–11125, doi:10.1021/nn505029k.
• Li, L., Chen, C., Li, D., Breivik, K., Abbasi, G. & Li, Y.-F. (2023): What do we know about the production and release of persistent organic pollutants in the global environment? – Environ. Sci. Adv., 2(1):55–68, doi:10.1039/D2VA00145D.
• Li, L., Zhao, Y., Oliveira, J., Verhoijsen, W., Liu, K. & Xin, H. (2017): A UHF RFID System for Studying Individual Feeding and Nesting Behaviors of Group-Housed Laying Hens. – Trans. Asabe, 60(4):1337–1347, doi:10.13031/trans.12202.
• Li, L. P., Zhou, Z. Q., Li, S. C., Xue, Y. G., Xu, Z. H. & Shi, S. S. (2015): An Attribute Synthetic Evaluation System for Risk Assessment of Floor Water Inrush in Coal Mines. – Mine Water Environ., 34(3):288–294, doi:10.1007/s10230-014-0318-0.
• Li, N., Wania, F., Lei, Y. D. & Daly, G. L. (2003): A Comprehensive and Critical Compilation, Evaluation, and Selection of Physical–Chemical Property Data for Selected Polychlorinated Biphenyls. – J. Phys. Chem. Ref. Data, 32(4):1545–1590, doi:10.1063/1.1562632.
• Li, P. (2014): Book Review: An Introduction to Mine Hydrogeology by Pradipta Kumar Deb. – Mine Water Environ., 33(2):191–192, doi:10.1007/s10230-014-0267-7.
• Li, P. (2018): Mine Water Problems and Solutions in China. – Mine Water Environ., 37(2):217–221, doi:10.1007/s10230-018-0543-z.
• Li, P., Ma, L., Wu, Y., Zhang, L. & Hao, Y. (2018): Concurrent Mining During Construction and Water-Filling of a Goaf Groundwater Reservoir in a Coal Mine. – Mine Water Environ., 37(4):763–773, doi:10.1007/s10230-018-0537-x.
• Li, P., Qian, H., Wu, J., Zhang, Y. & Zhang, H. (2013): Major Ion Chemistry of Shallow Groundwater in the Dongsheng Coalfield, Ordos Basin, China. – Mine Water Environ., 32(3):195–206, 6 Abb., 5 Tab.; doi:10.1007/s10230-013-0234-8.
• Li, P., Wu, J., Tian, R., He, S., He, X., Xue, C. & Zhang, K. (2018): Geochemistry, Hydraulic Connectivity and Quality Appraisal of Multilayered Groundwater in the Hongdunzi Coal Mine, Northwest China. – Mine Water Environ., 37(2):222–237, doi:10.1007/s10230-017-0507-8.
• Li, Q.-L., Chen, F., Yang, J.-H. & Fan, H.-R. (2008): Single grain pyrite Rb–Sr dating of the Linglong gold deposit, eastern China. – Ore Geol. Rev., 34(3):263–270, doi:10.1016/j.oregeorev.2007.10.003.
• Li, R. (1994): A New Addition Agent for Grouting Material Strengthening. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:287–297, 4 Abb., 4 Tab.
• Li, R. Z., Wang, Q., Wang, X. Y., Liu, X. M., Li, J. L. & Zhang, Y. X. (2017): Relationship Analysis of the Degree of Fault Complexity and the Water Irruption Rate, Based on Fractal Theory. – Mine Water Environ., 36(1):18–23, doi:10.1007/s10230-015-0348-2.
• Li, S.-c., Xu, F., Zhang, Q.-q., Li, L.-p., Wang, W.-m. & Liu, H.-l. (2016): Analysis and Construction Techniques for a Water Seal for Underground Mines Subjected to Water Inrush. – Mine Water Environ., 35(2):168–179, doi:10.1007/s10230-015-0359-z.
• Li, T., Patel, R. U., Ramsden, D. K. & Greene, J. (2003): Ground Water Recovery and Treatment. – In: Moyer, E. E. & Kostecki, P. T. (eds): MTBE Remediation Handbook. – p. 289–327, New York (Springer); doi:10.1007/978-1-4615-0021-6.
• Li, W., Liu, Y., Qiao, W., Zhao, C., Yang, D. & Guo, Q. (2018): An Improved Vulnerability Assessment Model for Floor Water Bursting from a Confined Aquifer Based on the Water Inrush Coefficient Method. – Mine Water Environ., 37(1):196–204, doi:10.1007/s10230-017-0463-3.
• Li, W., Zhou, J., Wang, X., Feng, C., Feng, H. & Zhou, W. (2025): New insights at the molecular level: the impact of DOM on antimony migration and enrichment in water environments of antimony mining areas. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1042–1050; Braga (International Mine Water Association).
• Li, X., Chen, G., Xu, Z., Zhang, L., Liu, Q., Sun, Y., Wei, W., Tan, X. & Zhang, F. (2024): Feasibility of Injecting Pretreated Mine Water into a Deep Ordovician Aquifer in the Lilou Coal Mine, China. – Mine Water Environ., 43(1):168–182, doi:10.1007/s10230-024-00977-3.
• Li, X., Fei, B., Feng, Q., Zhou, L. & Sun, Y. (2018): Effects of Coalbed Methane Co-produced Water for Irrigation in China’s Qinshui Basin: An Experimental Field Study. – Mine Water Environ., 37(2):263–271, doi:10.1007/s10230-018-0536-y.
• Li, X., Gan, Y., Yang, X., Zhou, J., Dai, J. & Xu, M. (2008): Human health risk of organochlorine pesticides (OCPs) and polychlorinated biphenyls (PCBs) in edible fish from Huairou Reservoir and Gaobeidian Lake in Beijing, China. – Food Chemistry, 109(2):348–354, doi:10.1016/j.foodchem.2007.12.047.
• Li, X., Hou, X., Liu, L., Wang, Z., Chen, J., Gao, M. & Ma, J. (2014): Hydrogeological Characteristics of the Large-scale Coal Base of Qinghai-Qilian, China. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 52–55, Xuzhou (International Mine Water Association).
• Li, X., Hou, X., Liu, L., Wang, Z. & Gao, M. (2013): The General Scheme for Hydrogeological and Environment Geological Investigation of Large Scale Coal Bases, in Chin. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 151–156, 3 Abb.; Golden (International Mine Water Association).
• Li, X. & Li, W. (2014): Mechanism of Separation Water Inrush due to Coal Mining under Hard Rock. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 519–523, Xuzhou (International Mine Water Association).
• Li, X., Xu, G., Chen, L., He, J., Qiu, K. & Zhao, X. (2014): Analysis on the Dynamic Characteristics of Limestone Groundwater and Its Influencing Factors in Panxie Coal Mine Area,Anhui. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 114, Xuzhou (International Mine Water Association).
• Li, X., Xu, G. & Fang, J. (2014): Occurrence Characteristics of Sandstone Pore-fissure Water on the Roof of Jurassic Coal Seam and Dynamic Simulation of Groundwater during Mining. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 115, Xuzhou (International Mine Water Association).
• Li, X., Yao, D., Hu, o., Liu, Q. & Yang, J. (2014): A Combined Model Based on Grey System Theory and BP Neural Network for Forecasting Hydraulic Discharge. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 116, Xuzhou (International Mine Water Association).
• Li, X., Zhao, F. & Deng, S. (2014): The Removal of Arsenic(III) from Acid Mine Drainage by Mineral Trap of Tooeleite (Fe6(AsO3)4SO4(OH)4•4H₂O). – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 671–674, Xuzhou (International Mine Water Association).
• Li, X. L., Dong, S. N. & Liu, K. D. (2021): Prevention and Control of Water Inrushes from Subseam Karstic Ordovician Limestone During Coal Mining Above Ultra-thin Aquitards. – Mine Water Environ., 40(2):345–356, doi:10.1007/s10230-021-00765-3.
• Li, Y., Li, W., Xiao, Q., Song, S., Liu, Y. & Naidu, R. (2018): Acid mine drainage remediation strategies: A review on migration and source controls. – Min. Metall. Explor., 35(3):148–158, doi:10.19150/mmp.8464.
• Li, Y. & Spitzer, K. (2005): Finite element resistivity modelling for three-dimensional structures witharbitrary anisotropy. – Phys. Earth Planet, 150(1-3):15–27, 11 Abb.
• Li, Y. H., Zhu, J. N., Liu, Q. F., Liu, Y., Liu, M., Liu, L. & Zhang, Q. (2013): Comparison of the diversity of root-associated bacteria in Phragmites australis and Typha angustifolia L. in artificial wetlands. – World J. Microbiol. Biotechnol., 29(8):1499–1508, 4 Abb., 2 Tab.; doi:10.1007/s11274-013-1316-2.
• Li, Z., Sheng, Y. & Reddish, D. J. (2005): Rock strength reduction and its potential environmental consequences as a result of groundwater rebound: Mine Water 2005 – Mine Closure. – 513–519 p., 8 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Lian, H. Q., Xia, X. X., Ran, W. & Yan, T. (2014): Mine Discharge Prediction in Steeply Dipping and Deep Mining Coal Seam in The Zhaogezhuang Mine. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 261–265, Xuzhou (International Mine Water Association).
• Liang, D.-x., Jiang, Z.-q. & Guan, Y.-z. (2015): Field Research: Measuring Water Pressure Resistance in a Fault-Induced Fracture Zone. – Mine Water Environ., 34(3):320–328, doi:10.1007/s10230-014-0323-3.
• Liang, H. C., Tamburini, J. & Johns, F. (2015): Designing a Mine Water Treatment Facility to Remove Sulfate. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Liang, H. C. & Thomson, B. M. (2010): Minerals and Mine Drainage – Review. – Water Environ. Res., 82(10):1485–1531, doi:10.2175/106143010X12756668801491.
• Liang, J., Wu, K., Li, Y., Wei, Z., Zhuo, P., Yan, Q. & Luo, X. (2019): Impacts of Large-Scale Rare Earth Mining on Surface Runoff, Groundwater, and Evapotranspiration: A Case Study Using SWAT for the Taojiang River Basin in Southern China. – Mine Water Environ., 38(2):268–280, doi:10.1007/s10230-018-00587-w.
• Liang, Y., Jiang, T., Shen, X. & Sui, W. (2022): Experimental Investigation on the Transport Behavior of a Sand/Mud/Water Mixture Through a Mining-Induced Caving Zone. – Mine Water Environ., 41(3):629–639, doi:10.1007/s10230-022-00852-z.
• Liang, Z. Z. & Song, W. C. (2021): Theoretical and Numerical Investigations of the Failure Characteristics of a Faulted Coal Mine Floor Above a Confined Aquifer. – Mine Water Environ., 40(2):456–465, doi:10.1007/s10230-021-00780-4.
• Liang-qi, L., Ci-an, S., Xiang-li, X., Yan-hong, L. & Fei, W. (2010): Acid mine drainage and heavy metal contamination in groundwater of metal sulfide mine at arid territory (BS mine, Western Australia) –Trans. Nonferrous Met. Soc. China, 20(8):1488–1493, doi:10.1016/S1003-6326(09)60326-5 .
• Liangtao, G. & Honglie, G. (1987): Basic hydrogeological Characteristics of the Coal Deposits in China: Hydrogeology of Coal Basins. – 265–274 p., 3 Abb., 1 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Libicki, J. (1982): Changes in the Groundwater due to Surface Mining. – Int. J. Mine Water, 1(1):25–30.
• Libicki, J. (1985): Planning and design of coal waste disposals in view of groundwater protection. – Proceedings, 2nd International Mine Water Association Congress, 2:723–735.
• Libicki, J. (1985): Proposal of Criteria for Selection of Dewatering Methods in Surface Mining. – Proceedings, 2nd International Mine Water Association Congress, 1:105–112.
• Libicki, J. (1987): Hydrogeological Conditions of Lignite Basins in Poland and their Changes caused by Dewatering of Open Pits. Hydrogeology of Coal Basins. – p. 525–535, 3 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Libicki, J. (1988): Water Management and Water Protection in Coal/Lignite Surface Mining Regions in Europe. – Proceedings, 3rd International Mine Water Congress, Melbourne:861–871.
• Libicki, J. (1993): Planning and Design of Industrial Water Disposals in View of Groundwater Protection. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 297–312, 4 Abb.; Chililabombwe (Konkola Division).
• Libicki, J. (1993): Proposal of Criteria for Selection of Dewatering Methods in Surface Mining. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 159–167; Chililabombwe (Konkola Division).
• Libicki, J. & Wilk, Z. (1987): Hydrogeological Criteria of Lignite Basins Development in Poland. Hydrogeology of Coal Basins. – p. 319–327, 2 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Libicki, J. S. (1979): The Design of Mine Dewatering Systems in Poland. – In: Argall, G. O. & Brawner, C. O. (eds): Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – p. 304–323, 11 Abb.; San Francisco (Freeman).
• Libicki, J. S. (1982): Influence of large coal waste disposal on the ground water quality and control methods. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, C:65–79, 4 Abb., 2 Tab.
• Libourel, G., Carron, A. V., Morlok, A., Gin, S., Sterpenich, J., Michelin, A., Neff, D. & Dillmann, P. (2011): The use of natural and archeological analogues for understanding the long-term behaviour of nuclear glasses. – Geoscience, 343(2–3):237–245, doi:10.1016/j.crte.2010.12.004.
• Licha, T., Niedbala, A., Bozau, E. & Geyer, T. (2013): An assessment of selected properties of the fluorescent tracer, Tinopal CBS-X related to conservative behavior, and suggested improvements. – J. Hydrol., 484:38–44, doi:10.1016/j.jhydrol.2013.01.006.
• Lichon, M. J. (2000): Wetlands for minewaters – Constructed wetland systems for biological treatment of mining wastewaters in western Tasmania. – 192 p., University of Tasmania; Hobart.
• Lichtfouse, E. (2013): Scientific Writing for Impact Factor Journals: Media and Communications – Technologies, Policies and Challenges. – 26 Abb.; New York (Novinka).
• Lichtner, P. C., Steefel, C. I. & Oelkers, E. H. (1996): Reactive transport in porous media: Reviews in mineralogy. – 438 p., Washington (Mineralogical Society of America).
• Lieber, D. (2003): Säure- und Basekapazität – Vergleich unterschiedlicher vor-Ort-Bestimmungsmethoden bei unterschiedlichen Bergwerkswässern und Bearbeitern. – 22 Abb., 23 Tab.; Freiberg (Unveröff. Studienarbeit).
• Liebermann, T. D., Middelburg, R. F. & Irvine, S. A. (1986): User’s Manual for Estimation of Dissolved-Solids Concentrations and Loads in Surface Water – A computerized method using data from WATSTORE – National Water Data Storage and Retrieval System of the U.S. Geological Survey. – Water Resour. Investig. Rep., WRI 86-4124:55, 3 Tab., 3 Anh.
• Liebig, M. R. G. (1913): Zink und Cadmium und ihre Gewinnung aus Erzen und Nebenprodukten. – 598 p., 205 Abb., 10 Taf.; Berlin (Springer); doi:10.1007/978-3-662-24661-0.
• Liebisch, K. & Remus, W. (1966): Hydrogeologische Ergebnisse mit Färbversuchen im Kupferschieferbergbau der Mansfelder Mulde. – Z. Angew. Geol., 12(9):486–489, 2 Abb.
• Liedl, R. & Sauter, M. (2000): Charakterisierung von Karstgrundwasserleitern durch Simulation der Aquifergenese und des Wärmetransports. – Grundwasser, 5(1):9–16, 8 Abb.
• Liedl, R., Sauter, M., Hückinghaus, D., Clemens, T. & Teutsch, G. (2003): Simulation of the development of karst aquifers using a coupled continuum–pipe-flow model. – Water Resour. Res., 39(1):1057, doi:10.1029/2001WR001206.
• Liedtke, M. & Vasters, J. (2008): Renaissance des deutschen Kupferschieferbergbaus. – Commodity Top News, 29:15, 12 Abb., 3 Tab.
• Liefferink, M. (2010): Overview of Acid Mine Drainage and Recent Government Activity. Paper presented at the 14th Yellowfish Working Group Conference, Willem Pretorius Resort. – p. 42–46.
• Liefferink, M. (2017): Rehabilitation of Mine Contaminated Eco-Systems – A contribution to a just transition to a low carbon economy to combat unemployment and climate change. – 53 p., 31 Abb., 2 Tab.; Johannesburg (Friedrich Ebert Stiftung, Alternative Information and Development Centre).
• Liefferink, M. & van Eeden, E. S. (2010): Proactive environmental activism to promote the remediation of mined land and acid mine drainage: a success story from the South African goldfields. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 537–541, Sydney, NS (Cape Breton University Press).
• Lien, H.-L. & Zhang, W.-X. (2007): Nanoscale Pd/Fe bimetallic particles: Catalytic effects of palladium on hydrodechlorination. – Appl. Catal. B, 77(1):110–116, doi:10.1016/j.apcatb.2007.07.014.
• Ließmann, W. (2010): Historischer Bergbau im Harz, 3 edn. – 470 p., Heidelberg (Springer); doi:10.1007/978-3-540-31328-1.
• Lietsch, C., Hoth, N. & Kassahun, A. (2014): Thermodynamic Characterization of Dissolved Uranium Species in Flooded Uranium Mines and Tailing Management Facilities. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 137–141, Xuzhou (International Mine Water Association).
• Ligavha-Mbelengwa, L., Madzivire, G., Mello, T. & Coetzee, H. (2019): Assessment of Water Quality in the Witwatersrand Basin using Inorganic Contaminants. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 301–307; Perm, Russia (Perm State University).
• Ligavha-Mbelengwa, L., Madzivire, G., Nolakana, P., Coetzee, H. & Gomo, M. (2022): Potential Use Of Emerging Organic Contaminants As Pollution Source Tracers. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 223–228; (International Mine Water Association).
• Ligavha-Mbelengwa, L., Madzivire, G., Nolakana, P., Mello, T. & Coetzee, H. (2021): Application of Anthropogenic Organic Contaminants and Environmental Isotopes as tracers to determine water ingress in the Witwatersrand Goldfields. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 280–286; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Ligavha-Mbelengwa, L., Mokitlane, L., Madzivire, G., Saeze, H., Nolakana, P. & Coetzee, H. (2021): Assessment Of Ingress Areas/Points In The Witwatersrand Basin Using Environmental Isotopes As Tracers. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 287–292; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Light, D. D. M. (2016): Flooding and reequilibration of a series of Pittsburgh bed underground coal mines, 1980 to 2015. – Graduate Theses, Dissertations, and Problem Reports, 6088:126, 14 Abb., 34 Tab.
• Light, D. D. M. & Donovan, J. J. (2015): Mine-Water Flow between Contiguous Flooded Underground Coal Mines with Hydraulically Compromised Barriers. – Environ. Eng. Geosci., 21(2):147–164, doi:10.2113/gseegeosci.21.2.147.
• Ligouis, B., Lu, J. & Pils, J. (1998): Coal petrology and Rock-Eval pyrolysis of a coal seam in the Oligocene Molasse near Miesbach (Upper Bavaria, Germany): coal depositional environments. – Bull. Soc. géol. France, 169(3):381–393, 8 Abb., 2 Tab.
• Likens, G. E., Buso, D. C., Dresser, B. K., Bernhardt, E. S., Hall Jr, R. O., Macneale, K. H. & Bailey, S. W. (2004): Buffering an Acidic Stream in New Hampshire with a Silicate Mineral. – Restoration Ecology, 12(3):419–428.
• Lillesand, T. M., Kiefer, R. W. & Chipman, J. W. (2015): Remote Sensing and Image Interpretation, 7th edn. – 720 p., Hoboken (Wiley).
• Lilley, T. (2012): Membrane based water and wastewater treatment solutions: International Mine Water Association Symposium. – 631–636 p., Bunbury (Edith Cowan University).
• Lilley, T. (2013): Optimising mine pit dewatering treatment techniques to meet production deadlines. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 649–654, 5 Abb., 2 Tab.; Golden (International Mine Water Association).
• Lilley, T. & Bultiauw, J. (2017): Important Characteristics of Membranes for Reliable Water and Wastewater Treatment Processes for Discharge and Reuse. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 396–402, Lappeenranta (Lappeenranta University of Technology).
• Lim, E., Beckett, K., Jaen, W. & Kumar, A. (2010): Probabilistic Analysis of Mine Void Salinity and Lake Level Associated with Climate Change. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 487–491, Sydney, NS (Cape Breton University Press).
• Lim, E., Deschaine, L. M. & Huyakorn, P. S. (2012): Mine of the Future™: The automated mine dewatering design module of PBMO™: International Mine Water Association Symposium. – 569–576 p., Bunbury (Edith Cowan University).
• Lim, E. & Holmes, D. (2008): The Moving Finger Writes – the Value of Hydrographs in Numerical Modelling. – Proceedings, 10th International Mine Water Association Congress:461–464.
• Lim, T.-T. & Zhu, B.-W. (2008): Effects of anions on the kinetics and reactivity of nanoscale Pd/Fe in trichlorobenzene dechlorination. – Chemosphere, 73(9):1471–1477, doi:10.1016/j.chemosphere.2008.07.050.
• Limerick, P. N., Ryan, J. N., Brown, T. R. & Comp, T. A. (2005): Cleaning Up Abandoned Hardrock Mines in the West – Prospecting for a Better Future. – 47 p., Boulder (Center of the American West).
• Limpitlaw, D. (1996): Sediments as indicators of wetland efficacy in ameliorating acid mine drainage. – J. S. Afr. Inst. Min. Metall., 96(7):309–316, 7 Abb., 1 Tab.
• Lin, A. Y. C., Debroux, J. F., Cunningham, J. A. & Reinhard, M. (2003): Comparison of Rhodamine WT and Bromide in the Determination of Hydraulic Characteristics of Constructed Wetlands. – Ecol. Eng., 20(1):75–88, 9 Abb., 2 Tab.; doi:10.1016/S0925-8574(03)00005-3.
• Lin, G., Dong, D. L., Li, X. & Fan, P. W. (2020): Accounting for Mine Water in Coal Mining Activities and its Spatial Characteristics in China. – Mine Water Environ., 39(1):150–156, doi:10.1007/s10230-020-00657-y.
• Lin, G., Jiang, D., Dong, D. L., Fu, J. Y. & Li, X. (2021): A Multilevel Recognition Model of Water Inrush Sources: A Case Study of the Zhaogezhuang Mining Area. – Mine Water Environ., 40(3):773–782, doi:10.1007/s10230-021-00793-z.
• Lin, G., Jiang, D., Fu, J. Y., Dong, D. L., Sun, W. J. & Li, X. (2020): Spatial Relationships of Water Resources with Energy Consumption at Coal Mining Operations in China. – Mine Water Environ., 39(2):407–415, doi:10.1007/s10230-020-00663-0.
• Lin, H. & Lin, L. (2014): The development of GIS-PMWIN and its application for mine-water modelling in the Far West Rand, South Africa. – Water SA, 40(2):313, 13 Abb., 2 Tab.; doi:10.4314/wsa.v40i2.13.
• Lin, J., Biyela, P. T., Puckree, T. & Bezuidenhout, C. C. (2004): A study of the water quality of the Mhlathuze River, KwaZulu-Natal (RSA): Microbial and physico-chemical factors. – Water Sa, 30(1):17–22.
• Lin, M., Gui, H., Peng, W. & Chen, S. (2014): Heavy Metals Characteristics in Deep Groundwater of Coal Mining Area, Northern Anhui Province. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 171–177, Xuzhou (International Mine Water Association).
• Lin, M., Seed, L., Chesworth, W., Fyfe, J., Brousseau, R. & Shelp, G. (2001): Electrochemical Treatment of Pyrrhotite-rich Tailings – a Laboratory Study. – Mine Water Environ., 20(1):8–16, 6 Abb., 1 Tab.
• Lin, X., Tabouré, A., Wangc, X. & Liaoa, Z. (2007): Use of a hydrogeochemical approach in determining hydraulic connection between porous heat reservoirs in Kaifeng area, Henan, China. – Appl. Geochem., 22(2):276–288, 8 Abb., 4 Tab.
• Liñán Baena, C., Andreo, B., Mudry, J. & Carrasco Cantos, F. (2009): Groundwater temperature and electrical conductivity as tools to characterize flow patterns in carbonate aquifers: The Sierra de las Nieves karst aquifer, southern Spain. – Hydrogeol. J., 17(4):843–853, doi:10.1007/s10040-008-0395-x.
• Lind, C. J. & Oscarson, R. L. (1997): Iron deposition as acidic groundwater encounters carbonates in the alluvium of Pinal Creek, Arizona, U.S.A. – Appl. Geochem., 12(1):83–95, 3 Abb., 10 Tab.
• Lind, H. (2010): Groundwater flow model of the Estonian oil shale mining area towards to innovative system. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 47–51, Sydney, NS (Cape Breton University Press).
• Lindberg, R. D. & Runnells, D. D. (1984): Ground water redox reactions. An analysis of equilibrium state applied to Eh measurements and geochemical modeling. – Science 225(4665):925–927, doi:10.1126/science.225.4665.925.
• Lindborg, T., Papunen, H., Parkkinen, J. & Tuokko, I. (2015): Chapter 9.3 – The Taivaljärvi Ag-Au-Zn deposit in the Archean TipasjÄrvi greenstone belt, eastern Finland. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 633–657, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00024-8.
• Linde, J. (2007): Untersuchungen zur Kühlwasserversickerung am Geothermiekraftwerk Unterhaching. – 66 p., 7 Abb., 11 Tab., 5 Anl.; München (unveröff. Bachelararbeit LMU München).
• Linder, N., Hogrebe, P., Milas, I. & Hunke, A. (2022): Ein Schachtkopf als Überlaufbauwerk, Sicherung eines Luftschachtes in Witten. – In: Benndorf, J. (ed) 20. Altbergbau-Kolloquium – Tagungsband. – p. 1–14, 17 Abb.; Nossen (Wagner).
• Linder, N., Mackenbach, M. & Novák, J. (2016): United Nations Development Programme (UNDP); Detailed technical design for acid mine water treatment in Novo Brdo Mine, Artana/Kosovo. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 608–615, Freiberg (TU Bergakademie Freiberg).
• Lindig, Y. & Merkel, B. J. (2010): CO₂-Behandlung von Eisenhydroxidschlämmen zur Alkalinitätsverbesserung. – Wiss. Mitt. Inst. Geol., 42:203.
• Lindow, N. L. & Borden, R. C. (2005): Anaerobic Bioremediation of Acid Mine Drainage using Emulsified Soybean Oil. – Mine Water Environ., 24(4):199–208, 6 Abb., 3 Tab.
• Lindsay, M. B. J., Moncur, M. C., Bain, J. G., Jambor, J. L., Ptacek, C. J. & Blowes, D. W. (2015): Geochemical and mineralogical aspects of sulfide mine tailings. – Appl. Geochem., 57:157–177, doi:10.1016/j.apgeochem.2015.01.009.
• Lindsay, P., Pizey, M. & Weber, P. (2008): Options for Treating Acid Mine Drainage at Stockton Mine, New Zealand. – Proceedings, 10th International Mine Water Association Congress:289–292, 3 Abb., 7 Tab.
• Ling, S., Wu, X., Zhao, S. & Liao, X. (2018): Evolution of porosity and clay mineralogy associated with chemical weathering of black shale: A case study of Lower Cambrian black shale in Chongqing, China. – J. Geochem. Explor., 188:326–339, doi:10.1016/j.gexplo.2018.02.002.
• Linke, R., Schreiner, M., Demortier, G. & Alram, M. (2003): Determination of the provenance of medieval silver coins: potential and limitations of x-ray analysis using photons, electrons or protons. – X-ray Spectrometry, 32(5):373–380.
• Linke, S. & Schiffer, L. (2002): Development Prospects for the Post-Mining Landscape in Central Germany. – In: Mudroch, A., Stottmeister, U., Kennedy, C. & Klapper, H. (eds): Remediation of Abandoned Surface Coal Mining Sites. – p. 111–149, 22 Abb., 4 Tab.; Berlin (Springer); doi:10.1007/978-3-662-04734-7_5.
• Linklater, C., Hendry, A. & Chapman, J. (2015): Acid Mine Drainage Risk Assessment Utilizing Drill-Hole Data and Geological Modelling Tools. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Linklater, C., Watson, A., Chapman, J., Green, R. & Lee, S. (2015): Weathering and Oxidation Rates in Black Shales – A Comparison of Laboratory Methods. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Linklater, C. M., Sinclair, D. J. & Brown, P. L. (2005): Coupled Chemistry and Transport Modelling of Sulphidic Waste rock Dumps at the Aitik mine Site, Sweden. – Appl. Geochem., 20(2):275–293.
• Lion’s Bridge (2003): Lead Zinc Mining Sector – Investment Opportunities in the Republic of Macedonia. – 16 p., 2 Abb., 13 Tab.; Skopje (unpublished Report Lion’s Bridge).
• Lipanský, T. (2017): Regional Impact of Uranium Mining on Piezometric Surfaces in a Multi-layered Water-bearing System, Bohemian Cretaceous Basin, Czech Republic. – Mine Water Environ., 36(1):4–17, doi:10.1007/s10230-016-0420-6.
• Lipp, J., Cain, S., Colman, R., Parmenter, R., Milne, K., Mullaly, H. & Monette, A. (2005): The Energy Accounts for the Nova Scotia Genuine Progress Index. – 389 p., 67 Abb.; Glen Haven (GPIAtlantic).
• Lipp, R. (2010): Vom Antisemtismus zum Holocaust – Auch das Außerfern war keine „Insel der Seligen“. – Extra Verren, 2010:173–188, 9 Abb.
• Lippmann, J., Stute, M., Torgersen, T., Moser, D. P., Hall, J. A., Lin, L., Borcsik, M., Bellamy, R. E. S. & Onstott, T. C. (2003): Dating ultra-deep mine waters with noble gases and 36Cl, Witwatersrand Basin, South Africa. – Geochim. Cosmochim. Acta, 67(23):4597–4619, 8 Abb., 8 Tab.
• Lippmann-Pipke, J., Karimzadeh, L., Blanc, P., Eichelbaum, S., Schymura, S., Frühwirt, T., Rogóż, K. & Kulenkampff, J. (2016): Reactive transport modelling based on velocity fields obtained on drill core scale. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1224–1225, Freiberg (TU Bergakademie Freiberg).
• Lipták, B. G. (2003): Process Measurement and Analysis: Instrument Engineers’ Handbook I, 4th edn. – 1828 p., Boca Raton (CRC).
• Liščák, P., Bajtoš, P., Mašlárová, I. & Slaninka, I. (2020): Vplyv ťažby nerastov na životné prostredie – Správa za rok 2019 [Impact of mineral extraction on the environment – Report for 2019]. – (Report Nr. ČMS Geologické faktory 04–207–2019). – 124 p., 67 Abb., 68 Tab.; Spišská Nová Ves (Ministerstvo Životného Prostredia Slovenskej Republiky | Štátny Geologický Ústav Dionýza Štúra).
• List, F. (1999): Increasing the Safety of Tailing Dams using Geotextiles and Geogrids. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 619–624, 12 Abb.; Sevilla (International Mine Water Association).
• Litmanen, T., Jartti, T. & Rantala, E. (2016): Refining the preconditions of a social licence to operate (SLO): reflections on citizens’ attitudes towards mining in two Finnish regions. – Extr. Ind. Soc., 3(3):782–792, doi:10.1016/j.exis.2016.04.003.
• Littig, B. & Grießler, E. (2004): Soziale Nachhaltigkeit. – Informationen zur Umweltpolitik, 160:108, 3 Abb., 17 Tab.
• Little, L. W. & Lamb, J. C. (1972): Acute Toxicity of 46 Selected Dyes to the Fathead Minnow, Pimephales promelas. – 23 p., 4 Abb.; Chapel Hill (unpublished Report Wastewater Research Center).
• Little, T. D., Jorgensen, T. D., Lang, K. M. & Moore, E. W. G. (2013): On the Joys of Missing Data. – J. Pediatr. Psychol., 39(2):151–162, doi:10.1093/jpepsy/jst048.
• Litvinova, T. (2006): Solvent Extraction of Cerium (III) and Yttrium (III) by Carbonic Acids from Nitrate Medium. – Wiss. Mitt. Inst. Geol., 31:195–198, 4 Abb., 1 Tab.
• Litwiniszyn, J. (1957): The theories and model research of movements of ground masses. Paper presented at the European Congress on Ground Movement, Leeds. – p. 202–209.
• Liu, B., Chen, H. & Chen, H. (2014): Suitability Assessment of CO₂ Storage in Deep Saline Reservoirs with Different Conditions. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 768, Xuzhou (International Mine Water Association).
• Liu, B., Malekian, R. & Xu, J. (2016): Groundwater Mixing Process Identification in Deep Mines Based on Hydrogeochemical Property Analysis. – Appl. Sci., 7(1) doi:10.3390/app7010042.
• Liu, C., Peng, B. & Qin, J. (2007): Geological Analysis and Numerical Modeling of Mine Discharges for the Sanshandao Gold Mine in Shandong, China: 1. Geological Analysis. – Mine Water Environ., 26(3):160–165, 4 Abb., 1 Tab.; doi:10.1007/s10230-007-0004-6.
• Liu, C., Peng, B. & Qin, J. (2007): Geological Analysis and Numerical Modeling of Mine Discharges for the Sanshandao Gold Mine: 2. Simulation and Prediction of Mine Discharges. – Mine Water Environ., 26(3):166–171, 5 Abb., 5 Tab.; doi:10.1007/s10230-007-0005-5.
• Liu, C. Y., Yang, J. X. & Wu, F. F. (2015): A Proposed Method of Coal Pillar Design, Goaf Filling, and Grouting of Steeply Inclined Coal Seams Under Water-Filled Strata. – Mine Water Environ., 34(1):87–94, doi:10.1007/s10230-014-0314-4.
• Liu, H. (2014): Fundamental Concept of Indication Layer in Coal Floor Mining under Water Pressure. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 59–63, Xuzhou (International Mine Water Association).
• Liu, H., Hatley, J., Bashir, R. & Atkinson, L. C. (2008): Depressurising an Underground Ore Body at the McArthur River Mine in Northern Saskatchewan, Canada. – Proceedings, 10th International Mine Water Association Congress:491–494.
• Liu, H., Li, L., Li, Z. & Yu, G. (2018): Numerical Modelling of Mining-induced Inrushes from Subjacent Water Conducting Karst Collapse Columns in Northern China. – Mine Water Environ., 37(4):652–662, doi:10.1007/s10230-017-0503-z.
• Liu, H., Li, X., Jiang, Z. & Meng, F. (2014): Impact of Ground Water Temperature on Coal Mining Water Yield in Deep Coal Mines. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 108, Xuzhou (International Mine Water Association).
• Liu, H., Nel, E., Kotze, J. & Ding, D. (2013): Mine Dewatering in a Compartmentalized Hydrogeologic Setting at Sishen Mine in South Africa. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 157–162, 4 Abb.; Golden (International Mine Water Association).
• Liu, H., Wu, Q., Wang, M. & Zhang, M. (2018): Multivariate Analysis of Water Quality of the Chenqi Basin, Inner Mongolia, China. – Mine Water Environ., 37(2):249–262, doi:10.1007/s10230-018-0533-1.
• Liu, H., Yonezawa, A., Kumagai, K., Sano, M. & Miyake, T. (2015): Cs and Sr removal over highly effective adsorbents ETS-1 and ETS-2. – J. Mater. Chem. A, 3(4):1562–1568, doi:10.1039/C4TA06170E.
• Liu, H., Zhao, X. & Qu, J. (2010): Electrocoagulation in Water Treatment. – In: Comninellis, C. & Chen, G. (eds): Electrochemistry for the Environment. – p. 245–262, 4 Abb., 2 Tab.; Heidelberg (Springer); doi:10.1007/978-0-387-68318-8_10.
• Liu, H. H., Bodvarsson, G. S. & Zhang, G. (2004): Scale Dependency of the Effective Matrix Diffusion Coefficient. – Vadose Zone J., 3(1):312–315.
• Liu, H. H., Salve, R., Wang, J. S., Bodvarsson, G. S. & Hudson, D. (2004): Field Investigation into Unsaturated flow and Transport in a Fault: Model Analyses. – J. Contam. Hydrol., 74(1-4):39–59.
• Liu, J., Gao, D., Deng, S. & Liu, J. (2014): The Passive Treatment of Arsenic-containing Acid Mine Drainage and Using Manganese-coated Bone Char and Evaluation on its Neutralization Ability. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 650–653, Xuzhou (International Mine Water Association).
• Liu, J. W., Yang, B. B., Yuan, S. C., Li, Z. H., Yang, M. F. & Duan, L. H. (2021): A Fuzzy Analytical Process to Assess the Risk of Disaster when Backfill Mining Under Aquifers and Buildings. – Mine Water Environ., 40(4):891–901, doi:10.1007/s10230-021-00822-x.
• Liu, J. Y. & Kalin, M. (1992): Determination of Metal Ions in Acid Mine Drainage Using a Simple Titration Method. – 18–21 p., 2 Tab.; Toronto (Proceedings of the 42nd Annual Canadian Chemical Engineering Conference).
• Liu, J. Y. & Kalin, M. (1994): A Study of the Ferrous Oxidation Process in Acidic Mine Seepage (Abstract). Paper presented at the International Land Reclamation and Mine Drainage Conference, Pittsburgh. – p. 420, 10 Abb., 4 Tab.
• Liu, P., Hoth, N., Freese, C. & Drebenstedt, C. (2016): Investigations in a closed mining area in China – challenges of limited datasets and understanding of hydraulic behaviour. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 135–140, Freiberg (TU Bergakademie Freiberg).
• Liu, P., Tao, Y., Shang, M., Li, H. & Che, Q. (2014): Impact Assessment of Mine Drainage on the Yield of Groundwater from a Well Field Using a Numerical Model, Case Study, Huaibei, China. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 411–416, Xuzhou (International Mine Water Association).
• Liu, Q., Li, W., Hu, Y. & Zhang, W. (2014): Study on the Model Test of Fault Lagging Water-inrush in Deep Mining Floor. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 510–518, Xuzhou (International Mine Water Association).
• Liu, Q., Liu, Z., Liu, Z. & Chen, B. (2022): Water Hazard Control Technology Based on Integral Drilling and Controllable Grouting in Coal Mines. – Mine Water Environ., 41(1):119–125, doi:10.1007/s10230-021-00818-7.
• Liu, Q., Sun, Y., Xu, Z., Jiang, S., Zhang, P. & Yang, B. (2019): Assessment of Abandoned Coal Mines as Urban Reservoirs. – Mine Water Environ., 38(2):215–225, doi:10.1007/s10230-019-00588-3.
• Liu, S., Li, W. & Wang, Q. (2018): Height of the Water-Flowing Fractured Zone of the Jurassic Coal Seam in Northwestern China. – Mine Water Environ., 37(2):312–321, doi:10.1007/s10230-017-0501-1.
• Liu, S., Sang, S. & Zhu, Q. (2014): Control Actions of Hydrodynamic Conditions of Groundwater to Gas Productions of Coal Bed Methane Straight Wells in Fanzhuang Block. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 769–777, Xuzhou (International Mine Water Association).
• Liu, S. & Wang, C. (2019): Shift Of Mine Water Inflow From Fissured Coal Layer Aquifer To Thick Overlying Aquifers: A Western Jurassic Coal Mine, China. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 629–631; Perm, Russia (Perm State University).
• Liu, S. Q., Fei, Y., Xu, Y. C., Huang, L. & Guo, W. Y. (2020): Full-floor Grouting Reinforcement for Working Faces with Large Mining Heights and High Water Pressure: a Case Study in China. – Mine Water Environ., 39(2):268–279, doi:10.1007/s10230-020-00683-w.
• Liu, T., Shi, L., Xu, D., Wang, Y. & Qu, X. (2019): Prediction Of Mining-induced Fracture In North China Coal Field Based On Orthogonal Test. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 34–39; Perm, Russia (Perm State University).
• Liu, T. & Wang, Y. (2014): Relationship Between Height of Water-conducting Crack and Its Influence Factors. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 600–605, Xuzhou (International Mine Water Association).
• Liu, W. & Han, M. (2023): A Practical Method for Floor Water Inrush Prediction Using a Hybrid Artificial Intelligence Model and GIS. – Mine Water Environ., 42(2):220–229, doi:10.1007/s10230-023-00932-8.
• Liu, W. & Li, Y. (2023): Theoretical and Simulation Investigations of Water Inrushes Due to Fault Activation by Mining. – Mine Water Environ., 42(1):146–157, doi:10.1007/s10230-023-00912-y.
• Liu, W., Pang, L. & Du, Y. (2020): Study on Mechanism Analysis and Treatment Measures of Karst Water Disaster in Mines. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 158–162; (International Mine Water Association).
• Liu, W. & Vink, S. (2014): Managing the Risk of Mine Sulphate Discharge to Downstream Ecosystems. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 379–383, Xuzhou (International Mine Water Association).
• Liu, W., Yang, C. & Du, Y. (2023): Numerical Simulation Of Small-Size Aggregate Accumulation Structure Under Dynamic Water Conditions. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 309–314; (International Mine Water Association).
• Liu, W., Zhao, J., Nie, R., Xu, B. & Sun, X. (2019): The Software Development for Establishing Thermal-Hydraulic-Mechanical Coupling Models of Fractured Rocks. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 552–558; Perm, Russia (Perm State University).
• Liu, X. & Li, R. (2014): Research of Cycle and Migration Mechanism of Deeper Karst Geothermal Water in Pingdingshan Mine Area. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 85–89, Xuzhou (International Mine Water Association).
• Liu, X., Tang, B., Gu, Q. & Yu, X. (2014): Elimination of the formation of biofilm in industrial pipes using enzyme cleaning technique. – MethodsX, 1:130–6, 7 Abb., 1 Tab.; doi:10.1016/j.mex.2014.08.008.
• Liu, X., Tao, S., Deng, N., Liu, Y., Meng, B., Xue, B. & Liu, G. (2006): Synchronous-scan fluorescence as a selective detection method for sodium dodecylbenzene-sulfonate and pyrene in environmental samples. – Anal. Chim. Acta., 572(1):134–9, doi:10.1016/j.aca.2006.05.011.
• Liu, Y., Liu, J. W., Yang, B. B. & Yuan, S. C. (2021): Assessing Water and Sand Inrushes Hazard Reductions due to Backfill Mining by Combining GIS and Entropy Methods. – Mine Water Environ., 40(4):956–969, doi:10.1007/s10230-021-00829-4.
• Liu, Y., Ptacek, C. J. & Blowes, D. W. (2014): Treatment of Dissolved Perchlorate, Nitrate, and Sulfate Using Zero-Valent Iron and Organic Carbon. – J. Environ. Qual., 43(3):842–850, doi:10.2134/jeq2013.03.0077.
• Liu, Y., Sun, Y. J. & Xu, Z. M. (2009): Coalmine Water Treatment Technology by Natural Sand Ground System and Goaf. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 594–599, 9 Abb., 4 Tab; Pretoria (Document Transformation Technologies).
• Liu, Y. & Wang, J. (2019): Reduction of nitrate by zero valent iron (ZVI)-based materials: A review. – Sci. Total Environ., 671:388–403, doi:10.1016/j.scitotenv.2019.03.317.
• Liu, Y., Wang, T. & Yang, J. (2019): Evaluating the Quality of Mine Water Using Hierarchical Fuzzy Theory and Fluorescence Regional Integration. – Mine Water Environ., 38(2):243–251, doi:10.1007/s10230-018-0567-4.
• Liu, Y., Yin, S., Zhang, Y. & Li, W. (2014): Coal Mining Influence on the Groundwater System of the Chezhou Mountain Syncline Mine Areas. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 429–432, Xuzhou (International Mine Water Association).
• Liu, Z., Dong, S., Wang, W., Nan, S. & Liu, Q. (2017): Deep mining water control cooperative system based on 3-D directional drilling and controllable grouting techniques. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 328–334, Lappeenranta (Lappeenranta University of Technology).
• Liu, Z., Fan, Z. & Zhang, Y. (2019): Fracture Characteristics of Overlying Bedrock and Clay Aquiclude Subjected to Shallow Coal Seam Mining. – Mine Water Environ., 38(1):136–147, doi:10.1007/s10230-018-0549-6.
• Liu, Z. & Jin, D. (2014): Experimental Research of Rock Strength and Permeability Characteristics under Different Confining and Hydraulic Pressure. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 183–186, Xuzhou (International Mine Water Association).
• Liu, Z., Yuan, D. & Shen, Z. (1991): Effect of Coal Mine Waters of Variable pH on Springwater Quality – A Case Study. – Environ. Geol. Water Sci., 17(3):219–225, doi:10.1007/BF01701702.
• Lizama, H. M. & Suzuki, I. (1989): Rate Equations and Kinetic Parameters of the Reactions Involved in Pyrite Oxidation by Thiobacillus ferrooxidans. – Appl. Environ. Microbiol., 55(11):2918–2923, 10 Abb., 1 Tab.
• Llompart, M., Li, K. & Fingas, M. (1998): Solid-phase microextraction and headspace solid-phase microextraction for the determination of polychlorinated biphenyls in water samples. – Anal. Chem., 70(13):2510–5, doi:10.1021/ac971332y.
• Lloyd, J. B. F. (1971): Synchronized excitation of fluorescence emission spectra. – Nature (London), Phys. Sci., 231(20):64–5, doi:10.1038/physci231064a0.
• Lloyd, J. B. F. & Evett, I. W. (1977): Prediction of peak wavelengths and intensities in synchronously excited fluorescence emission spectra. – Anal. Chem., 49(12):1710–1715, doi:10.1021/ac50020a020.
• Lloyd, J. W. (1978): The implications of gravel extraction on groundwater conditions. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1249–1264; Maracena (Asociación Nacional de lngenieros de Minas).
• Lloyd, J. W. & Edwards, M. G. (1988): Estimation of Groundwater Inflow to an Underground Mining Operation. – Int. J. Mine Water, 7(1):25–47, 11 Abb.
• Lloyd, J. W. & Heathcote, J. A. (1985): The representation of hydrochemical data as a basis for interpretation. Natural inorganic chemistry in relation to groundwater – An introduction. – p. 113–142, 28 Abb.; Oxford (Clarendon).
• Lloyd, J. W., Rushton, K. R. & Jones, P. A. (1983): An Assessment of Groundwater Inflow into Proposed Shaft and Drift in the Warwickshire Coalfield Using Packer Test data in an Electrical Analogue Model. – Int. J. Mine Water, 2(4):1–18, 7 Abb., 7 Tab.
• Lloyd, P. J. D. (1981): The flotation of gold, uranium, and pyrite from Witwatersrand ores. – J. S. Afr. Inst. Min. Metall., 81(2):41–47, 6 Abb., 2 Tab.
• Lloyd, P. J. D. (2007): Comment on Nengovhela AC, Yibas B And Ogola JS (2006) Characterisation of gold tailings dams of the Witwatersrand Basin with reference to their acid mine drainage potential, Johannesburg, South Africa (Water SA 32 (4) 499-506). – Water SA, 33(1):143–144.
• Loacker, H. (1985): Geologische Beschreibung des Walgaustollens (Vorarlberg, Österreich). – Mitt. Österr. Geol. Ges., 78(2):211–230, 10 Abb.
• Loacker, H. (1992): Kraftwerksbauten im Bregenzerwald und ihre Anpassung an die geologischen Verhältnisse. – Jb. Geol. B.-A., 135(4):857–866, 7 Abb., 2 Tab.
• Lobacheva, O., Chirkst, D. & Berlinskiy, I. (2010): Removal of the Sm(III) and Eu(III) from aqueous solutions by ion flotation. – Wiss. Mitt. Inst. Geol., 42:189–193, 2 Abb., 2 Tab.
• Löbel, K.-H. & Niemeyer, I. (2005): Teilautomatisierte Erfassung geometrischer Basisdaten aus dem Bergmännischen Risswerk. – Wiss. Mitt. Inst. Geol., 28:131–139, 9 Abb., 1 Tab.
• Locher, E. (1922): Die Venedigersagen. – 178 p., Inaugural-Dissertation, Universität Freiburg in der Schwez; Tübingen.
• Locher, H. (1997): Mount Lyell Remediation – Sediment transport in the King River, Tasmania: Supervising Scientist Report 120. – 124 p., Barton (Commonwealth of Australia).
• Locher, H. & Keller, R. (1995): Managing impacts of large artificial sediment loads in rivers – a case study. – Proceedings, International Association for Hydraulic Research Congress [Congres de l’Association Internationale de Recherches Hydrauliques], 26(4):356–361, 4 Abb., 1 Tab.
• Lochter, F. (2004): XML-Exportformat der Staatlichen Geologischen Dienste Deutschlands (SGD) für Bohrdaten. – Wiss. Mitt. Inst. Geol., 25:43–45, 2 Anl.
• Lockwood, J. (1851): Guide to St. Helena, Descriptive and Historical with a Visit to Longwood, and Napoleons Tomb. – 106 + 42 p., St. Helena (Geo. Gibb.).
• Lodhia, S. & Hess, N. (2014): Sustainability accounting and reporting in the mining industry: current literature and directions for future research. – J. Clean. Prod., 84:43–50, doi:10.1016/j.jclepro.2014.08.094.
• Logsdon, M. J. (2013): What Does “Perpetual” Management and Treatment Mean? Toward a Framework for Determining an Appropriate Period-of-Performance for Management of Reactive, Sulfide-Bearing Mine Wastes. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 53–58, Golden (International Mine Water Association).
• Logsdon, M. J., Miller, S., Goodhard, W. & Perino, L. (1996): Pre-mining water quality in historically mined areas; iron bogs and ferricretes in the San Juan Mountains, Colorado. – Abstracts with Programs – Geological Society of America, 28(7):518.
• Lohmann, R., Vrana, B., Muir, D., Smedes, F., Sobotka, J., Zeng, E. Y., Bao, L. J., Allan, I. J., Astrahan, P., Barra, R. O., Bidleman, T., Dykyi, E., Estoppey, N., Fillmann, G., Greenwood, N., Helm, P. A., Jantunen, L., Kaserzon, S., Macias, J. V., Maruya, K. A., Molina, F., Newman, B., Prats, R. M., Tsapakis, M., Tysklind, M., van Drooge, B. L., Veal, C. J. & Wong, C. S. (2023): Passive-Sampler-Derived PCB and OCP Concentrations in the Waters of the World – First Results from the AQUA-GAPS/MONET Network. – Environ. Sci. Technol., 57(25):9342–9352, doi:10.1021/acs.est.3c01866.
• Löhmannsröben, H.-G., Kantor, Z., Kumke, M. U., Schmälzlin, E. & Reich, O. (2005): OPQS – Optische Prozess- und Qualitäts-Sensorik. – GIT Labor-Fachzeitschrift, 9:714–717, 3 Abb.
• Lohmeier, S., Lottermoser, B. G., Schirmer, T. & Fuchsloch, W. (2021): Reprocessing potential of pegmatite tailings for rare metal extraction and brick fabrication, Uis, Namibia. – S. Afr. J. Geol., doi:10.25131/sajg.124.0015.
• Lohmeier, S., Schneider, A., Belyatsky, B. & Lehmann, B. (2019): Magmatic evolution of the Cerro Maricunga gold porphyry-epithermal system, Maricunga belt, N-Chile. – J. South Am. Earth Sci., 92:374–399, doi:10.1016/j.jsames.2019.03.003.
• Lohmeier, S. G. (2017): The Cerro Maricunga gold deposit, Maricunga belt, northern Chile – Magmatic evolution and Au mineralization. – 283 p., TU Clausthal; Clausthal.
• Lohr, L. (2024): Teaching hydrogeology in a mined site: a case study on West Run, Morgantown, WV. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 367–372; Morgantown (International Mine Water Association).
• Lojen, S., Ogrinc, N. & Dolenec, T. (1999): Decomposition of sedimentary organic matter and methane formation in the recent sediment of Lake Bled (Slovenia). – Chem. Geol., 159:223–240, 7 Abb., 1 Tab.
• Loken, R. (2024): Acid mine drainage active treatment solutions options and evaluation. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 373–378; Morgantown (International Mine Water Association).
• Lomax, P., Childs, M. & Petrusha, R. (2003): VBScript in a Nutshell, 2nd edn. – (O'Reilly Media).
• Long, C. & Burris, P. (2025): Improved mine water quality predictions using available international hydrochemical datasets. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 921–925; Braga (International Mine Water Association).
• Long, C., De Wit, M. & Coetzee, H. (2018): Hydrochemical Characterisation of Mine Drainage Discharging into the UNESCO Fossil Hominid Site of South Africa. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 838–842; (Tshwane University of Technology).
• Longmire, P. A. & Brookins, D. G. (1982): Geochemical studies of discharge water from a uranium acid-leach process. – 33rd annual field conference New Mexico Geological Society, Albuquerque NM:367–370, 33 illus.,1 table.
• Longshui, X., Chunbao, Z. & Zhenchuan, Z. (1988): Management and Treatment of Wastewater in Hunan’s Nonferrous Mines in China. – Proceedings, 3rd International Mine Water Congress, Melbourne:489–498, 1 Abb., 8 Tab.
• Loofbourow, R. L. (1973): Ground Water and Ground-Water Control. SME Mining Handbook 2. – p. 26–1–26.55, 17 Abb.; Littleton (Society for Mining Metallurgy and Exploration).
• Loofbourow, R. L. (1979): Controlling Mine Water: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 507–527 p., 10 Abb., 1 Tab.; San Francisco (Freeman).
• Loonen, H., Parsons, J. R. & Govers, H. A. J. (1994): Effect of sediment on the bioaccumulation of a complex mixture of polychlorinated dibenzo-p-dioxins (PCDDs) and polychlorinated dibenzofurans (PCDFs) by fish. – Chemosphere, 28(8):1433–1446, doi:10.1016/0045-6535(94)90238-0.
• Loop, C. M. (2004): Lessons learned from full-scale, non-traditional Placement of Fly Ash. – Proceedings, State Regulation of Coal Combustion By-Product Placement at Mine Sites: A Technical Interactive Forum:43–46.
• Loop, C. M., Scheetz, B. E. & White, W. B. (2003): Geochemical Evolution of a Surface Mine Lake with Alkaline Ash Addition: Field Observations vs. Laboratory Predictions. – Mine Water Environ., 22(4):206–213, 5 Abb., 3 Tab.; doi:10.1007/s10230-003-0023-x.
• Loop, C. M., Scheetz, B. E. & White, W. B. (2007): The Big Gorilla Demonstration Project: Coal Ash Beneficial Use in Mine Reclamation and Mine Drainage Remediation in Pennsylvania. – 246–301 p., 45 Abb., 11 Tab.; Harrisburg (The Pennsylvania Department of Environmental Protection).
• Lööw, J., Abrahamsson, L. & Johansson, J. (2019): Mining 4.0—the Impact of New Technology from a Work Place Perspective. – Min. Metall. Explor., 36(4):701–707, doi:10.1007/s42461-019-00104-9.
• Lopaschuk, R. S. (1979): Drainage Control and Mine Dewatering at Faro Open Pit Mine: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 233–257 p., 7 Abb.; San Francisco (Freeman).
• Lopes, C., Perga, M. E., Peretti, A., Roger, M. C., Persat, H. & Babut, M. (2011): Is PCBs concentration variability between and within freshwater fish species explained by their contamination pathways? – Chemosphere, 85(3):502–8, doi:10.1016/j.chemosphere.2011.08.011.
• Lopes, D. V., Sillanpää, M. & Wolkersdorfer, Ch. (2016): Nitrate reduction in real mine water using zero-valent iron (ZVI) and iron waste. Paper presented at the IMWA 2016 – Mining Meets Water – Conflicts and Solutions, Leipzig/Germany. – p. 914–919, 5 Abb., 1 Tab.; (TU Bergakademie Freiberg).
• Lopes, D. V., Sillanpää, M. & Wolkersdorfer, Ch. (2020): Nitrate reduction from the Siilinjärvi/Finland mine water with zero-valent iron and iron waste as an alternative iron source. – Mine Water Environ., 39(2):280–290, 7 Abb., 2 Tab.; doi:10.1007/s10230-020-00668-9.
• López, D. L. & Stoertz, M. W. (2001): Chemical and physical controls on waters discharged from abandoned underground coal mines. – Geochem.-Explor. Environ. Anal., 1(1):51–60, 8 Abb., 4 Tab.; doi:10.1144/geochem.1.1.51.
• Lopez, M. & Nancucheo, I. (2025): Operation of a continuous sulfidogenic system for treating mine water with a high concentration of chloride. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 530–535; Braga (International Mine Water Association).
• López, X. P.-S. (2016): Challenges of pit lakes from a sociological perspective. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 276–283, Freiberg (TU Bergakademie Freiberg).
• Lorax Environmental (2003): Treatment of Sulphate in Mine Effluents. – 129 p., 39 Abb., 33 Tab.; London (INAP – International Network of Acid Prevention).
• Lorca, M. E., Mayer, U. & Beckie, R. (2015): Investigation of Pore Gas Oxygen and Internal Temperature in a Waste Rock Dump, Antamina Mine, Peru. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Lord, G. J., Pardo-Igúzquiza, E. & Smith, I. M. (2000): A Practical Guide to Wavelets for Metrology. – Reports NPL-CMSC, CMSC 02/00:39, 26 Abb.
• Lord, I. R. (2013): The mines of Cwm Rheidol. – Welsh Mines Preservation Trust Newsletter – Special Edition,(32):36–47.
• Loredo, C., Ordóñez, A., Garcia-Ordiales, E., Álvarez, R., Roqueñi, N., Cienfuegos, P., Peña, A. & Burnside, N. M. (2017): Hydrochemical characterization of a mine water geothermal energy resource in NW Spain. – Sci. Total Environ., 576:59–69, doi:10.1016/j.scitotenv.2016.10.084.
• Loredo, C., Roqueñí, N. & Ordóñez, A. (2016): Modelling flow and heat transfer in flooded mines for geothermal energy use: A review. – Int. J. Coal Geol., 164:115–122, doi:10.1016/j.coal.2016.04.013.
• Loredo, J., Álvarez, R., Ordóñez, A. & Pendás, F. (2004): The Spanish Mine Water Policy and linked EU Directives. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 47–52, 2 Tab.; Newcastle upon Tyne (University of Newcastle).
• Loredo, J., Álvarez, R., Ordóñez, A. & Pendás, F. (2004): Water Arsenic Pollution related to historic Mercury Mining in Asturias (Spain). – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 195–200, 2 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Loredo, J., Garcia-Ordiales, E., Esbri, J. M., Lominchar, M. A., Millan, R. & Higueras, P. L. (2014): Fate and Transport of Trace Metals under Different Hydrologic Regimes in the World Largest Hg Mining District. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 126–130, Xuzhou (International Mine Water Association).
• Loredo, J., López, J., Silva, V., Galán, P., Ordóñez, A., Alvarez, R., Fernández-Martinez, R., Larios, R. & Rucandio, M. I. (2008): Environmental Impact of Drainage from Abandoned Mercury Mines in Tributaries of Caudal River (Northern Spain). – Proceedings, 10th International Mine Water Association Congress:159–162.
• Loredo, J., Marques, A., Beggs, C., Venegas, M., Amezaga, J., Rötting, T. & Younger, P. (2010): Guidelines for catchment management and mining impacts in arid and semi-arid regions of South America (CAMINAR Project). – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 541–545, Sydney, NS (Cape Breton University Press).
• Loredo, J., Ordóñez, A. & Alvarez, R. (2013): Holistic View of Water Affection in the Mercury Mining District of Asturias (Spain). – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 399–403, 1 Abb., 2 Tab.; Golden (International Mine Water Association).
• Loredo, J., Ordóñez, A., Álvarez, R. & Bros, T. (2005): Environmental impact of past Hg mine activities in tributaries of Caudal River in Mieres district (Northern Spain): Mine Water 2005 – Mine Closure. – 543–550 p., 3 Abb., 5 Tab.; Oviedo (University of Oviedo).
• Loredo, J., Ordóñez, A., Galán Pilar, M., Fernández-Martínez, R., Alvarez, R., Olay, A., Petit-Domínguez, M. D., Fernández, R. M., Marín, S., González del Mar, M. & Rucandio, M. I. (2005): Surface water monitoring in abandoned mercury mine sites in Asturias (Spain) – Comparative Studies: Mine Water 2005 – Mine Closure. – 595–601 p., 4 Tab.; Oviedo (University of Oviedo).
• Loredo, J., Ordóñez, A., Jardón, S. & Álvarez, R. (2011): Mine water as geothermal resource in Asturian coal mining basins (NW Spain): Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 177–182 p., Aachen (RWTH Aachen University).
• Loredo, J. L., Cienfuegos, P. & Gaya, L. (2011): Hydraulic Potential Use of Mine Water from Mountain Mining Activities: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 599–602 p., Aachen (RWTH Aachen University).
• Lorentz, S., Imrie, S., Bennett, A. & Clulow, A. (2023): Evaporation from Platinum Tailings in a Semi-Arid Environment. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 315–319; (International Mine Water Association).
• Lorentz, S. A. (2017): Tailings Water Hydraulics Analyses for Risk Based Design. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 282–287, Lappeenranta (Lappeenranta University of Technology).
• Lorentz, S. A., Hughes, G. O. & Schulze, R. E. (2003): Techniques for Estimating Groundwater Recharge at Different Scales in Southern Africa. – In: Xu, Y. & Beekman, H. E. (eds): Groundwater Recharge Estimation in Southern Africa 64. – p. 149–155, 1 Tab.; Cape Town (UNESCO Paris).
• Lorenz, H. & Neumeier, G. (1983): Polychlorierte Biphenyle – Ein gemeinsamer Bericht des Bundesgesundheitsamtes und des Umweltbundesamtes: BGA-Schriften 4. – München (MMV-Medizin-Verlag).
• Lorenz, J., Schmitt, R. T. & Völker, A. (2018): Die untertägige Mangan- und Eisenerzgrube „Heinrich“ zwischen Eichenberg und Sailauf im Spessart – später die Grube „Marga“ auf Schwerspat. – Jahresberichte und Mitteilungen des Oberrheinischen Geologischen Vereins, 100:483–508, doi:10.1127/jmogv/100/0014.
• Lorenz, W. C. (1962): Progress in Controlling Acid Mine Water – a Literature Review. – Bur. Mines Inf. Circ., IC-8080:1–40, 11 Abb., 2 Tab.
• Lorenzen, C. J. (1967): Determination of Chlorophyll and Pheo-Pigments – Spectrophotometric Equations. – Limnol. Oceanogr., 12(2):343–346, doi:10.4319/lo.1967.12.2.0343.
• Loreto, G. D. & D’Ottone, L. (2007): The Partial Molar Volumes of FeCl2 and FeCl3 in Ternary Solutions H₂O-HCI-FeCIx from Density Measurements. – J. Phys. Sci., 1(1).
• Lori, J. G. v. (1764): Sammlung des baierischen Bergrechts mit einer Einleitung in die baierische Bergrechtsgeschichte. – 646 p., München (Richter).
• Lorke, A. & MacIntyre, S. (2009): The Benthic Boundary Layer (in Rivers, Lakes, and Reservoirs). – In: Likens, G. E. (ed) Encyclopedia of Inland Waters. – p. 505–514, Oxford (Academic Press); doi:10.1016/B978-012370626-3.00079-X.
• Lorke, A., Tietze, K., Halbwachs, M. & Wüest, A. (2004): Response of Lake Kivu stratification to lava inflow and climate warming. – Limnol. Oceanogr., 49(3):778–783, 5 Abb.; doi:10.4319/lo.2004.49.3.0778.
• Lorke, A. & Wüest, A. (2005): Turbulence and mixing regimes specific to lakes: Marine Turbulance – Theories, Observations and Models. – 8 Abb.; Cambridge (Cambridge University Press).
• Losavio, M., Lauf, A. & Elmaghraby, A. (2019): The Internet of Things and Issues for Mine Water Management. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 678–683; Perm, Russia (Perm State University).
• Losekann, C. (2017): “It Was No Accident!” the Place of Emotions in the Mobilization of People Affected by the Collapse of Samarco’s Tailings Dam in Brazil. – Vibrant: Virtual Brazilian Anthropology, 14(2) doi:10.1590/1809-43412017v14n2p102.
• Lotfiazad, F. & de Bary, A. (2013): Assessing Water Availability for Life of Mine Operation Using Probabilistic Water Balance Model. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 867–872, 8 Abb., 1 Tab.; Golden (International Mine Water Association).
• Lothenbach, B., Ochs, M. & Hager, D. (2009): Thermodynamic data for the solubility of tin(IV) in aqueous cementitious environments. – Radiochim. Acta, 88(9-11) 4 Abb., 3 Tab.; doi:10.1524/ract.2000.88.9-11.521.
• Lotter, M., Gruber, A., Römer, A. & Tilch, N. (2014): Geologische und geoelektrische Untersuchungen im Schwarzwassertal (Bezirk Reutte) zwecks Erkundung des quartären Untergrundes im Umfeld der Gipsführenden Raibler Schichten – erste Ergebnisse. Paper presented at the Geoforum Umhausen, Umhausen. – p. 70–73, 10 Abb.
• Lottermoser, B. (2010): Mine Wastes – Characterization, Treatment and Environmental Impacts, 3rd edn. – 400 p., 70 Abb., 43 Tab.; Heidelberg (Springer); doi:10.1007/978-3-642-12419-8.
• Lottermoser, B. (2015): Predicting Acid Mine Drainage: Past, Present, Future. – Mining Rep., 151(6):480–489, 4 Abb.
• Lotze, F., Semmler, W., Kötter, K. & Mausolf, F. (1962): Hydrogeologie des Westteils der Ibbenbürener Karbonscholle. – Forsch.-Ber. L. Nordrhein-Westfalen, 999:1–113, 45 Abb., 8 Tab.; doi:10.1007/978-3-663-02578-8.
• Louie, W. & Reuschlein, D. (2011): Cleaning and Disinfection in the Bottled Water Industry. – In: Dege, N. (ed) Technology of Bottled Water, 3rd edn. – p. 223–266, Chichester (Wiley-Blackwell); doi:10.1002/9781444393330.ch8.
• Louloudi, M. & Mavrogiorgou, A. (2015): Functionalized Pyrolytic Carbon from Recycled Tyres – A Hybrid Material for Selective Removal of Pb, Cd from Waste Waters. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–8 [electronic document], Santiago/Chile (Gecamin).
• Louloudis, G., Roumpos, C., Mertiri, E., Kasfikis, G., Chatzopoulos, K. & Louloudis, E. (2022): Forecasting Development of Mine Pit Lake Water Surface Levels Based on Time Series Analysis and Neural Networks. – Mine Water Environ., 41(2):458–474, doi:10.1007/s10230-021-00844-5.
• Louloudis, G., Roumpos, C., Mertiri, E., Pavloudakis, F. & Karalidis, K. (2023): Remote Sensing Data and Indices to Support Water Management: A Holistic Post-mining Approach for Lignite Mining in Greece. – Mine Water Environ., 42(4):618–638, doi:10.1007/s10230-023-00960-4.
• Lounate, K., Coudert, L., Genty, T., Mercier, G. & Blais, J. F. (2020): Performance of a Semi-passive Sulfate-reducing Bioreactor for Acid Mine Drainage Treatment and Prediction of Environmental Behavior of Post-treatment Residues. – Mine Water Environ., 39(4):769–784, doi:10.1007/s10230-020-00702-w.
• Loupanec, M. (1978): Mathematical simulation of hydraulic screen to drain mine and construction work. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 805–823; Maracena (Asociación Nacional de lngenieros de Minas).
• Lourenço, C., Ribeiro, L. & Cruz, J. (2010): Classification of natural mineral and spring bottled waters of Portugal using Principal Component Analysis. – J. Geochem. Expl., 107(3):362–372, doi:https://doi.org/10.1016/j.gexplo.2010.08.001.
• Lourenco, M. & Curtis, C. (2021): The influence of a high-density sludge acid mine drainage (AMD) chemical treatment plant on water quality along the Blesbokspruit Wetland, South Africa. – Water SA, 47(1):35–44, doi:10.17159/wsa/2021.v47.i1.9443.
• Lourens, P., Erasmus, M., Hansen, R. & Allwright, A. (2020): Groundwater Nitrate Bioremediation of a Fractured Rock Aquifer System in South Africa. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 140–145; (International Mine Water Association).
• Lourens, P., Pretorius, A. & Vermeulen, D. (2021): Groundwater Source Determination of an Underground Diamond Mine Utilizing Water Chemistry and Stable Isotope Analysis. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 293–299; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Lourens, P., Vermeulen, P. D., Fourie, F. & Haumann, J. (2016): Impact of Coal-Based Fertilizer Effluent Disposed in Dolerite Quarries on the Groundwater Quality. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 676–683, Freiberg (TU Bergakademie Freiberg).
• Lourens, P. J. & Vermeulen, P. D. (2017): Dewatering Impacts of a South African Underground Coal Mine. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 422–429, Lappeenranta (Lappeenranta University of Technology).
• Lourens, P. J. H. & Vermeulen, P. D. (2025): MCA – Water Quality Risk Assessment Tool. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 7–13; Braga (International Mine Water Association).
• Lourens, P. J. H., Vermeulen, P. D. & Allwright, A. (2019): Aquifer Rebound Investigation at a Defunct Coal Colliery in South Africa. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 107–112; Perm, Russia (Perm State University).
• Love, A. J., Simmons, C. T. & Nield, D. A. (2007): Double-diffusive convection in groundwater wells. – Water Resour. Res., 43(8) doi:10.1029/2007WR006001.
• Love, D., Bezuidenhout, N. & Lupankwa, K. (2018): Understanding Acid Rock Drainage in the West African Shield. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 660–665; (Tshwane University of Technology).
• Loveday, P. F., Atkins, A. S. & Aziz, N. I. (1983): The Problem of Australian Underground Coal Mining Operations in Water Catchment Areas. – Int. J. Mine Water, 2(3):1–15, 5 Abb., 1 Tab.
• Loveday, P. F., Atkins, A. S. & Aziz, N. I. (1984): Reticulation of mine Service Water in two Australian Coal Mines. – Int. J. Mine Water, 3(2):13–25, 6 Abb., 5 Tab.
• Lovelock, J. E. (1958): A sensitive detector for gas chromatography. – J. Chromatogr. A, 1:35–46, doi:10.1016/S0021-9673(00)93398-3.
• Lovelock, J. E. (1974): The electron capture detector – Theory and practice. – J. Chromatogr. A, 99:3–12, 8 Abb.; doi:10.1016/S0021-9673(00)90840-9.
• Lövgren, L., Hedlund, T., Malm, L. & Karlsson, T. (2011): Immobilisation of trace metals in sulphidic mine tailings: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 387–392 p., Aachen (RWTH Aachen University).
• Low, N. & Gleeson, B. (1998): Situating Justice in the Environment: The Case of BHP at the Ok Tedi Copper Mine. – Antipode, 30(3):201–226, 1 Abb.; doi:10.1111/1467-8330.00075.
• Lowe, D. R. & Byerly, G. R. (1999): Geologic evolution of the Barberton Greenstone Belt, South Africa: Special paper 329. – 312 p., Penrose Place (Geological Society of America).
• Lower, S. K. (1997): Solids in contact with natural waters. – 1–25 p., 13 Abb., 1 Tab.; (Chem1 Reference Text).
• Lowry, G. V. & Reinhard, M. (1999): Hydrodehalogenation of 1- to 3-Carbon Halogenated Organic Compounds in Water Using a Palladium Catalyst and Hydrogen Gas. – Environ. Sci. Technol., 33(11):1905–1910, doi:10.1021/es980963m.
• Lowson, R. T. (1982): Aqueous oxidation of pyrite by molecular oxygen. – Chem. Rev., 82(5):461–497, doi:10.1021/cr00051a001.
• Loxam, M. (1988): The predictive assessment of the migration of leachate in the subsoils surrounding mine tailings and dredged spill sites: Environmental management of solid waste – Dredged materials and mine tailings. – 3–23 p., 16 Abb.; Berlin (Springer); doi:10.1007/978-3-642-79316-5_8.
• Lozano, A. & Kaiser, C. (1991): Pore Pressure Development within Low Permeability Soils and its Incidence on Slope Configuration at the Puentes Mine – LaCoruna, Spain. – Proceedings, 4th International Mine Water Association Congress, 2:113–124, 8 Abb.
• Lu, C., Luo, S., Li, Y., Li, J., Zhang, W. & Wang, J. (2024): Activated nanosulfur for broad-spectrum heavy metals capture. – Sci. Total Environ., 926:171708, doi:10.1016/j.scitotenv.2024.171708.
• Lu, H.-Y. (2007): A method to estimate hydraulic conductivity from bulk geochemical compositions. – Environ. Geol., 51:1029–1042, 7 Abb., 4 Tab.; doi:10.1007/s00254-006-0372-4.
• Lu, J., Li, Y., Yin, M., Ma, X. & Lin, S. (2015): Removing heavy metal ions with continuous aluminum electrocoagulation: A study on back mixing and utilization rate of electro-generated Al ions. – Chem. Eng. J., 267:86–92, doi:10.1016/j.cej.2015.01.011.
• Lu, J., Ligouis, B. & Pils, J. (1996): Preliminary study of plant remains from a coal seam in the Oligocene Molasse near Miesbach, southern Germany. – N. Jb. Geol. Paläont. Abh., 202(1):117–130, 8 Abb., 1 Tab.; doi:10.1127/njgpa/202/1996/117.
• Lu, J., Wu, L. & Gan, J. (2003): Determination of Polyacrylamide in Soil Waters by Size Exclusion Chromatography. – J. Environ. Qual., 32:1922–1926, 4 Abb., 1 Tab.
• Lu, M. (2004): Pit lakes from sulphide ore mining, geochaemical characterization before treatment, after liming and sewage sludge treatment—cases studies at Rävlidmyran and Udden, Sweden. – 31 p., Luleå Univ. of Technology; Luleå.
• Lu, Q., Li, X., Li, W., Chen, W., Li, L. & Liu, S. (2018): Risk Evaluation of Bed-Separation Water Inrush: A Case Study in the Yangliu Coal Mine, China. – Mine Water Environ., 37(2):288–299, doi:10.1007/s10230-018-0535-z.
• Lu, T., Liu, S. D., Wang, B., Wu, R. X. & Hu, X. W. (2017): A Review of Geophysical Exploration Technology for Mine Water Disaster in China: Applications and Trends. – Mine Water Environ., 36(3):331–340, doi:10.1007/s10230-017-0467-z.
• Lu, Y., Zhang, F. e., Qi, J., Xu, J., Guo, X., Johnson, K. S. & Gunay, G. (2002): Evaporite karst and resultant geohazards in China. – Carbonate Evaporite, 17(2):159–165.
• Luan, F. & Burgos, W. D. (2019): Effects of Solid-Phase Organic Carbon and Hydraulic Residence Time on Manganese(II) Removal in a Passive Coal Mine Drainage Treatment System. – Mine Water Environ., 38(1):130–135, doi:10.1007/s10230-018-0548-7.
• Lubitz, C., Motagh, M. & Kaufmann, H. (2014): Ground Surface Response to Geothermal Drilling and the Following Counteractions in Staufen im Breisgau (Germany) Investigated by TerraSAR-X Time Series Analysis and Geophysical Modeling. – Remote Sens., 6(11):10571–10592, doi:10.3390/rs61110571.
• Lucas, S. (2001): Durchflussmesstechnik im Abwasserbereich. – 1–41 p.
• Lucero-Bernhardt, B. & Turner, C. (2013): Passive Evaporative Cooler for Malaria Testing in Developing Countries: International Mechanical Engineering Congress and Exposition – 2012, Vol 5. – 263–272 p., New York (Amer Soc Mechanical Engineers); doi:10.1115/IMECE2012-87834.
• Luckner, L. (1983): Ground water and geotechnical problems. – Int. J. Mine Water, 2(1):31–41, 10 Abb.
• Luckner, L. (1985): Modeling of migration processes with coupled migrants and their reduction to control models. – Proceedings, 2nd International Mine Water Association Congress, 2:737–748, 4 Abb.
• Luckner, L. & Hummel, J. (1982): Modelling and Prediction of the Quality of Mine Drainage Water used for the Drinking Water Supply in the GDR. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, D:25–36.
• Luckner, L. & Morgenstern, A. (2006): Grundlagen von Schichtungsprozessen in gefluteten Untertagebergwerken. – World Min., 58(5):311–315, 4 Abb.
• Luckner, L. & Totsche, O. (2017): In-Lake Neutralisation of Post-Mining Lakes in the Lusatian and Central German Lignite Mining Region – State of the Art and Technical Development. – 38 p., Senftenberg (LMBV).
• Luckner, L. & Totsche, O. (2017): In-Lake-Neutralisation von Bergbaufolgeseen im Lausitzer und Mitteldeutschen Braunkohlerevier – Aktueller Stand und Bewertung der Technischen Entwicklung. – 40 p., 21 Abb.; Senftenberg (LMBV).
• Luder, B. & Fritschi, B. (1990): Abflussmessung in offenen Gerinnen – Renaissance der Salzverdünnung. – Wasser Energ. Luft, 82(3/4):48–50, 2 Abb., 1 Tab.
• Ludwig, B., Prenzel, J. & Obermann, P. (2001): Modelling ion composition in seepage water from a column experiment with an open cut coal mine sediment. – J. Geochem. Explor., 73(2):87–95, 3 Abb., 3 Tab.
• Ludwig, K.-H. (1986): Die Innovation des bergmännischen Pulversprengens – Schio 1574, Schemnitz 1627 und die historische Forschung. – Der Anschnitt, 38(3-4):117–122.
• Ludwig, K.-H. (1987): Die Berggerichtsbücher des 15. bis 17. Jahrhunderts als Quelle und Datensammlung. – Der Anschnitt, 39(2-3):46–52, 3 Abb.
• Ludwig, K.-H. (1999): Das Eisen in den Schriftquellen des Frühmittelalters. – Ferrum, 71:16–26, 8 Abb.
• Luek, A., Brock, C., Rowan, D. & Rasmussen, J. (2014): A Simplified Anaerobic Bioreactor for the Treatment of Selenium-Laden Discharges from Non-acidic, End-Pit Lakes. – Mine Water Environ., 33(4):295–306, doi:10.1007/s10230-014-0296-2.
• Luhmann, A. J., Covington, M. D., Alexander, S. C., Chai, S. Y., Schwartz, B. F., Groten, J. T. & Alexander Jr, E. C. (2012): Comparing conservative and nonconservative tracers in karst and using them to estimate flow path geometry. – J. Hydrol., 448-449:201–211, 6 Abb., 2 Tab.; doi:10.1016/j.jhydrol.2012.04.044.
• Luider, C. D., Curtis, P. J., Scherer, R. A. & Arkinstall, D. J. (2005): An Inexpensive, Automatic Gravity-fed Water Sampler for Investigating Water Quality in Small Streams. – Streamline Watershed Manage. Bull., 8(2):7–9, 3 Abb., 1 Tab.
• Lujanienė, G., Meleshevych, S., Kanibolotskyy, V., Šapolaitė, J., Strelko, V., Remeikis, V., Oleksienko, O., Ribokaitė, K. & Ščiglo, T. (2009): Application of inorganic sorbents for removal of Cs, Sr, Pu and Am from contaminated solutions. – J. Radioanal. Nucl. Chem., 282(3):787–791, doi:10.1007/s10967-009-0170-z.
• Lukas, E., Vermeulen, D. & Gomez Arias, A. (2022): Recharge Flooding. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 229–235; (International Mine Water Association).
• Lukas, E. & Vermeulen, P. D. (2014): A Water Balance for the Life Time and Beyond of an Opencast Colliery in South Africa. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 731–735, 4 Abb., 2 Tab.; Xuzhou (International Mine Water Association).
• Lukas, E. & Vermeulen, P. D. (2015): A Management Plan towards the Flooding of an Open-Cast Mine with Adjacent Underground Sections. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Lukas, W. (1971): Eine tektonisch-genetische Untersuchung der Lagerstätten des Groß- und Kleinkogls/Brixlegg. – Verh. Geol. B.-A., 1971(1):208–223, 3 Abb.
• Luke, R. (1996): Compressed Air Storage for Electricity Generation in South Africa. – 206 p., University of Cape Town, 66 Abb., 23 Tab.; Cape Town.
• Lükewille, A. & Breemen, N. (1992): Aluminium precipitates from groundwater of an aquifer affected by acid atmospheric deposition in the Senne, Northern Germany. – Water Air Soil Pollut., 63(3-4):411–416, 2 Abb., 1 Tab.; doi:10.1007/BF00475506.
• Lumassegger, M. (1993): Grundwassermodell Mühlsprungquellen Nassereith. Paper presented at the Technische Universität Graz Institut für Bodenmechanik und Grundbau Mitteilungsheft Beiträge des Seminars Theorie und Praxis numerischer Modelle in der Bodenmechanik Sonthofen, 30.9. – 1.10.1993. – p. 150–167, 8 Abb.
• Lumbroso, D., Collell, M. R., Petkovsek, G., Davison, M., Liu, Y., Goff, C. & Wetton, M. (2021): DAMSAT: An Eye in the Sky for Monitoring Tailings Dams. – Mine Water Environ., 40(1):113–127, doi:10.1007/s10230-020-00727-1.
• Lumsden, J. S. (1907): The liquid volume of a dissolved substance. – Journal of the Chemical Society, Transactions, 91:24–35, doi:10.1039/CT9079100024.
• Luna Bernal, R. & Delgado Venero, O. (1985): Origin and treatment of underground waters from Cerro de Pasco mine, Peru: Mine water 1. – 27–40 p., 7 Abb.; Granada.
• Lund, J., Sanner, B., Rybach, L., Curtis, R. & Hellström, G. (2004): Geothermal (Ground-Source) Heat Pumps a World Overview. – Geo-Heat Center quarterly bulletin, 25(3):1–10, 10 Abb., 2 Tab., 4 Fot.
• Lund, M. & Bernasconi, R. (2024): Challenges of defining what ‘success’ looks like for closure of pit lakes as aquatic ecosystems. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 379–381; Morgantown (International Mine Water Association).
• Lund, M. & Blanchette, M. (2021): Saline Pit Lakes – What Biodiversity Values Can They Offer At Closure And Beyond? Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 300–306; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Lund, M., Blanchette, M. & Bernasconi, R. (2023): Water Column Profiles And Instrument Chains Provide Complementary Understanding Of Stratification In Pit Lakes. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 320–325; (International Mine Water Association).
• Lund, M., Blanchette, M. & Gonzalez Pinto, J. (2017): Are Microcosms Tiny Pit Lakes? – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1204–1211, Lappeenranta (Lappeenranta University of Technology).
• Lund, M. & McCullough, C. (2015): Addition of Bulk Organic Matter to Acidic Pit Lakes May Facilitate Closure. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Lund, M., van Etten, E., Polifka, J., Vasquez, M. Q., Ramessur, R., Yangzom, D. & Blanchette, M. L. (2020): The Importance of Catchments to Mine-pit Lakes: Implications for Closure. – Mine Water Environ., 39(3):572–588, doi:10.1007/s10230-020-00704-8.
• Lund, M. A. & Blanchette, M. L. (2014): Are We Approaching Pit Lake Closure from the Wrong Perspective? – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 720–724, Xuzhou (International Mine Water Association).
• Lund, M. A., Blanchette, M. L. & Harkin, C. (2018): Seasonal River Flow-through As A Pit Lake Closure Strategy: Is It A Sustainable Option In A Drying Climate? Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 34–40; (Tshwane University of Technology).
• Lund, M. A. & McCullough, C. D. (2008): Limnology and Ecology of Low Sulphate, Poorly-buffered, Acidic Coal Pit Lakes in Collie, Western Australia. – Proceedings, 10th International Mine Water Association Congress:591–594.
• Lund, M. A. & McCullough, C. D. (2009): Biological Remediation of Low Sulphate Acidic Pit Lake Waters with Limestone pH Neutralisation and Nutrients. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 519–525, 1 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Lund, M. A. & McCullough, C. D. (2011): How representative are pit lakes of regional natural water bodies? A case study from silica sand mining: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 529–534 p., Aachen (RWTH Aachen University).
• Lund, M. A., McCullough, C. D. & Kumar, R. N. (2012): The Collie Pit Lake District, Western Australia: An Overvie: International Mine Water Association Symposium. – 287–294 p., Bunbury (Edith Cowan University).
• Lund, M. A., Polifka, J., Quintero Vasquez, M., Ramesseur, R., Bignell, R. & Yangzom, D. (2019): Sedimentation Rates In Two Pit Lakes: Implications For Riverine Flow-Through As A Closure Strategy. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 477–483; Perm, Russia (Perm State University).
• Lund, M. A., Van Etten, E. J. B. & McCullough, C. D. (2013): Importance of catchment vegetation and design to long-term rehabilitation of acidic pit lakes. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1029–1034, 3 Abb.; Golden (International Mine Water Association).
• Lundgren, D. G. & Jabita, F. R. (1969): Biochemical Ecology of Metal Sulfide Oxidizing Bacteria. – Am. Chem. Soc., Div. Fuel Chem., Prepr., 13(2):60–67, 1 Abb., 11 Tab.
• Lundgren, D. G. & Silver, M. (1980): Ore leaching by bacteria. – Ann. Rev. Microbiol., 34:263–283, 1 Abb.; doi:10.1146/annurev.mi.34.100180.001403.
• Lundquist, L. & Baldwin, S. A. (2022): Novel Two-stage Biochemical Process for Hybrid Passive/Active Treatment of Mine-influenced Water. – Mine Water Environ., 41(1):143–155, doi:10.1007/s10230-021-00843-6.
• Lung, S.-C., Yanagisawa, Y., Ford, T. E. & Spengler, J. D. (2000): Characteristics of sorption losses of polychlorinated biphenyl congeners onto glass surfaces. – Chemosphere, 41(12):1857–1864, doi:10.1016/S0045-6535(00)00082-5.
• Lung, T. N. (1986): The history of copper cementation on iron – The world’s first hydro metallurgical process from medieval China. – Hydrometallurgy, 17:113–129, 5 Abb., 2 Tab.
• Luo, J., Beek, M. a. d., Plümacher, J., Seifert, S. & Monninkhoff, B. (2016): Saltwater injection into a fractured aquifer: A density-coupled mass-transport model. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1183–1188, Freiberg (TU Bergakademie Freiberg).
• Luo, J., Diersch, H.-J. & Monninkhoff, B. (2011): 3D Modeling of Saline Groundwater Flow and Transport in a Flooded Salt Mine, Staßfurt/Germany: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 225–230 p., Aachen (RWTH Aachen University).
• Luo, J., Diersch, H.-J. G. & Monninkhoff, L. M. M. (2012): 3D Modeling of Saline Groundwater Flow and Transport in a Flooded Salt Mine in Stassfurt, Germany. – Mine Water Environ., 31(2):104–111, 7 Abb., 1 Tab.; doi:10.1007/s10230-012-0181-9.
• Luo, J., Wang, F., Tomsu, C., Druzynski, A. & Monninkhoff, B. (2014): Mine Water Management Close to Groundwater Systems of Varying Salinity, Pilbara, Western Australia. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 366, Xuzhou (International Mine Water Association).
• Luo, Q., Liu, Z. H., Yin, H., Dang, Z., Wu, P. X., Zhu, N. W., Lin, Z. & Liu, Y. (2018): Migration and potential risk of trace phthalates in bottled water: A global situation. – Water Res., 147:362–372, doi:10.1016/j.watres.2018.10.002.
• Luo, Q., Tsukamoto, T. K., Zamzow, K. L. & Miller, G. (2008): Arsenic, Selenium, and Sulfate Removal using an Ethanol-Enhanced Sulfate-Reducing Bioreactor. – Mine Water Environ., 27(2):100–108, 5 Abb., 3 Tab.; doi:10.1007/s10230-008-0032-x.
• Luo, W., D’Angelo, E. M. & Coyne, M. S. (2007): Plant secondary metabolites, biphenyl, and hydroxypropyl-β-cyclodextrin effects on aerobic polychlorinated biphenyl removal and microbial community structure in soils. – Soil Biol. Biochem., 39(3):735–743, doi:10.1016/j.soilbio.2006.09.019.
• Lupo, J. F. (2013): Considerations for Mine Water Management in Operations. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 873–873, Golden (International Mine Water Association).
• Luptakova, A., Bálintová, M., Jencarova, J., Macingova, E. & Prascakova, M. (2010): Metals Recovery from Acid Mine Drainage. – Nova Biotechnologica, 10(1):23–32, 4 Abb., 3 Tab.
• Luptakova, A., Macingova, E., Slesarova, A., Ubaldini, S. & Abbruzzese, C. (2007): Solubilization and Immobilization of toxic Metals by Bacteria (Slovak Republic and Italy): Water in Mining Environments. – 437–439 p., 2 Abb.; Cagliari (Mako Edizioni).
• Luptakova, A., Ubaldini, S., Macingova, E., Fornari, P. & Giuliano, V. (2012): Application of physical-chemical and biological-chemical methods for heavy metals removal from acid mine drainage. – Process Biochem., 47(11):1633–1639, doi:10.1016/j.procbio.2012.02.025.
• Luscz, E. (2015): Waste Rock Modelling to Improve ARD Prediction and Project Economics – A Case Study. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1– 8[electronic document], Santiago/Chile (Gecamin).
• Luscz, E. C. & Le, V.-L. (2013): Managing High Altitude Bog Deposits: An Investigation of the Hydrogeologic and Geotechnical Challenges associated with Andean Bofedal Sediments. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 163–168, 5 Abb.; Golden (International Mine Water Association).
• Lusczynski, N. J. (1961): Head and Flow of Ground Water of variable Density. – J. Geophys. Res., 66(12):4247–4256, 2 Abb.; doi:10.1029/JZ066i012p04247.
• Lushnikova, O. J. (1982): Hydrodynamic Investigations in Boreholes while grouting Water-Bearing Formations. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:192–194.
• Lushnikova, O. J. (1984): Estimation of Geometrical Parameters and the Quality of imperveous Grout during Grouting operations. – Int. J. Mine Water, 3(2):27–32, 5 Abb.
• Lushnikova, O. J. (1985): Technique of flowmetering Investigations at Intervals in Grout Holes. – Proceedings, 2nd International Mine Water Association Congress, 1:395–401.
• Lusilao-Makiese, J., Cukrowska, E., Tutu, H., Chimuka, L. & Weiersbye, I. (2015): Prediction of Acid Neutralizing Potential of Wetlands Affected by Gold Mining in a Semi-Arid Area. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Lusk, K. & Babka, O. (2010): Mine waters of the flooded Příbram uranium deposit. – Geosci. Eng., 56(3):10–18, 1 Abb., 1 Tab.
• Lusunzi, R., Gumbo, J., Yibas, B. & Novhe, N. (2017): Geochemical and Minerological Characterization of Gold mine tailings for the Potential of Acid Mine Drainage in the Sabie-Pilgrim’s Rest goldfields. Paper presented at the IMWA 2017 – Mine Water & Circular Economy, Lappeenranta. – p. 1381–1388; (Lappeenranta University of Technology).
• Lusunzi, R., Gumbo, J. R., Yibas, B. & Obed, N. (2018): Acid Base Accounting (ABA) Of Mine Tailings For The Potential Of Acid Mine Drainage In The Sabie-Pilgrim’s Rest Goldfields, South Africa. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 392–398; (Tshwane University of Technology).
• Lusunzi, R., Novhe, N. O. & Mashalane, T. B. (2019): Geochemical and Mineralogical Characterization of Precipitates from Sabie-Pilgrim’s Rest Goldfields for the Potential of Acid Mine Drainage. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 425–430; Perm, Russia (Perm State University).
• Lusunzi, R., Waanders, F., Fosso-Kankeu, E. & Netshitungulwana, K. T. R. (2024): Mitigation Measures for the Acid Mine Drainage Emanating from the Sabie Goldfield: Case Study of the Nestor Mine. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 382–387; Morgantown (International Mine Water Association).
• Lusunzi, R., Waanders, F. & Netshitungulwana, R. K. T. (2021): Seasonal Geochemical Variation of Sediments in the Sabie River, Mpumalanga, South Africa. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 307–314; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Lusunzi, R. & Wandeers, F. (2022): Speciation of Metals in Sediments of the Sabie River System by Sequential Extraction. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 237–242; (International Mine Water Association).
• Lusznat, M. (1970): Geologische Karte von Nordrhein-Westfalen 1:25000 – Erläuterungen zu Blatt 5014 Hilchenbach, 2. edn. – 265 p., 19 Abb., 10 Tab., 6 Taf.; Krefeld (Geologisches Landesamt Nordrhein-Westfalen).
• Lusznat, M. (1985): Grube Stahlberg bei Müsen. – Geol. Jb., D 77:149–154, 2 Abb.
• Lutandula, M. S. & Maloba, B. (2013): Recovery of cobalt and copper through reprocessing of tailings from flotation of oxidised ores. – J. Environm. Chem. Eng., 1(4):1085–1090, 6 Abb., 4 Tab.; doi:10.1016/j.jece.2013.08.025.
• Lutz, J. & Pernicka, E. (2013): Prehistoric copper from the Eastern Alps. – Open Journal of Archaeometry, 1(e25):122–127, 6 Abb.; doi:10.4081/arc.2013.e25.
• Lutze, W., Gong, W. & Nuttall, H. E. (2002): Microbially mediated reduction and immobilization of uranium in groundwater. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 441–450, 5 Abb.; Heidelberg (Springer).
• Luukkonen, T., Runtti, H., Niskanen, M., Tolonen, E.-T., Sarkkinen, M., Kemppainen, K., Rämö, J. & Lassi, U. (2016): Simultaneous removal of Ni(II), As(III), and Sb(III) from spiked mine effluent with metakaolin and blast-furnace-slag geopolymers. – J. Environ. Manage., 166(Supplement C):579–588, doi:10.1016/j.jenvman.2015.11.007.
• Luvisi, A., Panattoni, A., Rinaldelli, E., Pagano, M., Mannini, F., Gribaudo, I. & Bandinelli, R. (2014): Application of tracking implants in grape hybrids: Adjustments to production practices and new health-compliant methodologies. – Comput. Electron. Agr., 108:130–134, 3 Abb., 2 Tab.; doi:10.1016/j.compag.2014.07.013.
• Lux, J.-P., Weber, M. & Witt, H.-P. (2008): Der Montanstandort Mechernicher Bleiberg – Maßnahmen für den Betrieb und die Nachsorge einer Deponie. – bergbau,(5):208–213, 12 Abb.
• Luyben, W. L. (2007): Chemical Reactor Design and Control. – 419 p., Hoboken (Wiley-Interscience).
• Lwanyaga, J. D., Kasedde, H. & Kirabira, J. B. (2019): Mineral Precipitation Sequence During Evaporation of Lake Katwe Brine. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 515–521; Perm, Russia (Perm State University).
• Lwanyaga, J. D., Kasedde, H., Kirabira, J. B., Shemi, A. & Ndlovu, S. (2020): Beneficiation of Salts Crystallized from Lake Katwe Brine. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 43–49; (International Mine Water Association).
• Lyche, J. L., Oskam, I. C., Skaare, J. U., Reksen, O., Sweeney, T., Dahl, E., Farstad, W. & Ropstad, E. (2004): Effects of gestational and lactational exposure to low doses of PCBs 126 and 153 on anterior pituitary and gonadal hormones and on puberty in female goats. – Reproductive Toxicology, 19(1):87–95, doi:10.1016/j.reprotox.2004.05.005.
• Lydersen, E. & Löfgren, S. (2002): Potential Effects of Metals in Reacidified Limed Water Bodies in Norway and Swede. – Environ. Monit. Assess., 73:155–178, 11 Abb., 6 Tab.; doi:10.1023/A:1013002904977.
• Lydersen, E., Löfgren, S. & Arnesen, R. T. (2002): Metals in Scandinavian Surface Waters: Effects of Acidification, Liming, and Potential Reacidification. – Crit. Rev. Environ. Sci. Technol., 32(2-3):73–295, 59 Abb., 52 Tab.; doi:10.1080/10643380290813453.
• Lyew, D. & Sheppard, J. (2001): Use of conductivity to monitor the treatment of acid mine drainage by sulphate-reducing bacteria. – Water Res., 35(8):2081–2086, 7 Abb., 1 Tab.
• Lyle, R., Forster, K., Gray, J. L., Syed, T., Salazar, M., Smith, R., Chadwick, D. & Coker, G. (1988): Survey of Methods to Determine Total Dissolved Solids Concentrations. – (Report Nr. Keda Project No. 30-956). – 47 p., 7 Abb., 2 Tab., 4 Anl.; (U.S. Environmental Protection Agency – Underground Injection Control Program).
• Lyle, S. L., Barnes, A. & Stewart, M. D. (2013): Hydrological Impact Assessment within a Natura 2000 Protection Area in Northern Scandinavia. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 405–410, 6 Abb.; Golden (International Mine Water Association).
• Lynch, S. D. (2004): The Development of a Raster Database of Annual, Monthly and Daily Rainfall for Southern Africa, 1156/1/04. – (Report Nr. 1-77005-250-X). – 78 p., Pretoria (Water Research Commission).
• Lynch, S. F. L., Cox, M., Warnes, L. & Satterley, C. J. (2023): Experience and outcomes of a mine water pumping test including temporary High Density Sludge treatment at Thorpe Hesley, Yorkshire, UK. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 326–332; (International Mine Water Association).
• Lyon, J. S., Hilliard, T. J. & Bethell, T. N. (1993): Burden of gilt – The legacy of environmental damage from abandoned mines, and what America should do about it. – 68 p., 13 Abb., 2 Tab.; Washington (Mineral Policy Center).
• Lyu, X., Zhang, T., Yuan, L., Yang, K., Fang, J., Li, S. & Liu, S. (2022): Pumped Storage Hydropower in Abandoned Mine Shafts: Key Concerns and Research Directions. – Sustainability-Basel, 14(23):16012.
• Lyubimova, T., Lepikhin, A. & Parshakova, Y. (2019): The Models for the Description of Highly Mineralized Brines Behavior in Surface Water Bodies. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 684–689; Perm, Russia (Perm State University).
• Lyytimäki, J., Benighaus, L., Gómez, J., Benighaus, C., Kauppi, S., Kotilainen, J. M., Mononen, T. & Rio, V. d. (2021): Mining in the Newspapers – Local and Regional Media Representations of Mineral Exploration and Mining in Finland, Germany, and Spain. – Min. Metall Explor., 38:1831–1843, doi:10.1007/s42461-021-00453-4.
• Lyytimaki, J. & Peltonen, L. (2016): Mining through controversies: Public perceptions and the legitimacy of a planned gold mine near a tourist destination. – Land Use Pol., 54:479–486, doi:10.1016/j.landusepol.2016.03.004.
• M. G. I. Limited (2005): Assessment of Mine Water Chemistry 1B Hydraulic System Glace Bay and Dominion Nova Scotia. – (Report Nr. 50092B). – 18 p., 9 Abb., 9 Tab., 2 Kart., 2 Anh.; Sydney (MGI Limited).
• M. G. I. Limited, A. D. I. Limited, Jacques Whitford Associates Limited & Forgeron, S. (2003): Water Balance Assessment Cape Breton Development Corporation No. 18 Hydraulic System Glace Bay, Reserve And Dominion Cape Breton, Nova Scotia. – Unpubl. Report for Cape Breton Development, C. 47 p., 2 Anl.; Sydney (MGI Limited; ADI Limited; Jacques Whitford and Associates Limited; Forgeron Steve).
• Ma, C., Gong, Y., Chen, M., Liu, R., Bai, J., Zheng, Z. & Zhou, M. (2023): Treatment of Water Inrush in Mine Engineering Using a Superabsorbent Polymer: A Case Study of a Limestone Mine, Pingnan, China. – Mine Water Environ., 42(3):460–471, doi:10.1007/s10230-023-00941-7.
• Ma, C., Li, S., Liu, R., Pei, Y., Zhang, C., Liu, Y., Chen, M., Xu, F. & Feng, X. (2022): Evaluation of a Superabsorbent Polymer for Plugging Karst Pipe Type Water Inrushes. – Mine Water Environ., 41(1):252–264, doi:10.1007/s10230-021-00802-1.
• Ma, C.-a., Cai, Q.-x., Wang, H., Shao, M. a., Fan, J., Shi, Z. & Wang, F. (2015): Modeling of Water Flow in Reclaimed Mine Spoil with Embedded Lignitic Fragments Using Hydrus-1D. – Mine Water Environ., 34(2):197–203, doi:10.1007/s10230-014-0299-z.
• Ma, D., Duan, H. Y., Liu, W. T., Ma, X. T. & Tao, M. (2020): Water-Sediment Two-Phase Flow Inrush Hazard in Rock Fractures of Overburden Strata During Coal Mining. – Mine Water Environ., 39(2):308–319, doi:10.1007/s10230-020-00687-6.
• Ma, J., Meng, F., Zhou, Y., Wang, Y. & Shi, P. (2018): Distributed Water Pollution Source Localization with Mobile UV-Visible Spectrometer Probes in Wireless Sensor Networks. – Sensors, 18(2) doi:10.3390/s18020606.
• Ma, L. J., Zhao, B. F., Wang, H. & Gao, Y. (2020): Analysis of Spatial Differences in Permeability Based on Sedimentary and Structural Features of the Sandstone Aquifer Overlying Coal Seams in Western China. – Mine Water Environ., 39(2):229–241, doi:10.1007/s10230-020-00682-x.
• Ma, L. Q., Guo, J. S., Liu, W. P., Zhang, D. S. & Yu, Y. H. (2019): Water Conservation when Mining Multiple, Thick, Closely-Spaced Coal Seams: A Case Study of Mining Under Weishan Lake. – Mine Water Environ., 38(3):643–657, doi:10.1007/s10230-019-00610-8.
• Ma, X. Y., Su, M. X., Xue, Y. G., Wang, P., Qiu, D. H., Han, M., Ju, Z. Y. & Liao, Z. L. (2023): Comprehensive Geophysical Evaluation of Grouting in the Goaf of an Urban Underground Coal Mine. – Mine Water Environ., 42(3):513–526, doi:10.1007/s10230-023-00951-5.
• Ma, Y., Busse, J., Bringemeier, D., Scheuermann, A., Li, L. & Kong, X.-Z. (2014): Detection of Preferential Flow Paths at Coal Mine Sites Using Integration of Soil Fas Mapping and Vertical Flow Meter Borehole Logging. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 107, Xuzhou (International Mine Water Association).
• Maas, R., McCulloch, M. T., Campbell, I. H. & Coad, P. R. (1986): Sm-Nd and Rb-Sr dating of an Archean massive sulfide deposit; Kidd Creek, Ontario. – Geology, 14(7):585–588, Refs: 25; illus. incl. 1 table, geol. sketch map; doi:10/b4hxfk.
• Mabuka, T., Govender-Opitz, E. & Harrison, S. T. L. (2018): Recovery of Value from an Electronic Waste Stream using a Biological Matrix. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1087–1092; (Tshwane University of Technology).
• Mabuza, M., Annandale, J., Steyn, M. & Tanner, P. (2023): Leaf Scorching due to Foliar Application of Synthetic Acid Mine Drainage and the Effectiveness of an Antitranspirant in Protecting Leaves. – Mine Water Environ., 42(1):98–110, doi:10.1007/s10230-023-00920-y.
• Macadam, J. & Shail, R. (1999): Abandoned Pits and Quarries: a Resource for Research, Education, Leisure and Tourism: The conservation value of abandoned pits and quarries in Cornwall. – 71–80 p., 8 Abb.; Truro (The Historic Environment Service).
• Macalady, D. L., Ranville, J. F., Smith, K. S. & Daniel, S. R. (1991): Adsorption of copper, cadmium, and zinc on suspended sediments in a stream contaminated by acid mine drainage: the effect of seasonal changes in dissolved organic carbon. – (Report Nr. Grant No. 14-08-0001-G1551-01). – 159 p., Fort Collins (Colorado Water Resources Research Institute).
• Macaskie, L. E., Mikheenko, I. P., Yong, P., Deplanche, K., Murray, A. J., Paterson-Beedle, M., Coker, V. S., Pearce, C. I., Cutting, R., Pattrick, R. A. D., Vaughan, D., van der Laan, G. & Lloyd, J. R. (2010): Today’s wastes, tomorrow’s materials for environmental protection. – Hydrometallurgy, 104(3):483–487, doi:10.1016/j.hydromet.2010.01.018.
• Macdonald, F. K. F., Lund, M., Blanchette, M. & McCullough, C. (2014): Regulation of Artisanal Small Scale Gold Mining (ASGM) in Ghana and Indonesia as Currently Implemented Fails to Adequately Protect Aquatic Ecosystems. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 401–405, Xuzhou (International Mine Water Association).
• Macdonald, K., Lund, M. & Blanchette, M. (2015): Impacts of Artisanal Small-Scale Gold Mining on Water Quality of a Tropical River (Surow River, Ghana). – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• MacDonald, M. (2013): Access 2013 – The Missing Manual. – 852 p., Sebastopol (O’Reilly).
• Machate, T., Behrens, H., Klotz, D., Noll, H., Schramm, K. W. & Kettrup, A. (1998): Evaluation of the Hydraulic Characteristics and flow Pattern in a Constructed Wetland by Means of Tracer Studies – Part 1. – Fresenius Environ. Bull., 7(11-12):635–641, 3 Abb., 2 Tab.
• Machate, T., Behrens, H., Klotz, D., Noll, H., Schramm, K. W. & Kettrup, A. (1998): Evaluation of the Hydraulic Characteristics and flow Pattern in a Constructed Wetland by Means of Tracer Studies – Part 2. – Fresenius Environ. Bull., 7(11-12):642–647, 5 Abb.
• Machate, T., Noll, H., Behrens, H. & Kettrup, A. (1997): Degradation of Phenanthrene and Hydraulic Characteristics in a Constructed Wetland. – Water Res., 31(3):554–560.
• Machemer, S. D., Reynolds, J. S., Laudon, L. S. & Wildeman, T. R. (1993): Balance of S in a constructed wetland built to treat acid mine drainage, Idaho Springs, Colorado, U.S.A. – Appl. Geochem., 8:587–603, doi:10.1016/0883-2927(93)90015-9.
• Macias, F., Caraballo, M. A., Rotting, T. S., Perez-Lopez, R., Nieto, J. M. & Ayora, C. (2012): From highly polluted Zn-rich acid mine drainage to non-metallic waters: implementation of a multi-step alkaline passive treatment system to remediate metal pollution. – Sci. Total Environ., 433:323–30, doi:10.1016/j.scitotenv.2012.06.084.
• Mačingová, E., Kupka, D., Briančin, J., Luptáková, A. & Ubaldini, S. (2022): Alternatívne možnosti odstraňovania/získavania vybraných kovov z banských vôd vytekajúcich zo zatopených banských priestorov ložiska sideritových rúd Nižná Slaná [Alternative Options of Selected Metals Removal/Recovery from Mine Waters Flowing Out from the Flooded Mining Workings of Siderite Ores Deposit Nižná Slaná]. Paper presented at the Situácia v ekologicky zaťažených regiónoch Slovenka a strednej Európy. XXXI.vedecké sympózium s medzinárodnou účasťou, Hrádok, 24–25. November 2022. – p. 13–17, 6 Abb.
• Macingova, E. & Luptakova, A. (2012): Recovery of Metals from Acid Mine Drainage. – Chem. Eng. Trans., 28:109–114, 3 Abb., 5 Tab.; doi:10.3303/CET1228019.
• Mačingová, E., Luptakova, A., Kupka, D. & Briančin, J. (2024): Alternative Approach to Selected Metals Removal/Recovery from Mine Waters Flowing from the Flooded Siderite Mine Nižná Slaná. – Inż. Miner. – J. Pol. Mineral. Eng. Soc.,(1) doi:10.29227/im-2024-01-60.
• Mack, B., McDonald, L. M. & Skousen, J. G. (2010): Acidity decay of above-drainage underground mines in West Virginia. – J. Environ. Qual., 39(3):1043–1050, doi:10.2134/jeq2009.0229.
• Mack, B. & Skousen, J. G. (2018): Acidity Decay Curves of 40 above Drainage Mines in West Virginia. – J. Am. Soc. Min. Reclam., 2008(1):612–627, doi:10.21000/jasmr08010612.
• Mack, B., Skousen, J. G. & McDonald, L. M. (2015): Effect of Flow Rate on Acidity Concentration from Above-Drainage Underground Mines. – Mine Water Environ., 34(1):50–58, doi:10.1007/s10230-014-0278-4.
• Mack, C., Burgess, J. E. & Duncan, J. R. (2004): Membrane bioreactors for metal recovery from wastewater: A review. – Water SA, 30(4):521–532, 8 Abb., 4 Tab.
• Mack, C. L., Raja, S., Pulles, W., Muhlbauer, R. & Heath, R. (2009): Application of the Linear Flow Channel Reactor (LFCR) for the Removal of Sulphide from Semi-Treated Acid Mine Drainage (AMD). – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 526–530, 3 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• MacKay, A. A., Gan, P., Yu, R. & Smets, B. F. (2013): Seasonal Arsenic Accumulation in Stream Sediments at a Groundwater Discharge Zone. – Environ. Sci. Technol., 48(2):920–929, doi:10.1021/es402552u.
• Mackay, D. & Powers, B. (1987): Sorption of hydrophobic chemicals from water: A hypothesis for the mechanism of the particle concentration effect. – Chemosphere, 16(4):745–757, doi:10.1016/0045-6535(87)90009-9.
• Mackay, J. G. & Wiechers, H. N. S. (1988): Simulation of Water Quality in Underground Gold Mine Service Water Circuits. – Proceedings, 3rd International Mine Water Congress, Melbourne:335–344, 7 Abb., 6 Tab.
• Mackenzie, A. S., Beaumont, C., Boutilier, R., Rullkotter, J., Murrell, S. A. F., Mason, R., Eglinton, G. & McKenzie, D. P. (1985): The Aromatization and Isomerization of Hydrocarbons and the Thermal and Subsidence History of the Nova Scotia Margin. – Phil Trans Roy Soc Lond Math Phys Sci, 315(1531):203–232, 15 Abb., 3 Tab.
• Mackenzie, K., Dannatt, H., Barker, A., Wendt, C. & Wallis, C. (2015): A Kinetic Approach to Assessing the Risk of Groundwater Acidification from Sulfidic Soils. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Mackenzie, K., Frenzel, H. & Kopinke, F.-D. (2006): Hydrodehalogenation of halogenated hydrocarbons in water with Pd catalysts: Reaction rates and surface competition. – Appl. Catal. B, 63(3):161–167, doi:10.1016/j.apcatb.2005.10.004.
• Mackey, A., Sullivan, N., Kruse Daniels, N. A. & Bowman, J. (2024): Beyond reclamation and remediation, next steps in a recovered watershed. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 388–392; Morgantown (International Mine Water Association).
• Mackie, A. L., Farmer, H. & Walsh, M. E. (2010): Mine Water Treatment with Cement Kiln Dust (CKD). – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 139–143, Sydney, NS (Cape Breton University Press).
• Mackie, D. & Royle, M. (2004): Assessing Groundwater Conditions in Preparation for Post Closure Reflood of the giant Mine, Canada using a 3-D Numerical Model: idealized vs reality. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 175–180, 2 Abb.; Newcastle upon Tyne (University of Newcastle).
• Macklin, M. G., Brewer, P. A., Balteanu, D., Coulthard, T. J., Driga, B., Howard, A. J. & Zaharia, S. (2003): The long term fate and Environmental Significance of Contaminant Metals Released by the January and March 2000 Mining Tailings dam Failures in Maramures County, Upper Tisa Basin, Romania. – Appl. Geochem., 18(2):241–257, doi:10.1016/S0883-2927(02)00123-3.
• Macklin, M. G., Hudson-Edwards, K. A., Jamieson, H. E., Brewer, P., Coulthard, T. J., Howard, A. J. & Remenda, V. H. (1999): Physical Stability and Rehabilitation of sustainable aquatic and riparian Ecosystems in the Rio Guadiamar, Spain, Following the Aznalcóllar Mine Tailings Dam Failure. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 271–278, 2 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Macko, S. A., Engel, M. H., Bada, J. L. & Halstead, B. (1991): Assessment of indigeneity in fossil organic matter: amino acids and stable isotopes. – Philosophical Transactions: Biological Sciences, 333(1268):367–374, 5 Abb., 4 Tab.
• MacLeod, G. (2010): ECBC Drilling Program – Investigate Mine Water at No. 2 and No. 9 Collieries, Glace Bay, Cape Breton County, Nova Scoti. – Unpubl. Report for Cape Breton Development, C. (Report Nr. 059546). – 2 p., 2 Abb., 2 Tab., 2 Anl., 1 Kart.; Sydney (Conestoga-Rovers & Associates).
• MacLeod, G. (2010): Innovative Uses of LIDAR Technology to assist in the Remediation of former Coal Mine Sites. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 433–437, Sydney, NS (Cape Breton University Press).
• MacLeod, R., Bursey, G. G., Aston, T. R. C. & Gale, J. E. (1993): Preliminary modelling of groundwater inflows at Gays River mine, Nova Scotia, Canada. – Trans. Inst. Min. Metall. Sect. A, 102:A153–A164, 15 Abb., 3 Tab.
• Macnamara, P. M. (1968): Rock Types and Mineralization at Panguna Porphyry Copper Prospect, Upper Kaverong Valley, Bougainville Island. – Proc. Aust. Inst. Min. Met., 228:71–79, 2 Abb., 1 Tab., 1 Anl.
• MacSween, J. P., Raman, C., Shea, J., Kaliaperumal, R., Oaks, K. & Mkandawire, M. (2013): Modeling potential impact of geothermal energy extraction from the 1B Hydraulic System of the Sydney Coalfield, Nova Scotia, Canada. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1035–1040, 4 Abb.; Golden (International Mine Water Association).
• Macy, T. R., Kruse, N. A. & Stuart, B. J. (2015): Carbon Footprint Analysis of Source Water for Hydraulic Fracturing: A Case Study of Mine Water Versus Freshwater. – Mine Water Environ., 34(1):20–30, doi:10.1007/s10230-014-0291-7.
• Mader, I. (1951): Das Lermooser Moos vor 373 Jahren als Stausee geplant. – Außerferner Nachrichten, 1951.
• Mäder, U. K. & Berman, R. G. (1991): An equation of state for carbon dioxide to high pressure and temperature. – Am. Mineral., 76:1547–1559, 7 Abb., 4 Tab.
• Madi, K., Nyabeze, P. K., Gwavava, O., Sekiba, M. & Zhao, B. (2016): Magnetic and electromagnetic signatures around Polile Tshisa Hot Spring in the northern neotectonic belt in the Eastern Cape Province, South Africa. – Acta Geophys., 64(4):943–962, doi:10.1515/acgeo-2016-0001.
• Madigan, M. T., Martinko, J. M., Parker, J. & Brock, T. D. (2003): An Overview of Microbial Life: Brock biology of microorganisms, 10 edn. – 22–37 p., 24 Abb., 1 Tab.; Upper Saddle River (Prentice Hall).
• Madiseng, L. E., Annandale, J. G., Tanner, P. D., van Aswegen, C. & Sukati, S. (2025): Irrigation with Witwatersrand Goldmine Waters. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 897–902; Braga (International Mine Water Association).
• Madlala, T. E., Kanyerere, T., Oberholster, P. & Pienaar, H. (2025): Benthic Diatoms as Indicators of Groundwater-Surface Water Connectivity in Coal Mining Wetlands: Case of depression wetlands in Belfast, Mpumalanga Province, South Africa. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1005–1010; Braga (International Mine Water Association).
• Madonia, P., Campilongo, G., Cangemi, M., Carapezza, M. L., Inguaggiato, S., Ranaldi, M. & Vita, F. (2021): Hydrogeological and Geochemical Characteristics of the Coastal Aquifer of Stromboli Volcanic Island (Italy). – Water, 13(4):417, 11 Abb., 3 Tab.; doi:10.3390/w13040417.
• Madrala, M. & Worsa-Kozak, M. (2011): Groundwater system of Grodziec Syncline in Iwiny region (SW Poland) 10 years after abandonment of dewatering in “Konrad” mine: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 393–398 p., Aachen (RWTH Aachen University).
• Madritsch, H. & Millen, B. M. J. (2007): Hydrogeologic evidence for a continuous basal shear zone within a deep-seated gravitational slope deformation (Eastern Alps, Tyrol, Austria). – Landslides, 4(2):149–162, 12 Abb., 4 Tab.; doi:10.1007/s10346-006-0072-x.
• Madziva, C. & Chinouya, M. J. (2020): Clay Ingestion During Pregnancy Among Black African Women in a North London Borough: Understanding Cultural Meanings, Integrating Indigenous and Biomedical Knowledge Systems. – Front Sociol, 5:20, doi:10.3389/fsoc.2020.00020.
• Madzivire, G., Gitari, W. M., Viswanath, V. R. K. & Petrik, L. F. (2012): Application of a jet loop reactor to enhance removal of sulphates from mine water using coal fly ash, lime and aluminium hydroxide: International Mine Water Association Symposium. – 183–200 p., Bunbury (Edith Cowan University).
• Madzivire, G., Ligavha-Mbelengwa, L., Nolakana, P. & Coetzee, H. (2022): Evaluation Of The Changes In Mine Water Quality In The Witwatersrand Basin: Basis For Proactive Long-term Solution. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 243–246; (International Mine Water Association).
• Madzivire, G., Ntholi, T. & Coetzee, H. (2021): Comparative Life Cycle Assessment For Acid Mine Drainage Management Options In The Central Basin Of The Witwatersrand Goldfields. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 315–321; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Madzivire, G., Petrik, L. F., Gitari, W. M., Balfour, G., Vadapalli, V. R. K. & Ojumu, T. V. (2009): Role of pH on Sulphate Removal from Circumneutral Mine Water using Coal Fly Ash. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 462–471, 5 Abb., 5 Tab; Pretoria (Document Transformation Technologies).
• Maerker, E. (1982): Die Wasserversorgung des Messelhofs auf der Schwäbischen Alb (Landkreis Göppingen, Baden-Württemberg). – Karst und Höhle, 1981:59–62, 3 Abb.
• Maest, A. (2025): Remining for renewable energy metals. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1058–1058; Braga (International Mine Water Association).
• Maest, A. S. (2023): Remining for Renewable Energy Metals: A Review of Characterization Needs, Resource Estimates, and Potential Environmental Effects. – Minerals, 13(11) doi:10.3390/min13111454.
• Maest, A. S. & Cojoianu, T. (2023): Pollution Registries for Mines: Current State and Future Needs. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 333–337; (International Mine Water Association).
• Maest, A. S., Kuipers, J. R., Travers, C. L. & Atkins, D. A. (2005): Predicting Water Quality at Hardrock Mines – Methods and Models, Uncertainties, and State-of-the-Art. – 77 p., 11 Abb., 5 Tab.; Washington (Earthworks).
• Maest, A. S. & Nordstrom, D. K. (2017): A geochemical examination of humidity cell tests. – Appl. Geochem., 81:109–131, doi:10.1016/j.apgeochem.2017.03.016.
• Maest, A. S. & Nordstrom, D. K. (2017): Geochemical Processes in a Column: Modeling Humidity Cell Test Results. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 642–648, Lappeenranta (Lappeenranta University of Technology).
• Mafa, B. (2008): Mine Dewatering Studies at Jwaneng Open Pit Diamond Mine – Botswana. – Proceedings, 10th International Mine Water Association Congress:465–468.
• Mafu, L. D., Msagati, T. A. M. & Mamba, B. B. (2013): Ion-imprinted polymers for environmental monitoring of inorganic pollutants: synthesis, characterization, and applications. – Environ. Sci. Pollut. Res., 20(2):790–802, 3 Abb., 1 Tab.; doi:10.1007/s11356-012-1215-3.
• Magal, E., Weisbrod, N., Yakirevich, A. & Yechieli, Y. (2008): The use of fluorescent dyes as tracers in highly saline groundwater. – J. Hydrol., 58(1-2):124–133, 4 Abb., 6 Tab.; doi:10.1016/j.jhydrol.2008.05.035.
• Magdziorz, A. & Sewerynski, J. (2000): The use of membrane technic in mineralised water treatment for drinking and domestic purposes at “Pokój” coal mine district under liquidation. – Proceedings, 7th International Mine Water Association Congress:430–442, 4 Abb., 4 Tab.
• Mageed, A. A., A. (1998): Distribution and Salinity Ranges of Zooplankton Organisms at El-Fayoum Depression (El-Fayoum-Egypt). – Egypt J. Aquat Biol. & Fish, 2(2):51–71, 2 Abb., 3 Tab.
• Mager, K., Pirchner, F., Janetschek, H. & Graml, R. (1996): Genetic structure of populations in western Tyrol. – Human Biology, 68(6):915–927.
• Mager, S. M. & Horton, S. L. (2023): Reconstructing a 51-year record of catchment scale dissolved load for the Haast/Awarua River in the Southern Alps, New Zealand. – Geomorphology, 437:108807, doi:10.1016/j.geomorph.2023.108807.
• Mages, M., Woelfl, S., Óvári, M. & Tümpling jun, W. v. (2003): The use of a portable total reflection X-ray fluorescence spectrometer for field investigation. – Spectrochimica Acta Part B: Atomic Spectroscopy, 58(12):2129–2138, doi:10.1016/s0584-8547(03)00197-6.
• Maghsoudy, S., Doulati Ardejani, F., Molson, J., Amini, M. & Ebrahimi, L. (2019): Application of Geo-electrical Tomography in Coupled Hydro-mechanical–Chemical Investigations in Heap Leaching. – Mine Water Environ., 38(1):197–212, doi:10.1007/s10230-018-0557-6.
• Magonono, F. A., Gumbo, J. R., Chigayo, K., Dacosta, F. A. & Mojapelo, P. (2011): Bioaccumulation of Toxic Metals by Hyparrhenia Grass Species: A Case Study of New Union Gold Mine Tailings and Makhado Town, Limpopo, South Africa: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 603–608 p., Aachen (RWTH Aachen University).
• Magowo, E., Rumbold, K. & Sheridan, C. (2015): The Utilization of Cellulosic Biomass in treating AMD and the Subsequent Generation of Fermentable Sugars. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Mahaffy, J. P. (1884): Dr. Schliemann: His Life and Work. – Harper’s New Monthly Magazine, 68(408):898–904, 1 Abb.
• Maharajh, D., Grewar, T., Neale, J. & van Rooyen, M. (2018): Mine Water – A resource for the circular economy in South African Mining communities. Paper presented at the Mine Water Solutions, Vancouver. – p. 349–361, 9 Abb., 1 Tab.; Vancouver (University of British Columbia).
• Maharjan, D. K. & Tamrakar, N. K. (2004): Quality of siltstones for concrete aggregate from Nallu Khola area, Kathmandu valley. – Jour. Nep. Geol. Soc., 30:167–176, 6 Abb., 5 Tab.
• Maharjan, K. K. (2025): Microplastic pollution in bottled water: a systematic review. – Int. J. Environ. Sci. Technol., 22(2):1283–1296, doi:10.1007/s13762-024-05807-1.
• Mahato, M. K., Singh, P. K., Singh, A. K. & Tiwari, A. K. (2018): Assessment of Hydrogeochemical Processes and Mine Water Suitability for Domestic, Irrigation, and Industrial Purposes in East Bokaro Coalfield, India. – Mine Water Environ., 37(3):493–504, doi:10.1007/s10230-017-0508-7.
• Mahgoub, H. A. (2019): Nanoparticles Used for Extraction of Polycyclic Aromatic Hydrocarbons. – J. Chem., 2019:Article ID 4816849, doi:10.1155/2019/4816849.
• Mahlangu, M., Maree, J. P. & More, K. S. (2025): Treatment of Leachate with Pipe Freeze Crystallization. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 3–6; Braga (International Mine Water Association).
• Mahler, B. J., Bennett, P. C. & Zimmerman, M. (1998): Lanthanide-Labeled Clay: A New Method for Tracing Sediment Transport in Karst. – Ground Water, 36(5):835–843, 3 Abb., 3 Tab.
• Mahlohla, M. B., Masindi, V., Tekere, M. & Foteinis, S. (2025): Recovery of poly-cationic metal sulphate from acid mine drainage and its beneficiation as a coagulant for drinking water treatment. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 856–861; Braga (International Mine Water Association).
• Mahnke, W., Leitner, S.-H. & Damm, M. (2009): OPC unified architecture. – 339 p., Berlin (Springer); doi:10.1007/978-3-540-68899-0.
• Mahomed, I., Kessopersadh, C. & Alipour, M. (2018): Furthering The Conceptual Groundwater Model For The Sarcheshmeh Copper Pit, Iran. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1011–1016; (Tshwane University of Technology).
• Mahoney, J. (2015): Using PhreePlot to Calibrate Mining Related Geochemical Models – A User’s Perspective. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Mahoney, J., Frey, R., Plagnes, V., Mitchell, B. & Rowson, J. (2021): Development of a Geochemical Model to Predict Surface Water Discharge Compositions in Northern Saskatchewan: Applications of PHREEQC and PhreePlot to Identify Active Geochemical Processes. – Mine Water Environ., 40(4):833–846, doi:10.1007/s10230-021-00759-1.
• Mahoney, J., Langmuir, D. & Rowson., J. (2005): A method to measure arsenic readily released to pore waters from uranium mill tailings. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 97–106, Heidelberg (Springer).
• Mahoney, J., Langmuir, D., Slaughter, M. & Rowson, J. (2005): Raffinate Neutralization Experiments at the McClean Lake Mill – Removal of Arsenic and Nickel. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 225–234, Heidelberg (Springer).
• Mahoney, J. J. (2013): Sensitivity of Database Selection in Modeling the Transport of Uranium. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 411–416, 3 Abb., 1 Tab.; Golden (International Mine Water Association).
• Mähr, L. (1986): Die Gipsrutschung bei Sankt Anton im Montafon. – Vorarlberger Oberland, 1:16–17, 1 Abb.
• Mähr-Ostrau, B.-u. H. V. i. (1885): Monographie des Ostrau-Karwiner Steinkohlen-Revieres. – Teschen (k.k. Hofbuchhandlung Karl Prochaska).
• Maier, A. (2005): Reflexionen zur österreichischen Entwicklung von Bergrecht und Bergbehörden. – Berg- u. Hüttenm. Mh., 150(12):438–448.
• Maier, W. D. (2015): Chapter 3.1 – Geology and Petrogenesis of Magmatic Ni-Cu-PGE-Cr-V Deposits: An Introduction and Overview. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 73–92, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00003-0.
• Maiga, D., Makamu, S., Letsoalo, M., Mudzanani, K., Phadi, T., Limani, S. & Msagati, T. (2024): Determination of cyanide and potentially toxic elements in gold tailings at Barberton, Mpumalanga, South Africa. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 393–399; Morgantown (International Mine Water Association).
• Maila, M. D., Maree, J. P. & Cele, L. M. (2014): Acid mine water neutralisation with ammonium hydroxide and desalination with barium hydroxide. – Water SA, 40(3):521–528, 9 Abb., 3 Tab.; doi:10.4314/wsa.v40i3.16.
• Mainz, M., Didier, C. & Heitfeld, M. (2008): ISRM-Kommission „Mine Closure“ – Bericht über die Tätigkeit und den Abschlussbericht. Paper presented at the 8. Altbergbau-Kolloquium, Goslar. – p. 5–13, 5 Abb.
• Mainz, M., Hamm, V., Burzynski, R. & Eßers, M. (2008): Minewater Sustainable Redevelopment of Mining Communities – Conclusions from the Pre-Investment Studies of the Partners BRGM (F), BRE (UK) and WFG (D). Paper presented at the Minewater08, Aachen, Heerlen. – p. 1–14, 8 Abb.
• Mainz, M., Heitfeld, M. & Schetelig, K. (2007): Geotechnische Untersuchungen zur Ausweisung von Gefährdungsbereichen des tagesnahen Altbergbaus am Beispiel des Aachener Wurmreviers [Geotechnical lnvestigations for the Assessment of Hazard Zones from Near Surface Mining at the Example of the Aachen Mining District of the River Wurm]. Paper presented at the 16. Tagung für Ingenierurgeologie und Forum „Junge Ingenierugeologen“, Bochum. – p. 341–350, 14 Abb.
• Mair, C. (2002): Hydrogeologie, Hydrogeochemie und Isotopie der Grund- und Grubenwässer im Einzugsgebiet des Burgfeyer Stollens bei Mechernich, Eifel. – 270 p., 70 Abb., 62 Tab.; Aachen (Unveröff. Diss. RWTH Aachen).
• Maji, A. K. & Wang, J. L. (1992): Experimental study of fracture processes in rock. – Rock Mechanics and Rock Engineering, 25(1):25–47, 14 Abb.; doi:10.1007/BF01041874.
• Majka-Smuszkiewicz, A. & Adamczyk, A. F. (1987): The hydrogeochemical Zones of the carboniferous Formations of the K-1 Mine in Relation to the regional hydrogeological Surveying of the Lubline Coal Basin (LCB): Hydrogeology of Coal Basins. – 329–341 p., 4 Abb., 2 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Majkuth, T., Szabadváry, L., Szlabó, N. & Végh, S. (1982): Possibilities of Geophysical Methods in Protecting Mines against Water Inrush. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:113–125, 9 Abb.
• Makarov, D., Svetlov, A., Goryachev, A., Masloboev, V., Minenko, V., Samusev, A. & Krasavtseva, E. (2019): Mine Waters of the Mining Enterprises of the Murmansk Region: Main Pollutants, Perspective Treatment Technologies. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 206–211; Perm, Russia (Perm State University).
• Makaula, D. X., Huddy, R., Fagan-Endres, M. & Harrison, S. (2018): A Flow-Through Biokinetic Test For Characterizing Acid Rock Drainage (ARD) Potential: Investigating Metabolic Activity On Pyrite-Bearing Waste Rock Surfaces In An Unsaturated Ore Bed. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 399–405; (Tshwane University of Technology).
• Mäkelä, U. (1983): On the geology of the Aijala-Orijärvi area, Southwest Finland. – Geol. Surv. Finland, Guide, 11:140–160.
• Mäkelä, U. (1989): Geological and geochemical environments of Precambrian sulphide deposits in southwestern Finland. – Ann. Acad. Sci. Fenn. A 3 Geol. Geogr., 151:1–102.
• Makgae, M. (2012): The status and implications of the AMD legacy facing South Africa. Paper presented at the International Mine Water Association Symposium, Bunbury. –; (Edith Cowan University).
• Makgae, M., Maree, J. & Annandale, J. G. (2013): Neutralised Mine Water For Irrigation – Cost And Feasibility Study. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 417–424, 4 Tab.; Golden (International Mine Water Association).
• Makhathini, T. P., Mulopo, J. & Bakare, B. F. (2020): Possibilities for Acid Mine Drainage Co-treatment with Other Waste Streams: A Review. – Mine Water Environ., 39(1):13–26, doi:10.1007/s10230-020-00659-w.
• Mäki, T., Imaña, M., Kousa, J. & Luukas, J. (2015): The Vihanti-Pyhäsalmi VMS Belt. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 507–530, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00020-0.
• Mäkinen, J. (2007): Seasonal Variation in Lake Sediment Geochemistry in an active Mine Area (Pyhäsalmi, Finland): Water in Mining Environments. – 89–91 p., 1 Abb., 2 Tab.; Cagliari (Mako Edizioni).
• Mäkinen, J. & Lerssi, J. (2007): Characteristics and Seasonal Variation of Sediments in Lake Junttiselkä, Pyhäsalmi, Finland. – Mine Water Environ., 26(4):217–228, 10 Abb., 5 Tab.; doi:10.1007/s10230-007-0015-3.
• Mäkitalo, M., Mácsik, J., Maurice, C. & Öhlander, B. (2015): Improving Till by Adding Green Liquor Dregs in Sealing Layers to Control AMD – A Pilot Study. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–8 [electronic document], Santiago/Chile (Gecamin).
• Mäkitalo, M., Stenman, D., Ikumapayi, F., Maurice, C. & Öhlander, B. (2016): An Evaluation of Using Various Admixtures of Green Liquor Dregs, a Residual Product, as a Sealing Layer on Reactive Mine Tailings. – Mine Water Environ., 35(3):283–293, doi:10.1007/s10230-015-0340-x.
• Makkonen, H. V. (2015): Nickel Deposits of the 1.88 Ga Kotalahti and Vammala Belts. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 253–290, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00010-8.
• Makkonen, H. V. & Huhma, H. (2007): Sm-Nd data for mafic-ultramafic intrusions in the Svecofennian (1.88 Ga) Kotalahti Nickel Belt, Finland – implications for crustal contamination at the Archaean/Proterozoic boundary. – Bull. Geol. Soc. Finl., 79:175–201, 8 Abb., 4 Tab., 1 Anl.
• Maknouni Gilani, S., Zare, M. & Raeisi, E. (2019): Locating a New Drainage Well by Optimization of a Back Propagation Model. – Mine Water Environ., 38(2):342–352, doi:10.1007/s10230-019-00593-6.
• Maksimovich, N., Khmurchik, V., Meshcheriakova, O., Demenev, A. & Berezina, O. (2020): The Use of Industrial Alkaline Wastes to Neutralise Acid Drain Water from Waste Rock Piles. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 117–122; (International Mine Water Association).
• Maksimovich, N., Khmurchik, V., Meshcheriakova, O., Demenev, A. & Berezina, O. (2021): The Use of Industrial Alkaline Wastes to Neutralise Acid Drain Water from Waste Rock Piles. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 368–373; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Maksimovich, N., Pyankov, S. & Khayrulina, E. (2017): Environmental Assessment of Closed Coal Mine Territory Using GIS Analysis. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 212–217, Lappeenranta (Lappeenranta University of Technology).
• Maksimovich, N. G., Khmurchik, V. T., Sedinin, A. M., Demenev, A. D. & Berezina, O. A. (2019): The General Concept Of Kizel Coal Basin Remediation. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 736–740; Perm, Russia (Perm State University).
• Maksimovich, N. G., Pyankov, S., Khmurchik, V., Berezina, O. A., Demenev, A. & Sedinin, A. (2018): Coal Basins and the Environment. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 406–410; (Tshwane University of Technology).
• Maksimovich, N. G. & Pyankov, S. V. (2018): Кизеловский угольный бассейн – экологические проблемы и пути решения [The Kizel coal basin – ecological problems and solutions]. – Perm (Raritet-Perm Publishing House).
• Makusa, M. & Suchova, M. (1987): Novaky Coal Deposit ans its Relation to Bojnice Thermal Water: Hydrogeology of Coal Basins. – 537–544 p., Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Makuya, N., Gumbo, J. R., Muzerengi, C. & Dacosta, F. A. (2012): Manganese and vanadium uptake by Cynodon Dactylon grass species: A case study in New Union gold mine tailings, Limpopo, South Africa: International Mine Water Association Symposium. – 689–696 p., Bunbury (Edith Cowan University).
• Malakooti, S. J., Noaparast, M., Tonkaboni, S. Z. S., Doulati Ardejani, F., Soleimani, E. & Esmaeilzadeh, E. (2012): Mineralogical and geochemical studies on pyrite and chalcopyrite oxidations in the Sarcheshmeh copper mine tailings: International Mine Water Association Symposium. – 223–230 p., Bunbury (Edith Cowan University).
• Malakooti, S. J., Shafaei, S. Z., Noaparast, M., Doulati Ardejani, F., Naseh, R. & Saadloo, H. (2012): Investigation of the quality of water samples in the entrance and effluents from the Sarcheshmeh copper mine tailings dam: International Mine Water Association Symposium. – 705–712 p., Bunbury (Edith Cowan University).
• Malatji, M. & Fosso-Kankeu, E. (2024): A review of the reducing and alkalinity-producing passive treatment system for remediating acid mine drainage. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 400–400; Morgantown (International Mine Water Association).
• Malaza, N. & Zhao, B. (2009): Origin of Sodium and its Applications to Mine Water Remediation and Reduction in the South African Coal Mine Environment. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 932–939, 8 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Malčík, D. & Drahanský, M. (2012): Anatomy of Biometric Passports. – J. Biomed. Biotechnol., 2012:Article ID 490362, doi:10.1155/2012/490362.
• Maleev, E. & Goldyrev, V. (2019): Isotopic Composition of Underground and Surface Waters at the Uzbekstan Tyubegatan Potassium Salts Deposit. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 632–635; Perm, Russia (Perm State University).
• Mali, S., Jafari, H., Bagheri, R. & Jahanshahi, R. (2022): Groundwater Source Identification and Flow Model of the Dareh-Zar Copper Mine in Central Iran by Chemo-isotopic Techniques. – Mine Water Environ., 41(4):921–937, doi:10.1007/s10230-022-00909-z.
• Malisa, R., Maree, J. P., Hardwick, E. & Oosthuizen, F. (2013): Resin Freeze Desalination Process for Acid Recovery. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 655–659, 7 Abb., 2 Tab.; Golden (International Mine Water Association).
• Maliva, R. G., Coulibaly, K., Guo, W. & Missimer, T. M. (2010): Simulations of Impacts of Sand and Rock Mining on Florida Coastal Plain Water Resources. – Mine Water Environ., 29(4):294–300, 6 Abb.; doi:10.1007/s10230-010-0119-z.
• Mallapaty, S. (2024): China conducts first nationwide review of retractions and research misconduct. – Nature, 626(8000):700–701, doi:10.1038/d41586-024-00397-x.
• Mallard, G. E. & Aronson, D. A. (1991): U.S. Geological Survey Toxic Substances Hydrology Program – Proceedings of the technical meeting, Monterey, California, March 11-15, 1991. – Water Resour. Investig. Rep., WRI 91-4034:465, zahlr. Abb., zahlr. Tab.
• Mallo, J. C., Marco, S. G. D., Bazzini, S. M. & Río, J. L. d. (2010): Aquaculture: an Alternative Option for the Rehabilitation of Old Mine Pits in the Pampasian Region, Southeast of Buenos Aires, Argentina. – Mine Water Environ., 29(4):285–293, 2 Abb., 3 Tab.; doi:10.1007/s10230-010-0120-6.
• Malmström, M. E., Destouni, G., Banwart, S. A. & Strömberg, B. H. E. (2000): Resolving the Scale-Dependence of Mineral Weathering Rates. – Environ. Sci. Technol., 34(7):1375–1378, doi:10.1021/es990682u.
• Malolepszy, Z. (2003): Low Temperature, Man-Made Geothermal Reservoirs in Abandoned Workings of Underground Mines: SGP-TR-173. – 1–7 p., 7 Abb., 1 Tab.; Stanford (Proceedings Twenty-Eighth Workshop on Geothermal Reservoir Engineering).
• Małoszewski, P., Harum, T. & Benischke, R. (1992): Mathematical Modelling of Tracer Experiments in the Karst of the Lurbach System. – Steir. Beitr. Hydrogeol., 43:116–143, 27 Abb., 9 Tab.
• Małoszewski, P., Hermann, A. & Zuber, A. (1999): Interpretation of tracer tests performed in fractured rock of the Lange Bramke basin, Germany. – Hydrogeol. J., 7:209–218, 8 Abb., 5 Tab.
• Małoszewski, P., Rauert, W., Stichler, W. & Herrmann, A. (1983): Application of flow models in an alpine catchment area using tritium and deuterium data. – J. Hydrol., 66:319–330.
• Małoszewski, P., Wachniew, P. & Czupryński, P. (2006): Hydraulic Characteristics of a Wastewater Treatment Pond Evaluated through Tracer Test and Multi-Flow Mathematical Approach. – Polish J. Environ. Studies, 15(1):105–110, 5 Abb., 1 Tab.
• Małoszewski, P. & Zuber, A. (1984): Interpretation of artificial and environmental tracers in fissured rocks with a porous matrix: Isotope Hydrology 1983 1. – 635–654 p., 6 Abb.; Wien (Proceedings Series – International Atomic Energy Agency).
• Małoszewski, P. & Zuber, A. (1985): On the theory of tracer experiments in fissured rocks with a porous matrix. – J. Hydrol., 79(3-4):333–358, 12 Abb.
• Małoszewski, P. & Zuber, A. (1990): Mathematical Modeling of Tracer Behavior in Short-Term Experiments in Fissured Rocks. – Water Resour. Res., 26(7):1517–1528, 11 Abb., 2 Tab.
• Małoszewski, P. & Zuber, A. (1993): Principles and practice of calibration and validation of mathematical models for the interpretation of environmental tracer data in aquifers. – Adv. Water Resour., 16:173–190.
• Maltseva, O. V., Tsoi, T. V., III, J. F. Q., Fukuda, M. & Tiedje, J. M. (1999): Degradation of anaerobic reductive dechlorination products of Aroclor 1242 by four aerobic bacteria. – Biodegradation 10:363–371, doi:10.1023/A:1008319306757.
• Malyska, G. (2000): Einflüsse des Bergbaues auf die Trinkwasserversorgung im südlichen Sachsen-Anhalt – ein historischer Rückblick. – Hercynia N.F., 33(1):5–30, 5 Abb., 8 Tab.
• Mamatarkova, V. (2009): Influence of Different Conditions for Biofilm Formation on the Oxidation Activity of Acidithiobacillus Ferrooxidans. – Biotechnol. & Biotechnol. Eq., 23(Special Edition):909–913, 3 Abb., 1 Tab.
• Mambwe, P., Milan, L., Batumike, J., Lavoie, S., Jébrak, M., Kipata, L., Chabu, M., Mulongo, S., Lubala, T., Delvaux, D. & Muchez, P. (2017): Lithology, petrography and Cu occurrence of the Neoproterozoic glacial Mwale Formation at the Shanika syncline (Tenke Fungurume, Congo Copperbelt; Democratic Republic of Congo). – J. Afr. Earth Sci., 129:898–909, doi:10.1016/j.jafrearsci.2017.02.021.
• Mamelkina, M. (2019): Electrochemical Treatment Of Mining Waters. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 212–216; Perm, Russia (Perm State University).
• Mamelkina, M., Tuunila, R. & Häkkinen, A. (2020): Scale-up of Electrochemical Units for Mining Waters Treatment. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 163–167; (International Mine Water Association).
• Mamelkina, M., Tuunila, R., Häkkinen, A. & Silänpää, M. (2017): Electrocoagulation Treatment of Real Mining Waters and Solid-liquid Separation of Solid Formed. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1070–1075, Lappeenranta (Lappeenranta University of Technology).
• Mamelkina, M. A., Tuunila, R., Sillanpää, M., Häkkinen, A., Cotillas, S., Lacasa, E. & Rodrigo, M. A. (2018): Continuous Electrocoagulation Process For Treatment Of Mining Waters. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 267–274; (Tshwane University of Technology).
• Mammadov, A. (2019): Mine Inundation – A Proactive Approach Demirel, Nuray. MINE 555 – Occupational Health and Safety Department. Middle East Technical University, Çankaya/Ankara, 24.
• Mammel, R., Reichl, I., Schwarz, L. & Fisch, H. (2003): Does groundwater pose a risk to underground structures, or do underground structures pose a risk to potential groundwater resources? – RMZ – Materials and Geoenvironment, 50(1):209–212, 4 Abb.
• Man, M., Sparrow, B. & Low, M. (2018): A Cradle to Grave Treatment Solution for Mine Waters. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1093–1098; (Tshwane University of Technology).
• Man, M., Yin, X., Zhou, Z., Sparrow, B., Lee, S. & Frank, M. (2016): Extreme Recovery Membrane Process and Zero Liquid Discharge Low Temperature Crystallization for Treating Scaling Mine Waters. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 836–843, Freiberg (TU Bergakademie Freiberg).
• Manahan, S. E. (2000): Environmental Chemistry, 7 edn. – Boca Raton (Lewis).
• Manca, M. G., Bertacchi, A. & Matzuzzi, C. (1999): Integrated Environment for Data Management of Mining Waste Disposals. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 815–819, 4 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Mancini, S., James, R., Cox, E. & Rayner, J. (2021): Gravel Bed Reactors: Semi-Passive Water Treatment Of Metals and Inorganics. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 322–327; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Mandel, K., Hutter, F., Gellermann, C. & Sextl, G. (2013): Reusable superparamagnetic nanocomposite particles for magnetic separation of iron hydroxide precipitates to remove and recover heavy metal ions from aqueous solutions. – Sep. Purif. Technol., 109:144–147, doi:10.1016/j.seppur.2013.03.002.
• Mandelia, A. (2016): Polychlorinated Biphenyl Compound and Metal Contamination and Remediation in Torch Lake, Houghton County, MI. –.
• Mandemvo, D. D. N., Comeau, F. A., Raymond, J., Grasby, S. E. & Terlaky, V. (2024): Numerical Assessment of the Geothermal and Thermal Energy Storage Potential of the Underground Con Mine (Northwest Territories, Canada). – Mine Water Environ., 43(1):148–167, doi:10.1007/s10230-024-00976-4.
• Mandzic, E. H. (1992): Mine Water Risk in Open Pit Slope Stability. – Mine Water Environ., 11(4):35–42, 10 Abb., 1 Tab.
• Mania, J. & Djabri, L. (1991): Realization and Interpretation of Hydrodynamic Characteristics (Permeability Transmissibility and Specific Discharge) from Pumping Tests in the Area of Tebessa in the far East of Algeria. – Proceedings, 4th International Mine Water Association Congress, 1:79–87, 6 Abb., 1 Tab.
• Manjunath, M., Prasanna, R., Sharma, P., Nain, L. & Singh, R. (2011): Developing PGPR consortia using novel genera Providencia and Alcaligenes along with cyanobacteria for wheat. – Arch. Agron. Soil Sci., 57(8):873–887, doi:10.1080/03650340.2010.499902.
• Mann, H. (1972): Die Lachskrankheit (Ulcerative Dermal Nekrose = U D N) in Deutschland. – Informationen für die Fischwirtschaft, 19(1):10.
• Manna, A. & Maiti, R. (2016): Alteration of Surface Water Hydrology by Opencast Mining in the Raniganj Coalfield Area, India. – Mine Water Environ., 35(2):156–167, doi:10.1007/s10230-015-0342-8.
• Mannke, K., Hahn, F., Verhoeven, R. & Klein, S. (2024): GIS based analysis of heat demand and subsurface potential of abandoned mining infrastructure in the Ruhr region, Germany. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 401–406; Morgantown (International Mine Water Association).
• Mannke, K., Hahn, F., Verhoeven, R., Klein, S. & Lehmann, J. E. (2025): Occurring challenges in the development process of geothermal mine water projects and possible solutions. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 464–469; Braga (International Mine Water Association).
• Manno, E. (1914): Die Kohlenversorgung Süddeutschlands. – 164 p., Grofiherzoglich Badische Ruprecht-Karls-Universität zu Heidelberg, 48 Taf.; Heidelberg.
• Manono, M. (2025): Depression and Dewatering Characteristics of Kaolinite in View of the Reprocessing of Ultrafine Colliery Waste. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 333–338; Braga (International Mine Water Association).
• Manono, M. S. (2019): Inorganic Electrolytes on the Efficacy of a Carboxymethyl Cellulose as a Coagulant for Talc: Implications for Talc Depression in Flotation. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 217–224; Perm, Russia (Perm State University).
• Manono, M. S. (2024): Short water recirculation during the flotation of a UG2 Cu-Ni-PGM ore: Implications on tailings dewatering and quality of the recovered water. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 407–413; Morgantown (International Mine Water Association).
• Manono, M. S., Corin, K. C. & Wiese, J. G. (2019): To Recycle or Not? A Bench Scale Simulation of Water Recirculation in Sulfidic Cu-Ni Ore Flotation. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 225–231; Perm, Russia (Perm State University).
• Manono, M. S., Matibidi, K., Thubakgale, C. K., Corin, K. C. & Wiese, J. G. (2017): Water Quality in PGM Ore Flotation: The effect of Ionic Strength and pH. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 777–784, Lappeenranta (Lappeenranta University of Technology).
• Manono, M. S., October, L. L., Manenzhe, R. M. & Corin, K. C. (2024): Considering residual flocculants and coagulants in recycled mine water on the surface chemistry of talc: Implications on flotation performance. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 414–419; Morgantown (International Mine Water Association).
• Mansel, H., Drebenstedt, C., Jolas, P. & Blankenburg, R. (2012): Dewatering of Opencast Mines using Horizontal Wells: International Mine Water Association Symposium. – 574 A–574 I p., Bunbury (Edith Cowan University).
• Mansel, H., Philipp, W., Brückner, F. & Rüger, M. (2017): 3-dimensional Geologic and Groundwater Flow Modeling for Coal Mining Areas as Decision Support Tool. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 517–523, Lappeenranta (Lappeenranta University of Technology).
• Mansel, H., Struzina, M., Eichler, R. & Jolas, P. (2015): Dewatering of Opencast Mines Using Model-Based Planned Horizontal Wells. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Mäntynen, M. (2001): Temperature correction coefficients of electrical conductivity and of density measurements for saline groundwater, 2001-15. – p., 5 Abb., 15 Tab., 10 Anl.; (Posiva Oy).
• Manyin, T., Williams, F. M. & Stark, L. R. (1997): Effects of iron concentration and flow rate on treatment of coal mine drainage in wetland mesocosms: An experimental approach to sizing of constructed wetlands. – Ecol. Eng., 9:171–1856, 4 Abb., 3 Tab.
• Manzano, M., Ayora, C., Domenech, C., Navarrete, P., Garralon, A. & Turrero M, J. (1999): The impact of the Aznalcóllar mine tailing spill on groundwater. – Sci. Total Environ., 242(1-3):189–209.
• Manzella, I. & Labiouse, V. (2013): Empirical and analytical analyses of laboratory granular flows to investigate rock avalanche propagation. – Landslides, 10(1):23–36, 14 Abb., 3 Tab.; doi:10.1007/s10346-011-0313-5.
• Maphanga Mitchell Associates (2022): Proposed Rehabilitation of the Havelock Chrysotile Tailings Storage Facility (TSF) At Bulembu, Eswatini – Environmental & Social Impact Assessment Report. – Unpubl. Report for Kobolondo Magnesium (Proprietary) Limited (Report Nr. SD2144). – 269 p., 23 Abb., 31 Tab.; Mbabane (Maphanga Mitchell Associates).
• Maqsoud, A., Addi, N. E. h., Belem, T. & Mbonimpa, M. (2025): Assessment of Superabsorbent Polymers Capability in the Treatment of Metal Mining Effluent. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 891–896; Braga (International Mine Water Association).
• Maqsoud, A., Mbonimpa, M. & Bussière, B. (2015): Rheology and Hydrogeological Behavior of Thickened Tailings Disposal Using Field Experimental Cell. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Mara, S., Deák, S., Deák, G., Stefanescu, L. & Vlad, S.-N. (2008): Salt Mining Lake Pits in Romania, a Sustainable Heritage. Paper presented at the 10th International Mine Water Association Congress, Karlsbad. – p. 595–598.
• Mara, S., Tanasescu, M., Ozunu, A. & Vlad, S. (2007): Criteria for Identifying the Major Risks Associated with Tailings Ponds in Romania. – Mine Water Environ., 26(4):256–263, 6 Abb., 3 Tab.; doi:10.1007/s10230-007-0018-0.
• Mara, S., Tanasescu, M., Ozunu, A. & Vlad, S.-N. (2007): Criteria used to Identify the Risks of Major Accidental Pollution for the Waters of the Tailing Dams in Romania: Water in Mining Environments. – 93–97 p., 1 Abb., 3 Tab.; Cagliari (Mako Edizioni).
• Mara, S. & Vlad, S. N. (2009): Natural and Technological Risk Management by Private Insurance in Romania, Including Mining Related Disasters. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 967, 6 Abb., 2 Tab.; Pretoria (Document Transformation Technologies).
• Mara, S. & Vlad, S. N. (2010): Integrated quality environmental monitoring and warning-alarming system for emergencies due to technical accidents at waste deposits in mining industry. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 491–495, Sydney, NS (Cape Breton University Press).
• Mara, S., Vlad, S. N. & Hamchevici, C. (2011): NATECH events at the tailing dams – risk, hazard and vulnerability assessment: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 661–666 p., Aachen (RWTH Aachen University).
• Marais, T. S., Harrison, S. T. L., Huddy, R. J. & van Hille, R. P. (2017): Effect of Hydraulic Residence Time and Temperature on the Performance of the Integrated Semi-Passive Bioprocess. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 262–268, Lappeenranta (Lappeenranta University of Technology).
• Marais, T. S., Huddy, R. J., van Hille, R. P. & Harrison, S. (2022): Effect of temperature change on the performance of the hybrid linear flow channel reactor and its implications on sulphate-reducing and sulphide-oxidising microbial community dynamics. – Frontiers in Bioengineering and Biotechnology, 10 doi:10.3389/fbioe.2022.908463.
• Marais, T. S., Huddy, R. J., van Hille, R. P. & Harrison, S. T. L. (2018): The Effect Of Temperature On The Kinetics Of Sulphate Reduction And Sulphide Oxidation In An Integrated Semi-Passive Bioprocess For Remediating Acid Rock Drainage. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 140–145; (Tshwane University of Technology).
• Marais, T. S., Huddy, R. J., van Hille, R. P. & Harrison, S. T. L. (2021): Performance Of The Hybrid Linear Flow Channel Reactor: Effect Of Reactors In Series For Enhanced Biological Sulphate Reduction And Sulphur Recovery. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 328–333; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Marandi, R., Ardejani, F. D. & Marandi, A. (2007): Biotreatment of acid Mine Drainage using Sequencing Batch Reactors (SBRss) in the Sarcheshmeh Porphyry Copper Mine: Water in Mining Environments. – 221–225 p., 3 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Marandi, R., Ardejani, F. D. & Safaei, M. (2008): Biosorption of Lead and Zinc Ions by Phanerocheat Chrysasporium – Research on Fixed Bed Column. – Proceedings, 10th International Mine Water Association Congress:293–296.
• Marandi, R., Doulati, A. F., Marandi, A. & Singh, R. N. (2005): Bacterial leaching of anodic slime by Thiobacillus ferrooxidans based on bioextraction of selenium-A case study: Mine Water 2005 – Mine Closure. – 45–49 p., 4 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Marandi, R., Doulati Ardejani, F. & Soleymanifar, H. (2011): Bio-extraction of Copper and Magnesium Ions from Acid Mine Drainage: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 399–404 p., Aachen (RWTH Aachen University).
• Marc, D. & Tomse, P. (1997): Hydrogeological Parameters Concerning LILW Repository Site Selection in Slovenia. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:441–449, 3 Tab.
• Marchand, E. A. (2002): Minerals and mine drainage. – Water Environ. Res., 74(5):1–27.
• Marchand, E. A. & Dinkelman, I. (2006): Minerals and mine drainage. – Water Environ. Res., 78(10):1654–1698, doi:10.2175/106143006X119341.
• Marchand, G., Waterhouse, J. & Crisostomo, J. (2010): Mudstone Depressurisation behaviour in an open pit coal mine, Indonesia. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 437–441, Sydney, NS (Cape Breton University Press).
• Marchioni, D., Kalkreuth, W., Utting, J. & Fowler, M. (1994): Petrographical, palynological and geochemical analyses of the Hub and Harbour seams, Sydney Coalfield, Nova Scotia, Canada—implications for facies development. – Palaeogeogr. Palaeoclimatol. Palaeoecol., 106(1-4):241–270, 6 Abb., 1 Tab.; doi:10.1016/0031-0182(94)90013-2.
• Marchlewitz, B. (1959): Untersuchungen über die Mikrobenassoziation saurer Grubenwässer. – 57 p., 16 Abb., 21 Tab.; Greifswald (Unveröff. Diss. Uni Greifswald).
• Marchlewitz, B., Hasche, D. & Schwartz, W. (1961): Untersuchungen über das Verhalten von Thiobakterien gegenüber Schwermetallen. – Z. Allg. Mikrobiol., 1(3):179–191, 5 Abb., 13 Tab.; doi:10.1002/jobm.19610010302.
• Marchlewitz, B. & Schwartz, W. (1961): Untersuchungen über die Mikroben-Assoziation saurer Grubenwässer. – Z. Allg. Mikrobiol., 1(2):100–114, 6 Abb., 9 Tab.; doi:10.1002/jobm.19610010203.
• Marciniak, M. (1987): Measurements of the Filtration Coefficient by Means of the Paramex Method in Mine Drainage: Hydrogeology of Coal Basins. – 143–146 p., 2 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Marcoline, J. R., Smith, L. & Beckie, R. D. (2006): Water Migration in Covered Waste Rock, Investigations using Deuterium as a Tracer: ICARD 2006 7. – 1142–1155 [CD–ROM] p., 7 Abb.; St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06021142.
• Marcus, J. J. (1997): Mining Environmental Handbook – Effects of Mining on the Environment and American Environmental Controls on Mining. – 785 p., London (Imperial College Press); doi:10.1142/p022.
• Maree, J. P., Beer, M. d., Strydom, W. F., Christie, A. D. M. & Waanders, F. B. (2004): Neutralizing Coal Mine Effluent with Limestone to Decrease Metals and Sulphate Concentrations. – Mine Water Environ., 23(2):81–86, 3 Abb., 6 Tab.
• Maree, J. P., de Beer, M., Strydom, W. F. & Christie, A. D. M. (1998): Limestone Neutralisation of Acidic Efluent, including Metal and partial Sulphate Removal: Mine Water and Environmental Impacts 2. – 449–460 p., 3 Abb., 7 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Maree, J. P., Dingemans, D., van Tonder, G. J. & Mtimkulu, S. (1998): Biological iron(II) oxidation as pre-treatment to limestone neutralisation of acid water. – Water Sci. Technol., 38(4-5):331–337.
• Maree, J. P. & Duplessis, P. (1994): Neutralization of Acid-Mine Water with Calcium-Carbonate. – Water Sci. Technol., 29(9):285–296, doi:10.2166/wst.1994.0496.
• Maree, J. P., Duplessis, P. & Vanderwalt, C. J. (1992): Treatment of acidic effluents with limestone instead of lime. – Water Sci. Technol., 26(1-2):345–355, 8 Abb., 6 Tab.; doi:10.2166/wst.1992.0414.
• Maree, J. P., Günther, P. & Strobos, G. (2003): Optimizing The Effluent Treatment at a Coal Mine by Process Modelling. – 1–8 p., 1 Abb., 6 Tab.; Sudbury (Proceedings Sudbury 2003 – Mining and the Environment).
• Maree, J. P., Günther, P., Strobos, G. & Waanders, F. B. (2004): Optimizing the Effluent Treatment at a Coal Mine by Process Modelling. – Mine Water Environ., 23(2):87–90, 6 Tab.
• Maree, J. P., Hagger, M. J., Strobos, G., Hlabela, P., Cronjé, H., van Niekerk, A. M., Wurster, A., Nengovhela, R. & Waanders, F. B. (2004): Design Criteria for Limestone Neutralization at a Nickel Mine. – Mine Water Environ., 23(3):152–156, 2 Abb., 5 Tab.
• Maree, J. P., Hlabela, P., Nengovhela, R., Geldenhuys, A. J., Mbhele, N., Nevhulaudzi, T. & Waanders, F. B. (2004): Treatment of Mine Water for Sulphate and Metal Removal Using Barium Sulphide. – Mine Water Environ., 23(4):196–204, 7 Abb., 10 Tab.
• Maree, J. P., Hulse, G., Dods, D. & Schutte, C. E. (1991): Pilot-plant Studies on Biological Sulfate Removal from Industrial Effluent. – Water Sci. Technol., 23(7-9):1293–1300, doi:10.2166/wst.1991.0581.
• Maree, J. P., Mtombeni, T., Ramothole, P. & Letjiane, L. (2018): Treatment Of Copper Leachate For The Recovery Of Valuable Products. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 904–910; (Tshwane University of Technology).
• Maree, J. P., Mujuru, M., Bologo, V., Daniels, N. & Mpholoane, D. (2013): Neutralisation treatment of AMD at affordable cost. – Water SA, 39(2):245–250, doi:10.4314/wsa.v39i2.7.
• Maree, J. P., Strobos, G., Greben, H. A., Netshidaulu, E., Steyn, E., Christie, A., Günther, P. & Waanders, F. B. (2004): Treatment of Acid Leachate from Coal Discard using Calcium Carbonate and Biological Sulphate Removal. – Mine Water Environ., 23(3):144–151, 6 Abb., 8 Tab.
• Maree, J. P., Strydom, W. F. & de Beer, M. (1999): Integrated iron(II) oxidation and limestone neutralisation of acid mine water. – Water Sci. Technol., 39(10-11):231–238.
• Maree, J. P., van Tonder, G. J., Millard, P. & Erasmus, T. C. (1996): Pilot-scale neutralisation of underground mine water. – Water Sci. Technol., 34(10):141–149, 4 Abb., 7 Tab.; doi:10.2166/wst.1996.0250.
• Margat, J. (1966): Age des eaux souterraines et renouvellement des reserves des nappes. Reflexions sur les bases de l’hydrochronologie. – Bulletin du Bureau de Recherches Geologiques et Minieres, Section 2: Geologie Appliquee, Chronique des Mines, 6:37–51.
• Margat, J. & van der Gun, J. (2013): Groundwater around the World – A Geographic Synopsis. – 341 p., Boca Raton (CRC Press).
• Margui, E., Tapias, J. C., Casas, A., Hidalgo, M. & Queralt, I. (2010): Analysis of inlet and outlet industrial wastewater effluents by means of benchtop total reflection X-ray fluorescence spectrometry. – Chemosphere, 80(3):263–70, doi:10.1016/j.chemosphere.2010.04.027.
• Mariner, P. E., Jin, M., Studer, J. E. & Pope, G. A. (1999): The first vadose zone partitioning interwell tracer test for nonaqueous phase liquid and water residual. – Environ. Sci. Technol., 33(16):2825–2828, 4 Abb., 1 Tab.
• Marini, L. (2000): Geochemical Techniques for the Exploration and Exploitation of Geothermal Energy. – Genua (University of Genua).
• Marini, L., Saldi, G., Cipolli, F., Ottonello, G. & Zuccolini, M. V. (2003): Geochemistry of water discharges from the Libiola mine, Italy. – Geochem. J., 37(2):199–216, doi:10.2343/geochemj.37.199.
• Mariotti, A. & Velde, D. (1972): Sur la presence d’une microsyenite riche en hornblende brune (proche des ehrwaldites) dans le flysch cretace des Lienzer Dolomiten (Tirol, Autriche), au Nord de la ligne du Gail [Microsyenite rich in brown hornblende (close to ehrwaldites) in the Cretaceous flysch of Lienz Dolomites (Tyrol, Austria), north of the Gail line]. – Comptes rendus des seánces de l’Académie des Sciences, D 275(1):1–4, 2 Abb., 1 Tab.
• Marjanovic, N. & Prohaska, S. (1978): Computation of flood flows in open pits. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1265–1274; Maracena (Asociación Nacional de lngenieros de Minas).
• Markart, G., Kohl, B. & Zanetti, P. (1997): Oberflächenabfluß bei Starkregen – Abflußbildung auf Wald-, Weide- und Feuchteflächen (am Beispiel des oberen Einzugsgebietes der Schesa-Bürserberg, Vorarlberg). – Centralbl. Gesamte Forstwes., 114(2/3):123–144, 6 Abb., 5 Tab.
• Markelova, E. (2017): Redox potential and mobility of contaminant oxyanions (As, Sb, Cr) in argillaceous rock during oxic and anoxic cycles. – 199 p., PhD, University of Waterloo; Waterloo.
• Markic, M. & Sachsenhofer, R. F. (2010): The Velenje Lignite – Its Petrology and Genesis. –.
• Markic, M., Urbanc, J., Pezdic, J. & Marin, M. (1991): Determining the Origin of Waters Flowing into the Senovo Mine by Hydrogeochemical and Isotopic Methods. – Proceedings, 4th International Mine Water Association Congress, 1:89–98, 5 Abb., 2 Tab.
• Markovaara-Koivisto, M., Valjus, T., Tarvainen, T., Huotari, T., Lerssi, J. & Eklund, M. (2018): Preliminary volume and concentration estimation of the Aijala tailings pond – Evaluation of geophysical methods. – Resour. Policy, 59:7–16, doi:10.1016/j.resourpol.2018.08.016.
• Markowitz, G. (2018): From Industrial Toxins to Worldwide Pollutants: A Brief History of Polychlorinated Biphenyls. – Public Health Rep., 133(6):721–725, doi:10.1177/0033354918801578.
• Markowitz, G. & Rosner, D. (2018): Monsanto, PCBs, and the creation of a “world-wide ecological problem”. – J. Public Health Policy, 39(4):463–540, doi:10.1057/s41271-018-0146-8.
• Marmara, H., Yücel, D. Ş., Özden, S. & Yücel, M. A. (2020): Kestanbol Jeotermal Akışkanının Hidrokimyasının ve Çevresel Etkilerinin Belirlenmesi [Hydrochemistry and Environmental Impacts of Kestanbol Geothermal Fluid]. – Türkiye Jeol. Bül. – Geol. Bull. Turkey, 63(1):97–116, 9 Abb., 4 Tab.; doi:10.25288/tjb.604842.
• Marmier, V., Plante, B., Demers, I. & Benzaazoua, M. (2025): Development of a Neutral Mine Drainage Prediction Method Using Modified Kinetics Tests and Assessment of Sorption Capacities. – Mine Water Environ.:1–14, doi:10.1007/s10230-025-01023-6.
• Marmier, V., Plante, B., Demers, I., Benzaazoua, M. & Fillion, M. (2024): Development of a prediction method for contaminated neutral drainage: Case of Lac Tio, QC. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 420–425; Morgantown (International Mine Water Association).
• Marques, A., Garcia-Ordiales, E. & Loredo, J. (2010): Potential for Mine Water Reuse in an Abandoned Coal Mine in Northern Spain. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 309–313, Sydney, NS (Cape Breton University Press).
• Marqués, A. L., Fernandez, B., Fernández, A. & Ayala, J. (2025): Geochemical modelling applied to the study of arsenic mobilization in abandoned mines. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1064–1064; Braga (International Mine Water Association).
• Marques, F. C., Valane, G. M. & Buzato, V. M. (2020): Acid mine drainage wastewater photoelectrolysis for hydrogen fuel generation: Preliminary results. – Int. J. Energy Res., 44(14):12188–12196, 8 Abb., 3 Tab.; doi:10.1002/er.5862.
• Marquinez, Y., Bowell, R., Jones, T. & Braham, P. (2021): Geochemical sources and long-term implications of mine waste weathering, Cwmystwyth Mine, Wales. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 374–379; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Marr, C. E. (1988): Pumps and Pumping, remote Operation and Monitoring. – Int. J. Mine Water, 7(2):33–46, 3 Abb.
• Marrugo-Negrete, J., Enamorado-Montes, G., Durango-Hernandez, J., Pinedo-Hernandez, J. & Diez, S. (2017): Removal of mercury from gold mine effluents using Limnocharis flava in constructed wetlands. – Chemosphere, 167:188–192, doi:10.1016/j.chemosphere.2016.09.130.
• Marschik, R., Spikings, R. & Kuscu, I. (2008): Geochronology and stable isotope signature of alteration related to hydrothermal magnetite ores in Central Anatolia, Turkey. – Miner. Deposita, 43:111–124, 8 Abb., 4 Tab.; doi:10.1007/s00126-007-0160-4.
• Marsden, D. D. (1986): The current limited impact of Witwatersrand gold-mine residues on water pollution in the Vaal River system. – J. S. Afr. Inst. Min. Metall., 86(12):481–504, 23+X Tab.
• Marsden, D. D. & Kun, L. E. (1981): A novel method for the underground disinfection of mine water by in situ chlorine generation. – J. S. Afr. Inst. Min. Metall., 81(8):233–238.
• Marsden, J., Pearce, S., Sambrook, T., Dent, J. & Barnes, A. (2021): Site Specific Optimisation Assessment Of Circum-neutral Water Treatment Using a Cost-treatability Curve Assessment. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 334–339; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Marsden, J. O. & House, C. I. (2006): The Chemistry of Gold Extraction, 2nd edn. – 651 p., Littleton (Society for Mining, Metallurgy, and Exploration).
• Marston, A. J. (2017): Alloyed waterscapes: mining and water at the nexus of corporate social responsibility, resource nationalism, and small-scale mining. – Wiley Interdiscip. Rev.-Water, 4(1):13, doi:10.1002/wat2.1175.
• Marszałek, H. & Wąsik, M. (2001): Hydrogeochemical anomaly in waters of the pyrite deposit area in Wieściszowice (Western Sudetes Mts., SW Poland). – In: Seiler, K. P. & Wohnlich, S. (eds): New Approaches Characterizing Groundwater Flow. – p. 1031–1034.
• Marszelewski, W., Dembowska, E. A., Napiorkowski, P. & Solarczyk, A. (2017): Understanding Abiotic and Biotic Conditions in Post-Mining Pit Lakes for Efficient Management: A Case Study (Poland). – Mine Water Environ., 36(3):418–428, doi:10.1007/s10230-017-0434-8.
• Marta-Almeida, M., Mendes, R., Amorim, F. N., Cirano, M. & Dias, J. M. (2016): Fundao Dam collapse: Oceanic dispersion of River Doce after the greatest Brazilian environmental accident. – Mar. Pollut. Bull., 112(1-2):359–364, doi:10.1016/j.marpolbul.2016.07.039.
• Martel, A. T., Gibling, M. R. & Nguyen, M. (2001): Brines in the Carboniferous Sydney Coalfield, Atlantic Canada. – Appl. Geochem., 16(1):35–55, 12 Abb., 2 Tab.
• Martel, A. T., Kennedy, A. & Gibling, M. R. (1997): Saline brines of the Sydney Basin; origin as evaporative Windsor residues? (abstract). – Atlantic Geology – Atlantic Geoscience Society, 33(1):69–70.
• Martell, A. E., Motekaitis, R. J., Chen, D., Hancock, R. D. & McManus, D. (1996): Selection of new Fe(III)/Fe(II) chelating agents as catalysts for the oxidation of hydrogen sulfide to sulfur by air. – Can. J. Chem., 74(10):1872–1879, 4 Abb., 2 Tab.; doi:10.1139/v96-210.
• Martell, P. (1907): Zur Geschichte des Tiroler Bergbaues. – Glückauf, 43(34):1079–1081.
• Märten, H. (2005): Environmental Management and Optimization of In-situ-Leaching at Beverley. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 537–546, Heidelberg (Springer).
• Märten, H. (2006): Neueste Trends zur aktiven Wasserbehandlung und Anwendungsbeispiele [Latest trends in active water treatment and application examples]. – Wiss. Mitt. Inst. Geol., 31:13–22, 5 Abb.
• Marti, J., Riera, F. & Martinez, F. (2021): Interpretation of the Failure of the Aznalcollar (Spain) Tailings Dam. – Mine Water Environ., 40(1):189–208, doi:10.1007/s10230-020-00712-8.
• Martikainen, K. (2016): Aijalan Cu-Zn-Pb-kaivoksen aiheuttama metallikuormitus vesistöön ja kuormituksen mahdollinen hallinta [The metal contamination to waters at the Aijala mine and its management options]. – 79 p., Helsinki University, 36 Abb., 14 Tab., 2 Anl.; Helsinki.
• Martikainen, P., Korhonen, K. & Tarkiainen, L. (2021): Heavy metal toxicity and mortality—association between density of heavy metal bands and cause specific hospital admissions and mortality: population based cohort study. – BMJ, 375:e067633, doi:10.1136/bmj-2021-067633.
• Martin, A., Goldblatt, R. & Stockwell, J. (2015): In Situ Attenuation of Selenium in Coal Mine Flooded Pits. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Martin, A., McNee, C., Russell, J. & Gelderland, D. (2015): Performance of a 16 ha Engineered Wetland for the Treatment of Neutral-pH Gold Mine Effluents (Ontario, Canada). – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Martin, A. J., Crusius, J., McNee, J. J. & Yanful, E. K. (2003): The Mobility of Radium-226 and Trace Metals in Pre-oxidized Subaqueous Uranium Mill Tailings. – Appl. Geochem., 18(7):1095–1110.
• Martin, A. J., Fraser, C., Dunbar, D., Mueller, S. & Eriksson, N. (2017): Pit Lake Modelling at the Aitik Mine (Northern Sweden): Importance of Site-Specific Model Inputs and Implications for Closure Planning. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 154–160, Lappeenranta (Lappeenranta University of Technology).
• Martin, A. J., Fraser, C., Simpson, S., Belzile, N., Chen, Y.-W., London, J. & Wallschläger, D. (2018): Hydrological and biogeochemical controls governing the speciation and accumulation of selenium in a wetland influenced by mine drainage. – Environ. Toxicol. Chem., 37(7):1824–1838, doi:10.1002/etc.4123.
• Martin, A. J., Helsen, J., Crozier, T., Parent, G., Paszkowski, D., Mendoza, C., Provost, H., Gaspar, C. & Russell, J. (2018): Permeable Reactive Barrier Feasibility Assessment at Goldcorp’s Red Lake Gold Mines: Delineation of Groundwater Flow Paths and Contaminant Behaviour. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 666–671; (Tshwane University of Technology).
• Martin, A. J. & Salvador, S. (2023): Pit Lake Water Quality Prediction: Insights into the Modelling of Non-Conservative Processes. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 338–343; (International Mine Water Association).
• Martin, G. M. & Bareither, C. A. (2024): Predicting Water Content and Saturation in Mine Tailings with an Electromagnetic Soil Moisture Sensor. – Mine Water Environ., 43(4):727–741, doi:10.1007/s10230-024-01017-w.
• Martin, G. P. R. (1968): Eine zeitgenössische Liste der im Jahre 1776 auf kurpfälzischem Territorium betriebenen Quecksilber-Bergwerk. – Pfälzer Heimat, 19(3):100–103.
• Martin, J. T., Leshuk, T., Wilson, B., Young, Z. & Gu, F. (2021): Passive Solar Photocatalytic Treatment in Mining Process-affected Water. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 340–345; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Martin, J. W. & Croukamp, L. (2021): Exploration into the potential for a low-enthalpy geothermal power plant in Cape fold belt. – Geothermics, 89 doi:10.1016/j.geothermics.2020.101934.
• Martin, M., Janneck, E., Paul, M., Meyer, J., Jenk, U. & Baacke, D. (2019): Möglichkeiten des Schadstoffrückhalts in unterirdischen Grubengebäuden des Erz- und Spatbergbaus. – In: Paul, M. (ed) WISSYM19 – Shaping the future: Long-term experiences and innovations in mine remediation. – p. 185–194, Chemnitz (Wismut GmbH).
• Martin, M., Janneck, E., Paul, M., Meyer, J., Jenk, U. & Baake, D. (2019): Möglichkeiten des Schadstoffrückhalts in unterirdischen Grubengebäuden des Erz- und Spatbergbaus – Abschlussbericht zum TP 1.2. – Unpubl. Report for Sächsisches Landesamt für Umwelt Landwirtschaft und Geologie 160 p., Freiberg (G.E.O.S. Ingenieurgesellschaft mbH).
• Martin, M. & Markl, G. (1991): Die Grube Hilfe Gottes im Stammelbach bei Schiltach, Mittlerer Schwarzwald. – Jh. geol. L.-A. Baden-Württemberg, 33:287–295, 4 Abb.
• Martin, N. D. & Gabora, M. M. (2018): Modeling Complex Mine Water Closure Challenges using a Coupled FEFLOW-GoldSim Model. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 41–46; (Tshwane University of Technology).
• Martinek, K.-P. (1993): Ein Frühbronzezeitliches Randleistenbeil vom Buchberg, Tirol. – Fundberichte aus Österreich, 32:693–694, 1 Abb.
• Martinek, K.-P. (1997): Die Technologie der frühbronzezeitlichen Fahlerzverhüttung am Beispiel der Funde vom Buchberg bei Wiesing, Tirol. – Tagung f. Archäometrie und Denkmalpflege am 24.-26.3.1997:81–83, 1 Tab.
• Martínez Arévalo, P. (1999): Mining and environmental Legislation in European Union Countries. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 787–790, Sevilla (International Mine Water Association).
• Martinez, C. J. & Wise, W. R. (2003): Analysis of Constructed Treatment Wetland Hydraulics with the Transient Storage Model OTIS. – Ecol. Eng., 20(3):211–222, doi:10.1016/S0925-8574(03)00029-6.
• Martínez, N. M., Basallote, M. D., Meyer, A., Cánovas, C. R., Macías, F. & Schneider, P. (2019): Life cycle assessment of a passive remediation system for acid mine drainage: Towards more sustainable mining activity. – J. Clean Prod., 211:1100–1111, doi:10.1016/j.jclepro.2018.11.224.
• Martínez Pérez, S. & Sastre, A. (1999): Gravel Pit Restoration and associated Land use Change in the Jarama River Valley (Madrid, Spain). – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 675–679, 5 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Martinez-Olmos, A., Capel-Cuevas, S., López-Ruiz, N., Palma, A. J., de Orbe, I. & Capitán-Vallvey, L. F. (2011): Sensor array-based optical portable instrument for determination of pH. – Sens. Actuator B-Chem., 156(2):840–848, 10 Abb., 4 Tab.; doi:10.1016/j.snb.2011.02.052.
• Martinez-Pagan, P., Gomez-Ortiz, D., Martin-Crespo, T., Martin-Velazquez, S. & Martinez-Segura, M. (2021): Electrical Resistivity Imaging Applied to Tailings Ponds: An Overview. – Mine Water Environ., 40(1):285–297, doi:10.1007/s10230-020-00741-3.
• Martini, H. J. (1964): Grundlagen der Wasserversorgung in Ariden Gebieten. – Z. dt. geol. Ges., 116(1):237–237, doi:10.1127/zdgg/116/1964/237.
• Martini, J. E. J. (1983): Lonecreekite, sabieite, and clairite, new secondary ammonium ferric-iron sulfates from Lone Creek Fall cave, near Sabie, eastern Transvaal. – Annals of the Geological Survey (South Africa), 17:29–34.
• Martini, J. E. J. & Kavalieris, I. (1976): The karst of Transvaal (South Africa). – Int. J. Speleol., 8(3):229–251, doi:10.5038/1827-806X.8.3.1.
• Martini, J. E. J., Wipplinger, P. E., Moen, H. F. G. & Keyser, A. (2003): Contribution to the speleology of Sterkfontein Cave, Gauteng Province, South Africa. – Int. J. Speleol., 32(1):43–69, doi:10.5038/1827-806X.32.1.4.
• Martini, J. E. J., Wipplinger, P. E., Moen, H. F. G. & Keyser, A. (2004): Contribution to the speleology of Sterkfontein Cave, Gauteng Province, South Africa. – Speleogenesis and Evolution of Karst Aquifers, 2(1):1–20.
• Martinius, A. W. & Molenaar, N. (1991): A Coral-Mollusc (Goniaraea-Crassatella) Dominated Hardground Community in a Siliciclastic-Carbonate Sandstone (The Lower Eocene Roda Formation, Southern Pyrenees, Spain). – Palaios, 6(2):142, doi:10.2307/3514879.
• Martins, A. F., Mallmann, C. A., Arsand, D. R., Mayer, F. M. & Brenner, C. G. B. (2011): Occurrence of the Antimicrobials Sulfamethoxazole and Trimethoprim in Hospital Effluent and Study of Their Degradation Products after Electrocoagulation. – Acta Hydrochim. Hydrobiol., 39(1):21–28, doi:10.1002/clen.201000126.
• Martins, J. B., Matos, A. C. & Bianchi, A. (1978): Free surface flow in porous media by finite element methods. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 825–846; Maracena (Asociación Nacional de lngenieros de Minas).
• Martius, G., Fiedler, K. & Herrmann, J. M. (2008): Structure from Behavior in Autonomous Agents: 2008 IEEE/RSJ International Conference on Robots and Intelligent Systems, Vols 1-3, Conference Proceedings. – 858–862 p., New York (IEEE); doi:10.1109/iros.2008.4651231.
• Martynenko, O. G. & Khramtsov, P. P. (2005): Free-Convective Heat Transfer – With Many Photographs of Flows and Heat Exchange. – Heidelberg (Springer); doi:10.1007/3-540-28498-2.
• Marušič, I. (1996): Land Use in Karst: Engineering in Karst. – 10 p., 15 Abb.; Portoroz (Proceedings International Mine Water Association Workshop).
• Máša, B., Pulišová, P., Bezdička, P., Michalková, E. & Šubrt, J. (2012): Ochre Precipitates and Acid Mine Drainage in a Mine Environment. – Ceram. Silik., 56(1):9–14, 2 Abb., 4 Tab.
• Masaki, Y., Washio, T., Hagihara, K., Hamai, T., Horiuchi, K., Semoto, Y., Kamiya, T., Takamoto, K. & Sato, N. (2023): A Biological Sulfate-Reducing Process for Zinc-Containing AMD in Japan: Comparison of Annual Treatment Performances Among Nutrient Conditions of Ethanol, Rice Bran and Their Hybrid for Sulfate-Reducing Bacteria. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 344–350; (International Mine Water Association).
• Maselela, J. L., Mokgobu, M. I. & Mudau, L. S. (2024): The evaluation of bottled water quality compliance association formal and informal retailers in Gauteng municipality. South Africa. – Appl. Food Res., 4(2) doi:10.1016/j.afres.2024.100576.
• Maselela, J. L., Mokgobu, M. I. & Mudau, L. S. (2024): A regulatory framework for bottled water quality monitoring: A case of Emfuleni local municipality. – Heliyon, 10(10) doi:10.1016/j.heliyon.2024.e31543.
• Maselela, J. L., Mokoena, M. M., Mokgobu, M. I. & Mudau, L. S. (2024): The microbiological quality of bottled and tap water: Risks and regulations. – Sustainable Environ., 10(1) doi:10.1080/27658511.2024.2415168.
• Masferrer, J. A. R. (2002): Passive Treatment of Acid Mine Drainage at the La Extranjera Mine (Puertollano, Spain). – Mine Water Environ., 21(3):111–113, 3 Abb.; doi:10.1007/s102300200031.
• Mashalane, T. B., Novhe, N. O., Yibas, B., Coetzee, H. & Wolkersdorfer, Ch. (2018): Metal Removal from Mine Water Using Passive Treatment Technologies (Anaerobic and Aerobic) in the Ermelo Coalfields, Mpumalanga, South Africa. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 146–150, 5 Abb., 1 Tab.; (Tshwane University of Technology).
• Mashishi, D. T. & Wolkersdorfer, Ch. (2017): The Whitehill Formation As A Potential Analogue To The Acid Mine Drainage Issues In The Witwatersrand, South Africa. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 745–752, 4 Abb., 4 Tab.; Lappeenranta (Lappeenranta University of Technology).
• Mashishi, D. T., Wolkersdorfer, Ch. & Coetzee, H. (2022): The Whitehill Formation as a Natural Geochemical Analogue to the Witwatersrand Basin’s Mine Water Issues, South Africa. – Environ. Sci. Pollut. Res., 9 fig., 7 tab.; doi:10.1007/s11356-021-17699-6.
• Masindi, V., Akinwekomi, V., Maree, J. & Muedi, K. (2017): Efficiencies of Different Alkaline Generating Agents for the Treatment of Acid Mine Drainage: A Comparative Study and Techno-economic Appraisals. Paper presented at the IMWA 2017 – Mine Water & Circular Economy, Lappeenranta. – p. 1409–1415; (Lappeenranta University of Technology).
• Masindi, V., Gitari, M. W., Tutu, H. & DeBeer, M. (2017): Synthesis of cryptocrystalline magnesite–bentonite clay composite and its application for neutralization and attenuation of inorganic contaminants in acidic and metalliferous mine drainage. – J. Water Process Eng., 15:2–17, doi:10.1016/j.jwpe.2015.11.007.
• Masindi, V., Gitari, W. M., Tutu, H., Beer, M. D. & Nekhwevha, N. (2014): Neutralization and Attenuation of Metal Species in Acid Mine Drainage and Mine Leachates Using Magnesite: a Batch Experimental Approach. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 640–644, Xuzhou (International Mine Water Association).
• Masindi, V. & Ndiritu, J. (2017): Fractional and Sequential Recovery of inorganic Contaminants from Acid Mine Drainage Using Cryptocrystalline Magnesite. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 689–695, Lappeenranta (Lappeenranta University of Technology).
• Masindi, V. & Osman, M. S. (2017): Integrated Treatment of Acid Mine Drainage using BOF Slag, Lime/Soda ash and Reverse Osmosis (RO): Implication for the Production of Drinking Water. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 381–388, Lappeenranta (Lappeenranta University of Technology).
• Masindi, V. & Shingwenyana, R. (2018): Reclamation, Recovery and the Synthesis of Valuable Minerals from Acid Mine Drainage Treatment Process. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1099–1104; (Tshwane University of Technology).
• Maslin, M. A., Hall, M. A., Shackleton, N. J. & Thomas, E. (1996): Calculating surface water pCO2 from foraminiferal organic d13C. – Geochim. Cosmochim. Acta, 60(24):5089–5100.
• Mason, C. M., Paxton, G., Parsons, R., Parr, J. M. & Moffat, K. (2014): “For the benefit of Australians”: Exploring national expectations of the mining industry. – Resour. Policy, 41:1–8, doi:10.1016/j.resourpol.2014.01.008.
• Mason, D. G. & Gupta, M. K. (1972): Reverse osmosis demineralization of acid mine drainage. – 110 p., Washington (U.S. Government Print. Office).
• Mason, J. S. (s.a.): Prevention of Environmental Disaster at Cwmrheidol Mine, Central Wales, Early 1990s. http://www.geologywales.co.uk/cwmrheidol.htm Accessed 2014-06-17.
• Massar, J. (1975): Ein Besuch der ehemaligen Kupfer- und Schwefelkiesgrube Rotenstein bei Serfaus in Tirol. – Der Aufschluss, 26(3):155–157.
• Mast, M. A., Verplanck, P. L., Wright, W. G. & Bove, D. J. (2007): Characterization of Background Water Quality. – U.S. Geol. Surv. Prof. Pap., 1651(E7):347–386, 14 Abb., 10 Tab.
• Masters, B. K. (1988): Biological Filtration of Industrial Effluent Water – A Successful Case Study. – Proceedings, 3rd International Mine Water Congress, Melbourne:763–770, 3 Abb.
• Masterson, W. D. & Kyle, J. R. (1984): Geological, geochemical, stable isotope, and fluid inclusion characteristics of epithermal gold mineralization, Velvet District, Nevada. – J. Geochem. Explor., 20(1):55–74.
• Mastin, J., Harner, T., Schuster, J. K. & South, L. (2022): A review of PCB-11 and other unintentionally produced PCB congeners in outdoor air. – Atmospheric Pollution Research, 13(4):101364, doi:https://doi.org/10.1016/j.apr.2022.101364.
• Mastrine, J. A., Bonzongo, J.-C. J. & Lyons, W. B. (1999): Mercury concentrations in surface waters from fluvial systems draining historical precious metals mining areas ink southeastern U.S.A. – Appl. Geochem., 14(2):147–158, 3 Abb., 4 Tab.; doi:10.1016/S0883-2927(98)00043-2.
• Mastrocicco, M., Prommer, H., Pasti, L., Palpacelli, S. & Colombani, N. (2011): Evaluation of saline tracer performance during electrical conductivity groundwater monitoring. – J. Contam. Hydrol., 123(3):157–166, doi:10.1016/j.jconhyd.2011.01.001.
• Masuda, N., Ishiyama, D., Shibayama, A., Takasaki, Y., Kawaraya, H., Sato, H., Stevanović, Z. O. & Obradović, L. (2012): Study on the mining influenced water and a possibility to extract copper metal from tailings deposition in Bor, Serbi: International Mine Water Association Symposium. – 637–642 p., Bunbury (Edith Cowan University).
• Masuda, N., Marković, R., Bessho, M., Bozic, D., Obradović, L., Marinković, V., Ishiyama, D. & Stevanović, Z. (2017): A new approach to recover dissolved metals in AMD by two-step pH control on the neutralization method. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1111–1118, Lappeenranta (Lappeenranta University of Technology).
• Masuda, N., Marković, R., Bozić, D., Bessho, M., Inoue, T., Hoshino, K., Ishiyama, D. & Stevanović, Z. (2019): Experiment Results of Metal Recovery by a Two- Step Neutralization Process from AMD from a Copper Mine in Serbia. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 232–237; Perm, Russia (Perm State University).
• Mataix González, C. (1999): Acid Mine Drainages Treatment by passive Systems: an Experience in Limeisa Coal Mine (La Coruna, Spain). – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 569–574, 5 Abb., 2 Tab.; Sevilla (International Mine Water Association).
• Matas-Escamilla, A., Alvarez, R., Garcia-Carro, F., Alvarez-Alonso, L., Cienfuegos, P., Menendez, J. & Ordonez, A. (2023): Mine water as a source of energy: an application in a coalfield in Laciana Valley (León, NW Spain). – Clean Technol. Environ. Policy:1–14, doi:10.1007/s10098-023-02526-y.
• Mataveli, G., Chaves, M., Guerrero, J., Escobar-Silva, E. V., Conceição, K. & de Oliveira, G. (2022): Mining Is a Growing Threat within Indigenous Lands of the Brazilian Amazon. – Remote Sens., 14(16):4092, 5 Abb.; doi:10.3390/rs14164092.
• Mather, J. D. (2004): 200 Years of British Hydrogeology. – Spec. Publ. – Geol. Soc. London, 225:1–393.
• Mather, J. D., Gray, D. A. & Jenkins, D. G. (1969): The use of tracers to investigate the relationship between mining subsidence and groundwater occurrence at Aberfan, South Wales. – J. Hydrol., 9(2):136–154, 6 Abb., 5 Tab.; doi:10.1016/0022-1694(69)90073-0.
• Mather, J. R., Banks, D., Dumpleton, S. & Fermor, M. (1998): Groundwater contaminants and their migration: 128. – 368 p., London (Geological Society Special Publication).
• Matheron, G. (1963): Principles of geostatistics. – Econ. Geol., 58(8):1246–1266, 4 Abb.; doi:10.2113/gsecongeo.58.8.1246.
• Mathur, R., Jun, L., Prush, V., Paul, J., Ebersole, C., Fornadel, A., Williams, J. Z. & Brantley, S. (2012): Cu isotope and concentrations during weathering of black shale of the Marcellus Formation, Huntington County, Pennsylvania (USA). – Chem. Geol., 304-305:175–184, doi:10.1016/j.chemgeo.2012.02.015.
• Mathuthu, M., Dlamini, S. G. & Njinga, R. L. (2018): Exposure Risks Assessment Due to Gamma Emitting Radionuclides in Soils and Consumable Waters Around Princess Gold Mine Dump in Roodepoort, South Africa. – Mine Water Environ., 37(1):98–105, doi:10.1007/s10230-017-0474-0.
• Matichenkov, V. V., Bocharnikova, E. A., Pahnenko, E. P., Khomiakov, D. M., Matichenkov, I. V., Qiang, Z. & Xiao, W. (2016): Reduction of Cd, Cu, Ni, and Pb Mobility by Active Si in a Laboratory Study. – Mine Water Environ., 35(3):302–309, doi:10.1007/s10230-015-0353-5.
• Matikainen, R. & Särkkä, P. (1982): Cut-and-Fill Stoping as Practiced at Outokumpu Oy. – In: Hustulid, W. A. (ed) Underground Mining Methods Handbook. – p. 571–584, 13 Abb., 8 Tab.
• Mato, Y., Isobe, T., Takada, H., Kanehiro, H., Ohtake, C. & Kaminuma, T. (2001): Plastic Resin Pellets as a Transport Medium for Toxic Chemicals in the Marine Environment. – Environ. Sci. Technol., 35:318–324, doi:10.1021/es0010498.
• Matschak, H. & Tropschug, R. (1958): Bergmännische Wasserwirtschaft in Tiefbaugruben – 1. Lehrbrief: Lehrbrief der Hauptabteilung Fernstudium 1. – 60 p., 41 Abb.; Berlin (Deutscher Verlag der Wissenschaften).
• Matschullat, J., Ottenstein, R. & Reimann, C. (2000): Geochemical background – can we calculate it? – Environ. Geol., 39(9):990–1000, doi:10.1007/s002549900084.
• Matschullat, J. & Wolkersdorfer, Ch. (2000): Exkursionsführer – Geologisch-geotechnisch-ökologische Exkursion nach Slowenien. – 146 p., Freiberg (TU Bergakademie Freiberg).
• Matshusa, K., Ogola, J. S. & Maas, K. (2012): Dispersion of Metals at Louis Moore Gold Tailings Dam, Limpopo Province, South Africa: International Mine Water Association Symposium. – 334 A–334 E p., Bunbury (Edith Cowan University).
• Matsiliza, N. (2012): Participatory Monitoring and Evaluation: Reviewing an Inclusive Approach in the South Africa’s Government Wide Monitoring and Evaluation. – Afr. Public Serv. Delivery Perform. Rev., 1(2):67–83, doi:10.4102/apsdpr.v1i2.31 .
• Matsumoto, S., Katayama, T., Yasutaka, T., Tomiyama, S. & Yamagata, S. (2024): Component separation and origin estimation of mining-influenced water based on fluoride ions and water isotopes in underground legacy mine, Central Japan. – J. Hydro. Regional Stud., 54:101856, doi:10.1016/j.ejrh.2024.101856.
• Matthes, R. & Bismarck, F. v. (2004): Initiatives to enhance Water Quality in Residual Pits in the Remediation of Eastern German Lignite Mines. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 167–173, 3 Abb.; Newcastle upon Tyne (University of Newcastle).
• Matthes, R. & Schreyer, J. (2007): Remediation of the old Wismut-Shaft 302 in Marienberg and Installation of a technical Plant for geothermic Mine Water Use (Ore Mountains, Germany): Water in Mining Environments. – 227–231 p., 7 Abb.; Cagliari (Mako Edizioni).
• Matthes, R. & Schreyer, J. (2007): Sanierung des WISMUT-Schachtes 302 in Marienberg und geothermische Nutzung des Grubenwassers. – bergbau,(9):445–446, 5 Abb.
• Matthess, G. (1970): Beziehungen zwischen geologischem Bau und Grundwasserbewegung in Festgesteinen: Abhandlungen des Hessischen Landesamtes für Bodenforschung. – 105 p., 20 Abb., 18 Tab., 4 Taf.; Wiesbaden (Hessisches Landesamt für Bodenforschung).
• Mattheß, G., Frimmel, F. H., Hirsch, P., Usdowski, H. E. & Schulz, H. D. (1992): Progress in Hydrogeochemistry. – 450 p., 285 Fig., 108 Tab.; Heidelberg (Springer).
• Matthiass, E. P. (1961): Die metallogenetische Stellung der Erzlagerstätten im Bereich Engadin und Arlberg. – Berg- u. Hüttenm. Mh., 106(1; 3):1–13; 45–55, 16 Abb., 2 Taf.
• Matthies, R. (2010): Biogeochemical processes in reducing and alkalinity producing systems, Bowden Close, UK. – 136 p., unpubl. PhD Newcastle University, 37 Abb., 8 Tab., 4 Anl.; Newcastle upon Tyne.
• Matthies, R. (2015): Application of heavy stable isotopes in mine water research. – Rev Environ Sci Biotechnol, 14(1):5–8, doi:10.1007/s11157-014-9361-3.
• Matthies, R., Aplin, A. C., Boyce, A. J. & Jarvis, A. P. (2009): Is bacterial sulfate reduction a dominant process for the removal of iron in Reducing and Alkalinity Producing Systems? – 1–8 [electronic document] p., 3 Abb., 1 Tab.; Skellefteå (Proceedings Securing the Future 2009 & 8th ICARD).
• Matthies, R., Aplin, A. C., Boyce, A. J. & Jarvis, A. P. (2010): Tracking Dominant Alkalinity Sources in a Passive Mine Water Treatment System with Stable Carbon Isotopes. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 249–251, Sydney, NS (Cape Breton University Press).
• Matthies, R., Aplin, A. C., Boyce, A. J. & Jarvis, A. P. (2012): Geochemical and stable isotopic constraints on the generation and passive treatment of acidic, Fe–SO₄ rich waters. – Sci. Total Environ., 420:238–249, doi:10.1016/j.scitotenv.2012.01.034.
• Matthies, R., Aplin, A. C. & Jarvis, A. P. (2010): Performance of a passive treatment system for net-acidic coal mine drainage over five years of operation. – Sci. Total Environ., 408(20):4877–4885, 8 Abb., 2 Tab.; doi:10.1016/j.scitotenv.2010.06.009.
• Matthies, R., Jarvis, A. P. & Aplin, A. C. (2009): Performance Evaluation of Two Reducing and Alkalinity Producing Systems for Coal Mine Drainage Remediation after 4 Years of Operation. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 531–538, 3 Abb., 4 Tab; Pretoria (Document Transformation Technologies).
• Matthies, R., Stützer, M., Kunze, G., Kutschke, S., Jordan, N., Zeidler, L. & Haschke, M. (2016): Advanced (bio)hydrometallurgical methods for the optimized extraction and beneficiation of Rare Earth Elements from Ion Adsorption Clays. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1341–1342, Freiberg (TU Bergakademie Freiberg).
• Matthießen, H. O. W. & Fuchslocher, E. (1948): Die Pumpen – Ein Leitfaden fur Ingenieurschulen und zum Selbstunterricht. – 123 p., 238 Abb.; Berlin (Springer); doi:10.1007/978-3-642-52989-4.
• Mattila, K., Zaitsev, G. & Langwaldt, J. (2007): Biological removal of nutrients from mine waters [Biologinen ravinteiden poisto kaivosvedestä]. – 79 p., 50 Abb., 25 Tab.; Rovaniemi (Finnish Forest Research Institute).
• Mattsson, K. T. & Stenbacka, S. (2004): The Role of Social Capital in Local Development – The Case of Leksand and Rättvik, Sweden. – 55 p., 3 Abb., 1 Tab.; Uppsala (EU Project Restructuring in Marginal Rural Areas [RESTRIM]).
• Matynia, A., Koralewska, J., Głuchy, A. & Kwiecień, J. (2003): Strącanie Hydroksyapatytu I Struwitu z Wody Kopalnianej [Precipitation of Hydroxyapatite and Struvite from Mine Water]. – Chemia i Inżynieria Ekologiczna, 10(1-2):133–143, 7 Abb., 2 Tab.
• Matznetter, J. (1956): Der Vorgang der Massenbewegungen an Beispielen des Klostertales in Vorarlberg. – Geog. Jahresber. Österreich, 26:41–59, 4 Abb., 2 Kart.
• Maucher, A. (1954): Zur „alpinen Metallogenese“ in den bayerischen Kalkalpen zwischen Loisach und Salzach. – Tschermaks Min. Petr. Mitt., 4:454–463, doi:10.1007/BF01140415.
• Maunder, M., Upson, T., Spooner, B. & Kendle, T. (1995): Saint Helena: Sustainable Development and Conservation of a Highly Degraded Island Ecosystem. – In: Vitousek, P. M., Loope, L. L. & Adsersen, H. (eds): Islands: Biological Diversity and Ecosystem Function. – p. 205–217, Berlin, Heidelberg (Springer Berlin Heidelberg); doi:10.1007/978-3-642-78963-2_16.
• Maurenbrecher, P. M. & Verhoef, P. N. W. (1989): Review of Research on the Structural Stability of Underground Space in Abandoned Building-Stone Mines in the Cretaceous Limestones of Southeast Holland. – Tunnelling and underground space technology, 4(4):489–493, 4 Abb.
• Maus, V., Giljum, S., Gutschlhofer, J., da Silva, D. M., Probst, M., Gass, S. L. B., Luckeneder, S., Lieber, M. & McCallum, I. (2020): A global-scale data set of mining areas. – Scientific Data, 7(1):289, doi:10.1038/s41597-020-00624-w.
• Maus, V. & Werner, T. T. (2024): Impacts for half of the world’s mining areas are undocumented – As the race to extract minerals and metals for clean-energy technologies accelerates, researchers must take more steps to map and study mines globally. – Nature, 625:27–29, 3 Abb.; doi:10.1038/d41586-023-04090-3.
• Mäussnest, O., Müller, R., Okrusch, M., Richter, P., Salger, M., Shazly, S. E., Schwarzmeier, J. & Weinelt, W. (1985): Zur Geologie des Spessarts und Mainischen Odenwalds. – Geol. Bavarica, 87:1–117, 45 Abb., 20 Tab., 2 Beil.
• Mavec, M. & Supovec, I. (1998): Pliocene aquifer Dewatering in Velenje Coal Mine and its Effects on Land Subsidence: Mine Water and Environmental Impacts 1. – 75–86 p., 7 Abb., 2 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Mavis, F. T., Ho, C. & Tu, Y.-C. (1935): The Transportation of Detritus Flowing Water – I. – Uni. Iowa Stud. Eng. – Bull., 5:1–52, 15 Abb., 8 Tab.
• Mavotchy, N. O., El Albani, A., Trentesaux, A., Fontaine, C., Pierson-Wickmann, A. C., Boulvais, P., Riboulleau, A., Pemba, L. N., Pambo, F. & Gauthier-Lafaye, F. (2016): The role of the early diagenetic dolomitic concretions in the preservation of the 2.1-Ga paleoenvironmental signal: The Paleoproterozoic of the Franceville Basin, Gabon. – C.R. Geosci., 348(8):609–618, doi:10.1016/j.crte.2016.08.002.
• Mavrov, V., Stamenov, S., Todorova, E., Chmiel, H. & Erwe, T. (2006): New hybrid electrocoagulation membrane process for removing selenium from industrial wastewater. – Desalination, 201(1-3):290–296, 5 Abb., 1 Tab.; doi:10.1016/j.desal.2006.06.005.
• Mavunganidze, T. & Tutu, H. (2013): The role of humic substances in metal attenuation in leachates emanating from abandoned gold tailings footprints. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 425–428, 5 Abb., 3 Tab.; Golden (International Mine Water Association).
• Mawhinney, H. (2002): ’Vol du boudon’: The purloined letter in Perec’s La ’Disparition’. – Mod. Lang. Rev., 97:47–58, doi:10.2307/3735618.
• Maxey, G. B. (1964): Hydrostratigraphic units. – J. Hydrol., 2(2):124–129, doi:10.1016/0022-1694(64)90023-X.
• Maximovich, N. G. (2008): Use of Geochemical Barriers for Environment Remediation after Mine Closure. Paper presented at the 10th International Mine Water Association Congress, Karlsbad. – p. 301–304.
• Maximovich, N. G., Kataev, V. N. & Blinov, S. M. (1995): Consequence of the Kizel Coalfield acid mine water disposal into karst cavities. – In: Kharaka, Y. K. & Chudaev, O. V. (eds): Water-Rock Interaction 8. – p. 885–888, 1 Abb.; Rotterdam (Balkema).
• May, A. (2012): Lessons from Carolina – Acid mine drainage, access to water and intergovernmental relations. – Local Government Bulletin, 14(3):15–16.
• May, P. M., Batka, D., Hefter, G., Konigsberger, E. & Rowland, D. (2018): Goodbye to S2– in aqueous solution. – Chem. Commun., 54(16):1980–1983, doi:10.1039/c8cc00187a.
• Mayer, A. S., Carriere, P. P. E., Gallo, C., Pennell, K. D., Taylor, T. P., Williams, G. A. & Zhong, L. (1997): Groundwater Quality. – Water Environ. Res., 69(4):777–844, doi:10.2175/106143097X135046.
• Mayer, B., Fritz, P., Prietzel, J. & Krouse, H. R. (1995): The use of stable sulfur and oxygen-isotope ratios for interpreting the mobility of sulfate in aerobic forest soil. – Appl. Geochem., 10(2):161–173, 8 Abb., 3 Tab.
• Mayer, E. (1994): Heavy Metals Removal/Stabillization New Microfiltration Technology. – 221–229 p., 7 Tab.; Kissimmee (Proceedings 15th Conference on Pollution Prevention).
• Mayer, F. (1930): Das Vorkommen von Erzen und Kohlen in Südbayern und deren Gewinnung durch Bergbau und Bergbauversuche in früherer Zeit. – Bericht des Naturwissenschaftlichen Vereins für Schwaben und Neuburg, 48:44–61.
• Mayer, G. (1961): Karlsruher Forscher, Lehrer, Freunde und Förderer der Geologie, Mineralogie, Paläontologie und des Bergbaus im 18. und 19. Jahrhundert. – So weit der Turmberg grüßt, 13(5):65–80, 4 Abb.
• Mayer, G. (1974): Badische Paläontologen, vorzüglich Liebhaber (Sammler, Popularisatoren, Förderer), die im Catalogus bio-bibliographicus von Lambrecht & Quenstedt (1938) fehlen. – Der Aufschluss, Sonderheft, 25(9):477–495, 19 Abb.
• Mayer, J. M. & Yost, R. (2017): Reproduction of a Complex Tracer Test through Explicit Simulation of a Heterogeneous Aquifer using Bayesian Markov Chain Monte Carlo. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 532–539, Lappeenranta (Lappeenranta University of Technology).
• Mayer, P., Parkerton, T. F., Adams, R. G., Cargill, J. G., Gan, J., Gouin, T., Gschwend, P. M., Hawthorne, S. B., Helm, P., Witt, G., You, J. & Escher, B. I. (2014): Passive sampling methods for contaminated sediments: Scientific rationale supporting use of freely dissolved concentrations. – Integr. Environ. Assess. Manage., 10(2):197–209, doi:10.1002/ieam.1508.
• Mayer, P., Tolls, J., Hermens, J. L. & Mackay, D. (2003): Equilibrium sampling devices. – Environ. Sci. Technol., 37(9):184A–191A, doi:10.1021/es032433i.
• Mayer, W., Jędrysek, M. O., Górka, M., Drzewicki, W., Mochnacka, K. & Pieczka, A. (2012): Preliminary results of sulphur isotope studies on sulfides from selected ore deposits and occurrences in the Karkonosze–Izera Massif (the Sudety Mts., Poland). – Mineralogia, 43(3-4):213, 1 Abb., 1 Tab.; doi:10.2478/v10002-012-0010-6.
• Mayes, W., Anton, Á., Thomas, C., Potter, H., Rudall, S., Amezaga, J., Gandy, C. & Jarvis, A. (2015): National Assessment of Sediment-Related Diffuse Mining Pollution in England and Wales. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Mayes, W. & Jarvis, A. P. (2016): Mine water outbreak and stability risks: examples and challenges in England and Wales. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1078–1083, Freiberg (TU Bergakademie Freiberg).
• Mayes, W. M., Gozzard, E., Potter, H. A. B. & Jarvis, A. P. (2008): Quantifying the importance of diffuse minewater pollution in a historically heavily coal mined catchment. – Environ. Pollut., 151(1):165–175, 5 Abb., 3 Tab.; doi:10.1016/j.envpol.2007.02.008.
• Mayes, W. M., Jarvis, A. P., Burke, I., Walton, M. & Gruiz, K. (2011): Trace and rare earth element dispersal downstream of the Ajka red mud spill, Hungary: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 29–34 p., Aachen (RWTH Aachen University).
• Mayes, W. M., Jarvis, A. P. & Younger, P. L. (2005): Assessing the importance of diffuse mine water pollution: a case study from County Durham, UK: Mine Water 2005 – Mine Closure. – 497–505 p., 3 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Mayes, W. M., Large, A. R. G. & Younger, P. L. (2005): The impact of pumped water from a de-watered Magnesian limestone quarry on an adjacent wetland: Thrislington, County Durham, UK. – Environ. Pollut., 138(3):443–454, doi:10.1016/j.envpol.2005.04.018.
• Mayo, A. L., Morris, T. H., Peltier, S., Petersen, E. C., Payne, K., Holman, L. S., Tingey, D., Fogel, T., Black, B. J. & Gibbs, T. D. (2003): Active and inactive groundwater flow systems; evidence from a stratified, mountainous terrain. – Geological Society of America Bulletin, 115(12):1456–1472, doi:10.1130/B25145.1.
• Mayo, J. S. & Jackson, D. A. (2006): Quantifying Littoral Vertical Habitat Structure and Fish Community Associations using Underwater Visual Census. – Environ. Biol. Fishes, 75(4):395–407, doi:10.1007/s10641-005-5150-8.
• Mayr, A. (2010): Arbeit im Krieg – Die sozioökonomische Lage der Arbeiterschaft in Tirol im Ersten Weltkrieg. – 443 p., Innsbruck (Wagner).
• Mayr, O. (1926): Die Wassernamen Nordtirols und verwandte Bezeichnungen. – Veröff. Mus. Ferdinandeum, 6:174–263.
• Mays, L. W. (2010): Ancient Water Technologies. – 280 p., Heidelberg (Springer).
• Mazet, A., Keck, G. & Berny, P. (2005): Concentrations of PCBs, organochlorine pesticides and heavy metals (lead, cadmium, and copper) in fish from the Drôme river – Potential effects on otters (Lutra lutra). – Chemosphere, 61(6):810–816, 3 Abb., 4 Tab.; doi:10.1016/j.chemosphere.2005.04.056.
• Mazor, E., Gilad, D. & Fridman, V. (1995): Stagnant aquifer concept; Part 2, Small scale artesian systems – Hazeva, Dead Sea rift valley, Israel. – J. Hydrol., 173(1-4):241–261, 14 Abb., 1 Tab.
• Mazor, E. & Verhagen, B. T. (1983): Dissolved ions, stable and radioactive isotopes and noble gases in thermal waters of South Africa. – J. Hydrol., 63(3):315–329, doi:10.1016/0022-1694(83)90048-3.
• Mazor, E., Verhagen, B. T. & Negreanu, E. (1974): Hot Springs of the Igneous Terrain of Swaziland – Their noble gases, hydrogen, oxygen and carbon isotopes and dissolved ions. Paper presented at the Isotope Techniques in Groundwater Hydrology 1974, Vienna, 11 – 15 March 1974. – p. 29–47; (International Atomic Energy Agency).
• Mazurek, M., Jakob, A. & Bossart, P. (2003): Solute Transport in Crystalline Rocks at Äspö – I: Geological Basis and Model Calibration. – J. Contam. Hydrol., 61(1-4):157–174.
• Mazzoni, E. & Rabassa, J. (2018): An Evolutionary Model of Volcanic Landscapes. – In: Mazzoni, E. & Rabassa, J. (eds): Lat Am Stud Book Ser. – p. 155–176, Cham (Springer Nature); doi:10.1007/978-3-319-71921-4_5.
• Mbhele, N. R., van der Merwe, W., Maree, J. P. & Theron, D. (2009): Recovery of Sulphur from Waste Gypsum. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 622–630, 8 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Mbudi, C. & Merkel, B. J. (2005): A Laboratory Assessment of Uranium and Arsenic Removal Efficiency from Schneckenstein Uranium Tailing Leachates Using Scrap Iron. – Wiss. Mitt. Inst. Geol., 28:43–49, 5 Abb.
• Mbudi, C. & Merkel, B. J. (2005): Uranium Fate in Saturated Porous Media under Arsenic, Iron and Bacteria Influence: The Role of Potassium. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 341–358, Heidelberg (Springer).
• McAuley, S. D. & Kozar, M. D. (2006): Ground-Water Quality in Unmined Areas and Near Reclaimed Surface Coal Mines in the Northern and Central Appalachian Coal Regions, Pennsylvania and West Virginia. – Scientific Investigations Report, 2006–5059 12 Abb., 6 Tab.
• McBain, J. W. (1909): The mechanism of the adsorption (“sorption”) of hydrogen by carbon. – Philosophical Magazine Series 6, 18(108):916–935, 16 Tab.; doi:10.1080/14786441208636769.
• McBride, T. P., Cannon, K. & Carter, M. W. (1991): Standards and Procedures for Release of Uranium Minewaters into a World Heritage Area: Biological and Chemical Aspects. – Proceedings, 4th International Mine Water Association Congress, 2:329–340, 1 Abb., 3 Tab.
• McCabe, O. M. & Otte, M. L. (2000): The wetland grass Glyceria fluitans for revegetation of metal mine tailings. – Wetlands, 20(3):548–559, 7 Abb., 7 Tab.
• McCaffrey, L. P. & Harris, C. (1996): Hydrological impact of the Pretoria Saltpan crater, South Africa. – J. Afr. Earth Sci., 23(2):205–212, 4 Abb., 3 Tab.; doi:10.1016/S0899-5362(96)00062-0.
• McCann, J. I. & Nairn, R. W. (2024): Metal loads accounting at a legacy mine site: The Tar Creek Superfund Site, Oklahoma, USA. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 426–432; Morgantown (International Mine Water Association).
• McCarthy, T. S. (2010): The decanting of acid mine water in Gauteng city-region: Provocations. – 26 p., Braamfontein (Gauteng City-Region Observatory).
• McCarthy, T. S. (2011): The impact of acid mine drainage in South Africa. – S. Afr. J. Sci., 107(5/6):712(1–7), 6 Abb.; doi:10.4102/sajs.v107i5/6.712.
• McCarthy, T. S., Bloem, A. & Larkin, P. A. (1998): Observations on the hydrology and geohydrology of the Okavango Delta. – S. Afr. J. Geol., 101(2):101–117, Refs: 47; illus. incl. 1 table, sketch maps.
• McCarthy, T. S., Ellery, W. N., Backwell, L., Marren, P., Klerk, B. d., Tooth, S., Brandt, D. & Woodborne, S. (2010): The character, origin and palaeoenvironmental significance of the Wonderkrater spring mound, South Africa. – J. Afr. Earth Sci., 58(1):115–126, doi:https://doi.org/10.1016/j.jafrearsci.2010.02.004.
• McCarthy, T. S. & Humphries, M. S. (2013): Contamination of the water supply to the town of Carolina, Mpumalanga, January 2012. – S. Afr. J. Sci., 109(9/10):112(1–10), 15 Abb., 1 Tab.; doi:10.1590/sajs.2013/20120112.
• McCarthy, T. S. & Pretorius, K. (2009): Coal Mining on the Highveld and its Implications for Future Water Quality in the Vaal River System. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 56–65, 12 Abb; Pretoria (Document Transformation Technologies).
• McCarthy, T. S. & Venter, J. S. (2006): Increasing pollution levels on the Witwatersrand recorded in the peat deposits of the Klip River wetland. – S. Afr. J. Sci., 102(1/2):27–34, 12 Abb., 2 Tab.
• McCartney, M., Morardet, S., Rebelo, L. M., Finlayson, C. M. & Masiyandima, M. (2011): A study of wetland hydrology and ecosystem service provision: GaMampa wetland, South Africa. – Hydrol. Sci. J.-J. Sci. Hydrol., 56(8):1452–1466, doi:10.1080/02626667.2011.630319.
• McCarty, C. G. & Vitz, E. (2006): pH Paradoxes: Demonstrating That It Is Not True That pH ≡ -log[H+]. – J. Chem. Educ., 83(5):752, doi:10.1021/ed083p752.
• McCauley, C. A. (2011): Assessment of Passive Treatment and Biogeochemical Reactors for Ameliorating Acid Mine Drainage at Stockton Coal Mine. – 338 p., Doctoral, University of Canterbury, 141 Abb., 73 Tab.; Canterbury.
• McCharles, R. & Zhao, L. (2009): Groundwater Withdrawal Sustainability, Sydney Wellfield, Cape Breton Regional Municipality, Nova Scotia, Canada. – 1–5 [CD–ROM] p., 7 Abb.; Halifax (62nd Canadian Geotechnical Conference).
• McCleary, E. C. & Kepler, D. A. (1994): Ecological Benefits of passive Wetland Treatment Systems designed for Acid Mine Drainage. Paper presented at the International Land Reclamation and Mine Drainage Conference, Pittsburgh. – p. 111–119, 1 Abb., 3 Tab.
• McCleskey, R. B. (2013): New method for electrical conductivity temperature compensation. – Environ. Sci. Technol., 47(17):9874–81, doi:10.1021/es402188r.
• McCleskey, R. B., Nordstrom, D. K. & Maest, A. S. (2004): Preservation of water samples for arsenic (III/V) determinations: an evaluation of the literature and new analytical results. – Appl. Geochem., 19:995–1009, 5 Abb., 4 Tab.
• McCleskey, R. B., Nordstrom, D. K. & Ryan, J. N. (2011): Electrical conductivity method for natural waters. – Appl. Geochem., 26, Supplement:S227–S229, doi:10.1016/j.apgeochem.2011.03.110.
• McCleskey, R. B., Nordstrom, D. K. & Ryan, J. N. (2012): Comparison of electrical conductivity calculation methods for natural waters. – Limnol. Oceanogr. Methods, 10:952–967, doi:10.4319/lom.2012.10.952.
• McCleskey, R. B., Nordstrom, D. K., Ryan, J. N. & Ball, J. W. (2012): A new method of calculating electrical conductivity with applications to natural waters. – Geochim. Cosmochim. Acta, 77:369–382, doi:10.1016/j.gca.2011.10.031.
• McCloskey, K., Almoric, E., Bessbousse, H., Mezailles, N. & Van Zutphen, S. (2010): Magpie Polymers – selective metal capture. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 143–147, 6 Abb.; Sydney, NS (Cape Breton University Press).
• McCourt, J. L. (1999): Environmental Legislation and Water Management Issues during Mine Closure in South Africa. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 743–749, 1 Tab.; Sevilla (International Mine Water Association).
• McCulley, B., Andrews, C., Johnson, B., Riese, A. C. & Jonas, J. (2023): Defining the Extent of Mine-Influenced Groundwater in a Mineralized and Agricultural Area Using Multiple Lines of Evidence. – Mine Water Environ., 42(1):78–97, doi:10.1007/s10230-023-00924-8.
• McCulloch, J. (1986): Asbestos – Its human cost. – 298 p., St. Lucia (University of Queensland Press).
• McCulloch, J. (2003): Asbestos Mining and Occupational Disease in Southern Rhodesia/Zimbabwe, 1915–98. – Hist. Workshop J., 2003(56):131–152, 2 Abb.; doi:10.1093/hwj/56.1.131.
• McCulloch, J. (2003): Asbestos mining in Southern Africa, 1893–2002. – Int. J. Occup. Environ. Health, 9(3):230–5, doi:10.1179/oeh.2003.9.3.230.
• McCulloch, J. (2005): Dust, Disease and Labour at Havelock Asbestos Mine, Swaziland. – J. South. Afr. Stud., 31(2):251–266, doi:10.1080/03057070500109425.
• McCulloch, J. (2006): Saving the asbestos industry, 1960 to 2006. – Public Health Rep., 121(5):609–614, doi:10.1177/003335490612100517.
• McCulloch, J. & Miller, P. (2023): Things Fall Apart – Independent Research, Asbestos Litigation and the Gold Miners’ Class Action: 1983–2019. – In: McCulloch, J. & Miller, P. (eds): Mining Gold and Manufacturing Ignorance: Occupational Lung Disease and the Buying and Selling of Labour in Southern Africa. – p. 371–402, Singapore (Palgrave Macmillan); doi:10.1007/978-981-19-8327-6_14.
• McCulloch, J. & Tweedale, G. (2008): Defending the Indefensible – The Global Asbestos Industry and its Fight for Survival. – 325 p., 2 Abb., 4 Tab.; Oxford (Oxford University Press); doi:10.1093/oso/9780199534852.001.0001.
• McCullough, C. (2021): Lake Kepwari: Western Australia’s First Successfully Relinquished Mine Lake. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 346–351; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• McCullough, C. & Diaz, A. (2020): Integrated Closure Planning For A High Altitude Pit Lake In The Peruvian Andes. – In: Pope, J., Wolkersdorfer, Ch., Sartz, L., Weber, A. & Wolkersdorfer, K. (eds): Mine Water Solutions. – p. 129–135, Christchurch (International Mine Water Association).
• McCullough, C. & O'Grady, B. (2022): Closure Of An Australian Pit Lake With AMD Using A Terminal Water Balance As An Evaporative Sink. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 247–252; (International Mine Water Association).
• McCullough, C. & Schultze, M. (2015): Riverine Flow-Through of Mine Pit Lakes – Improving both Mine Pit Lake and River Water Quality Values? – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• McCullough, C. & Sturgess, S. (2020): Human Health And Environmental Risk Assessment For Closure Planning Of The Argyle Diamond Mine Pit Lake. – In: Pope, J., Wolkersdorfer, Ch., Sartz, L., Weber, A. & Wolkersdorfer, K. (eds): Mine Water Solutions. – p. 187–193, Christchurch (International Mine Water Association).
• McCullough, C. D. (2011): Mine Pit Lakes – Closure and Management. – Perth (Australian Centre for Geomechanics).
• McCullough, C. D. (2016): Mine Water Research: Enhancing Mining Industry and Academic Collaboration. – Mine Water Environ., 35(1):113–118, doi:10.1007/s10230-015-0375-z.
• McCullough, C. D. (2024): The Importance of Nitrate Dynamics in Mine Pit Lakes of Drier Regions. – Mine Water Environ., 43(2):231–254, doi:10.1007/s10230-024-00987-1.
• McCullough, C. D. & Etten, E. J. B. v. (2011): Ecological Restoration of Novel Lake Districts: New Approaches for New Landscapes. – Mine Water Environ., 30(4):312–319, 3 Abb., 1 Tab.; doi:10.1007/s10230-011-0161-5.
• McCullough, C. D., Kumar, R. N., Lund, M. A., Newport, M., Ballot, E. & Short, D. (2012): Riverine breach and subsequent decant of an acidic pit lake: evaluating the effects of riverine flow-through on lake stratification and chemistry: International Mine Water Association Symposium. – 533–540 p., Bunbury (Edith Cowan University).
• McCullough, C. D. & Lund, M. A. (2006): Opportunities for Sustainable Mining Pit Lakes in Australia. – Mine Water Environ., 25(4):220–226, 2 Abb., 1 Tab.; doi:10.1007/s10230-006-0136-0.
• McCullough, C. D. & Lund, M. A. (2011): Limiting factors for crayfish and finfish in acidic coal pit lakes: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 35–40 p., Aachen (RWTH Aachen University).
• McCullough, C. D., Lund, M. A. & May, J. (2008): Field-scale demonstration of the potential for sewage to remediate acidic mine waters. – Mine Water Environ., 27(1):31–39, 3 Abb., 5 Tab.; doi:10.1007/s10230-007-0028-y.
• McCullough, C. D., Lund, M. A. & May, J. M. (2008): Field Scale Trials Treating Acidity in Coal Pit Lakes Using Sewage and Green Waste. – Proceedings, 10th International Mine Water Association Congress:599–602.
• McCullough, C. D., Marchand, G. & Unseld, J. (2013): Mine Closure of Pit Lakes as Terminal Sinks: Best Available Practice When Options are Limited? – Mine Water Environ., 32(4):302–313, 7 Abb., 1 Tab.; doi:10.1007/s10230-013-0235-7.
• McCullough, C. D., Marchant, G., Unseld, J., Robinson, M. & O’Grady, B. (2012): Pit lakes as evaporative ‘terminal’ sinks: an approach to best available practice mine closure: International Mine Water Association Symposium. – 167–174 p., Bunbury (Edith Cowan University).
• McCullough, C. D. & Schultze, M. (2018): Engineered river flow-through to improve mine pit lake and river values. – Sci. Total Environ., 640-641:217–231, doi:10.1016/j.scitotenv.2018.05.279.
• McCullough, C. D., Schultze, M. & Vandenberg, J. (2020): Realizing Beneficial End Uses from Abandoned Pit Lakes. – Minerals, 10(2):133, doi:10.3390/min10020133.
• McCullough, C. D., Steenbergen, J., Beest, C. t. & Lund, M. A. (2009): More than Water Quality: Environmental Limitations to a Fishery in Acid Pit Lakes of Collie, South-West Australia. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 507–511, 3 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• McCullough, C. D., van Rooijen, A. & van Maren, D. S. (2019): Process-based erosion modelling for shoreline rehabilitation design of a coal mine pit lake. Paper presented at the 13th International Conference on Mine Closure, Perth, 3–5 September 2019. – p. 75–88; Perth (Australian Centre for Geomechanics).
• McCullough, C. D. & Vandenberg, J. (2020): Studying Mine Pit Lake Systems Across Multiple Scales. – Mine Water Environ., 39(2):173–194, doi:10.1007/s10230-020-00678-7.
• McDermott, C. I., Randriamanjatosoa, A. R. L., Tenzer, H. & Kolditz, O. (2006): Simulation of heat extraction from crystalline rocks: The influence of coupled processes on differential reservoir cooling. – Geothermics, 35:321–344, 11 Abb., 1 Tab.
• McDermott, M., Bevan, M. M., Elmes, P. C., Allardice, J. T. & Bradley, A. C. (1982): Lung function and radiographic change in chrysotile workers in Swaziland. – Brit. J. Ind. Med., 39:338–343, 7 Abb., 5 Tab.; doi:10.1136/oem.39.4.338.
• McDonald, D. M., Webb, J. A. & Taylor, J. (2006): Chemical Stability of Acid Rock Drainage Treatment Sludge and Implications for Sludge Management. – Environ. Sci. Technol., 40(6):1984–1990, 5 Abb., 2 Tab.; doi:10.1021/es0515194.
• McDonald, J. & Lorentz, S. (2018): Vermiculite Covers on Mining Wastes in a Semi-Arid Environment in South Africa. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 535–540; (Tshwane University of Technology).
• McDonald, R. (1982): Review: Infrared Spectrometry. – Anal. Chem., 54(8):1250–1275, doi:10.1021/ac00245a601.
• McDonough, K. M., Lambert, D. C., Mugunthan, P. & Dzombak, D. A. (2005): Hydrologic and Geochemical Factors Governing Chemical Evolution of Discharges from an Abandoned, Flooded, Underground Coal Mine Network. – J. Environ. Eng., 131(4):643–650, doi:10.1061/(ASCE)0733-9372(2005)131:4(643).
• McEwan, A. L. (1999): The Failure of and Remedials to a River Diversion for an Opencast Mine in the Witbank Coalfield of South Africa. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 79–85, 10 Abb., 2 Tab.; Sevilla (International Mine Water Association).
• McFarland, V. A. & Clarke, J. U. (1989): Environmental Occurrence, Abundance, and Potential Toxicity of Polychlorinated Biphenyl Congeners – Considerations for a Congener-Specific Analysis. – Environ. Health Perspect., 81:225–239, doi:10.1289/ehp.8981225.
• McGarrigle, M. L. & Champ, W. S. T. (1999): Keeping pristine lakes clean: Loughs Conn and Mask, western Ireland. – Hydrobiologia, 395-396:455–469, 4 Abb., 2 Tab.
• McGinness, S. (1999): Treatment of Acid Mine Drainage. – Research Paper – House of Commons Library, 99/10:1–39, 3 Tab.
• McGivern, A. L., Gammons, C. H. & Duaime, T. E. (2013): Aqueous geochemistry of the “other” pit lake in Butte, Montana, USA. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1041–1046, 5 Abb., 1 Tab.; Golden (International Mine Water Association).
• McGuire, M. M., Schultheis, H. M. & Herman, E. K. (2024): Tracking AMD trace metals in an anthracite passive treatment system in the Shamokin Creek watershed. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 433–433; Morgantown (International Mine Water Association).
• Mcintyre, J. T. & and Collegues (1948): Shafts of the New Consolidated Gold Fields Group. – J. Chem. Met. Min. Soc. South Afr., 49(6):197–272.
• McIntyre, N., Jain, K. R. & Edraki, M. (2021): Modelling of Salt Leaching from Coal Mine Spoils at Two Scales. – Mine Water Environ., 40(4):902–918, doi:10.1007/s10230-021-00797-9.
• McJannet, D., Carlin, G., Ticehurst, C., Greve, A. & Sardella, C. (2022): Determination of Evaporation from a Tailings Storage Facility Using Field Measurements and Satellite Observations. – Mine Water Environ., 41(1):176–193, doi:10.1007/s10230-021-00832-9.
• McKay, T. J. M. & Milaras, M. (2017): Public lies, private looting and the forced closure of Grootvlei Gold Mine, South Africa. – TD J. Transdiscipl. Res. South. Afr., 13(1):a347, doi:10.4102/td.v13i1.347.
• McKee, D. M. & Hannon, P. J. (1985): The Hydrological Environment at the Gays River Mine. – Int. J. Mine Water, 4(2):13–33, 8 Abb.
• McKenzie, R. (2005): Software Update to Better Predict Costs of Treating Mine Drainage. – Mine Water Environ., 24(4):213–215, doi:10.1007/s10230-005-0098-7.
• McKenzie, R. M. (1980): The adsorption of lead and other heavy metals on oxides of manganese and iron. – Aust. J. Soil Res., 18(1):61–73, 5 Abb., 2 Tab.; doi:10.1071/SR9800061.
• McKeown, M., Christensen, D., Taylor, T. & Mueller, S. (2015): Evaluation of Cover System Field Trials with Compacted Till Layers for Waste Rock Dumps at the Boliden Aitik Copper Mine, Northern Sweden. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Mcknight, D. M., Kimball, B. A. & Bencala, K. E. (1988): Iron Photoreduction and Oxidation in an Acidic Mountain Stream. – Science, 240(4852):637–640, doi:10.1126/science.240.4852.637.
• McKnight, E. T. & Fischer, R. P. (1970): Geology and Ore Deposits of the Picher Field Oklahoma and Kansas. – U.S. Geol. Surv. Prof. Pap., 588:165, 45 Abb., 10 Tab., 11 Kart.
• McLachlan, C. J. & Walker, B. (2022): Determination of acid producing potential using pXRF: A case study from Cypress Mine, Stockton Plateau. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 253–258; (International Mine Water Association).
• McLachlan, I. R. & Anderson, A. M. (1977): Fossil insect wings from the early permian white band formation, South Africa. – Palaeont. Afr., 20:83–86.
• McLaughlin, M. J. (1982): A Review of the Use of Dyes as Soil Water Tracers. – Water SA, 8(4):196–201.
• McLemore, V. T. (2008): Basics of Metal Mining Influenced Water: Management Technologies for Metal Mining Influenced Water 1. – 103 p., 22 Abb., 3 Tab.; Littleton (SME).
• McLemore, V. T., Smith, K. S. & Russell, C. C. (2014): Sampling and Monitoring for the Mine Life Cycle: Management Technologies for Metal Mining Influenced Water 6. – 191 p., 22 Abb., 3 Tab.; Littleton (SME).
• McLoughlin, R. P., Grounds, J. & Weatherhead, J. (1988): Nabarlek Uranium Mine Design, Construction, Operation Monitoring and Decommissioning of the Water Management System. – Proceedings, 3rd International Mine Water Congress, Melbourne:775–784, 1 Abb., 3 Tab.
• McManus, J. F., Bond, G. C., Broecker, W. S., Johnsen, S., Labeyrie, L. & Higgins, S. (1994): High-resolution climate records from the North Atlantic during the last interglacial. – Nature, 371:326–329, 3 Abb.
• McNaughton, K., Lee, P. F., Lindsay, D. & Sudbury, M. P. (1999): The Limnology of an Open Pit Fish Farm. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 169–175, 3 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• McNear, D. H., Jr., Tappero, R. & Sparks, D. L. (2005): Shining Light on Metals in the Environment. – Elements, 1(4):211–216, 5 Abb.
• McNeil, A. S. (1921): Nova Scotia Steel & Coal Co. Is Completely Removing Coal Under Ten Square Miles Of Sea Area. – Coal Age, 20(6):205–209, 5 Abb.
• McNoleg, O. (1996): The integration of GIS, remote sensing, expert systems and adaptive co-kriging for environmental habitat modeling of the Highland Haggis using object-oriented, fuzzy-logic and neural-network techniques. – Comput. Geosci., 22(5):585–588, doi:10.1016/0098-3004(95)00131-X.
• McNoleg, O. (1998): Professor Oleg McNoleg’s guide to the successful use of Geographical Information Systems (Ten ways to say nothing with GIS). – Int. J. Geographical Information Systems, 12(5):429–430, doi:10.1080/136588198241725.
• McNoleg, O. (2003): An account of the origins of conceptual models of geographic space. – Comput. Environ. Urban Systems, 27(1):1–3, doi:10.1016/S0198-9715(01)00048-5.
• McNoleg, O. (2004): Search Procedures for Geographers, By Geographers and Using Geographers. – Transactions in GIS, 8(4):401–405, doi:10.1111/j.1467-9671.2004.00192.x.
• McNoleg, O. (2008): Professor McNoleg’s A—to—Z of Useful GIScience Terms (A Refreshingly Non-glossy and Inexpensive Glossary). – Transactions in GIS, 12(5):563–565, doi:10.1111/j.1467-9671.2008.01118.x.
• McPhail, D. C. B., Green, D. K. & Hooper, W. C. (2001): Hydrogeology and geochemistry of sediment banks contaminated with mine tailings in the King River, Tasmania. – In: Gostin, V. A. (ed) Gondwana to Greenhouse: Australian environmental geoscience 21. – p. 95–109, 4 Abb., 6 Tab.; Sydney (Geological Society of Australia).
• McPhilliamy, S. C. & Green, J. (1973): A Chemical and Biological Evaluation of Three Mine Drainage Treatment Plants: Work Document No. 47. – 53 p., 3 Abb., 12 Tab.; Wheeling (U. S. Environmental Protection Agency).
• McPhillips, L. E., Creamer, A. E., Rahm, B. G. & Walter, M. T. (2014): Assessing dissolved methane patterns in central New York groundwater. – J. Hydro. Regional Stud., 1:57–73, doi:10.1016/j.ejrh.2014.06.002.
• McQuade, C., Lee, A. & Gillies, S. (1991): Rainfall Analysis for Mine Water Management System Design and Operation. – Proceedings, 4th International Mine Water Association Congress, 2:295–303, 3 Abb., 3 Tab.
• McQuade, C. V. & McGill, R. A. (1988): Trigger Release Mechanism for Release of Mine Water to Magela Creek. – Proceedings, 3rd International Mine Water Congress, Melbourne:435–444, 6 Abb., 2 Tab.
• McQueen, K. G. (2005): Ore Deposit Types and their Primary Expressions: Regolith expression of Australian ore systems : a compilation of exploration case histories with conceptual dispersion, process and exploration models. – 1–14 p., 15 Abb., 2 Tab.; Bentley (CRC for Landscape Environments & Mineral Exploration).
• McQueen, P. D., Sagoo, S., Yao, H. & Jockusch, R. A. (2010): On the Intrinsic Photophysics of Fluorescein. – Angew. Chem.-Int. Edit., 49(48):9193–9196, 2 Abb.; doi:10.1002/anie.201004366.
• McRoberts, B. (2003): Receptor Stream Hydraulic Analysis – Cadegans Brook – Glace Bay, Nova Scotia. – Unpubl. Report for Public Works Government Services, C. (Report Nr. MGI File 20590H). – 3 p., 2 Tab., 1 Anl.; Dartmout (MCI Limited).
• McRoberts, C. A., Furrer, H. & Jones, D. S. (1997): Palaeoenvironmental interpretation of a Triassic-Jurassic boundary section from Western Austria based on palaeoecological and geochemical data. – Palaeogeogr. Palaeoclimatol. Palaeoecol., 136(1-4):79–95, 7 Abb., 1 Tab.
• Means, B., Beam, P. G. R. & Mercer, J. (2015): Analysis of Hydrated Lime Consumption in Circumneutral Underground Coal Mine Drainage Treatment. – Mine Water Environ., 34(1):10–19, doi:10.1007/s10230-014-0308-2.
• Means, B. & Beam, R. L. (2024): Using Iron Oxidation and Decarbonation to enhance enorganic Carbon removal in Coal Mine Drainage. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 434–434; Morgantown (International Mine Water Association).
• Means, B. P. (2024): IMWA 2024 Post Congress Field Trip. 99.
• Mebrahtu, T. K., Banning, A., Girmay, E. H. & Wohnlich, S. (2021): The effect of hydrogeological and hydrochemical dynamics on landslide triggering in the central highlands of Ethiopia. – Hydrogeology Journal, 29(3):1239–1260, doi:10.1007/s10040-020-02288-7.
• Mechelhoff, M., Kelsall, G. H. & Graham, N. J. D. (2013): Electrochemical behaviour of aluminium in electrocoagulation processes. – Chem. Eng. Sci., 95:301–312, doi:10.1016/j.ces.2013.03.010.
• Meck, M., Love, D. & Mapani, B. (2006): Zimbabwean mine dumps and their impacts on river water quality – a reconnaissance study. – Phys. Chem. Earth., 31(15-16):797–803, doi:10.1016/j.pce.2006.08.029.
• MECX Aurora (2015): Data Validation Report – Gold King Mine Release Incident (Sample Delivery Group 680-117013-5). – (Report Nr. SDG: 680-117013-5). – 11 p., Aurora (MECX).
• Medici, G. & West, L. J. (2021): Groundwater flow velocities in karst aquifers; importance of spatial observation scale and hydraulic testing for contaminant transport prediction. – Environ. Sci. Pollut. Res., 28(32):43050–43063, doi:10.1007/s11356-021-14840-3.
• Medwedeff, W. G., Clark, M. K., Zekkos, D. & West, A. J. (2020): Characteristic landslide distributions: An investigation of landscape controls on landslide size. – Earth and Planetary Science Letters, 539 doi:10.1016/j.epsl.2020.116203.
• Mee, E. & Beckie, R. (2025): Exploring Spatiotemporal Trends in Piezometer Network Data Using Self-Organizing Maps. – Mine Water Environ.:1–10, doi:10.1007/s10230-025-01030-7.
• Meggyes, T., Niederleithinger, E., Witt, K. J., Csovari, M., Kreft-Burman, K., Engels, J., McDonald, C. & Roehl, K. E. (2008): Enhancing the safety of tailings management facilities. – Soil & Sediment Contamination, 17(4):323–345, 13 Abb., 1 Tab.; doi:10.1080/15320380802143922.
• Megson, D., Idowu, I. G. & Sandau, C. D. (2024): Is current generation of polychlorinated biphenyls exceeding peak production of the 1970s? – Sci. Total Environ., 924:171436, doi:10.1016/j.scitotenv.2024.171436.
• Mehner, T. & Tockner, K. (2022): Encyclopedia of Inland Waters.
• Mehta, R. K., Yang, K. & Misra, M. (1996): Mixed waste ferrite as a novel sorbent for carbon dioxide derived from flue gases. – J. Mater. Sci., 31(7):1873–1877, doi:10.1007/BF00372202.
• Mei, A., Wu, Q., Zeng, Y., Cui, Y., Yang, L., Han, K., Yang, P., Miao, Y. & Lv, Y. (2024): Aquifer Water Abundance Evaluation Based on a Variable Weight Model. – Mine Water Environ., 43(1):136–147, doi:10.1007/s10230-024-00975-5.
• Mei, A. S., Wu, Q., Zeng, Y. F., Cui, Y. S. & Zhao, D. (2023): Evaluation of Water Inrush Vulnerability and Feasibility Analysis of Mining Under Rivers: A Case Study Involving the Jinjie Coal Mine in China. – Mine Water Environ., 42(2):312–329, doi:10.1007/s10230-023-00939-1.
• Meiburg, P. (1979): Geologie und Mineralogie des Warsteiner Raumes. – Der Aufschluss, Sonderband, 29:1–298, 129 Abb., 10 Tab., 4 Taf., 1 Kt.
• Meier, G. (2005): Wasser führende Stollen im Altbergbau – Havarien, Analyse, Sicherung. – In: Busch, W. (ed) 5. Altbergbau-Kolloquium – Tagungsband. – p. 201–222, 5 Abb., 7 Tab.; Essen (Glückauf).
• Meier, J. (2001): Untersuchungen zum mikrobiellen Schwefelkreislauf in sauren Tagebau-Restseen der Niederlausitz (Brandenburg). – 145 p., Bonn (unveröff. Diss. Universität Bonn).
• Meier, J., Babenzien, H.-D. & Wendt-Potthoff, K. (2004): Microbial cycling of iron and sulfur in sediments of acidic and pH-neutral mining lakes in Lusatia (Brandenburg, Germany). – Biogeochemistry, 67(2):135–156, 6 Abb., 2 Tab.
• Meier, J., Datcheva, M. D., Moser, M. & Schanz, T. (2009): Identification of constitutive and geometrical parameters for slope instability modelling – Application to mountain-splitting area Reutte/Tyrol (Austria). – Austrian J. Earth Sci., 102(2):81–89.
• Meier, J. & Meier, G. (2007): Sächsische Besucherbergwerke – eine Form der Nachnutzung von Altbergbau. – In: Meier, G. (ed) 7. Altbergbau-Kolloquium. – p. 333–341, 3 Tab.; Essen (Glückauf).
• Meier, J., Voigt, A. & Babenzien, H.-D. (2000): A comparison of 35S-SO₄^2– radiotracer techniques to determine sulphate reduction rates in laminated sediments. – J. Microbiol. Methods, 41:9–18.
• Meier, P. G., Hong, W.-H. & Deininger, R. A. (1987): Application of tracer techniques to continuous-flow toxicity testing. – Water Res., 21(10):1259–1264, 5 Abb., 1 Tab.; doi:10.1016/0043-1354(87)90178-3.
• Meier-Augenstein, W. (1999): Applied gas chromatography coupled to isotope ratio mass spectrometry. – J. Chromatogr. A, 842:351–371, doi:10.1016/S0021-9673(98)01057-7.
• Meiers, P. G., Shaw, S., Overdevest, N. & O’Kane, M. (2005): Linking Tailings Seepage Geochemistry to the Performance of Cover System Field Trials for a Tailings Storage Facility at Peak Gold Mine Operations: Mine Water 2005 – Mine Closure. – 317–329 p., 10 Abb., 5 Tab.; Oviedo (University of Oviedo).
• Meijerink, A. M. J. (1996): Remote sensing applications to hydrology: groundwater. – Hydrol. Sci. J.-J. Sci. Hydrol., 41(4):549–561.
• Meili, R., Imre, B., Laue, J., Askarinejad, A. & Springman, S. M. (2013): Die Toma Hügel des Fernpass Bergsturzes – Hinweise zur Entstehung aus physikalischen Experimenten. Paper presented at the Geoforum Umhausen, Umhausen. – p. 16–19, 2 Abb.
• Meiners, H., Opahle, M. & Kemski, J. (2016): Stellungnahme zur möglichen Radonbelastung in Zusammenhang mit dem geplanten Grubenwasseranstieg auf -320 m NN in den Wasserprovinzen Reden und Duhamel. – 56 p., Essen (DMT GmbH & Co. KG, Sachverständigenbüro Dr. Kemski).
• Meinrath, A., Schneider, P. & Meinrath, G. (2003): Uranium ores and depleted uranium in the environment, with a reference to uranium in the biosphere from the Erzgebirge/Sachsen, Germany. – J. Environ. Radioact., 64(2-3):175–193, 3 Abb., 5 Tab.
• Meinrath, G. (2002): Extended Traceability of pH: an Evaluation of the role of Pitzer’s Equations. – Anal. Bioanal. Chem., 374(5):796–805.
• Meinrath, G. (2003): Metrological View of Probabilistic Modelling of Trace Elements Behaviour in Aqueous Environments. – Wiss. Mitt. Inst. Geol., 24:65–72, 4 Abb., 2 Tab.
• Meinrath, G., Hnatejko, Z. & Lis, S. (2004): Threshold Bootstrap Target Factor Analysis Study of Neodymium with Pyridine 2,4 Dicarboxylic acid N-oxide – an Investigation of Traceability. – Talanta, 63(2):287–296.
• Meinrath, G., Lis, S., Stryla, Z. & Noubactep, C. (2000): Lifetime and fluorescence quantum yield of uranium(VI) species in hydrolyzed solutions. – Journal of Alloys and Compounds, 300-301:107–112, 5 Abb., 2 Tab.; doi:10.1016/S0925-8388(99)00739-2.
• Meinrath, G. & May, P. M. (2002): Thermodynamic Prediction in the Mine Water Environment. – Mine Water Environ., 21(1):24–35, 4 Abb., 3 Tab.
• Meinrath, G., Merkel, B. J., Ödegaard-Jensen, A. & Ekberg, C. (2004): Sorption of Iron on Surfaces: Modelling, Data Evaluation, and Measurement Uncertainty. – Acta Hydrochim. Hydrobiol., 32(2):154–160, 3 Abb., 1 Tab.; doi:10.1002/aheh.200300526.
• Meinrath, G., Merkel, B. J., Schneider, P. & Delakowitz, B. (2002): The Role of Metrology and Statistics in Making Geochemical Modeling Defensible. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 355–362, Heidelberg (Springer).
• Meinzer, O. E. (1923): Outline of Ground-Water Hydrology – With Definitions. – US Geological Survey Water-Supply Paper, W 494:1–71, 35 Abb.
• Meisch, H. U. & Lafontaine, H. J. (1989): Quantitative Bestimmung von polychlorierten Biphenylen (PCB) neben polychlorierten Diphenylmethanen (PCDM) mittels Capillar-Gas-Chromatographie. – Fresenius Z. Anal. Chem., 334(5):418–420, doi:10.1007/BF00469463.
• Meisner, A. M., Frebel, A., Juric, M. & Finkbeiner, D. P. (2012): The Metallicity of the Monoceros Stream. – Astrophys. J., 753(2):12, doi:10.1088/0004-637x/753/2/116.
• Meissl, G., Keiler, M., Fuchs, S., Geist, T., Stötter, J. & Zischg, A. (2003): Alpen: Naturgefahrenprozesse. – Petermanns Geographische Mitteilungen, 147(1):2–7, 4 Abb., 12 Beil.
• Meixner, H. (1935): Woher stammt das Molybdän auf den Blei-Zink-Lagerstätten? – Carinthia II, Sonderheft, 3:132–136.
• Meka, A., Fateev, N. & Karyakin, V. (1991): Technology of Hydraulic Barrier Erection by Injection Metho. – Proceedings, 4th International Mine Water Association Congress, 2:125–129, 2 Abb.
• Mekki, A., Awali, A., Aloui, F., Loukil, S. & Sayadi, S. (2017): Characterization and Toxicity Assessment of Wastewater from Rock Phosphate Processing in Tunisia. – Mine Water Environ., 36(4):502–507, doi:10.1007/s10230-016-0424-2.
• Melbye, T., Hognestad, H.-O. & Dimmock, R. (2003): Pre-Injection technology for mines. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 351–365, 8 Abb., 1 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Melchers, Ch. (2016): Ausgasung und Grubenwasseranstieg. – Veröff. Dt. Bergbau-Mus. Bochum, 217:156–159.
• Melchers, Ch. (2016): Klassische Fragen der Sanierung einer Bergbaufläche. – Veröff. Dt. Bergbau-Mus. Bochum, 217:123–126.
• Melchers, Ch., Coldewey, W. G., Goerke-Mallet, P., Wesche, D. & Henkel, L. (2015): Dichteschichtungen in Flutungswasserkörpern als Beitrag zur Optimierung der langzeitigen Wasserhaltung. – In: Paul, M. (ed) Sanierte Bergbaustandorte im Spannungsfeld zwischen Nachsorge und Nachnutzung – WISSYM 2015. – p. 99–106, 3 Abb., 1 Tab.; Chemnitz (Wismut GmbH).
• Melchers, Ch. & Doğan, T. (2016): Study on Mine Water flooding that occurred in Hard-Coal Mining Areas in Germany and Europe. – Veröff. Dt. Bergbau-Mus. Bochum, 212:147–152.
• Melchers, Ch. & Goerke-Mallet, P. (2016): Research Institute of Post-Mining,TH Georg Agricola University, Bochum, Germany – Strategies, Activities and Research Priorities. – Veröff. Dt. Bergbau-Mus. Bochum, 212:11–18.
• Melchers, Ch., Goerke-Mallet, P., Henkel, L., Coldewey, W. G. & Wesche, D. (2015): Density stratification in Mine Water Bodies as a Contribution to Better Long-Term Water Management [Dichteschichtungen in Flutungswasserkörpern als Beitrag zur Optimierung der langzeitigen Wasserhaltung]. – Mining Rep., 151(6):503–510, 3 Abb., 1 Tab.
• Melchers, Ch., Goerke-Mallet, P., Henkel, L. & Hegemann, M. (2016): Experiences with Mine Closure in the European Coal Mining Industry: An Overview of the Situation in Germany and Adjacent Regions. – Veröff. Dt. Bergbau-Mus. Bochum, 212:132–145.
• Melchers, Ch., Goerke-Mallet, P. & Kleineberg, K. (2016): Elemente und Aspekte des Nachbergbaus. – Mining Rep., 152(3):215–223.
• Melchers, Ch., Goerke-Mallet, P. & Kretschmann, J. (2016): Post-Mining: National Challenges and International Collaboration. – Veröff. Dt. Bergbau-Mus. Bochum, 212:123–131.
• Melchers, Ch., Wesche, D. & Coldewey, W. G. (2014): Ausbildung von Dichteschichtungen in Schächten des Steinkohlenbergbaus im Ruhrrevier. Paper presented at the 14. Altbergbau-Kolloquium, Gelsenkirchen. – p. 156–162.
• Melchers, Ch., Westermann, S. & Reker, B. (2019): Evaluierung von Grubenwasseranstiegsprozessen im Ruhrgebiet, Saarland, in Ibbenbüren sowie weiteren deutschen Steinkohlenrevieren und dem angrenzenden europäischen Ausland: Berichte zum Nachbergbau 1. – 130 p., 60 Abb., 5 Tab.; Bochum (Deutsches Bergbau-Museum Bochum).
• Melchers, Ch., Westermann, S. & Reker, B. (2020): Evaluation of Mine Water Rebound Processes in the German Coalfields of Ruhr, Saar, Ibbenbüren, and the adjacent European Countries: Berichte zum Nachbergbau 1 EN. – 130 p., 60 Abb., 5 Tab.; Bochum (Deutsches Bergbau-Museum Bochum).
• Melchert, C. (2013): The Luwians: Handbook of Oriental Studies – The Near and Middle East 68. – 420 p., Leiden (Brill).
• Melchiorre, E. (2011): Microbiological Evidence for the Origin of Acid Mine Drainage at the Green Valley Site, Vigo County, and Friar Tuck Site, Greene County, Indiana, USA. – Mine Water Environ., 30(3):175–184, 8 Abb., 2 Tab.; doi:10.1007/s10230-011-0141-9.
• Melchiorre, E., Dale, D., Mills Jr, J. & Chapman, B. (2005): Geochemical and Stable Isotope Evidence for Precipitation and Groundwater Sourcing of Recharge at the Green Valley Site, Vigo County, Indiana. – Mine Water Environ., 24(2):88–100, 13 Abb., 5 Tab.
• Mele, I. (1997): What can a country with small nuclear program learn from other European countries? – Nuclear Engineering and Design, 176:145–149, 1 Abb., 1 Tab.
• Mele, L. M., Prodan, P. F. & Schubert, J. P. (1982): Characterisation of Runoff Water from Coalwaste Disposal Sites in South Western Illinois. – Int. J. Mine Water, 1(2):1–14, 4 Abb., 2 Tab.
• Melendez-Torres, P. I., Reynoso-Ortega, M. E., Tejada-Tejada, P. R., Valente, T. M. & Jauregui-Haza, U. J. (2025): Competitive Adsorption of Toxic Metals Using Activated Carbon Derived from Sargassum for Polymetallic Acid Mine Drainage Treatment. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1099–1101; Braga (International Mine Water Association).
• Melin, T. & Rautenbach, R. (2007): Membranverfahren – Grundlagen der Modul- und Anlagenauslegung, 3 edn. – 584 p., 322 Abb., 76 Tab.; Heidelberg (Springer); doi:10.1007/978-3-540-34328-8.
• Mellin, R. (1906): Der technische Betrieb der staatlichen Steinkohlengruben bei Saarbrücken: Der Steinkohlenbergbau des Preussischen Staates in der Umgebung von Saarbrücken III. – 336 p., 53 Abb., 14 Taf.; Berlin (Springer); doi:10.1007/978-3-642-50876-9.
• Melliss, J. C. (1875): Geology and Mineralogy. St. Helena – a Physical, Historical, and Topographical Description of the Island, Including its Geology, Fauna, Flora and Meteorology. – p. 46–78, 10 Plat.; London (Reeve & Co.).
• Melo, G. S. & Savarino, V. (1989): Processing gastric pH measurements. – Gut, 30(10):1438–9, doi:10.1136/gut.30.10.1438.
• Melo, L. F., Bott, T. R., Fletcher, M. & Capdeville, B. (1992): Biofilms – Science and Technology: NATO Science Series E. – 708 p., Dordrecht (Springer); doi:10.1007/978-94-011-1824-8.
• Meloni, F., Montegrossi, G., Nisi, B., Cabassi, J., Bianchi, F., Mirri, S., Profeti, A. & Vaselli, O. (2025): Environmental Challenges And Remediation Operations at The Former Sb-mine of Le Cetine (Tuscany, Italy): Monitoring And Innovative Water Treatment Solutions. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 696–701; Braga (International Mine Water Association).
• Melymuk, L., Blumenthal, J., Sáňka, O., Shu-Yin, A., Singla, V., Šebková, K., Pullen Fedinick, K. & Diamond, M. L. (2022): Persistent Problem: Global Challenges to Managing PCBs. – Environ. Sci. Technol., 56(12):9029–9040, doi:10.1021/acs.est.2c01204.
• Melzer, P., Hahn, T. & Kroner, U. (2005): Geodatenmanagement im ArcGIS für das Saxothuringikum östlich der Fränkischen Linie. – Wiss. Mitt. Inst. Geol., 28:141–144, 4 Abb.
• Mench, M., Bussiére, S., Boisson, J., Castaing, E., Vangronsveld, J., Ruttens, A., De Koe, T., Bleeker, P., Assunção, A. & Manceau, A. (2003): Progress in Remediation and Revegetation of the Barren Jales Gold Mine Spoil After in Situ Treatments. – Plant Soil, 249(1):187–202, 2 Abb., 7 Tab.
• MEND (1991): Acid Rock Drainage Prediction Manual – A manual of chemical evaluation procedures for the prediction of acid generation from mine wastes: MEND Project MEND 1.16.1b. – 77 p., Ottawa (The Mine Environment Neutral Drainage [MEND] Program).
• MEND (1993): Review of Canadian and United States Legislation relevant to Decommissioning Acid Mine Drainage Sites: 4.2.1. – 52 p., Ottawa (The Mine Environment Neutral Drainage [MEND] Program).
• MEND (2000): MEND Manual – Treatment – Active and Passive: 5.4.2e. – 109 p., Ottawa (The Mine Environment Neutral Drainage [MEND] Program).
• MEND (2001): MEND Manual – Sampling and Analysis: 5.4.2b. – 111 p., Ottawa (The Mine Environment Neutral Drainage [MEND] Program).
• Menendez, J., Loredo, J., Fernandez, J. M. & Galdo, M. (2017): Underground pumped-storage hydro power plants with mine water in abandoned coal mines in northern Spain. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 6–13, Lappeenranta (Lappeenranta University of Technology).
• Menendez, R., Clayton, J. L., Zurbuch, P. E., Sherlock, S. M., Rauch, H. W. & Renton, J. J. (2000): Sand-Sized Limestone Treatment of Streams Impacted by Acid Mine Drainage. – Water Air Soil Pollut., 124(3-4):411–428, 11 Abb., 4 Tab.; doi:10.1023/A:1005264124166.
• Menezes, J. C., Angéli Viviani Colling, A. V., Thomé, A. & Schneider, i. A. (2019): Ferric Sulphate Produced From Pyrite Concentrate of Coal Tailings to Water and Wastewater Treatment. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 522–526; Perm, Russia (Perm State University).
• Menezes, J. C. C. C., Colling, A. V., Silva, R. A. S., Dos Santos, R. H. & Schneider, I. A. H. (2017): Ferric Sulphate Coagulant Obtained by Leaching from Coal Tailings. – Mine Water Environ., 36(3):457–460, doi:10.1007/s10230-017-0453-5.
• Menezes, J. C. S. S., Silva, R. A., Arce, I. S. & Schneider, I. A. H. (2009): Production of a Poly-ferric Sulphate Chemical Coagulant by Selective Precipitation of Iron from Acidic Coal Mine Drainage. – Mine Water Environ., 28(4):311–314, 1 Abb., 4 Tab.; doi:10.1007/s10230-009-0084-6.
• Meng, S., Wu, Q., Zeng, Y., Yu, C., Liu, X., Zhang, Y., Wang, L. & Yang, L. (2024): A Novel Method for In-Situ Monitoring and Quantifying the Dynamic Responses of Groundwater to the Effects of Mining. – Mine Water Environ., 43(2):382–398, doi:10.1007/s10230-024-00981-7.
• Meng, X., Liu, W. & Mu, D. (2018): Influence Analysis of Mining’s Effect on Failure Characteristics of a Coal Seam Floor with Faults: A Numerical Simulation Case Study in the Zhaolou Coal Mine. – Mine Water Environ., 37(4):754–762, doi:10.1007/s10230-018-0532-2.
• Meng, X. X., Liu, W. T., Zhao, J. Y. & Ding, X. Y. (2019): In Situ Investigation and Numerical Simulation of the Failure Depth of an Inclined Coal Seam Floor: A Case Study. – Mine Water Environ., 38(3):686–694, doi:10.1007/s10230-019-00596-3.
• Mengistu, H., Tessema, A., Abiye, T., Demlie, M. & Lin, H. (2015): Numerical modeling and environmental isotope methods in integrated mine-water management: a case study from the Witwatersrand basin, South Africa. – Hydrogeol. J., 23(3):533–550, doi:10.1007/s10040-014-1216-z.
• Mengistu, H., Yibas, B., Diop, S., Alemayehu, T. & Demile, M. (2012): Investigation of phosphatic-vermiculite-heavy metal interaction and the implication to pollution of Solati River in Limpopo Province, South Africa: International Mine Water Association Symposium. – 713–722 p., Bunbury (Edith Cowan University).
• Mengistu, H. A. (2009): Application of DGT Samplers in Monitoring of Mine Waters of the Witwatersrand Goldfields, RSA. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 314–321, 7 Abb; Pretoria (Document Transformation Technologies).
• Mengyu, W. (1985): The elemental hydrogeological Characteristics of Coalfields in China and the Problems of Protecting against Mine Water. – Proceedings, 2nd International Mine Water Association Congress, 1:41–51, 6 Abb.
• Mennekes, A. (2016): Gefährdungspotenziale – Auskünfte und Informationsquellen. – Veröff. Dt. Bergbau-Mus. Bochum, 217:16–22.
• Menshikova, E., Blinov, S. & Vaganov, S. (2019): Recovery Of Valuable Elements From Tailings Of The Kachkanar Ore Mining And Processing Plant. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 527–530; Perm, Russia (Perm State University).
• Menshikova, E., Osovetsky, B., Blinov, S., Belkin, P., Tomilina, E. & Badyanova, I. (2022): Ochre Particles in River Sediments in Coal Mining Areas (A Study of the Kizel Coal Basin, Russia). – Mine Water Environ., 41(4):1040–1054, doi:10.1007/s10230-022-00905-3.
• Mentz, J. W., Warg, J. B. & Skelly Loy Inc. (1975): Up-dip versus down-dip mining – an evaluation. – Environ. Prot. Technol. Ser., EPA-670/2-75-047:74, 12 Abb., 9 Tab.
• Mercier, A., Joulian, C., Michel, C., Auger, P., Coulon, S., Amalric, L., Morlay, C. & Battaglia-Brunet, F. (2014): Evaluation of three activated carbons for combined adsorption and biodegradation of PCBs in aquatic sediment. – Water Res., 59:304–315, doi:10.1016/j.watres.2014.04.021.
• Mercier, A., Michel, C., Joulian, C., Touzé, S., Amalric, L., Bataillard, P., Morlay, C. & Battaglia-Brunet, F. (2015): Decrease of the level of extractable polychlorinated biphenyls in soil microcosms: Influence of granular activated carbon and inoculation by natural microbial consortia. – Int. Biodeterior. Biodegrad., 105:127–136, doi:10.1016/j.ibiod.2015.08.024.
• Mercier, A., Wille, G., Michel, C., Harris-Hellal, J., Amalric, L., Morlay, C. & Battaglia-Brunet, F. (2013): Biofilm formation vs. PCB adsorption on granular activated carbon in PCB-contaminated aquatic sediment. – J. Soils. Sediments, 13:793–800, doi:10.1007/s11368-012-0647-1.
• Merewether, E. R. A. & Price, C. W. (1930): Report on Effects of Asbestos Dust on the Lungs and Dust Suppression in the Asbestos Industry – Part I. Occurrence of Pulmonary Fibrosis and other Pulmonary Affections in Asbestos Workers – Part II. Processes giving rise to dust and methods for its suppression. – 34 p., London (H.M. Stationery Off.).
• Merhart, G. v. (1911): Das Bergwerk zu Haslach – ein Beitrag zur Kenntnis vorarlbergischen Bergbaues. – Archiv für Geschichte und Landeskunde Vorarlbergs, 7:45–48.
• Merkel, B. J. (2002): Flooding of the Königstein uranium mine – Aquifer reactivity versus dilution. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 267–275, 6 Abb., 1 Tab.; Heidelberg (Springer); doi:10.1007/978-3-642-55668-5_30.
• Merkel, B. J. (2004): Modelling of Arsenic Removal from Water – Means and Limitations. – Wiss. Mitt. Inst. Geol., 25:119–124, 3 Abb., 1 Tab.
• Merkel, B. J. (2005): Alkalinitätserhöhung in sauren Grubenwässern durch CO₂-Zugabe. – Wiss. Mitt. Inst. Geol., 28:51–55, 3 Tab.
• Merkel, B. J. (2005): Long term fate of uranium tailings in mountain areas. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 47–56, Heidelberg (Springer).
• Merkel, B. J. (2016): Acid- and base-neutralization capacity in mine water and brines. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 312, Freiberg (TU Bergakademie Freiberg).
• Merkel, B. J., Hartsch, J., Pinka, F. & Peters, H. (1997): Chemische Veränderungen nach Auflassen von Uranbergwerken unter besonderer Berücksichtigung von Radionukliden. – 48 p., 32 Abb., 9 Tab.; Freiberg (unveröff. Manuskript).
• Merkel, B. J. & Planer-Friedrich, B. (2003): Integrierte Datenauswertung Hydrogeologie - Vorlesungsscript. TU Bergakademie Freiberg, Freiberg, 61.
• Merkel, B. J., Planer-Friedrich, B. & Nordstrom, D. K. (2008): Groundwater Geochemistry – A Practical Guide to Modeling of Natural and Contaminated Aquatic Systems, 2nd edn. – 230 p., 76 Abb.; Heidelberg (Springer); doi:10.1007/978-3-540-74668-3.
• Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (2002): Uranium in the Aquatic Environment. – 1112 p., 604 Abb.; Heidelberg (Springer); doi:10.1007/978-3-642-55668-5.
• Merkel, B. J., Schaeben, H., Wolkersdorfer, Ch. & Hasche, A. (2004): GIS – Geoscience Applications and Developments Treatment Technologies for Mining Impacted Water. – Wiss. Mitt. Inst. Geol., 25:1–175, 117 Abb., 23 Tab.
• Merkel, B. J., Schaeben, H., Wolkersdorfer, Ch. & Hasche-Berger, A. (2006): Behandlungstechnologien für bergbaubeeinflusste Wässer GIS – Geowissenschaftliche Anwendungen und Entwicklungen. – Wiss. Mitt. Inst. Geol., 31:1–348, 236 Abb., 50 Tab.
• Merkel, B. J., Schipek, M., Scholz, G. & Rabe, W. (2010): Optimierung der Kalkung von Tagebaufolgeseen. – Wiss. Mitt. Inst. Geol., 42:51–59, 3 Abb.
• Merkel, B. J., Scholz, G., Rabe, W., Clauß, D. & Gent, W. (2016): Efficiency of in-lake liming of acidic pit mine lakes. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 216–218, Freiberg (TU Bergakademie Freiberg).
• Merkel, B. J., Werner, F. & Wolkersdorfer, Ch. (2005): Carbon dioxide elimination by using acid mine lakes and calcium oxide suspensions (CDEAL). – Geotechnol. Sci. Rep., 6:4–12, 1 Abb., 1 Tab.
• Merkel, B. J., Wolkersdorfer, Ch. & Hasche, A. (2003): Trace Elements and Isotopes in Geochemistry – Fluids and Solids. – Wiss. Mitt. Inst. Geol., 24:1–95, 55 Abb., 17 Tab.
• Merkel, W., Dördelmann, O., Mauer, C. & Rieth, U. (2016): Gutachterlichen [sic!] Untersuchung / Recherche zu den technischen Möglichkeiten einer PCB-Elimination von Grubenwässern („PCB-Gutachten“). – (Report Nr. 16/034.1 vom 21.04.2016). – 70 p., 12 Abb., 20 Tab., 3 Anl.; Mülheim an der Ruhr (Ministerium für Klimaschutz, Umwelt, Landwirtschaft, Natur- und Verbraucherschutz des Landes Nordrhein-Westfalen).
• Merovich Jr., G. T., Stiles, J. M., Petty, J. T., Ziemkiewicz, P. F. & Fulton, J. B. (2007): Water chemistry-based classification of streams and implications for restoring mined Appalachian watersheds. – Environ. Toxicol. Chem., 26(7):1361–1369, doi:10.1897/06-424R.1.
• Merritt, G. L. & Angerman, T. W. (1972): The use of ionic tracers in determining the subsurface flow of mine drainage – A case study. – Papers Presented Before the Symposium on Coal Mine Drainage Research, 4:340–343.
• Merritt, P. J. (2021): Assessing the Evolution of Mine Water Quality With Empirical ‘First-Flush’ Models. – Electron. Thesis Diss. Repos. Univ. West. Ont., 7812:94.
• Merritt, P. J. & Power, C. (2022): Assessing the long-term evolution of mine water quality in abandoned underground mine workings using first-flush based models. – Sci. Total Environ., 846:157390, doi:10.1016/j.scitotenv.2022.157390.
• Merten, D., Grawunder, A., Lonschinski, M., Lorenz, C. & Büchel, G. (2007): Rare Earth Element Patterns related to Bioremediation Processes in a Site influenced by Acid Mine Drainage: Water in Mining Environments. – 233–237 p., 5 Abb.; Cagliari (Mako Edizioni).
• Merten, D., Kothe, E. & Büchel, G. (2004): Studies on Microbial Heavy Metal Retention from Uranium Mine Drainage Water with Special Emphasis on Rare Earth Elements. – Mine Water Environ., 23(1):34–43, 5 Abb., 5 Tab.; doi:10.1007/s10230-004-0034-2.
• Merz, S. (2014): Intelligent water management – M2M interaction based on OPC UA. In: Burke, T. J. (ed) OPC Unified Architecture – Pioneer of the 4th industrial (r)evolution. OPC Foundation, Scottsdale, 27.
• Meschede, M. (2015): Geologie Deutschlands – Ein prozessorientierter Ansatz. – 249 p., Berlin (Springer Spektrum); doi:10.1007/978-3-662-45298-1.
• Meschede, M., Murawski, H. & Meyer, W. (2021): Geologisches Wörterbuch. – doi:10.1007/978-3-662-62722-8.
• Meschke, K., Gumnior, K., Daus, B., Haseneder, R. & Repke, J.-U. (2016): Nanofiltration – A new separation pathway in secondary mining. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1356–1363, Freiberg (TU Bergakademie Freiberg).
• Meschke, K., Hansen, N., Hofmann, R., Haseneder, R. & Repke, J. U. (2018): Characterization and performance evaluation of polymeric nanofiltration membranes for the separation of strategic elements from aqueous solutions. – J. Membr. Sci., 546:246–257, doi:10.1016/j.memsci.2017.09.067.
• Meßer, J. (2013): Ein vereinfachtes Verfahren zur Berechnung der flächendifferenzierten Grundwasserneubildung in Mitteleuropa. – 78 p., 32 Abb., 8 Tab.; Essen (Lippe Wassertechnik).
• Meßer, J. (2018): Grundwasserneubildung – Prozesse und Einflussgrößen. – bbr,(11):57–63, 6 Abb., 1 Tab.
• Messeri, M. D., Bickmeyer, U., Weinsberg, F. & Wiegand, H. (1997): Congener specific effects by polychlorinated biphenyls on catecholamine content and release in chromaffin cells. – Archives of toxicology, 71(7):416–421, doi:10.1007/s002040050405.
• Messner, R. (2010): Berge Versetzen – Das Credo eines Grenzgängers, 6 edn. – 255 p., München (Blv).
• Mestre, M. A. (2009): Environmental impact of mine drainage and its treatment on aquatic communities. – 302 p., University of Birmingham, 62 Abb., 51 Tab., 18 Taf.; Birmingham.
• Metals Economics, G. (2004): World Exploration Trends. – 9 p., 9 Abb., 2 Tab.; Halifax (Metals Economics Group).
• Metcalfe, B. (1990): Establishing Long-Term Vegetational Cover on Acidic Mining Waste Tips by Utilising Consolidated Sewage Sludges. – Int. J. Mine Water, 9(1-4):255–267, 4 Abb., 2 Tab.
• Metcalfe, B. (1994): Reclamation of Markedly Acidic Minestone Waste Tips Using Sewage Sludge as a Soil Forming Material. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:727–757, 13 Abb., 17 Tab.
• Metesh, J. J. (2006): Using a Water Balance to Determine the Source of Water in the Flooding Underground Mine Workings of Butte. – Mine Water Environ., 25(2):108–113, 6 Abb., 2 Tab.
• Method Development & Applications Section – Environmental Technology Centre – Environment Canada (1992): Biological Test Method – Toxicity Test Using Luminescent Bacteria. – 55 p., 2 Abb., 4 Tab., 3 Anh.; Ottawa (Public Works and Government Services Canada).
• Method Development & Applications Section – Environmental Technology Centre – Environment Canada (2007): Biological Test Method – Reference Method for Determining Acute Lethality of Effluents to Rainbow Trout: Report EPS 1/RM/13, 2 edn. – 23 p., Ottawa (Public Works and Government Services Canada).
• Metropolis, N. & Ulam, S. (1949): The Monte Carlo Method. – J. Amer. Stat. Assoc., 44(247):335–341.
• Metschies, T., Becker, M., König, C. & Jenk, U. (2010): Modelling of the hydraulic behaviour of deep mines in regional aquifer systems. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 495–499, Sydney, NS (Cape Breton University Press).
• Metschies, T., Gantar, I., Dolenc, P. & Paul, M. (2010): Remediation of an Uranium Mining Waste Rock Pile in Slovenia. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 499–503, Sydney, NS (Cape Breton University Press).
• Metschies, T., Laubrich, J., Müller, J., Paul, M. & Barnekow, U. (2013): Management of water collection and treatment in the remediation of an uranium mill tailings site. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1047–1053, 3 Abb., 3 Tab.; Golden (International Mine Water Association).
• Metschies, T., Müller, H., Skriewe, S., Paul, M., Nowak, A. & Sieland, R. (2016): Surface water monitoring in a mining impacted drainage basin with particular reference to bio-monitoring of protected species. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 562–569, Freiberg (TU Bergakademie Freiberg).
• Metschies, T. & Paul, M. (2012): Management of mine and tailings seepagewater discharge in an intensively used watershed: International Mine Water Association Symposium. – 409–416 p., Bunbury (Edith Cowan University).
• Metschies, T., van Berk, W., Jenk, U. & Paul, M. (2018): Predicting Natural Attenuation for Flooding of an ISL-Uranium Mine – Potentials and Limitations. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 411–416; (Tshwane University of Technology).
• Metz, B., Davidson, O., Coninck, H. d., Loos, M. & Meyer, L. (2005): Carbon Dioxide Capture and Storage. – 431 p., Cambridge (Cambridge University Press).
• Metzler, D. R., Marutzky, S. & Juhlin, R. (2001): Concepts and Results in the Uranium Mill Tailings Remedial Action Ground Water Project. – Mine Water Environ., 20(4):168–177, 8 Abb.; doi:10.1007/s10230-001-8102-3.
• Meulenbeld, P. M. P. B., Grote, W. & Verryn, S. (2014): The Albert Silver Mine and Trippkeite Occurrence, Mpumalanga, South Africa. – Rocks & Minerals, 89(5):416–423, doi:10.1080/00357529.2014.926177.
• Meunier, L., Walker, S. R., Wragg, J., Parsons, M. B., Koch, I., Jamieson, H. E. & Reimer, K. J. (2010): Effects of soil composition and mineralogy on the bioaccessibility of arsenic from tailings and soil in gold mine districts of Nova Scotia. – Environ. Sci. Technol., 44(7):2667–2674, doi:10.1021/es9035682.
• Meuzelaar, T. (2025): Application of Unsupervised Machine Learning Methods to Mine Water Quality Data. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 784–789; Braga (International Mine Water Association).
• Meuzelaar, T. & Nunez Fernandez, P. (2025): Innovation in Characterization – Touro Copper Deposit – Galicia, Spain. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 778–783; Braga (International Mine Water Association).
• Meuzelaar, T., Zahuranec, S. D., Alex, A. & Jonas, J. P. (2024): Innovative data collection and management strategies for improved water treatment efficiency. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 435–439; Morgantown (International Mine Water Association).
• Mex, J. (2000): „Technischer Fortschritt“ und wirtschaftliche Entwicklung dargestellt am Beispiel des Berg- und Hüttenwesens im Reich im 16. Jahrhundert. – Concilium medii aevi, 3:83–133, 8 Abb., 5 Tab., 4 Taf.
• Mey, W. S. (2010): Mine Water Reclamation and Reuse Schemes – What’s In It for Us? – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 147–151, Sydney, NS (Cape Breton University Press).
• Mey, W. S. & van Niekerk, A. M. (2009): Evolution of Mine Water Management in the Highveld Coalfields. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 38–45, 7 Abb; Pretoria (Document Transformation Technologies).
• Meyer, A. J. & Dick, T. P. (2010): Fluorescent Protein-Based Redox Probes. – Antioxidants & Redox Signaling, 13(5):621–650, doi:10.1089/ars.2009.2948.
• Meyer, H.-H. (1987): Die Stauchendmoränen der Rehburger Eisrandlage und ihre Entstehung. – Osnabrücker naturwiss. Mitt., 13:23–42, 10 Abb.
• Meyer, J., Jenk, U., Göhrs, A. S. & Werner (2002): Characterisation of final mine flooding at the Schlema-Alberoda site of WISMUT GmbH with particular emphasis on flooding water quality evolution. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 777–782, 2 Abb.; Heidelberg (Springer).
• Meyer, J., Paul, M. & Jenk, U. (2008): Mine Water Hydrology of the Schneeberg Mine (Saxony) Fifty Years after Flooding. – Proceedings, 10th International Mine Water Association Congress:163–166.
• Meyer, J. & Schuppan, W. (1995): Informationen zur Flutung der westerzgebirgischen Urangrube Pöhla der WISMUT GmbH. – Proceedings, Uranium-Mining and Hydrogeology, Freiberg, Germany; GeoCongress, 1:369–375, 4 Abb., 2 Tab.
• Meyer, P. S. (2002): Springs in the Table Mountain Group, With Special Reference to Fault Controlled Springs. – In: Pietersen, K. & Parsons, R. (eds): A Synthesis of the Hydrogeology of the Table Mountain Group – Formation of a Research Strategy WRC Report No TT 158/01. – p. 224–229, 4 Abb., 2 Tab.; Pretoria (Water Research Commission).
• Meyer, R. (2014): Region 10 – The Karst Belt. – (Report Nr. WRC Report No. TT 553/14). – 285 p., Gezina (Water Research Commission).
• Meyer, R., Shields, M., Green, S. & Johnson, J. (2005): A GPS-Based System for Radium/Uranium Contamination Gamma Scanning. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 751–756, Heidelberg (Springer).
• Mezga, K., Urbanc, J. & Cerar, S. (2014): The isotope altitude effect reflected in groundwater: a case study from Slovenia. – Isotopes in Environmental and Health Studies, 50(1):33–51, doi:10.1080/10256016.2013.826213.
• Mhlanga-Mdluli, P. P. (2012): Anthropogenic Pollution of the Lusushwana River at Matsapha, and Prospects for its Control: Kingdom of Swaziland (eSwatini). – 342 p., PhD, Loughborough University, 77 Abb., 52 Tab., 24 Fotos, 17 Anh.; Loughborough.
• Mhlongo, S. E. & Amponsah-Dacosta, F. (2014): Assessment of Safety Status of Open Excavations and Water Quality of Pit Lake at Abandoned Nyala Mine in Limpopo Province of South Africa. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 395–399, 2 Abb., 1 Tab.; Xuzhou (International Mine Water Association).
• Mhlongo, S. E. & Amponsah-Dacosta, F. (2016): A Conceptual Surface Model for Rehabilitation of Nyala Mine Terrain and Improvement of the Pit Lake Safety Status. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 759–765, Freiberg (TU Bergakademie Freiberg).
• Mhlongo, S. E. & Amponsah-Dacosta, F. (2016): A review of problems and solutions of abandoned mines in South Africa. – Int. J. Min. Reclam. Environ., 30(4):279–294, doi:10.1080/17480930.2015.1044046.
• Miadokova, E., Dingova, H., Kogan, G., Liszekova, D. & Rauko, P. (2002): Different genotoxicological responses of mine waters containing heavy metals. – J. Trace Microprobe Tech., 20(3):429–437, doi:10.1081/TMA-120006688.
• Miadoková, E., Dúhová, V., Vlčková, V., Sládková, L., Šucha, V. & Vlček, D. (1999): Genetic risk assessment of acid waste water containing heavy metals. – Gen. Physiol. Biophys., 18:92–98, 5 Tab.
• Miao, W., Xu, Y., Guo, D., Xing, C., Zhang, B., Li, J. & Li, L. (2024): The Two Zones of Floor Failure and its Control via a ‘Dual Key Layer’ Approach. – Mine Water Environ., 43(1):117–135, doi:10.1007/s10230-024-00974-6.
• Mibus, J. & Brendler, V. (2005): Interaction of uranium from seepage water with hydroxyapatite. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 359–368, Heidelberg (Springer).
• Mibus, J., Szymczak, P. & Hebert, D. (2002): Infiltration water dating from tritium measurements in mining dumps: methodic specifics and case study. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 975–981, 3 Abb.; Heidelberg (Springer).
• Mibus, J., Szymzcak, P., Hebert, D. & Oster, H. (2002): Kombinierter Einsatz von FCKW und Tritium als Tracer. – Wiss. Mitt. Inst. Geol., 19:25–28, 5 Abb., 1 Tab.
• Michálek, B., Hájek, A., Lusk, K., Veselý, P. & Grmela, A. (2009): The Use and Treatment of Mine Waters from Closed and Flooded Uranium Mines. Paper presented at the Proceedings Securing the Future 2009 & 8th ICARD, Skellefteå. – p. 1–10 [electronic document], 5 Abb., 3 Tab.
• Michalik, B., Chałupnik, S. & Wysocka, M. (2000): Behaviour of radium discharged with waste waters into the surface settling pond. – Proceedings, 7th International Mine Water Association Congress:443–452, 3 Abb., 6 Tab.
• Michalik, B., Skubacz, K., Chałupnik, S., Lebecka, J. & Mielnikow, A. (1997): Radioactive Deposits in Polish Coal Mines and Their Influence on the Natural Environment. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:501–509, 2 Abb., 1 Tab.
• Michalková, E., Schwarz, M., Pulišová, P., Máša, B. & Sudovský, P. (2013): Metals Recovery from Acid Mine Drainage and Possibilities for their Utilization. – Pol. J. Environ. Stud., 22(4):1111–1118, 3 Abb., 8 Tab.
• Michalowski, T. & Asuero, A. G. (2012): New Approaches in Modeling Carbonate Alkalinity and Total Alkalinity. – Crit. Rev. Anal. Chem., 42(3):220–244, doi:10.1080/10408347.2012.660067.
• Michalsen, M. M., Peacock, A. D., Smithgal, A. N., White, D. C., Spain, A. M., Sanchez-Rosario, Y., Krumholz, L. R., Kelly, S. D., Kemner, K. M., McKinley, J., Heald, S. M., Bogle, M. A., Watson, D. B. & Istok, J. D. (2005): Treatment of Nitric Acid-, U(VI)-, and Tc(VII)-Contaminated Groundwater in Intermediate-Scale Physical Models of an In Situ Biobarrier. – Environ. Sci. Technol., 43(6):1952–1961, doi:10.1021/es8012485.
• Michel, F. A. (2007): Evaluation of Geothermal Energy Potential in Springhill, Nova Scotia. – Unpubl. Report for Nova Scotia Department of, E., Nova Scotia Dept. of Natural, R. & The Town of, S. 28 p., 3 Abb., 1 Tab.; Ottawa (Carleton University).
• Michel, G. (1964): Betrachtungen zur Hydrochemie des tiefen Grundwassers im Ruhrgebiet. – Z. dt. geol. Ges., 116(1):161–166, 1 Abb.; doi:10.1127/zdgg/116/1964/161.
• Michel, G. (1965): Zur Mineralisation des tiefen Grundwassers in Nordrhein-Westfalen, Deutschland. – J. Hydrol., 3:73–87, 3 Abb., 1 Tab.
• Michel, G. & Struckmeier, W. (1985): The Cretaceous Basin of Münster – a General Groundwater System in Response to Multiple Impacts (Water Supply, Spas, Deep Mining). Paper presented at the Hydrogeology in the Service of Man, Cambridge. – p. 150–159, 4 Abb., 3 Tab.; (IAH).
• Michler, A., Fischer, C., Darbha, G. K. & Schäfer, T. (2011): Retention of Fe-oxide colloids in a black slate environment: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 405–410 p., Aachen (RWTH Aachen University).
• Mickiewicz, A. & Marszałek, H. (2016): Groundwater geochemical evolution under the influence of polymetallic deposit in Czarnów (Western Sudetes, SW Poland). – Environ. Earth Sci., 75(6):464, doi:10.1007/s12665-015-4974-6.
• Mickley, M. (2009): Treatment of Concentrate. – Desalination and Water Purification Research and Development Program Report, 155:131, 17 Abb., 18 Tab.
• Miekeley, N., Mortari, S. R. & Schubach, A. O. (2002): Monitoring of total antimony and its species by ICP-MS and on-line ion chromatography in biological samples from patients treated for leishmaniasis. – Anal. Bioanal. Chem., 372:495–502, 4 Abb., 2 Tab.; doi:10.1007/s00216-001-1213-7.
• Mielcarek, W. (1988): Application of Deep Diaphragm Walls for Groundwater Control in Open cast Lignite Mining in the German Democratic Republic. – Int. J. Mine Water, 7(3):35–47, 9 Abb.
• Mierzejewski, M., Lamarre, D., Dijkman, H., Schouten, G. & Benschop, A. (2004): Combined anaerobic removal of COD, N and S from industrial waste water. Paper presented at the Anaerobic Digestion 2004. – 3 Abb., 4 Tab., 1 Anl.
• Migaszewski, Z. M. & Gałuszka, A. (2018): Geologic and Mineralogic Implications for Element and Isotope Signatures in the Wiśniówka Acid Mine Drainage Waters (South-Central Poland). Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 672–678; (Tshwane University of Technology).
• Mighall, T. M., Timberlake, S., Clark, S. H. E. & Caseldine, A. E. (2002): A Palaeoenvironmental Investigation of Sediments from the Prehistoric Mine of Copa Hill, Cwmystwyth, mid-Wales. – J. Archaeol. Sci., 19:1161–1188, 11 Abb., 7 Tab.; doi:10.1006/jasc.2001.0772.
• Mignan, A., Landtwing, D., Kastli, P., Mena, B. & Wiemer, S. (2015): Induced seismicity risk analysis of the 2006 Basel, Switzerland, Enhanced Geothermal System project: Influence of uncertainties on risk mitigation. – Geothermics, 53:133–146, doi:10.1016/j.geothermics.2014.05.007.
• Mignolo, W. D. & Walsh, C. E. (2018): On decoloniality – Concepts, Analytics, Praxis. – Durham (Duke University Press); doi:10.2307/j.ctv11g9616.
• Mignon, K. (1971): Datierung von Holzfunden in Talverschüttungen im Montafon, Kaunertal und Zillertal. – Z. Gletscherkunde u. Glazialgeologie, 7(1-2):215–216.
• Migon, C. & Mori, C. (1999): Arsenic and antimony release from sediments in a Mediterranean estuary. – Hydrobiologia, 392(1):81–88, 2 Abb., 4 Tab.
• Mihaescu, R., Levy, D. & Pachter, L. (2009): Why Neighbor-Joining Works. – Algorithmica, 54(1):1–24, doi:10.1007/s00453-007-9116-4.
• Mihok, E. A., Deul, M., Chamberlain, C. E. & Selmeczi, J. G. (1968): Mine Water Research – The Limestone Neutralization Process: 7191. – 20 p., 14 Abb., 7 Tab.; Washington (Bureau of Mines Report of Investigations).
• Mihok, E. A. & Moebs, N. N. (1972): U.S. Bureau of Mines progress in mine water research. – Papers Presented Before the Symposium on Coal Mine Drainage Research, 4:33–40.
• Mihók, J. (1997): Geológia Ložiska Nižná Slaná a Jeho Okolia [Geology of the Nižná Slaná Deposit and its Neighbourhood]. – Acta Mont. Slovaca, 2:61–67, 3 Abb.
• Mijatovic, B. & Jemcov, I. (2003): The contribution of geological-mining engineering to groundwater tapping in karst aquifer systems. Case studies. – RMZ – Materials and Geoenvironment, 50(1):237–240, 4 Abb., 1 Tab.
• Mikkelsen, L. H. & Keiding, K. (2001): Effects of solids concentration on activated sludge deflocculation, conditioning and dewatering. – Water Sci. Technol., 44(2-3):417–425.
• Mikkelsen, L. H. & Keiding, K. (2002): Physico-chemical characteristics of full scale sewage sludges with implications to dewatering. – Water Res., 36(10):2451–2462.
• Mikkelsen, L. H. & Keiding, K. (2002): The shear sensitivity of activated sludge – An evaluation of the possibility for a standardised floc strength test. – Water Res., 36(12):2931–2940, 6 Abb., 4 Tab.; doi:10.1016/S0043-1354(01)00518-8.
• Milam, C. D. & Farris, J. L. (1998): Risk identification associated with iron-dominated mine discharges and their effect upon freshwater bivalves. – Environ. Toxicol. Water Quality, 17(8):1611–1619, doi:10.1002/etc.5620170824.
• Milczarek, M., Keller, J., Hendrickx, J., Partey, F. & Geddis, M. (2018): High Resolution Estimates of Tailings Facility Evaporation Using Landsat Data. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1105–1110; (Tshwane University of Technology).
• Milczarek, M., Keller, J., Yao, T.-m., Prieto, E., Venegas, C., Ludwick, W., Orellana, R., Quevedo, F. & Zhan, G. (2015): Efficacy of Cover Systems in High Elevation Andean Climates. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Milenic, D., Dragisic, V., Savic, N. & Vranjes, A. (2008): Environmental Impact of Uranium Mine Waters in Eastern Serbia. – Proceedings, 10th International Mine Water Association Congress:495–498.
• Milesi, V., Declercq, J., Harding, W., Jarman, T., Bowell, R., Baas, O., Saukkoriipi, J. & van Wageningen, A. (2023): Chemical and Water-Isotope Composition Unravels the Source and Evolution of the Kittilä Underground Mine Water, Kiistala, Finland. – Mine Water Environ., 42(2):330–339, doi:10.1007/s10230-023-00935-5.
• Miletenko, N. A., Odintsev, V. N. & Fedorov, E. V. (2019): Snowmelt Water Breakthrough into Coal Mine in Sub-Artic Region. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 591–596; Perm, Russia (Perm State University).
• Milham, L. & Craw, D. (2009): Antimony Mobilization through Two Contrasting Gold Ore Processing Systems, New Zealand. – Mine Water Environ., 28(2):136–145, 8 Abb., 1 Tab.; doi:10.1007/s10230-009-0071-y.
• Millar, R. J., Fuglestvedt, J. S., Friedlingstein, P., Rogelj, J., Grubb, M. J., Matthews, H. D., Skeie, R. B., Forster, P. M., Frame, D. J. & Allen, M. R. (2017): Emission budgets and pathways consistent with limiting warming to 1.5 °C. – Nature Geoscience, 10:741, doi:10.1038/ngeo3031.
• Millar, W. N. (1973): Heterotrophic Bacterial Population in Acid Coal Mine Water – Flavobacterium Acidurans sp. n. – Int. J. Syst. Bacteriol., 23(2):142–150, 3 Abb., 6 Tab.; doi:10.1099/00207713-23-2-142.
• Millard, R. W., Baig, H. & Vatner, S. F. (1977): Cardiovascular effects of radioactive microsphere suspensions and Tween 80 solutions. – Am. J. Physiol., 232(3):H331–H334, 2 Abb., 1 Tab.
• Millen, B. M. J. (2003): Aspects of the Hydrogeology of a Mining Region with a Focus on the Antimony Content of the Spring-water, Eiblschrofen Massif, Schwaz, Tyrol, Austria. – Mitt. Österr. Geol. Ges., 94:139–156, 8 Abb., 8 Tab.
• Miller, A., Wildeman, T. & Figueroa, L. (2013): Zinc and nickel removal in limestone based treatment of acid mine drainage – The relative role of adsorption and co-precipitation. – Appl. Geochem., 37:57–63, 6 Abb., 6 Tab.; doi:10.1016/j.apgeochem.2013.07.001.
• Miller, D. & D’Souza, G. (2008): Using Aquaculture as a Post-mining Land Use in West Virginia. – Mine Water Environ., 27(2):122–126, 3 Abb.; doi:10.1007/s10230-008-0038-4.
• Miller, D. J., Semmens, K. J., Viadero Jr, R. C. & Tierney, A. E. (2005): The resource potential of mining discharge water for aquaculture. – World Aquacult., 35(4):57–59 + 70, 2 Abb.
• Miller, G. A. (1956): The magical number seven plus or minus two: some limits on our capacity for processing information. – Psychol. Rev., 63(2):81–97, doi:10.1037/h0043158.
• Miller, G. C., Kempton, H., Figueroa, L. & Pantano, J. (2006): Management and Treatment of Water from Hard-Rock Mines. – 42 p., 10 Abb., 6 Tab.; Cincinnati (U.S. Environmental Protection Agency – Engineering Issue).
• Miller, G. C., Lyons, W. B. & Davis, A. (1996): Understanding the water quality of pit lakes. – Environ. Sci. Technol., 30(3):118A–123A, 2 Abb., 1 Tab.; doi:10.1021/es9621354.
• Miller, H. (1961): Der Bau des westlichen Wettersteingebirges. – Z. dt. geol. Ges., 113:409–425, 6 Abb.; doi:10.1127/zdgg/113/1962/409.
• Miller, H. (1962): Zur Geologie des westlichen Wetterstein- und Mieminger Gebirges (Tirol) – Strukturzusammenhänge am Ostrand des Ehrwalder Beckens. – 118 p., 19 Taf., 3 Beil.; München (Unveröff. Diss.).
• Miller, H. (1963): Gliederung und Altersstellung der jurassischen und unterkretazischen Gesteine am Südrand des Wetterstein-Gebirges („Jungschichtenzone“) mit einem Beitrag zur geologischen Stellung der Ehrwaldite. – Mitt. Bayer. Staatsslg. Pal. hist. Geol., 3:51–72, 2 Abb., 1 Tab.
• Miller, H. (1965): Die Mitteltrias der Mieminger Berge mit Vergleichen zum westlichen Wettersteingebirge. – Verh. Geol. B.-A., 1/2:187–212, 1 Tab., 7 Abb.
• Miller, J., Swana, K., Talma, S., Vengosh, A., Tredoux, G., Murray, R. & Butler, M. (2015): O, H, CDIC, Sr, B and 14C Isotope Fingerprinting of Deep Groundwaters in the Karoo Basin, South Africa as a Precursor to Shale Gas Exploration. – Procedia Earth Planet. Sci., 13:211–214, doi:10.1016/j.proeps.2015.07.050.
• Miller, M. F. & Pillinger, C. T. (1997): An appraisal of stepped heating release of fluid inclusion CO₂ for isotopic analysis: A preliminary to d13C characterisation of carbonaceous vesicles at the nanomole level. – Geochim. Cosmochim. Acta, 61(1):193–205, 5 Abb., 1 Tab.
• Miller, R. W. (1996): Flow measurement engineering handbook, 3 edn. – 1168 p., New York (McGraw-Hill).
• Miller, S. & Murray, G. (1988): Prediction of Time Dependent Factors in Acid Mine Drainage. – Proceedings, 3rd International Mine Water Congress, Melbourne:165–172, 1 Abb.
• Miller, S. D., Jeffery, J. J. & Murray, G. S. C. (1990): Identification and Management of Acid Generating Mine Wastes – Procedures and Practices in South-East Asia and the Pacific Regions. – Int. J. Mine Water, 9(1-4):57–67, 5 Abb.; doi:10.1007/BF02503683.
• Miller, T. E. & Small, H. (1982): Thermal pulse time-of-flight liquid flow meter. – Anal. Chem., 54(6):907–910, doi:10.1021/ac00243a016.
• Miller, T. S. & Karig, D. E. (2010): Geohydrology of the Stratified-Drift Aquifer System in the Lower Sixmile Creek and Willseyville Creek Trough, Tompkins County, New York. – Sci. Invest. Rep., 2010-5230:55.
• Miller, W., Alexander, R., Chapman, N., McKinley, I. & Smellie, J. (2000): Natural Analogue Studies in the Geological Disposal of Radioactive Wastes: Waste Management Series 2. – 316 p., Amsterdam (Pergamon).
• Miller, W. R. & McHugh, J. B. (1999): Calculations of Geochemical Baselines of Stream Waters in The Vicinity of Summitville, Colorado, Before Historic Underground Mining and Prior to Recent Open-Pit Mining. – In: Plumlee, G. S. & Logsdon, M. J. (eds): The Environmental Geochemistry of Mineral Deposits 6A. – p. 505–514, 4 Abb., 14 Tab.; Littleton (Society of Economic Geologists).
• Millero, F. J. (1985): The physical chemistry of natural waters. – Pure and Applied Chemistry, 57(8):1015–1024, doi:10.1351/pac198557081015.
• Millero, F. J. (2000): The Equation of State of Lakes. – Aquat. Geochem., 6(1):1–17, doi:10.1023/A:1009626325650.
• Millero, F. J., Sotolongo, S. & Izaguirre, M. (1987): The oxidation kinetics of Fe(II) in seawater. – Geochim. Cosmochim. Acta, 51(4):793–801, 6 Abb., 12 Tab.; doi:10.1016/0016-7037(87)90093-7.
• Millie, D. F., Weckman, G. R., Young Ii, W. A., Ivey, J. E., Fries, D. P., Ardjmand, E. & Fahnenstiel, G. L. (2013): Coastal „Big Data“ and nature-inspired computation: Prediction potentials, uncertainties, and knowledge derivation of neural networks for an algal metric. – Estuarine Coastal Shelf Sci., 125:57–67, 8 Abb., 1 Tab.; doi:10.1016/j.ecss.2013.04.001.
• Mills, A. L. (1999): The Role of Bacteria in Environmental Geochemistry. – In: Plumlee, G. S. & Logsdon, M. J. (eds): The Environmental Geochemistry of Mineral Deposits 6A. – p. 125–132, 4 Abb., 4 Tab.; Littleton (Society of Economic Geologists).
• Mills, D. (2000): A new process for electrocoagulation. – J. Am. Water Works Assoc., 92(6):34–43, doi:10.1002/j.1551-8833.2000.tb08957.x.
• Mills, J. E. (2024): Successful acid mine drainage abatement – a case study. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 440–445; Morgantown (International Mine Water Association).
• Millward, H. (1985): A Model of Coalfield Development: Six Stages Exemplified by the Sydney Field. – Canadian Geographer, 29(3):234 – 248, 6 Abb.; doi:10.1111/j.1541-0064.1985.tb00367.x.
• Milojevic, T. (2017): Soil Oxygen Monitoring with Fibre Optode Sensors: Experimental Evaluation in Soil Columns under Fluctuating Water Table and Freeze Thaw Conditions. –, UWSpace.
• Milošević, Z., Suarez Fernandez, R. A., Dominguez, S. & Rossi, C. (2019): Guidance and Navigation Software for Autonomous Underwater Explorer of Flooded Mines. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 690–695; Perm, Russia (Perm State University).
• Milton, D. A., Tenakanai, C. D. & Chenery, S. R. (2000): Can the movements of barramundi in the fly river region, Papua New Guinea be traced in their otoliths? – Estuarine, Coastal and Shelf Science, 50(6):855–868.
• Milyukin, M. V., Gorban, M. V. & Skrynnyk, M. M. (2016): Мониторинг и дисперсно-фазовое распределение полихлорированных бифенилов в природной воде [Monitoring And Disperse-Phase Distribution Of Polychlorinated Biphenyls In Natural Water]. – Methods and Objects of Chemical Analysis, 1(2):99–105, doi:10.17721/moca.2016.99-105.
• Minerals Council South Africa (2020): Facts and Figures 2020. – 41 p., Johannesburg (Minerals Council South Africa).
• Mines, R. O. (2014): Environmental Engineering – Principles and Practice. – 637 p., Hoboken (Wiley).
• Ming-ch’eng Adams, C. I., Baker, J. E. & Kjellerup, B. V. (2016): Toxicological effects of polychlorinated biphenyls (PCBs) on freshwater turtles in the United States. – Chemosphere, 154:148–154, doi:10.1016/j.chemosphere.2016.03.102.
• Minister of Public Works & Government Services (2001): Guidance document for flow measurement of metal mining effluents. – Environmental Protection Series, EPS 2/MM/4:28, 5 Abb., 1 Tab.
• Minister of Water, A. & Forestry (2010): National Water Act, 1998 (Act No. 36 of 1998) – Regulations on Use of Water for Mining and Related Activities Aimed at the Protection of Water Resources. – Government Gazette, 32935:53–61.
• Ministerium für Klimaschutz‚ Umwelt‚ Landwirtschaft‚ Natur- und Verbraucherschutz des Landes Nordrhein-Westfalen (2015): Hintergrundpapier Steinkohle zum Bewirtschaftungsplan 2016–2021 für die nordrhein-westfälischen Anteile von Rhein, Weser, Ems und Maas. – 57 p., 18 Abb., 20 Tab., 4 Anh.; Düsseldorf (Ministerium für Klimaschutz, Umwelt, Landwirtschaft, Natur- und Verbraucherschutz des Landes Nordrhein-Westfalen).
• Ministerium für Umwelt und Naturschutz‚ Landwirtschaft und Verbraucherschutz Nordrhein-Westfalen & Emschergenossenschaft (2006): Arbeitshilfe zur integrierten Grund- und Regenwasserbewirtschaftung im Emschergebiet. – 75 p., Essen (Ministerium für Umwelt und Naturschutz‚ Landwirtschaft und Verbraucherschutz Nordrhein-Westfalen).
• Ministry of Agriculture Natural, R., Environment & Water Development, D. (1999): Water Treatment and Desalination Plants. – (J.G. Cassoulides & Son Ltd).
• Mirgorodsky, D., Ollivier, D., Merten, D., Büchel, G., Willscher, S., Jablonski, L., Wittig, J. & Werner, P. (2010): Phytoremediation experiments on a slightly contaminated test field of a former uranium mining site. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 587–591, Sydney, NS (Cape Breton University Press).
• Mironenko, V. A. (1985): Hydrogeological investigations in mining (with reference to USSR experience). – Proceedings, 2nd International Mine Water Association Congress, 2:991–1001, 7 Abb.
• Mironenko, V. A. (1988): The Hydrogeological Problems of Groundwater Protection in Mining Regions. – Proceedings, 3rd International Mine Water Congress, Melbourne:545–559, 3 Abb.
• Mironenko, V. A. & Pisanets, Y. P. (1982): Hydrogeological investigations on the problem of groundwater protection in mining development regions. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, ABCD Supplementary volume:121–132.
• Mironenko, V. A. & Strelsky, F. (1993): Hydrogeomechanical Problems in Mining. – Mine Water Environ., 12(1-4):35–40.
• Mirtl, M. & Leithner, W. (1997): Geologische und hydrogeologische Aufnahmen als Basis für Stoffbilanzen eines Kleinökosystems in den Nördlichen Kalkalpen. – Mitt. Österr. Geol. Ges., 88:51–60, 5 Abb.
• Misale, M. (2014): Overview on single-phase natural circulation loops. – Int. J. Adv. Mech. Aeronaut. Eng., 1(3):165–176, 29 Abb., 6 Tab.
• Mischo, H. & Cramer, B. (2020): New Mines in an old Mining District – Opportunities and Challenges of the 4th Mining Boom in the Ore Mountains Region. – Mining Rep. Glückauf, 156(1):40–45, 11 Abb.
• Misheer, N., Madzivire, G., Gitari, W. M., Ojumu, T. V., Balfour, G. & Petrik, L. F. (2010): Removal of sulphates from South African mine water using coal fly ash. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 151–155, Sydney, NS (Cape Breton University Press).
• Mishra, A. K. (2014): Application of nanotechnology in water research. – 522 p., Salem (Scrivener); doi:10.1002/9781118939314.
• Misich, I., Evans, A., Jones & Odwyn (1994): Subsidence and Groundwater Management through “Panel/Pillar” Mining in Western Australia. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:355–367, 9 Abb.
• Misich, I., Evans, A. & Odwyn, J. (1991): Groundwater Control and Strata Investigations th Allow Total Extraction of Coal by Underground Methods in the Collie Basin (Western Australia). – Proceedings, 4th International Mine Water Association Congress, 2:131–147, 9 Abb., 1 Tab.
• Misra, M. (1990): Towards unobtainium [new composite materials for space applications]. – Aerosp. Compos. Mater., 2(6):29–32, 4 Abb.
• Mitchell, P., Anderson, A. & Potter, C. (2000): Protection of ecosystem and human health via silica micro encapsulation of heavy metals. – Proceedings, 7th International Mine Water Association Congress:146–156, 2 Abb., 2 Tab.
• Mitchell, P. & Wheaton, A. (1999): Acid Mine Drainage. – Min. Environ. Manage.:7–9.
• Mitchell, P. & Wheaton, A. (1999): From environmental burden to natural resource; new reagents for cost-effective treatment of, and metal recovery from, acid rock drainage: Sudbury ’99 – Mining and the environment II 2. – 1231–1240 p., Sudbury (Sudbury Environmental).
• Mitchell, P. B., Waller, C. P., Atkinson, K. & Edvards, R. P. (1991): Ameliorative Techniques in Improving Revegetation Schemes. – Proceedings, 4th International Mine Water Association Congress, 2:281–293, 4 Abb., 3 Tab.
• Mitchell, P. H. (1988): Mine Water Management in Environmentally Sensitive Location. – Proceedings, 3rd International Mine Water Congress, Melbourne:711–720, 2 Abb., 3 Tab.
• Mitchell, P. H. & Rakestraw, N. W. (1933): The Buffer Capacity of Sea Water. – Biol. Bull., 65:437–451, 3 Abb., 6 Tab.
• Mitileni, C., Gumbo, J. R., Muzerengi, C. & Dacosta, F. A. (2011): The Distribution of Toxic Metals in Sediments: Case Study of New Union Gold Mine Tailings, Limpopo, South Africa: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 609–614 p., Aachen (RWTH Aachen University).
• Mitko, K., Noszczyk, A., Dydo, P. & Turek, M. (2021): Electrodialysis of coal mine water. – Water Resour. Ind., 25 doi:10.1016/j.wri.2021.100143.
• Mitrakova, N. & Khayrulina, E. (2019): Soil Monitoring Of Complex Salinization Under Potash Mining. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 696–700; Perm, Russia (Perm State University).
• Mittelstädt, P., Pollmann, N., Karimzadeh, L., Kories, H. & Klinger, C. (2023): Wastes in Underground Coal Mines and Their Behavior during Mine Water Level Rebound—A Review. – Minerals, 13(12):1496, doi:10.3390/min13121496.
• Mjakischev, V. (1987): Untersuchung des Gebirgsspannungszustandes im Südostteil der DDR. – Freib. Forsch.-H., A 740:7–47, 8 Abb., 4 Tab.
• Mjonono, D., Harrison, S. & Kotsiopoulos, A. (2018): Development Of Co-Disposal Methods For Fine Coal Waste and Coal Discards To Facilitate The Prevention Of Acid Mine Drainage. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 541–547; (Tshwane University of Technology).
• Mkandawire, M. (2013): Performance Boundaries of a Passive Biological Water Treatment System for Arsenic and Radium Immobilisation from Flooded Uranium Mines. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. A6.9–A6.14, 5 Abb., 2 Tab.; Golden (International Mine Water Association).
• Mkandawire, M., Dudel, E. G. & Müller, C. (2005): Possible biomineralisation of uranium in Lemna gibba G3. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 495–506, Heidelberg (Springer).
• Mkandawire, M., Dudel, E. G. & Taubert, B. (2004): Accumulation of Uranium in Lemna Gibba L. in Relation to Milieu Conditions of Tailing Waters in abandoned Uranium Mines in Germany. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 9–17, 5 Abb., 2 Tab.; Newcastle upon Tyne (University of Newcastle).
• Mkandawire, M. & Dudel, G. E. (2002): Uranium Attenuation from tailing waters by floating macrophyte Lemna gibba L. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 623–630, 2 Abb., 2 Tab.; Heidelberg (Springer).
• Mkandawire, M., Küchler, A., Förster, J., Pieplow, G. & Pompe, W. (2009): Dynamics of Arsenic in Constructed Wetland Treating Water from Flooding Shaft of an Abandoned Uranium Mine. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 539–547, 5 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Mkandawire, M., Ross, J.-H., Dudel, E. G. & Pompe, W. (2008): Speciation Dynamics of Arsenic in Tailing Heap Leachates at an Abandoned Uranium-mining Site. – Proceedings, 10th International Mine Water Association Congress:213–216.
• Mkhize, M. C. (2017): New interventions and sustainable solutions – Reappraising illegal artisanal mining in South Africa. – SA Crime Q.:67–75, 1 Tab.; doi:10.17159/2413-3108/2018/v0n61a1726.
• Mlakar, I. (1994): O marijareškem živosrebrnem rudišèu ter njegovi primerjavi z Litijo in Idrijo z aspekta tektonike plošè [On the Marija Reka mercury deposit and on its comparison with the Litija and Idrija deposits from the aspect of plate tectonics]. – Geologija, 37/38:321–376, 6 Abb., 7 Tab.
• Mlakar, I. & Drovenik, M. (1971): Strukturne in genetske posebnosti idrijskega rudišca [Structural and Genetic Particularities of the Idrija Mercury Ore Deposit]. – Geologija, 14:67–126, 2 Abb., 28 Taf.
• Mlayah, A., Lachaal, F., Chekirbane, A., Khadar, S. & da Silva, E. F. (2017): The Fate of Base Metals in the Environment and Water Quality in the Mellegue Watershed, Northwest Tunisia. – Mine Water Environ., 36(2):163–179, doi:10.1007/s10230-017-0430-z.
• Mlewa, F. F., Ondiaka, M. N., Alunda, B. O. & Kinyua, E. M. (2023): Pollution of Surface Water Close to an Artisanal Gold Mining Area: the Case of Macalder Mine, Kenya. – Mine Water Environ., 42(4):605–617, doi:10.1007/s10230-023-00959-x.
• Mlilo, P., Mhlanga, N. B. & Senzanje, A. (2008): Emerging Issues in Water Resources Management in Swaziland. Paper presented at the 12th Biennial Conference of the International Association for the Study of the Commons, Cheltenham. – p. 1–15, 1 Abb., 4 Tab.
• Mochnacka, K., Oberc-Dziedzic, T., Mayer, W. & Pieczka, A. (2012): Ore mineralization in the Miedzianka area (Karkonosze-Izera Massif, the Sudetes, Poland): new information. – Mineralogia Polonica, 43(3-4):155–178, doi:10.2478/v10002-012-0005-3.
• Mochnacka, K., Oberc-Dziedzic, T., Mayer, W. & Pieczka, A. (2015): Ore mineralization related to geological evolution of the Karkonosze–Izera Massif (the Sudetes, Poland) — Towards a model. – Ore Geol. Rev., 64:215–238, doi:10.1016/j.oregeorev.2014.07.001.
• Mock, J. E., Tester, J. W. & Wright, P. M. (1997): Geothermal Energy from the Earth: Its Potential Impact as an Environmentally Sustainable Resource. – Annu. Rev. Energy Environ., 22:305–356.
• Modak, J. M., Natarajan, K. A. & Mukhopadhyay, S. (1996): Development of temperature-tolerant strains of Thiobacillus ferrooxidans to improve bioleaching kinetics. – Hydrometallurgy, 42(1):51–61, 6 Abb., 2 Tab.
• Modis, K. & Komnitsas, K. (2007): Optimum Sampling Density for the Prediction of Acid Mine Drainage in an Underground Sulphide Mine: Water in Mining Environments. – 99–103 p., 4 Abb.; Cagliari (Mako Edizioni).
• Modis, K. & Komnitsas, K. (2007): Optimum Sampling Density for the Prediction of Acid Mine Drainage in an Underground Sulphide Mine. – Mine Water Environ., 26(4):237–242, 5 Abb.; doi:10.1007/s10230-007-0014-4.
• Moebs, N. N. (1966): Air Sealing As a Means of Abating Acid Mine Drainage Pollution. – ACS Div. Fuel Chem. Preprints, 151:93–100, 4 Abb.
• Moebs, N. N. & Clar, M. L. (1988): Feasibility of Water Diversion and Overburden Dewatering. – Bur. Mines Inf. Circ., IC-9024:68, 18 Abb., 10 Tab.
• Moeng, K. (2019): Community perceptions on the health risks of acid mine drainage: the environmental justice struggles of communities near mining fields. – Environ. Dev. Sustain., 21(6):2619–2640, 5 Abb., 1 Tab.; doi:10.1007/s10668-018-0149-4.
• Moffat, K., Pert, P., McCrea, R., Naomi, N., Boughen, B., Rodriguez, M. & Lacey, J. (2017): Australian attitudes toward mining – Citizen Survey – 2017 Results: EP178434. – 15 p., Australia (CSIRO).
• Mogashane, T. M., Maree, J. P., Mokoena, L. & Tshilongo, J. (2025): Research Activities on Acid Mine Drainage Treatment in South Africa (1998–2025): Trends, Challenges, Bibliometric Analysis and Future Directions. – Water, 17(15):2286.
• Mohajane, G. B., Maree, J. P. & Panichev, N. (2014): Treatment of iron(II)-rich acid mine water with limestone and oxygen. – Water Sci. Technol., 70(2):209–17, doi:10.2166/wst.2014.178.
• Mohalik, N. K., Lester, E. & Lowndes, I. S. (2017): Review of experimental methods to determine spontaneous combustion susceptibility of coal – Indian context. – Int. J. Min. Reclam. Environ., 31(5):301–332, doi:10.1080/17480930.2016.1232334.
• Mohamad, O. A., Hatab, S. R., Liu, Z., Li, Z., Kong, Z. & Wei, G. (2012): Biosorption and Bioaccumulation of Cu²⁺ from Aqueous Solution Using Living M. amorphae Isolated from Mine Tailings. – Mine Water Environ., 31(4):312–319, 8 Abb., 1 Tab.; doi:10.1007/s10230-012-0187-3.
• Mohammadi, L. & Meech, J. A. (2013): AFRA – Heuristic expert system to assess the atmospheric risk of sulphide waste dumps. – Journal of Loss Prevention in the Process Industries, 26(1):261–271, doi:10.1016/j.jlp.2012.11.009.
• Mohammadi, Z., Claes, H., Capezzuoli, E., Mozafari, M., Soete, J., Aratman, C. & Swennen, R. (2020): Lateral and vertical variations in sedimentology and geochemistry of sub-horizontal laminated travertines (Çakmak quarry, Denizli Basin, Turkey). – Quaternary International, 540:146–168, doi:10.1016/j.quaint.2018.11.041.
• Mohammed, E. A. E. & Xue, G. Q. (2014): Geoelectrical Investigations at Three Bridge Sites, North Nyala, Southern Darfour State, West-Sudan. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 309–320, Xuzhou (International Mine Water Association).
• Mohana, D. & Chander, S. (2006): Removal and recovery of metal ions from acid mine drainage using lignite – A low cost sorbent. – J. Hazard. Mater., 137(11):1545–1553, 8 Abb., 2 Tab.
• Mohanty, M., Pattnaik, M. M., Mishra, A. K. & Patra, H. K. (2012): Bio-concentration of chromium-an in situ phytoremediation study at South Kaliapani chromite mining area of Orissa, India. – Environmental Monitoring and Assessment, 184(2):1015–1024, doi:10.1007/s10661-011-2017-7.
• Mohanty, M., Pattnaik, M. M., Mishra, A. K. & Patra, H. K. (2023): Phytoefficacy of Eicchornia crassipes (Mart.) Solms-Laub for aqua-remediation of hexavalent chromium in chromite mine effluent of South Kaliapani, Odisha, India. – Environ. Sci. Pollut. Res., 30(15):43927–43931, doi:10.1007/s11356-023-25294-0.
• Mohr, H. (1913): Über einen genetisch interessanten Bleizinkerzbergbau bei Dellach im Oberdrautal. – Montan. Rdsch., 5(1):9–12.
• Moilanen, M. & Peltonen, P. (2015): Chapter 6 – The Hannukainen Fe-(Cu-Au) Deposit, Western Finnish Lapland: An Updated Deposit Model. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 485–505, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00019-4.
• Mojsisovics, E. v. (1870): Gefürstete Grafschaft Tyrol Oberinnthaler Kreis: Leermoos, Ehrwald – 1:28.800 (Geologische Karte). Wien.
• Mojsisovics, E. v. (1871): Die Kalkalpen des Ober-Innthales zwischen Silz und Landeck und des Loisach-Gebietes bei Lermoos. – Verh. geol. R.-A., 1871(13):236–238.
• Mojsisovics, E. v. (1873): Beiträge zur topischen Geologie der Alpen. – Jb. k.-k. geol. R.-A., 23:137–174, 1 Taf., 1 Profil.
• Mokadem, N., Dennis, R. & Dennis, I. (2021): Hydrochemical and stable isotope data of water in karst aquifers during normal flow in South Africa. – Environ. Earth Sci., 80(16) doi:10.1007/s12665-021-09845-7.
• Mokgalaka-Fleischmann, N. S., Melato, F. A., Netshiongolwe, K., Izevbekhai, O. U., Lepule, S. P., Motsepe, K. & Edokpayi, J. N. (2024): Microplastic occurrence and fate in the South African environment: a review. – Environ. Syst. Res., 13(1) doi:10.1186/s40068-024-00389-w.
• Mokhahlane, L. (2018): Determination of Acid Rock Drainage from Underground Coal Gasification at a Pilot Plant in Majuba. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 47–51; (Tshwane University of Technology).
• Mokhahlane, L. (2024): Intergrated groundwater management model for underground coal gasification plants. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 446–451; Morgantown (International Mine Water Association).
• Mokhov, A. V. (2011): Mine water drainage from flooded coal mines. – Doklady Earth Sciences, 438(2):733–735, doi:10.1134/s1028334x11060092.
• Mokhov, A. V. (2012): The hydrogeochemical structure of water bodies in flooded openings of coal mines. – Doklady Earth Sciences, 445(1):903–905, doi:10.1134/s1028334x12070252.
• Mokone, M. P. & Wolkersdorfer, Ch. (2017): Tracer Test in Mine Water of the Abandoned Edendale Lead Mine, South Africa. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 342–349, 5 Abb., 1 Tab.; Lappeenranta (Lappeenranta University of Technology).
• Mokone, T. P., Hille, R. P. v. & Lewis, A. E. (2009): Mechanisms Responsible for Particle Formation during Metal Sulphide Precipitation Processes. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 343–350, 6 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Molaba, L. E. & Wolkersdorfer, Ch. (2022): Investigating the Effects of Temperature on Density Stratification in a flooded Analogue Model Mine. Paper presented at the IMWA 2022 – Reconnect, Christchurch. – p. 259–265, 5 Abb.; Christchurch (International Mine Water Association).
• Molders, N. (2000): Similarity of microclimate as simulated in response to landscapes of the 1930s and the 1980s. – J. Hydrometeorol., 1(4):330–352.
• Molebatsi, T., Torres, S. G., Li, L., Bringemeier, D. & Wang, X. (2009): Effect of Fracture Permeability on Connectivity of Fracture Networks. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 248–255, 9 Abb; Pretoria (Document Transformation Technologies).
• Molecular Probes (2003): FluoSpheres – Fluorescent Microspheres for Tracer Studies: MP 13080 04-March-2003. – 1–4 p., 1 Abb., 1 Tab.; Eugene (Molecular Probes).
• Moleiro Cabrera, M. C., Youlton, C. & Wendland, E. (2013): Quantification of water evaporation by open pit mining lake using lysimeters. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 169–173, 5 Abb., 1 Tab.; Golden (International Mine Water Association).
• Molenda, T. (2014): Impact of Saline Mine Water: Development of a Meromictic Reservoir in Poland. – Mine Water Environ., 33(4):327–334, 15 Abb., 2 Tab.; doi:10.1007/s10230-014-0262-z.
• Molenda, T. (2018): Impact of a Saline Mine Water Discharge on the Development of a Meromictic Pond, the Rontok Wielki Reservoir, Poland. – Mine Water Environ., 37(4):807–814, doi:10.1007/s10230-018-0544-y.
• Molenda, T. & Kidawa, J. (2020): Natural and Anthropogenic Conditions of the Chemical Composition of Pit Lake Waters (Based on Example Pit Lakes from Central Europe). – Mine Water Environ., 39(3):473–480, doi:10.1007/s10230-020-00660-3.
• Molenda, T. & Kidawa, J. (2022): A Study of a Hypersaline, Heliothermic Lake that Formed in an Anthropogenic-Karst Sinkhole. – Mine Water Environ., 41(3):817–827, doi:10.1007/s10230-022-00887-2.
• Mollah, M. Y. A., Morkovsky, P., Gomes, J. A. G., Kesmez, M., Parga, J. & Cocke, D. L. (2004): Fundamentals, present and future perspectives of electrocoagulation. – J. Hazard. Mater., 144(1-3):199–210, 10 Abb.; doi:10.1016/j.jhazmat.2004.08.009.
• Mollah, M. Y. A., Schennach, R., Parga, J. R. & Cocke, D. L. (2001): Electrocoagulation (EC) – science and applications. – J. Hazard. Mater., B84:29–41, 4 Abb.; doi:10.1016/S0304-3894(01)00176-5.
• Mollehuara Canales, R. & Sinche-Gonzalez, M. (2017): Water management in mining – Measuring and demonstrating value-impact of management strategies. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 288–295, Lappeenranta (Lappeenranta University of Technology).
• Möller, P., Dulski, P., Savascin, Y. & Conrad, M. (2004): Rare earth elements, yttrium and Pb isotope ratios in thermal spring and well waters of West Anatolia, Turkey: a hydrochemical study of their origin. – Chem. Geol., 206(1-2):97–118, 7 Abb., 6 Tab.; doi:10.1016/j.chemgeo.2004.01.009.
• Möller, P., Weise, S. M., Tesmer, M., Dulski, P., Pekdeğer, A., Bayer, U. & Magri, F. (2008): Salinization of groundwater in the North German Basin: results from conjoint investigation of major, trace element and multi-isotope distribution. – Int. J. Earth Sciences (Geol. Rundsch.), 97(5):1057–1073, doi:10.1007/s00531-007-0211-1.
• Möllerherm, S. & Melchers, Ch. (2021): The Influence Of Mine Water Rebound On Methane Degassing In Abandoned Coal Mines. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 359–364; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Molnar, S. & Szidarovszky, Z. (1985): A game theoretical model for the examination of the mutual effect of mining and environmental control. – Proceedings, 2nd International Mine Water Association Congress, 1:523–530.
• Molwantwa, J. B. & Rose, P. D. (2013): Development of a Linear Flow Channel Reactor for sulphur removal in acid mine wastewater treatment operations. – Water SA, 39(5):649–654, 7 Abb., 3 Tab.; doi:10.4314/wsa.v39i5.9.
• Monasmith, R., Myhre, G., Geer, J., Moe, R., Vasquez, B. C., Allred, S., Cyr, M., Wooldridge, E., Swenson, H., Capoccia, S., Centurion, D. P., Young, C. & Zodrow, K. R. (2020): Photothermal Floats for Evaporation Enhancement and Waterfowl Deterrence. – Mine Water Environ., 39(4):716–723, doi:10.1007/s10230-020-00729-z.
• Monasmith, R. & Zodrow, K. R. (2020): Proper Adhesive Choice Increases Photothermal Float Durability in Mine Water Disposal Applications. – Mine Water Environ., 39(4):724–734, doi:10.1007/s10230-020-00730-6.
• Moncur, M., Smith, L. & Paktunc, D. (2015): Comparison of Laboratory and Field-Scale Predictions of Processed Kimberlite Effluent in the Arctic. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Moncur, M. C., Ptacek, C. J., Lindsay, M. B. J., Blowes, D. W. & Jambor, J. L. (2015): Long-term mineralogical and geochemical evolution of sulfide mine tailings under a shallow water cover. – Appl. Geochem., 57(7):178–193, doi:10.1016/j.apgeochem.2015.01.012.
• Monken Fernandes, H. & Ramalho Franklin, M. (2001): Remediation of Acid Rock Drainage at the Poços de Caldas Uranium Mining Site – Brazil. – 1–8 [CD–ROM] p., 3 Tab.; Belo Horizonte (Proceedings IMWA Symposium Belo Horizonte).
• Monna, F., Petit, C., Guillaumet, J. P., Jouffroy-Bapicot, I., Blanchot, C., Dominik, J., Losno, R., Richard, H., Lévêque, J. & Chateau, C. (2004): History and Environmental Impact of Mining Activity in Celtic Aeduan Territory Recorded in a Peat Bog (Morvan, France). – Environ. Sci. Technol., 38(3):665–673, 7 Abb., 1 Tab.; doi:10.1021/es034704v.
• Monninkhoff, B., Altenkirch, N., Luo, J. & Clausnitzer, V. (2014): Analyzing the Effects of Groundwater Influenced Flooding of a Large Abandoned Mining Area in Eastern Germany. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 725–730, Xuzhou (International Mine Water Association).
• Monreal, P. I., Cabrera, M. J. & Ramirez, R. (2025): Integrated 3D Laser Scanning Implementation for Monitoring Tailings Dams. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 508–512; Braga (International Mine Water Association).
• Montana Department of Environmental, Q. (2002): Water Quality Assessment Process and Methods (Appendix A). – A1–A39 p., 3 Abb., 14 Tab.; (Montana Department of Environmental Quality).
• Montanwerke Brixlegg Gesellschaft m.b.H. (ca. 1995): Montanwerke Brixlegg Gesellschaft m.b.H., Brixlegg, 18.
• Monteiro, L. V. S., Bettencourt, J. S., Spiro, B., Graca, R. & Oliveira, T. F. (2000): The Vazante Zinc Mine, MG, Brazil – Constraints on Fluid Evolution and Willemitic Mineralization. – Exploration and Mining Geology, 8.
• Montgomery, D. C. (2017): Design and analysis of experiments, 9th edn. – 734 p., Hoboken (Wiley & Sons).
• Monzyk, B. F., Wang, M., Usinowicz, P. J., Conkle, H. N., Fahnestock, F. M. v. & Beers, T. J. (2010): Prevention of Acid Mine Drainage by Avoiding Acid Formation Through Product Recovery with F-LLX™. – 1–10 p., 9 Abb., 1 Tab.; Santiago (Proceedings Hydroprocess Conference).
• Moo, J. G. S., Wang, H., Zhao, G. J. & Pumera, M. (2014): Biomimetic Artificial Inorganic Enzyme-Free Self-Propelled Microfish Robot for Selective Detection of Pb²⁺ in Water. – Chemistry-a European Journal, 20(15):4292–4296, doi:10.1002/chem.201304804.
• Moon, J. Y., Kim, Y. B., Lee, S. I., Song, H., Choi, K. & Jeong, G. H. (2006): Distribution characteristics of polychlorinated biphenyls in crucian carp (Carassius auratus) from major rivers in Korea. – Chemosphere, 62:430–439, doi:10.1016/j.chemosphere.2005.04.063.
• Moore, C. & Doherty, J. (2006): The cost of uniqueness in groundwater model calibration. – Adv. Water Resour., 29(4):605–623, doi:10.1016/j.advwatres.2005.07.003.
• Moore, F. & Aghazadeh, A. A. (2012): Trace Metal Occurrence and Mobility Assessment in Stream Sediments near the Sungun Porphyry Copper Deposit in Northwest Iran. – Mine Water Environ., 31(1):29–39, 5 Abb., 4 Tab.; doi:10.1007/s10230-012-0171-y.
• Moore, J. N., Adams, M. C. & Bloomfield, K. K. (2000): Geochemical Monitoring and Tracer Testing at the Cove Fort-Sulphurdale Geothermal System, Utah: Federal Geothermal Research Program Update – Fiscal Year 1999 DOE/ID-10743. – 3_97–3_102 p., 3 Abb.; Washington (U.S. Dep. Energy).
• Moore, J. N. & Luoma, S. N. (1990): Hazardous wastes from large-scale metal extraction – A case study. – Environ. Sci. Technol., 24(9):1278–1285, 4 Abb., 1 Tab.; doi:10.1021/es00079a001.
• Moore, L. R., Durand, J. R. & Strickland, F. (2013): Copper Removal from Mine Effluents: From Lab to Field Evaluations. – Mine Water Environ., 32(3):239–246, 11 Abb., 2 Tab.; doi:10.1007/s10230-013-0227-7.
• Moore, L. R., Durand, J. R. & Strickland, F. (2013): Metals Removal from Mine Effluents – Understanding the Chelant is Key. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 661–666, 7 Abb., 3 Tab.; Golden (International Mine Water Association).
• Moore, R. D. (2003): Introduction to Salt Dilution Gauging for Streamflow Measurement: Part 1. – Streamline Watershed Manage. Bull., 7(4):20–23, 2 Abb., 3 Tab.
• Moore, R. D. (2004): Introduction to Salt Dilution Gauging for Streamflow Measurement Part 2: Constant-rate Injection. – Streamline Watershed Manage. Bull., 8(1):11–15, 1 Abb., 2 Tab.
• Moore, R. D. (2005): Introduction to Salt Dilution Gauging for Streamflow Measurement Part 3: Slug Injection Using Salt in Solution. – Streamline Watershed Manage. Bull., 8(2):1–6, 1 Abb., 2 Tab.
• Moore, T. J., Johnson, B. S., Riese, A. C., Lewis-Russ, A. & Jonas, J. P. (2022): Passive Treatment of Circumneutral Mine Drainage from the St. Louis Mine Tunnel, Rico, CO: Part 1—Case Study: Characteristics of the Mine Drainage. – Mine Water Environ., 41(4):851–870, doi:10.1007/s10230-022-00904-4.
• Moore, W. S. (1999): The subterranean estuary: A reaction zone of ground water and sea water. – Marine Chemistry, 65(1-2):111–125.
• Moorhouse, A. M. L., Harris, R., Wyatt, L., Hill, S. & Potter, H. (2015): Up-Scaling from Trial to Operation – Practicalities of Construction and Permitting, Force Crag Mine. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Moorhouse, A. M. L., Wyatt, L. M., Watson, I. A. & Hill, S. (2013): A high surface area media treatment trial of a circum-neutral, net alkaline coal mine discharge in the South Derbyshire Coal Field (UK) using hydrous ferric oxide. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 667–672, 3 Abb., 1 Tab.; Golden (International Mine Water Association).
• Moorhouse-Parry, A. M. L. & Satterley, C. J. (2023): Assessment of Manganese Removal in Passive Systems Based on Operational Data and Experience of Treating Net-alkaline Coal Mine Waters in the UK. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 351–357; (International Mine Water Association).
• Moorhouse-Parry, A. M. L., Smithson, S. & Satterley, C. J. (2023): Holistic Approach to Reed Bed Management on UK Coal Mine Water Treatment Schemes. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 358–364; (International Mine Water Association).
• Mooruth, N. (2011): Passive Treatment of Acid Mine Drainage via a Linear Flow Channel Reactor utilising a Floating Sulphur Biofilm: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 411–416 p., Aachen (RWTH Aachen University).
• Mooruth, N. & Hille, R. P. V. (2012): Optimisation of a floating sulphur biofilm reactor in a passive acid Mine drainage treatment system: International Mine Water Association Symposium. – 723 p., Bunbury (Edith Cowan University).
• Moradzadeh, A., Amirkhani, F., Doulati Ardejani, F. & Arab-Amiri, A. R. (2011): Investigation of contaminated plumes caused by pyrite oxidation from a coal refuse pile at the Alborz Sharghi coal washing plant using VLF geophysical method: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 417–422 p., Aachen (RWTH Aachen University).
• Moradzadeh, A., Ardejani, F. D. & Pisheh, S. F. (2008): An Investigation on the Environmental Effects of Sulphide Mines Using Geophysical Studies. – Proceedings, 10th International Mine Water Association Congress:379–382.
• Moradzadeh, A., Ardejani, F. D., Shokri, B. J. & Sarkheil, H. (2007): A Method for Coal Waste Disposal Site Selection for Prevention of Environmental Impacts: Water in Mining Environments. – 239–242 p., 3 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Moraleda-Cibrián, N., Carrassón, M. & Rosell-Melé, A. (2015): Polycyclic aromatic hydrocarbons, polychlorinated biphenyls and organochlorine pesticides in European hake (Merluccius merluccius) muscle from the Western Mediterranean Sea. – Mar. Pollut. Bull., 95(1):513–519, doi:10.1016/j.marpolbul.2015.02.041.
• Morales, P., Roscales, J. L., Muñoz-Arnanz, J., Barbosa, A. & Jiménez, B. (2022): Evaluation of PCDD/Fs, PCBs and PBDEs in two penguin species from Antarctica. – Chemosphere, 286:131871, doi:10.1016/j.chemosphere.2021.131871.
• Moran, A. P., Ivy-Ochs, S., Vockenhuber, C. & Kerschner, H. (2016): First 36Cl exposure ages from a moraine in the Northern Calcareous Alps. – Quat. Sci. J., 65(2):145–155, 5 Abb., 4 Tab.; doi:10.3285/eg.65.2.03.
• Moran, C. & Moore, A. (2005): Salinity and experience constraints to water reuse in coal mining: Mine Water 2005 – Mine Closure. – 489–496 p., 6 Abb.; Oviedo (University of Oviedo).
• Moran, C. J., Barrett, D. & Côte, C. M. (2009): A Statistical Analytical Method to Assess the Potential for Worked Water Sharing between Mines. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 256–261, 1 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Moran, C. J., Lodhia, S., Kunz, N. C. & Huisingh, D. (2014): Sustainability in mining, minerals and energy: new processes, pathways and human interactions for a cautiously optimistic future. – J. Clean. Prod., 84:1–15, doi:10.1016/j.jclepro.2014.09.016.
• Moran, P., Ross, J., Way, R. & Williams, R. (2021): Investigating Subvertical Dewatering Well Potential At An Open Pit Mine. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 651–656; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Morasch, B., Richnow, H. H., Vieth, A., Schink, B. & Meckenstock, R. U. (2004): Stable isotope fractionation caused by glycyl radical enzymes during bacterial degradation of aromatic compounds. – Appl. Environ. Microbiol., 70(5):2935–40, doi:10.1128/aem.70.5.2935-2940.2004.
• Moravec, J. (1987): Realation between the hydrogeological Regime of a Spoil Bank and Chemism of Groundwaters in the North-Bohemian Brown-Coal Basin: Hydrogeology of Coal Basins. – 545–551 p., 1 Abb., 1 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Moravec, J. (1991): Water-bearing System in Clayey Spoil Banks. – Proceedings, 4th International Mine Water Association Congress, 1:199–205.
• Morche, D. (2006): Aktuelle hydrologische Untersuchungen am Partnach-Ursprung (Wettersteingebirge), Oberbayern. – WasserWirtschaft, 1-2:53–56, 6 Abb., 2 Tab.
• More, K. S. (2018): Formation of Toma Hills in the Area of the Fernpass Rockslide in Tyrol, Austria. – 69 p., Tshwane University of Technology, 36 Abb., 8 Tab.; Pretoria.
• More, K. S. & Wolkersdorfer, Ch. (2019): An analogue Toma Hill formation model for the Tyrolian Fernpass rockslide. – Landslides, 16(10):1855–1870, 15 Abb., 7 Tab.; doi:10.1007/s10346-019-01211-w.
• More, K. S. & Wolkersdorfer, Ch. (2019): Disruptive Technologies in Mine Water Management – The Future. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 597–601; Perm, Russia (Perm State University).
• More, K. S. & Wolkersdorfer, Ch. (2021): Application of Artificial Intelligence Systems in Mine Water Management – An Introduction to two Effective Predictive Models. Paper presented at the Mine Water Management for future Generations, Wales. – p. 365–367; (International Mine Water Association).
• More, K. S. & Wolkersdorfer, Ch. (2022): Predicting and Forecasting Mine Water Parameters Using a Hybrid Intelligent System. – Water Res. Manage., 7 Abb., 3 Tab.; doi:10.1007/s11269-022-03177-2.
• More, K. S. & Wolkersdorfer, Ch. (2023): Application of machine learning algorithms for nonlinear system forecasting through analytics — A case study with mining influenced water data. – Water Resour. Ind., 29:100209, 17 Abb., 6 Tab.; doi:10.1016/j.wri.2023.100209.
• More, K. S. & Wolkersdorfer, Ch. (2023): Exploring Advanced Statistical Data Analysis Techniques for Interpolating Missing Observations and Detecting Anomalies in Mining Influenced Water Data. – ACS ES&T Water:article 3c00163, 6 Abb., 1 Tab.; doi:10.1021/acsestwater.3c00163.
• More, K. S. & Wolkersdorfer, Ch. (2023): Intelligent Mine Water Management Tools — eMetsi and Machine Learning GUI. – Mine Water Environ., 42(1):111–120, 9 Abb., 1 Tab.; doi:10.1007/s10230-023-00917-7.
• More, K. S. & Wolkersdorfer, Ch. (2024): The pH paradox. – Sci. Total Environ., 946:174099, 5 Abb., 3 Tab.; doi:10.1016/j.scitotenv.2024.174099.
• More, K. S., Wolkersdorfer, Ch., Kang, N. & Elmaghraby, A. S. (2020): Automated Measurement Systems in Mine Water Management and Mine Workings – A Review of Potential Methods. – Water Resour. Ind.:Article 100136, 5 Abb.; doi:10.1016/j.wri.2020.100136.
• Moreira, C. A., Netto, L. G., Buchi, F. M. D., Hansen, M. A. F., Masquelin, H. & Lima, J. P. R. (2024): Using Electrical Resistivity Tomography to Understand the Hydrogeological Behavior of Acid Drainage Percolation in a Fractured Aquifer at a Uranium Mining Site. – Mine Water Environ., 43(3):431–448, doi:10.1007/s10230-024-00998-y.
• Moreira, S., Boehrer, B., Schultze, M., Dietz, S. & Samper, J. (2011): Modeling Geochemically Caused Permanent Stratification in Lake Waldsee (Germany). – Aquat. Geochem., 17(3):265–280, doi:10.1007/s10498-011-9133-4.
• Moreira, S., Boehrer, B., Schultze, M. & Samper, J. (2009): A Coupled Hydrodynamic-Geochemical Model of Meromictic Pit Lake Waldsee. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 892–897, 5 Abb; Pretoria (Document Transformation Technologies).
• Moreira, S., Schultze, M., Rahn, K. & Boehrer, B. (2016): A practical approach to lake water density from electrical conductivity and temperature. – Hydrol. Earth Syst. Sci., 20(7):2975–2986, 2 Abb., 2 Tab.; doi:10.5194/hess-20-2975-2016.
• Morel, F. M. M. & Hering, J. G. (1993): Principles and applications of aquatic chemistry, Rev. edn. – 588 p., New York (Wiley).
• Moreland, K. A. (2013): Applying the Reference Condition Approach to bioassessment of Cape Breton Island streams. – 69 p., Masters, The University of Western Ontario, 7 Abb., 8 Tab., 3 Anh.; London, ON.
• Moreno C., H. A., Cocke, D. L., Gomes, J. A. G., Morkovsky, P., Parga, J. R., Peterson, E. & Garcia, C. (2009): Electrochemical Reactions for Electrocoagulation Using Iron Electrodes. – Ind. Eng. Chem. Res., 48:2275–2282, 11 Abb.; doi:10.1021/ie8013007.
• Moreno C., H. A., Cocke, D. L., Gomes, J. J. A., Morkovsky, P. & Parga, J. R. (2006): Electrocoagulation – COD Removal Mechanism. – Proceedings, 2006 AiChE Annual Meeting:1–10 [electronic document], 3 Abb., 4 Tab.
• Moreno, F., Valente, T. M., Gomes, P., Fonseca, R., Costa, M. R. & Costa, A. (2019): Partitioning of potentially toxic elements among two colloidal fractions and relevance for their mobility in different water types. Paper presented at the E3S Web of Conferences. – 2 Abb., 2 Tab.
• Moreno, R., Olias, M., Ruiz Cánovas, C. & Macias, F. (2022): Update Of Hydrological Study And Prediction Of Flood Levels Of Acidic Pit Lakes (Tharsis) mines, Spain. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 267–272; (International Mine Water Association).
• Moreno-González, R., Olias, M., Ruiz-Cánovas, C. & Macías, F. (2019): Acid mine drainage pollution at the Tharsis mines (Iberian Pyrite Belt): A Serious Environmental and Socioeconomic Problem. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 484–490; Perm, Russia (Perm State University).
• Moret, G. J. M. & Rose, A. W. (2007): Resistivity Level Runs to Detect Water-filled Mine Voids between Drill Holes. – Mine Water Environ., 26(1):23–28, 6 Abb.
• Moret, I., Gambaro, A., Piazza, R., Ferrari, S. & Manodori, L. (2005): Determination of polychlorobiphenyl congeners (PCBs) in the surface water of the Venice lagoon. – Mar. Pollut. Bull., 50(2):167–174, doi:10.1016/j.marpolbul.2004.10.005.
• Morgan, A. (2018): Low temperature geothermal resources in abandoned mines of the Canadian Shield: A case study in the Chapais and Chibougamau area, Québec, Canada. – 128 p., Master Thesis, Reykjavík University, 43 Abb., 14 Tab., 6 Anl.; Reykjavík.
• Morgan, J. N. & Sonquist, J. A. (1963): Problems in the Analysis of Survey Data, and a Proposal. – J. Am. Stat. Assoc., 58(302):415–434, 2 Abb., 1 Tab.; doi:10.2307/2283276.
• Morgan, R. & Coulton, R. (2025): The importance of the Inorganic Carbon analysis in Active Mine Water Treatment. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 446–451; Braga (International Mine Water Association).
• Morgan, R., Coulton, R., Kingstone, S. & Watson, N. (2024): Development of a single stage High Density Sludge (HDS) process for the reopening of South Crofty Tin Mine, Cornwall, UK. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 452–457; Morgantown (International Mine Water Association).
• Morgan, S. A., Matthews, Z. N., Morgan, P. G. & Stanley, P. (2017): Removal of Iron from Dyffryn Adda, Parys Mountain, N. Wales, UK using Sono-electrochemistry (Electrolysis with assisted Power Ultrasound). – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1228–1236, Lappeenranta (Lappeenranta University of Technology).
• Morgenschweis, G. (2018): Hydrometrie – Theorie und Praxis der Durchflussmessung in offenen Gerinnen: VDI-Buch, 2nd edn. – 637 p., Berlin (Springer); doi:10.1007/978-3-662-55314-5.
• Morgenstern, P., Bruggemann, L. & Wennrich, R. (2004): Validation of an X-ray Methodology with Environmental Concern. – Spectroc. Acta Pt. B-Atom. Spectr., 59(2):185–197.
• Morgenstern, P., Friese, K., Wendt-Potthoff, K. & Wennrich, R. (2001): Bulk Chemistry Analysis of Sediments from Acid Mine Lakes by Means of Wavelength Dispersive X-ray Fluorescence. – Mine Water Environ., 20(3):105–113, 6 Abb., 2 Tab.; doi:10.1007/s10230-001-8091-2.
• Morgenstern, U., Gellermann, R., Hebert, D., Börner, I., Stolz, W., Vaikmäe, R., Rajamäe, R. & Putnik, H. (1995): 32Si in limestone aquifers. – Chem. Geol., 120:127–134, 5 Abb., 4 Tab.
• Mori, A., Alexander, W. R., Geckeis, H., Hauser, W., Schäfer, T., Eikenberg, J., Fierz, T., Degueldre, C. & Missana, T. (2003): The Colloid and Radionuclide Retardation Experiment at the Grimsel test Site: Influence of Bentonite Colloids on Radionuclide Migration in a Fractured Rock. – Colloid Surf. A-Physicochem. Eng. Asp., 217(1-3):33–47.
• Mori, C., Orsini, A. & Migon, C. (1999): Impact of arsenic and antimony contamination on benthic invertebrates in a minor Corsican river. – Hydrobiologia, 392(1):73–80, 3 Abb., 4 Tab.
• Móricz, F., Mádai, F. & Walder, I. (2011): Pyrite Oxidation Changes in Sulphidic Mine Wastes from the Itos Sn-Ag Deposit, Bolivia: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 683–688 p., Aachen (RWTH Aachen University).
• Morilla, A. G. & Fortier, D. H. (1978): Seepage characteristics through an abandoned tailings pile. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 847–862; Maracena (Asociación Nacional de lngenieros de Minas).
• Morin, B., Vaute, L. & Collon, P. (2025): Deep physico-chemical profiling in a flooded mine shaft: Understanding water dynamics in Gardanne lignite mine (France). Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 383–387; Braga (International Mine Water Association).
• Morin, K. A. & Hutt, N. M. (2001): Prediction of Minesite-Drainage Chemistry through Closure using operational Monitoring Data. – J. Geochem. Explor., 73(2):123–130, 5 Abb., 3 Tab.
• Morin, K. A. & Hutt, N. M. (2001): Prediction of water chemistry in mine lakes: The minewall technique. – Ecol. Eng., 17(2–3):125–132, doi:10.1016/S0925-8574(00)00153-1.
• Morin, K. A. & Hutt, N. M. (2004): The Minewall Approach for Estimating the Geochemical Effects of Mine Walls on Pit Lakes. Paper presented at the Pit Lakes 2004, Reno. – p. 1–19, 15 Abb.
• Morin, K. A. & Hutt, N. M. (2006): Case Studies of Costs and Longevities of Alkali-Based Water-Treatment Plants for ARD. – 1333–1344 p., 6 Abb.; St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)).
• Morin, K. A. & Hutt, N. M. (2009): On the Nonsense of Arguing the Superiority of an Analytical Method for Neutralization Potential. – MDAG.com Internet Case Study, 32:1–10, 1 Tab.
• Morin, K. A., Hutt, N. M. & McArthur, R. (1995): Statistical Assessment of past Water Chemistry to predict Future Chemistry at Noranda Minerals’ Bell Mine. Paper presented at the Sudbury ’95 – Mining and the Environment, Sudbury. – p. 925–934, 7 Abb., 2 Tab.; Ottawa (Canmet).
• Moritsch, F. (2007): AD FONTES – Wasservorkommen in der Spitzegelgruppe. – 51 p., 40 Abb.; (unveröff. Fachbereichsarbeit).
• Moritsch, F. (2008): AD FONTES – Wasservorkommen in der Spitzegelgruppe. – Carinthia II, 198/118:417–434, 14 Abb.
• Moritzi, A. (1842): Notice sur les collines de Coire. – Bibliothèque Universelle de Genève, Nouvelle Série:183–191.
• Morlok, J. (1987): Die Geologie des westlichen Gaistals zwischen Wetterstein- und Mieminger Gebirge (Tirol, Nördliche Kalkalpen). – 128 p.; Frankfurt am Main.
• Morlot, A. v. (1850): Ueber die geologischen Verhältnisse von Oberkrain. – Jb. k.-k. geol. R.-A., 1(3):389–411, 10 Abb., 2 Tab.
• Moro, D. C., Weiler, J. & Schneider, I. A. H. (2021): Effects of Vegetation on Erosion in Technosols Produced from Coal Waste. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 380–385; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Moro, K., Hoth, N., Roscher, M. & Drebenstedt, C. (2025): Characterization of Old Tailings Materials for Li-Sn Extraction and Sustainable Environmental Management: A Case Study of the Bielatal Tailings Dam, Altenberg, Eastern Ore Mountains, Saxony, Germany. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1023–1028; Braga (International Mine Water Association).
• Morrison, M. (2005): Biogeochemical interactions in a compost wetland for spoil heap leachate remediation at Quaking Houses, County Durham, UK: Mine Water 2005 – Mine Closure. – 403–409 p., 5 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Morrison, M. & Aplin, A. C. (2003): C-S-Fe geochemistry of a wetland constructed to treat acidic mine waters. – Land Contam. Reclam., 11(2):239–243, doi:10.2462/09670513.820.
• Morrissey, A. M. (1998): Characterization of contaminant hydrogeology, French Creek, Breckenridge, Colorado. Proceedings, 5th International Conference on Tailings and Mine Waste 5. – p. 507–516, Refs: 20; illus. incl. 2 tables; Rotterdam (Balkema).
• Morton, K. L. (2009): Comparison of Designs for the Dewatering of Coal, Gold and Diamond Mines in Southern Africa. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 277–288, 16 Abb; Pretoria (Document Transformation Technologies).
• Morton, K. L. (2018): The Anatomy And Circulation Of Mine Water In Carbonatite Mines, Specifically Diamond Mines. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1017–1023; (Tshwane University of Technology).
• Morton, K. L. (2018): The WIN-WIN Solution To The Clean-up Of Mine Residue – An Innovative And Cost Effective Method To Reduce Acid Drainage From Mine Residue. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 548–552; (Tshwane University of Technology).
• Morton, K. L. (2021): The Use of Accurate Pore Pressure Monitoring for Risk Reduction in Tailings Dams. – Mine Water Environ., 40(1):42–49, doi:10.1007/s10230-020-00736-0.
• Morton, K. L. (2021): The Use of Mineral Exploration Drilling to Kickstart Hydrogeology Data Collection for Pre-Feasibility Mining Studies and Beyond. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 386–392; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Morton, K. L. (2022): A Historical Perspective of Diamond Mine Dewatering Design and Guidelines for a Modern Diamond Mine. – Mine Water Environ., 41(2):557–572, doi:10.1007/s10230-022-00853-y.
• Morton, K. L. (2024): A phased approach to mine dewatering – updated from IMWA 1993. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 458–463; Morgantown (International Mine Water Association).
• Morton, K. L. & Bovim, A. (2023): Advanced monitoring of Tailings Storage Facilities and dams to prevent failure. Illustrated with case studies from UK, Africa and South America. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 69–76; (International Mine Water Association).
• Morton, K. L. & Bovim, A. (2025): Advances in integrated performance monitoring of Tailings Storage Facility. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 201–207; Braga (International Mine Water Association).
• Morton, K. L. & Mekerk, F. A. v. (1993): A Phased Approach to Mine Dewatering. – Mine Water Environ., 12(1-4):27–33.
• Morton, K. L., Millsteed, B. D., van Heerden, W. L., Carow, A. & Msitsini, M. (2023): Structural Logging And Modelling For Use In Simulation Of Inflows In Underground Hard Rock Mines. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 365–370; (International Mine Water Association).
• Morton, K. L. & van Niekerk, F. A. (1994): Mine Drainage Control and Environment Protection by using Grouting Technology and the Hydrogeological Approach. – Mine Water Environ., 13(2):41–43.
• Mosai, A., Chimuka, L., Cukrowska, E., Kotze, I. & Tutu, H. (2019): The Recovery Of Pd(II), Ir(III) And Rh(III) From Aqueous Solutions With Yeast-functionalised Zeolite. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 238–244; Perm, Russia (Perm State University).
• Mosai, A., Richards, H. & Tutu, H. (2022): Modelling The Transport Of Pollutants From Mine Dump And Landfill Sites To Groundwater And Surface Water. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 273–279; (International Mine Water Association).
• Mosai, A., Richards, H. & Tutu, H. (2024): The Transport of toxic elements from the Marie-Louise landfill site and nearby gold mine dumps to waterbodies. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 464–470; Morgantown (International Mine Water Association).
• Mosai, A. K., Kotze, I., Chimuka, L., Cukrowska, E. & Tutu, H. (2018): The Recovery Of Pt(IV) From Aqueous Solutions By APDEMS-functionalised Zeolite. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1111–1116; (Tshwane University of Technology).
• Mosai, A. K. & Phasha, M. (2025): Possible value recovery from abundant gold mine dumps and waterbodies in Krugersdorp, South Africa. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 120–124; Braga (International Mine Water Association).
• Mosavel, H. & Cole, D. I. (2019): Lithostratigraphy of the Prince Albert Formation (Ecca Group, Karoo Supergroup). – S. Afr. J. Geol., 122(4):571–582, 9 Abb.; doi:10.25131/sajg.122.0035.
• Mosavel, H., Cole, D. I. & Siad, A. M. (2019): Shale gas potential of the Prince Albert Formation – A preliminary study. – S. Afr. J. Geol., 122(4):541–554, doi:10.25131/sajg.122.0036.
• Mosch, C. F. (1821): Die Bäder und Heilbrunnen Deutschlands und der Schweiz – ein Taschenbuch für Brunnen- und Bade-Reisende. – Leipzig (Brockhaus).
• Mosch, C. F. (1829): Zur Geschichte des Bergbaues in Deutschland: 1-2. – 344+280 p., Liegnitz (E. D’oench).
• Mosello, R., Lami, A., Marchetto, A., Rogora, M., Wathne, B., Lien, L., Catalan, J., Camarero, L., Ventura, M., Psenner, R., Koinig, K., Thies, H., Sommaruga-Wögrath, S., Nickus, U., Tait, D., Thaler, B., Barbieri, A. & Harriman, R. (2002): Trends in the Water Chemistry of High Altitude Lakes in Europe. – Water, Air, & Soil Pollution: Focus, 2(2):75–89, 5 Abb., 3 Tab.; doi:10.1023/A:1020138221582.
• Moser, B., Beknazarova, M., Whiley, H., Keerthirathne, T. P., Harrington, N., DeGaris, K. & Wallis, I. (2021): Investigation into the Cause of Iron-Related Clogging of Groundwater Bores Used for Viticulture in the Limestone Coast, South Australia. – Water, 13(5):683.
• Moser, C. (2007): Tiroler Außerfern – Von zauberhaften Seen und idyllischen Mooren. – Bergauf, 132(2):68–69, 4 Abb.
• Moser, H. (1932): Der Turm und der Salzstadel in Lermoos. – Veröff. Mus. Ferdinandeum, 12:233–238.
• Moser, H. (1976): Das Archiv der Anwaltschaft Lermoos 1495 – 1918. – Tiroler Geschichtsquellen, 2:1–41.
• Moser, H. (1976): Das Drei-Mohren-Archiv von Lermoos von 1460-1893. – Tiroler Geschichtsquellen, 1:1–87.
• Moser, M. & Weisse, T. (2011): The most acidified Austrian lake in comparison to a neutralized mining lake. – Limnologica, 41(4):303–315, doi:10.1016/j.limno.2011.01.002.
• Moses, C. O. & Herman, J. S. (1991): Pyrite oxidation at circumneutral pH. – Geochim. Cosmochim. Acta, 55(2):471–482, doi:10.1016/0016-7037(91)90005-P.
• Mossad, M. & Zou, L. (2011): Effects of operational conditions on the electrosorption efficiencies of Capacitive deionization. – 1–11 p., 8 Abb.; Sydney (Proceedings Chemeca 2011 Engineering a better World).
• Mostert, M. (2014): A quantitative method for selecting renewable energy projects in the mining industry based on sustainability. – J. S. Afr. Inst. Min. Metall., 114(11):887–898.
• Mostler, H. (1972): Ein Beitrag zur Genese mitteltriassischer Crinoidenkalke im Gebiet von Reutte, Tirol (Nördliche Kalkalpen). – Geol. Paläont. Mitt. Innsbruck, 2(5):1–21.
• Mostler, H. (1972): Postvariscische Sedimente im Montafon (Vorarlberg). – Verh. Geol. B.-A.,(1):171–174, 2 Abb.
• Mostler, H., Heißel, G. & Gasser, G. (1982): Untersuchung von Erzlagerstätten im Innsbrucker Quarzphyllit und auf der Alpeiner Scharte. – Arch. f. Lagerst.forsch. Geol. B.-A., 1:77–83, Refs: 1; illus. incl. 3 plates, geol. sketch map, strat. col., sketch map.
• Mostler, H., Krainer, K. & Stingl, V. (1982): Erzlagerstätten in der postvariszischen Transgressionsserie im Arlberggebiet. – Arch. f. Lagerst.forsch. Geol. B.-A., 2:131–136, 5 Abb., 1 Taf.
• Mostler, W. (2013): Der Fernpassbergsturz in völlig neuem Lichte. Paper presented at the Geoforum Umhausen, Umhausen. – p. 20–28, 8 Abb.
• Motaung, S., Maree, J., De Beer, M., Bologo, L., Theron, D. & Baloyi, J. (2008): Recovery of Drinking Water and By-products from Gold Mine Effluents. – Int. J. Water Resour. Dev., 24(3):433–450, doi:10.1080/07900620802150475.
• Motaung, S., Zvimba, J. N., Maree, J. P. & Kolesnikov, V. (2015): Thermochemical reduction of pelletized gypsum mixed with carbonaceous reductants. – Water SA, 41(3):369–374, doi:10.4314/wsa.v41i3.08.
• Mothetha, M., Msagati, T., Masindi, V. & Kebede, K. (2022): Application of Pulverized Kaolin Clay for Remediation of Acid Mine Drainage. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 281–290; (International Mine Water Association).
• Motta, C., Bryan, J. & Kantzas, A. (2008): Characterization of Oil Sands Tailings using Nuclear Magnetic Resonance (NMR) Technique. – Proceedings, 10th International Mine Water Association Congress:383–386.
• Motyka, I. & Skibinski, L. (1982): Utilization of Salt Mine Waters in the Means of Environmental Protection. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, D:37–47, 2 Abb.
• Motyka, J., Cien, D. & d'Obyrn, K. (2024): The Use of Hydrochemical Zoning to Predict Water Hazards: The Example of the Olkusz-Pomorzany Zn-Pb Mine. – Mine Water Environ., 43(2):198–209, doi:10.1007/s10230-024-00991-5.
• Motyka, J. & Czop, M. (2008): Vertical Changes of Iron and Manganese Concentration in Water from Abandoned “Zakrzówek” Limestone Quarry near Cracow (South Poland). – Proceedings, 10th International Mine Water Association Congress:167–170.
• Motyka, J., d’Obyrn, K., Kasprzak, A. & Szymkiewicz, A. (2017): Sources of the groundwater inflows into the “Czatkowice” limestone quarry in southern Poland. Paper presented at the IMWA 2017 – Mine Water & Circular Economy, Lappeenranta. – p. 1362–1368; (Lappeenranta University of Technology).
• Motyka, J. & Pulido-Bosch, A. (1985): Karstic Phenomena in Calcareous-Dolomitic Rocks and their Influence over the Insrushes of Water in Lead-Zinc Mines in Olkusz Region (South od Poand). – Int. J. Mine Water, 4(2):1–11, 10 Abb.
• Motyka, J. & Witkowski, A. J. (1999): Sulphates in Groundwater of the Karst-Fractured Triassic Aquifers in Areas of intensive Mining Drainage (the Olkusz and the Bytom Regions). – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 189–195, 7 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Motyka, J. & Witkowski, A. J. (2002): Groundwater contamination in the area of Zn-Pb ore mines situated in the southern part of the Olkusz-Zawiercie Triassic aquifer (Poland). – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1045–1052, 5 Abb.; Heidelberg (Springer).
• Mou, L., Dong, S. N., Zhou, W. F., Wang, W., Li, A. & Shi, Z. Y. (2020): Data Analysis and Key Parameters of Typical Water Hazard Control Engineering in Coal Mines of China. – Mine Water Environ., 39(2):331–344, doi:10.1007/s10230-020-00684-9.
• Mouedhen, G., Feki, M., Wery Mde, P. & Ayedi, H. F. (2008): Behavior of aluminum electrodes in electrocoagulation process. – J. Hazard. Mater., 150(1):124–35, doi:10.1016/j.jhazmat.2007.04.090.
• Moukalled, F., Mangani, L. & Darwish, M. (2016): The Finite Volume Method in Computational Fluid Dynamics: Fluid Mechanics and Its Applications – An Advanced Introduction with OpenFOAM® and Matlab® 113. – 791 p., Cham (Springer); doi:10.1007/978-3-319-16874-6.
• Moukodi, G. P., Usher, B. H. & Surmon, M. (2009): Hydrogeochemical Characterisation of Waste Deposits from a Copper Mine. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 766–771, 5 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Mountjoy, K., Markussen-Brown, A., Ferrera, V. & Kaemffer, T. (2015): Construction, Instrumentation and Preliminary Results of Field Leach Pads for Scaling Reaction Rates and Assessing Field Performance. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Mourdikoudis, S., Pallares, R. M. & Nguyen, T. K. T. (2018): Characterization techniques for nanoparticles: comparison and complementarity upon studying nanoparticle properties. – Nanoscale, 10(27):12871–12934, doi:10.1039/c8nr02278j.
• Movzitova, K. & Plysnin, I. (2019): Formation of Industrial Gold-bearing Objects in the Development of placers on the Marakan River (Eastern Siberia). Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 531–534; Perm, Russia (Perm State University).
• Mowlem, M., Saw, K., Brown, R., Waugh, E., Cardwell, C. L., Wyatt, J., Magiopoulos, I., Keen, P., Campbell, J., Rundle, N. & Gkritzalis-Papadopoulos, A. (2016): Probe technologies for clean sampling and measurement of subglacial lakes. – Phil. Trans. R. Soc. A, 374(2059):20150267, doi:10.1098/rsta.2015.0267.
• Mowlem, M. C., Tsaloglou, M.-N., Waugh, E. M., Floquet, C. F. A., Saw, K., Fowler, L., Brown, R., Pearce, D., Wyatt, J. B., Beaton, A. D., Brito, M. P., Hodgson, D. A., Griffiths, G., Bentley, M., Blake, D., Capper, L., Clarke, R., Cockell, C., Corr, H., Harris, W., Hill, C., Hindmarsh, R., King, E., Lamb, H., Maher, B., Makinson, K., Parnell, J., Priscu, J., Rivera, A., Ross, N., Siegert, M. J., Smith, A., Tait, A., Tranter, M., Wadham, J., Whalley, B. & Woodward, J. (2011): Probe Technology for the Direct Measurement and Sampling of Ellsworth Subglacial Lake. – In: Siegert, M. J. & Kennicutt, M. C. (eds): Antarctic Subglacial Aquatic Environments 192. – p. 159–186, 4 Abb., 4 Tab.; Hoboken (Wiley); doi:10.1029/2010GM001013.
• Moya Aranzubia, O. (2025): Coal Acid Mine Drainage – Passive Treatment Lime Compost Drains – Three abandoned coal mined sites in Southern Illinois. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 825–830; Braga (International Mine Water Association).
• Moyer, E. E. & Kostecki, P. T. (2003): MTBE Remediation Handbook. – 670 p., New York (Springer); doi:10.1007/978-1-4615-0021-6.
• Moyo, A., Amaral Filho, J. & Broadhurst, J. L. (2018): Characterising the Environmental Risks of Coal Preparation Wastes: A Study of Fine Coal Slurry Waste and Discard from South African Collieries. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 417–423; (Tshwane University of Technology).
• Mozaffari Majd, M., Kordzadeh-Kermani, V., Ghalandari, V., Askari, A. & Sillanpää, M. (2022): Adsorption isotherm models: A comprehensive and systematic review (2010−2020). – Sci. Total Environ., 812:151334, doi:10.1016/j.scitotenv.2021.151334.
• Mpenyana-Monyatsi, L. (2013): Silver Nanoparticle-Resin Filter System for Drinking Water Disinfection and Inhibition of Biofilm Formation. – 330 p., Tshwane University of Technology, 40 Abb., 20 Tab., 3 Anl.; Pretoria.
• Mpetle, M. & Johnstone, A. (2018): The Water Balance of South African Coal Mine Pit Lakes. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 679–684; (Tshwane University of Technology).
• Mphahlele, M. R. R., Kotzé, I. A., Mosai, A. K. & Tutu, H. (2022): Recovery of Pt and Pd from Aqueous Solutions by N,N-di(trimethoxysilylpropyl)-N’-benzoylthiourea Modified Silica Gel. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 291–297; (International Mine Water Association).
• Mphahlele, N., Simelane, S. & Selepe, C. (2010): The Effective Use of Turnitin™ Software in Dealing with E-Plagiarism. – Journal for new generation sciences, 8(1):177–189, 2 Abb.
• Mtombeni, T., Maree, J. P., Zvinowanda, C. M., Asante, J. K. O., Oosthuizen, F. S. & Louw, W. J. (2013): Evaluation of the performance of a new freeze desalination technology. – Int. J. Environ. Sci. Technol., 10(3):545–550, 5 Abb., 2 Tab.; doi:10.1007/s13762-013-0182-7.
• Mu, W. P., Wu, X., Deng, R. C., Hao, Q. & Qian, C. (2020): Mechanism of Water Inrush Through Fault Zones Using a Coupled Fluid-solid Numerical Model: A Case Study in the Beiyangzhuang Coal Mine, Northern China. – Mine Water Environ., 39(2):380–396, doi:10.1007/s10230-020-00689-4.
• Mu, W. P., Wu, X., Ding, H. H., Geng, F. Q., Yu, S. & Zhang, X. (2022): A Hydro-Economic Model for Optimizing Management of Mine Water: A Case Study in the Suancigou Coal Mine, Northwestern China. – Mine Water Environ., 41(4):906–920, doi:10.1007/s10230-022-00894-3.
• Mubecane Filipe Manharage, M. J. & Rosa Filho, E. F. (2020): A Comparison Between Predictive Tests Results and Natural Weathering in the Figueira Mine, in Southern Brazils. – Mine Water Environ., 39(4):910–917, doi:10.1007/s10230-020-00690-x.
• Much, M. (1871): Kegelförmige Hügel in Tirol. – Mitt. Anthrop. Ges. Wien, 1:107.
• Much, M. (1902): Prähistorischer Bergbau in den Alpen. – Z. Dt.-Österr. Alpenver., 33:1–31, 50 Abb.
• Mudashiru, L. K. (2008): Electrochemical Determination of Dissolved and Particulate Iron in Mine-waters. – 290 p., 151 Abb., 23 Tab.; Newcastle (unpubl. PhD Thesis Univ. Newcastle upon Tyne).
• Mudashiru, L. K., Aplin, A. C. & Horrocks, B. R. (2011): Voltammetric methods for the speciation of dissolved iron and determination of Fe-containing nanoparticles in mine-water discharge. – Anal. Methods, 3:927–936, 13 Abb., 1 Tab.; doi:10.1039/C0AY00688B.
• Mudd, G. M. (2002): Environmental hydrogeology of in situ leach uranium mining in Australia. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 49–58, 5 Abb.; 2 Tab.; Heidelberg (Springer).
• Mudd, G. M. (2008): Sustainability Reporting and Water Resources: a Preliminary Assessment of Embodied Water and Sustainable Mining. – Mine Water Environ., 27(3):136–144, 2 Abb., 3 Tab.; doi:10.1007/s10230-008-0037-5.
• Mudd, G. M., Roche, C., Northey, S. A., Jowitt, S. M. & Gamato, G. (2020): Mining in Papua New Guinea: A complex story of trends, impacts and governance. – Sci. Total Environ., 741:19, doi:10.1016/j.scitotenv.2020.140375.
• Mudelsee, M. (2014): Climate Time Series Analysis – Classical Statistical and Bootstrap Methods doi:10.1007/978-3-319-04450-7.
• Mudroch, A., Stottmeister, U., Kennedy, C. & Klapper, H. (2002): Remediation of Abandoned Surface Coal Mining Sites: Environmental Engineering. – 269 p., 73 Abb., 22 Tab.; Berlin (Springer); doi:10.1007/978-3-662-04734-7.
• Muedi, K. L., Brink, H. G., Masindi, V. & Maree, J. P. (2018): Recovery and Synthesis of Al3+/Fe3+ Polycationic-Nanocomposites from Acid Mine Drainage Treatment Process and their Respective Application in the Removal of Arsenic and Chromium Ions from Polluted Water Resources. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 911–915; (Tshwane University of Technology).
• Muedi, K. L., Masindi, V., Maree, J. & Brink, H. G. (2022): Rapid Removal of Cr(VI) from Aqueous Solution Using Polycationic/di-metallic Adsorbent Synthesized Using Fe³⁺/Al³⁺ Recovered from Real Acid Mine Drainage. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 299–304; (International Mine Water Association).
• Muellegger, C., Weilhartner, A., Battin, T. J. & Hofmann, T. (2013): Positive and negative impacts of five Austrian gravel pit lakes on groundwater quality. – Sci. Total Environ., 443:14–23, doi:10.1016/j.scitotenv.2012.10.097.
• Mueller, D., Jacobs, Z., Cohen, T. J., Price, D. M., Reinfelds, I. V. & Shulmeister, J. (2018): Revisiting an arid LGM using fluvial archives: a luminescence chronology for palaeochannels of the Murrumbidgee River, south-eastern Australia. – J. Quat. Sci. , 33(7):777–793, doi:10.1002/jqs.3059.
• Mueller, D. K., Martin, J. D. & Lopes, T. J. (1997): Quality-Control Design for Surface-Water Sampling in the National Water-Quality Assessment Program. – Open-File Rep. US Geol. Surv., OF 97-223:1–17, 1 Abb., 1 Anh.
• Mueller, R. F. (2001): Microbially Mediated Thallium Immobilization in Bench Scale Systems. – Mine Water Environ., 20(1):17–29, 5 Abb., 8 Tab.; doi:10.1007/s10230-001-8076-1.
• Mugova, E., Molaba, L. E. & Wolkersdorfer, Ch. (2024): Understanding the Mechanisms and Implications of the First Flush in Mine Pools: Insights from Field Studies in Europe’s Deepest Metal Mine and Analogue Modelling. – Mine Water Environ., 43(2):73–86, 12 Abb.; doi:10.1007/s10230-024-00969-3.
• Mugova, E. & Wolkersdorfer, Ch. (2018): A Review of Mine Water Stratification. – In: Meier, G., et al. (eds): 18. Altbergbau-Kolloquium – Tagungsband. – p. 125–132, 2 Abb.; Nossen (Wagner).
• Mugova, E. & Wolkersdorfer, Ch. (2019): Dichteschichtung als potentielle In-situ-Behandlung von Grubenwasser in gefluteten Untertagebergwerken. Paper presented at the Bergbau, Energie und Rohstoffe 2019, Bochum, 2019–09–11 – 13. – p. 155–159; Clausthal-Zellerfeld (Technische Hochschule Georg Agricola, Deutscher Markscheider-Verein e.V.).
• Mugova, E. & Wolkersdorfer, Ch. (2019): Stratification in Flooded Underground Mines – State of Knowledge and Further Research Ideas. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 40–44; Perm, Russia (Perm State University).
• Mugova, E. & Wolkersdorfer, Ch. (2020): Stratification in Flooded Underground Mines – State of Knowledge and Further Research Ideas. – In: Kretschmann, J., Goerke-Mallet, P. & Melchers, Ch. (eds): Done for Good 2.0 – Results in Post-Mining Research. – p. 205–210, 1 Abb.; Bochum (Technische Hochschule Georg Agricola).
• Mugova, E. & Wolkersdorfer, Ch. (2021): Dewatering, Flooding and Stratification of the Nikolaus-Bader small-scale Gold Mining Shaft in Austria. Paper presented at the Mine Water Management for future Generations, Wales. – p. 393–397; (International Mine Water Association).
• Mugova, E. & Wolkersdorfer, Ch. (2022): Density Stratification and Double-Diffusive Convection in Mine Pools of Flooded Underground Mines – A Review. – Water Res., 214:118033, 6 Abb., 2 Tab.; doi:10.1016/j.watres.2021.118033.
• Mugova, E. & Wolkersdorfer, Ch. (2022): Identifying potential groundwater contamination by mining influenced water (MIW) using flow measurements in a sub‑catchment of the “Cradle of Humankind” Unesco World Heritage Site, South Africa. – Environ. Earth Sci., 81:104, 10 fig., 5 tab.; doi:10.1007/s12665-022-10224-z.
• Mugova, E. & Wolkersdorfer, Ch. (2022): Insights into the First Flush Effect – The Flooded Underground Mine as a Chemical Reactor. Paper presented at the IMWA 2022 – Reconnect, Christchurch. – p. 305–310, 4 Abb.; Christchurch (International Mine Water Association).
• Mugova, E. & Wolkersdorfer, Ch. (2022): Monitoring of Flooded Underground Mines – Using Mine Drainage Density Stratification as an Example. Paper presented at the 12th International Conference on Acid Rock Drainage (ICARD) 2022 VIRTUAL. – p. 846–852, 2 Abb., 1 Tab.; Brisbane (International Conference on Acid Mine Drainage).
• Mugova, E. & Wolkersdorfer, Ch. (2023): Mine Water Research with Analogue Modelling – The Agricola Model Mine. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 371–375, 4 Abb.; Newport (International Mine Water Association).
• Mugova, E. & Wolkersdorfer, Ch. (2024): Advancing sustainable mine water management through understanding stratification in flooded underground mines. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 471–472, 1 Abb.; Morgantown (International Mine Water Association).
• Mugova, E. & Wolkersdorfer, Ch. (2024): Wissenschaftskommunikation im Bereich Bergbau: Eine Fallstudie am Beispiel der Stiftung „Forum Bergbau und Wasser“ [Science Communication in the Mining Sector: Insights from the “Forum Mining and Water” Foundation]. – Mining Report Glückauf, 160(6):516–523, 4 Abb.
• Mugova, E. & Wolkersdorfer, Ch. (2025): Understanding the influence of stratification for mine water management: a comparative study. – Nat. Sci. Reports, 15(1):2757, 9 Abb., 2 Tab.; doi:10.1038/s41598-024-82293-y.
• Mugova, E., Wolkersdorfer, Ch. & Hahn, F. (2025): Exploring Geothermal Applications in Flooded Underground Mines with an Analogue Model Mine. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 28–33; Braga (International Mine Water Association).
• Mugunthan, P., McDonough, K. M. & Dzombak, D. A. (2004): Geochemical approach to estimate the quality of water entering abandoned underground coalmines. – Environ. Geol., 45(6):769–780, doi:10.1007/s00254-003-0937-4.
• Muhlbauer, R., Kotze, J. C., Rutherford, E. & Botha, R. (2019): A Case Study of the Importance of Hydrogeology to Mitigate Environmental and Technological Challenges Associated with Mine Closure Options. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 113–120; Perm, Russia (Perm State University).
• Mühlbauer, R., Raja, S., de Villiers, D., Pulles, W., Clark, S. & Heath, R. (2010): Implementation of a demonstration scale Integrated Managed Passive (IMPI) process. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 251–255, Sydney, NS (Cape Breton University Press).
• Mühlenbeck, H. (2016): Grubenwasseranstieg aus Sicht der E.ON SE. – Veröff. Dt. Bergbau-Mus. Bochum, 217:180–186.
• Mühlenbeck, H. (2016): Risikomanagement in stillgelegten Steinkohlengebieten. – Veröff. Dt. Bergbau-Mus. Bochum, 217:61–63.
• Mühling, M., Ullrich, S. R., Poehlein, A., Voitel, M., Drechsel, A., Erler, B., Tischler, J. S., González, C., Holmes, D. S. & Schlömann, M. (2016): Comparative Genomic Analysis of Acidophilic Iron Oxidizing Bacteria from a Pilot Plant for the Microbial Remediation of AMD Water: Insights into Strategies for Speciation and Metabolic Adaptation to Life at Low pH and under Low Nutrient Concentration. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1022–1026, Freiberg (TU Bergakademie Freiberg).
• Mujin, L. (1988): The Karst Water in Han-Xing District and the Countermeasure in Water Management. – Proceedings, 3rd International Mine Water Congress, Melbourne:479–487, 1 Abb.
• Mujuru, M. & Mutanga, S. S. (2016): Management and Mitigation of Acid Mine Drainage in South Africa – Input for Mineral Beneficiation in Africa. – 343 p., Pretoria (Africa Institute of South Africa ).
• Mukhopadhyay, B., Bastias, L. & Mukhopadhyay, A. (2007): Limestone Drain Design Parameters for Acid Rock Drainage Mitigation. – Mine Water Environ., 26(1):29–45, 8 Abb., 7 Tab.
• Mukhopadhyaya, P. K., Goodarzi, F., Crandlemire, A. L., Gillis, K. S., MacNeil, D. J. & Smith, W. D. (1998): Comparison of coal composition and elemental distribution in selected seams of the Sydney and Stellarton Basins, Nova Scotia, Eastern Canada. – Int. J. Coal Geol., 37(1-2):113–141, 9 Abb., 3 Tab.; doi:10.1016/S0166-5162(98)00020-2.
• Mukwena, T. & Van Der Walt, J. J. (2018): Lonmin Integrated Water Resource Management System. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 283–287; (Tshwane University of Technology).
• Mukwevho, N., Fosso-Kankeu, E., Waanders, F., Kumar, N., Ray, S. S. & Mbianda, X. Y. (2019): Photocatalytic activity of Gd2O2CO3 center dot ZnO center dot CuO nanocomposite used for the degradation of phenanthrene. – SN Appl. Sci., 1(1):11, doi:10.1007/s42452-018-0012-0.
• Mukwevho, N., Gusain, R., Fosso-Kankeu, E., Kumar, N., Waanders, F. & Ray, S. S. (2020): Removal of naphthalene from simulated wastewater through adsorption-photodegradation by ZnO/Ag/GO nanocomposite. – J. Ind. Eng. Chem., 81:393–404, doi:10.1016/j.jiec.2019.09.030.
• Mukwevho, N., Kumar, N., Fosso-Kankeu, E., Waanders, F., Bunt, J. & Ray, S. S. (2019): Visible light-excitable ZnO/2D graphitic-C3N4 heterostructure for the photodegradation of naphthalene. – Desalin. Water Treat., 163:286–296, doi:10.5004/dwt.2019.24422.
• Mulenga, S. C. (1991): Groundwater flow through Konkola (Bancroft) copper mine – Zambia. – 225 p., PhD, University of London; London.
• Mulenga, S. C. (1993): Solution to the Konkola Mine Groundwater Inflow Problem. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 60–97, 11 Abb., 2 Tab.; Chililabombwe (Konkola Division).
• Mulenga, S. C. & Chileshe, B. C. (1994): The Control of Mine Drainage Water at Konkola Underground Copper Mine – Zambia. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:229–244, 8 Abb.
• Mulenga, S. C. & Fernandez-Rubio, R. (1993): Quantification of Konkola Mine Water Inflow by Source. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 98–115, 16 Abb.; Chililabombwe (Konkola Division).
• Mulenga, S. C., Fernández-Rubio, R., Leon, A. & Baquero, J. C. (1992): Estimation of Quantitative Water Inflow from Different Sources in Konkola Mine, Zambia. – Mine Water Environ., 11(4):1–22, 16 Abb.
• Mulholland, K. L. & Overcash, M. R. (2003): Pollution Prevention from Chemical Processes. – In: Meyers, R. A. (ed) Encyclopedia of Physical Science and Technology, 3rd edn. – p. 593–609, 11 Abb.; Amsterdam (Academic Press); doi:10.1016/B0-12-227410-5/00591-3.
• Mull, D. S., Liebermann, T. D., Smoot, J. L. & Woosley, L. H., Jr. (1988): Application of Dye-Tracing Techniques for Determining Solute-Transport Characteristics of Ground Water in Karst Terranes. – 103 p., 18 Abb., 6 Tab.; Atlanta (United States Environmental Protection Agency).
• Muller, A., Schader, C., El-Hage Scialabba, N., Brüggemann, J., Isensee, A., Erb, K.-H., Smith, P., Klocke, P., Leiber, F., Stolze, M. & Niggli, U. (2017): Strategies for feeding the world more sustainably with organic agriculture. – Nature Communications, 8(1):1290, doi:10.1038/s41467-017-01410-w.
• Müller, E. (1904): Die Entwickelung der Arbeiterverhältnisse auf den staatlichen Steinkohlenbergwerken vom Jahre 1816 bis zum Jahre 1903: Der Steinkohlenbergbau des Preussischen Staates in der Umgebung von Saarbrücken VI. – 158 p., 3 Taf.; Berlin (Springer); doi:10.1007/978-3-662-33330-3.
• Müller, H. (1885): Beiträge zur Kenntniß der Mineralquellen und Stollnwässer Freiberger Gruben. – Jahrbuch für das Berg- und Hüttenwesen im Königreich Sachsen:185–188, 6 Tab.
• Müller, H. (1984): Hydrogeologisches Gutachten für Grundstück 1913/14 in Biberwier. – 5 p., 1 Abb.; Innsbruck (Agrargemeinschaft Biberwier).
• Müller, J. (1905): Das spätmittelalterliche Straßen- und Transportwesen der Schweiz und Tirols. Eine geographische Parallele. – Geogr. Z., 11(2):85–99.
• Müller, J., Ruppert, H., Muramatsu, Y. & Schneider, J. (2000): Reservoir sediments – a witness of mining and industrial development (Malter Reservoir, eastern Erzgebirge, Germany). – Environ. Geol., 39(12):1341–1351, 9 Abb., 1 Tab.
• Müller, M. (2013): Modeling Pit Lake Water Quality – How Do We Solve Multi-Disciplinary Problems? – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1055–1060, 1 Abb.; Golden (International Mine Water Association).
• Müller, M. (2016): Mine water drainage in disused coal mines as an eternal task. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 624–629, Freiberg (TU Bergakademie Freiberg).
• Müller, M. (2023): Nachruf Franz Fischer. – Bergbau, 74(10):491, 1 Abb.
• Müller, M. & Eulitz, K. (2010): Characterizing Water Quality of Pit Lake through Modeling. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 375–379, Sydney, NS (Cape Breton University Press).
• Müller, M., Eulitz, K., McCullough, C. D. & Lund, M. A. (2011): Model-based Investigations of Acidity Sources and Sinks of a Pit Lake in Western Australia: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 41–46 p., Aachen (RWTH Aachen University).
• Müller, M., Jolas, P., Mansel, H., Struzina, M. & Drebenstedt, C. (2010): Dewatering of Multi-aquifer Unconsolidated Rock Opencast Mines – Alternative Solutions with Horizontal Wells. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 51–55, Sydney, NS (Cape Breton University Press).
• Müller, M., Werner, F., Eulitz, K. & Graupner, B. (2008): Water Quality Modeling of Pit Lakes: Development of a Multiply-Coupled Groundwater Lake Circulation and Chemical Model. – Proceedings, 10th International Mine Water Association Congress:603–606.
• Muller, P. (1994): Glossary of Terms Used in Physical Organic Chemistry. – Pure Appl. Chem., 66(5):1077–11184.
• Müller, R. (1941): Instrumental Methods of Chemical Analysis. – Ind. Eng. Chem. Anal. Ed., 13(10):667–754, doi:10.1021/i560098a001.
• Müller, S. (1924): Vorarlbergs Bergbau zur Karolingerzeit. – Vierteljahrsschrift für Geschichte und Landeskunde Vorarlbergs, 8:61–70.
• Müller, S. (1925): Zur Geschichte des spätmittelalterlichen Bergbaues im Montafon. – Vierteljahrsschrift für Geschichte und Landeskunde Vorarlbergs, 9:33–44.
• Müller, S. (1930): Zur Geschichte des Bergbaues im Montafon. – Feierabend – Wochenbeilage zum Vorarlberger Tagblatt, 12(25):409–413.
• Müller, S. (2006): Permeability and porosity as constraints on the explosive eruption of magma: Laboratory experiments and field investigations. – unveröff. Diss. Uni München:129, 78 Abb., 5 Tab.
• Müller, S., Mylvaganam, J., de Bruyn, I. & Price, J. (2011): Mine groundwater control and slope depressurisation methods at Ok tedi in one of the highest annual rainfall areas in the world: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 47–52 p., Aachen (RWTH Aachen University).
• Mulliner, T. & McLachlan, C. (2022): Oxidation Modelling to Optimise Waste Rock Storage. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 311–316; (International Mine Water Association).
• Mullinger, N. (2003): Investigation into the Link Between Cwm Rheidol Mine Discharge Adits 6 & 9 and Input to the Mine System from Llwynteify Mine: TMW03_20. – (Environment Agency Wales technical memo).
• Mullinger, N. (2004): Assessing the Impacts of Metal Mines in Wales. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 209–217, 2 Abb., 9 Tab.; Newcastle upon Tyne (University of Newcastle).
• Mullins, G. & Kiley, M. (2002): ‘It’s a PhD, not a Nobel Prize’: how experienced examiners assess research theses. – Stud. High. Educ., 27(4):369–386, 1 Tab.; doi:10.1080/0307507022000011507.
• Mulopo, J. & Motaung, S. (2014): Carbothermal Reduction of Barium Sulfate-Rich Sludge from Acid Mine Drainage Treatment. – Mine Water Environ., 33(1):48–53, 6 Abb., 3 Tab.; doi:10.1007/s10230-013-0240-x.
• Mulopo, J., Motaung, S. R., Mashego, M. R. & Moalusi, M. (2009): Sulphate Removal Results using Barium-Carbonate and their Analysis for Reactor Synthesis. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 472–477, 4 Abb; Pretoria (Document Transformation Technologies).
• Mulualem, Y., Kumie, A., Tefera, Y., Demsie, B. & Mengesha, S. D. (2023): Assessing the effect of sunlight exposure on physicochemical properties of bottled water in Addis Ababa, Ethiopia: An experimental observational study. – Sci. Afr., 19 doi:10.1016/j.sciaf.2022.e01454.
• Mulugisi, G., Gumbo, J. R., Costa, F. A. d. & Muzerengi, C. (2009): The Use of Indigenous Grass Species as Part of Rehabilitation of Mine Tailings: A Case Study of New Union Gold Mine. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 512–518, 2 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Münch, M. & Wieber, G. Grubenwassernutzung zur Wärmeversorgung. – NN, 23 Abb., 6 Tab.
• Münch, W., Sistenich, H. P., Bücker, C. & Blanke, T. (2005): Möglichkeiten der geothermischen Stromerzeugung im Oberrheingraben. – VGB Power Tech, 10:59–66, 10 Abb., 1 Tab.
• Mundalamo, T., Gumbo, J., Muzerengi, C. & Dacosta, F. (2015): Assessment of Toxic Metals, As and Hg in Mine Tailings and Indigenous Grass – A Case Study of Dysfunctional New Union Gold Mine, South Africa. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Mungazi, A. A. & Gwenzi, W. (2019): Cross-Layer Leaching of Coal Fly Ash and Mine Tailings to Control Acid Generation from Mine Wastes. – Mine Water Environ., 38(3):602–616, doi:10.1007/s10230-019-00618-0.
• Münichsdorfer, F. (1908): Mineralogisch-Petrographische Studien am Silberberg bei Bodenmais. – Geogn. Jh., 21:59–91, 5 Abb.
• Munier, K., Burger, H. & Götze, H.-J. (2005): Datenmanagement und GIS-Einsatz bei einem geowissenschaftlichen Großforschungsprojekt – Konzepte, Realisation und Probleme. – Wiss. Mitt. Inst. Geol., 28:145–150, 4 Abb.
• Muniruzzaman, M., Karlsson, T. & Kauppila, P. M. (2020): A Multicomponent Reactive Transport Modeling Toolbox for Prediction of Drainage Quality from Mine Waste Facilities. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 50–56; (International Mine Water Association).
• Munnik, R. & Pulles, W. (2009): The Implementation of the Recently Developed Best Practice Guidelines for Water Resource Protection in the South African Mining Industry. Paper presented at the Proceedings, International Mine Water Conference, Pretoria. – p. 22–28, 1 Abb; (Document Transformation Technologies).
• Munnik, V., Hochmann, G., Hlabane, M. & Law, S. (2010): The Social and Environmental Consequences of Coal Mining in South Africa – A Case Study. – 24 p., Cape Town (Environmental Monitoring Group, Both ENDs).
• Munoz Saavedra, V. A. (2017): Break Free from Your Inertia. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 269–275, Lappeenranta (Lappeenranta University of Technology).
• Munoz Saavedra, V. A., Shapka-Fels, T. & Rykaart, M. (2017): Integrating Climate Change into Water Management Design. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 358–364, Lappeenranta (Lappeenranta University of Technology).
• Munro, L. D., Clark, M. W. & McConchie, D. (2004): A Bauxsol™-based Permeable Reactive Barrier for the Treatment of Acid Rock Drainage. – Mine Water Environ., 23(4):183–194, 6 Abb., 4 Tab.; doi:10.1007/s10230-004-0061-z.
• Muntean, J. & Taufen, P. (2011): Geochemical Exploration for Gold Through Transported Alluvial Cover in Nevada: Examples from the Cortez Mine. – Econ. Geol., 106(5):809–833, doi:10.2113/econgeo.106.5.809.
• Muntean, J. L., Frimmel, H. E., Phillips, N., Law, J. & Myers, R. (2005): Controversies on the Origin of World-Class Gold Deposits, Part II: Witwatersrand Gold Deposits. – SEG Newsletter, 60:7, 12–19, 5 Abb.
• Munyaka, J.-C. B., Chenal, J., Mabaso, S., Tfwala, S. S. & Mandal, A. K. (2024): Geospatial Tools and Remote Sensing Strategies for Timely Humanitarian Response: A Case Study on Drought Monitoring in Eswatini. – Sustainability-Basel, 16(1) doi:10.3390/su16010409.
• Muraviev, D., Gonzalo, A. & Valiente, M. (1995): Ion-exchange on Resins with Temperature-responsive Selectivity .1. Ion-exchange Equilibrium of Cu²⁺ and Zn²⁺ on Iminodiacetic and Aminomethylphosphonic Resins. – Anal. Chem., 67(17):3028–3035, 7 Abb., 3 Tab.; doi:10.1021/ac00113a043.
• Muraviev, D., Noguerol, J. & Valiente, M. (1997): Application of the reagentless dual-temperature ion-exchange technique to a selective separation and concentration of copper versus aluminum from acidic mine waters. – Hydrometallurgy, 44(3):331–346.
• Muraviev, D., Noguerol, J. & Valiente, M. (1997): Seawater as auxiliary reagent in dual-temperature ion-exchange processing of acidic mine waters. – Environ. Sci. Technol., 31(2):379–383.
• Muraviev, D., Noguerol, J. & Valiente, M. (1997): Tandem ion exchange fractionation: New preparative mode for separation of multicomponent ionic mixtures. – Anal. Chem., 69(20):4234–4241, 7 Abb., 4 Tab.; doi:10.1021/ac970454n.
• Murawski, H. & Meyer, W. (2010): Geologisches Wörterbuch, 12 edn. – 254 p., 82 Abb, 7 Tab.; Heidelberg (Spektrum).
• Murdoch, L. C., Germanovich, L. N., Wang, H., Onstott, T. C., Elsworth, D., Stetler, L. & Boutt, D. (2012): Hydrogeology of the vicinity of Homestake mine, South Dakota, USA. – Hydrogeol. J., 20(1):27–43, doi:10.1007/s10040-011-0773-7.
• Murdoch, M., Schroer, J. & Allen, J. (2003): Revised Technical Guidance on how to conduct Effluent Plume Delineation Studies. – 37 p., 5 Abb., 3 Tab.; Ottawa (National Environmental Effects Monitoring Office – Environment Canada).
• Murdock, D. J., Fox, J. R. W. & Bensley, J. G. (1995): Treatment of Acid Mine Drainage by the High Density Sludge Process. Paper presented at the Sudbury ’95 – Mining and the Environment, Sudbury. – p. 431–439, 3 Abb., 2 Tab.; Ottawa (Canmet).
• Muriithi, G. N., Gitari, M. W. & Petrik, L. F. (2009): Brine Remediation using Fly Ash and Accelerated Carbonation. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 671–679, 6 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Murk, A. J., van den Berg, J. H. J., Koeman, J. H. & Brouwer, A. (1991): The toxicity of tetrachlorobenzyltoluenes (Ugilec 141) and polychlorobiphenyls (Aroclor 1254 and PCB-77) compared in Ah-responsive and Ah-nonresponsive mice. – Environ. Pollut., 72(1):57–67, doi:10.1016/0269-7491(91)90155-P.
• Murray, J. & Walker, B. (2022): Stockton Coal Mine – Management of AMD Sludge. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 317–321; (International Mine Water Association).
• Murray, K. & Wade, P. (1996): Checking anion-cation charge balance of water quality analyses – Limitations of the traditional method for non-potable waters. – Water SA, 22(1):27–32, 13 Abb., 1 Tab.
• Murrell, P. (2013): InfoVis and Statistical Graphics: Comment. – Journal of Computational and Graphical Statistics, 22(1):33–37, doi:10.1080/10618600.2012.751875.
• Murthy, K. K. & Rangaraj, C. (1997): On the improvement of chimney weirs. – Can. J. Civ. Eng., 24:586–592, 11 Abb.
• Murugananthan, M., Raju, G. B. & Prabhakar, S. (2004): Removal of sulfide, sulfate and sulfite ions by electro coagulation. – J. Hazard. Mater., 109(1-3):37–44, 7 Abb., 3 Tab.; doi:10.1016/j.jhazmat.2003.12.009.
• Musche, F., Paufler, S., Grischek, T. & Uhlmann, W. (2016): Detection of iron-rich groundwater “hot spots” entering streams in Lusatia. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 616–623, Freiberg (TU Bergakademie Freiberg).
• Musilová, J., Harangozo, Ľ., Franková, H., Lidiková, J., Vollmannová, A. & Tóth, T. (2021): Hygienic quality of soil in the Gemer region (Slovakia) and the impact of risk elements contamination on cultivated agricultural products. – Sci Rep, 11(1):14089, doi:10.1038/s41598-021-93587-w.
• Musingwini, C. Keynote Paper: Some Perspectives on Implications of Top Globally Ranked Factors Affecting Mining on the Future of Mine Planning. In: Topal, E. (ed) Proceedings of the 28th International Symposium on Mine Planning and Equipment Selection - MPES 2019, Cham, 2020// 2020. Springer International Publishing, 3–9 S.
• Musiolik, A. & Pluta, I. (2013): Some problems concerning determination of barium in mine waters of the Upper Silesia (Poland). – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1061–1066, 8 Abb.; Golden (International Mine Water Association).
• Muss, A., Robertson, D. R., Stepien, C. A., Wirtz, P. & Bowen, B. W. (2001): Phylogeography of Ophioblennius: The role of ocean currents and geography in reef fish evolution. – Evolution, 55(3):561–572, doi:10.1111/j.0014-3820.2001.tb00789.x.
• Mustafa, Z. & Amann, H. (1980): The Red Sea Pre-Pilot Test 1979. Paper presented at the Offshore Technology Conference, Houston. – p. 197–210, 9 Abb., 2 Tab.; (Offshore Technology Conference).
• Muste, M., Vermeyen, T., Hotchkiss, R. & Oberg, K. (2007): Acoustic Velocimetry for Riverine Environments. – J. Hydraul. Eng., 133(12):1297–1298, doi:10.1061/(ASCE)0733-9429(2007)133:12(1297).
• Musu, E., Pelo, S. D., Lorrai, M. & Lattanzi, P. (2007): Variations and Controls on the Copper/Arsenic Ratios in Waters at the Furtei Gold Mine, Sardinia, Italy: Water in Mining Environments. – 441–445 p., 5 Abb.; Cagliari (Mako Edizioni).
• Musyoka, N. M., Petrik, L. F., Balfour, G., Misheer, N., Gitari, W. & Mabovu, B. (2009): Removal of Toxic Elements from Brine using Zeolite Na-p1 Made from a South African Coal Fly Ash. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 680–687, 6 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Musyoka, N. M., Petrik, L. F. & Hums, E. (2011): Ultrasonic assisted synthesis of zeolite A from coal fly ash using mine waters (acid mine drainage and circumneutral mine water) as a substitute for ultra pure water: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 423–428 p., Aachen (RWTH Aachen University).
• Mutlu, H. (1998): Chemical Geothermometry and Fluid-Mineral Equilibria for the Omer-Gecek Thermal Waters, Afyon Area, Turkey. – J. Volcanol. Geotherm. Res., 80(3-4):303–321, 10 Abb., 5 Tab.
• Mutlu, H. & Güleç, N. (1998): Hydrogeochemical outline of thermal waters and geothermometry applications in Anatolia (Turkey). – J. Volcanol. Geotherm. Res., 85(1-4):495–515, 4 Abb., 3 Tab.; doi:10.1016/S0377-0273(98)00068-7.
• Mutschlechner, G. (1954): Der Erzbergbau in der Umgebung von Imst. – Schlern-Schr., 110:29–59, 1 Abb.
• Mutschlechner, G. (1954): Die Massengesteine der Nordtiroler und Vorarlberger Kalkalpen. – Tschermaks Min. Petr. Mitt., 4(1-4):386–395, 1 Abb.
• Mutschlechner, G. (1955): Der Erzbergbau in Außerfern. – Schlern-Schr., 111:25–52, 1 Abb., 5 Tab.
• Mutschlechner, G. (1956): Erzvorkommen und Bergbaue im Bezirk Landeck. – Schlern-Schr., 133:15–37.
• Mutschlechner, G. (1961): Guido Hradil (Nekrolog). – Verh. Geol. Bundesanstalt, 1961:5–10.
• Mutschlechner, G. (1972): Das Bergwerk am Pfunderer Berg. – Der Schlern, 46(7/8):347–359.
• Mutschlechner, G. (1976): Lage und Boden von Imst – Imst als Bergbauzentrum. – Stadtbuch Imst:19–36, 1 Tab.
• Mutschlechner, G. (1976): Stand und Organisation des Tiroler Berg- und Hüttenwesens im ausgehenden 18. Jahrhundert. – Alpenregion und Österreich – Geschichtliche Spezialitäten:67–88.
• Mutschlechner, G. (1980): Bergbau in Vergangenheit und Gegenwart. – Tiroler Heimat, 43/44:25–26.
• Mutschlechner, G. (1985): Zur Geschichte des Bergbaus Gand im Stanzer Tal. – Veröff. Tiroler Landes-Mus. Ferdinandeum, 65:59–79, 5 Abb.
• Mutschlechner, G. (1988): Die Berggerichte im alten Tirol. – Tiroler Chronist, 30:9–10, 3 Abb.
• Mutschlechner, G. (1994): Verbot der Frauenarbeit im Schwazer Bergbau. – Tiroler Heimatblätter, 69:27–28.
• Mutschlechner, G. & Palme, R. (1976): Das Messingwerk in Pflach bei Reutte – Ein bedeutsames Industrieunternehmen zu Beginn der Neuzeit. – 127 p., 5 Abb.; Reutte (RTW Verlag Außerferner Schriften).
• Mutshekwa, T., Motitsoe, S. N., Naidoo, T., Majingo, Z. & Mlambo, M. C. (2025): Plastics underground: microplastic pollution in South African freshwater caves and associated biota. – Hydrobiologia:1–19, doi:10.1007/s10750-025-05800-w.
• Mutton, B. K. & Whincup, P. (1988): Hilton Mine Dewatering – North West Queensland, Australia. – Proceedings, 3rd International Mine Water Congress, Melbourne:211–220, 3 Abb.
• Mützenberg, S. (1991): Westliche Biga-Halbinsel (Çanakkale, Türkei): Beziehungen zwischen Geologie, Tektonik und Entwicklung der Thermalquellen. – Mitteilungen aus dem Geologischen Institut der Eidgenössischen Technischen Hochschule und der Universität Zürich / Neue Folge, 287:160, 46 Abb., 10 Tab., 2 Kart.
• Mützenberg, S. (1997): Nature and Origin of the thermal Springs in the Tuzla area, Western Anatolia, Turkey. – In: Schindler, C. & Pfister, M. (eds): Active Tectonics of Northwestern Anatolia – the MARMARA Poly-Project, a Multidisciplinary Approach by Space-Geodesy, Geology, Hydrogeology, Geothermics and Seismology. – p., 8 Abb., 3 Tab., 3 Anh.; Zürich (vdf Hochschulverl. an der ETH Zürich).
• Mützenberg, S., Balderer, W. & Rauert, W. (1992): Environmental isotope study of saline geothermal systems in western Anatolia, Çanakkale, Turkey. – Proceedings, International Symposium on Water-Rock Interaction, 7:1317–1320, 4 Abb.
• Muyunda, C. & Mwale, F. (1994): Electrical energy Usage at Konkola Division, Zambian Copper Belt. – Mine Water Environ., 13(2):33–39, 7 Abb.
• Mužák, J. (2008): Remediation of consequences of chemical leaching of uranium in Stráž pod Ralskem. – Proceedings, 10th International Mine Water Association Congress:217–220.
• Muzerengi, C. (2017): Enrichment and Geoaccumulation of Pb, Zn, As, Cd and Cr in soils near New Union Gold Mine, Limpopo Province of South Africa. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 720–727, Lappeenranta (Lappeenranta University of Technology).
• Mwaba, W., Sandy, M., Nicoll, G. M. & Melville, P. J. (1982): Pumping through rock. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, ABCD Supplementary volume:59–68, 2 Abb.
• Mwagandi, S. M. (2019): Influencers of Adoption of Mine Water Treatment Technologies in Taita Taveta County, Kenya – A Case of Aquamines Ltd. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 245–249; Perm, Russia (Perm State University).
• Mwewa, B., Tadie, M., Ndlovu, S., Simate, G. S. & Matinde, E. (2022): Recovery of rare earth elements from acid mine drainage – A review of the extraction methods. – J. Environ. Chem. Eng., 10(3):107704, doi:https://doi.org/10.1016/j.jece.2022.107704.
• Myagkaya, I. N., Gustaytis, M. A., Saryg-ool, B. Y. & Lazareva, E. V. (2022): Mercury Partitioning and Behavior in Streams and Source Areas Affected by the Novo-Ursk Gold Sulfide Tailings (West Siberia, Russia). – Mine Water Environ., 41(2):437–457, doi:10.1007/s10230-022-00859-6.
• Myer, L. R. (2000): A Strategy for Monitoring of Geologic Sequestration of CO₂: Energex’ 2000. – 1226–1231 p., Las Vegas (Proceedings 8th International Energy Forum).
• Myers, P. S. & Millar, W. N. (1975): Nonautotrophic Thiobacillus in Acid Mine Water. – Appl. Microbiol., 30(5):884–886, 1 Abb., 2 Tab.
• Myers, R. J. (1986): The new low value for the second dissociation constant for H₂S – Its history, its best value, and its impact on the teaching of sulfide equilibria. – J. Chem. Educ., 63(8):687, doi:10.1021/ed063p687.
• Mzoughi, M., Hermassi, M., Bélanger, É., Genty, T., N. Mulligan, C. & M. Neculita, C. (2025): Enhancing Ammonia Nitrogen Removal from Saline Mining Effluents: A Hybrid Approach with Ozone Microbubbles and Precipitation. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 409–415; Braga (International Mine Water Association).
• N.N. (1827): Auffindung einer beträchtlichen Masse gediegenen Goldes in der Moselgegend. – Ann. Phys. Chem., 10(1):136.
• Nachbaur, U. (2007): Kanzleisiegel landesfürstlicher und landschaftlicher Ämter in Vorarlberg vor 1806 – Ein Beitrag zur Verwaltungsgeschichte. – Montfort, 59(2):134–167, 21 Abb., 1 Tab.
• Naddeo, V., Zarra, T. & Belgiorno, V. (2008): A comparative approach to the variation of natural elements in Italian bottled waters according to the national and international standard limits. – J. Food Compos. Anal., 21(6):505–514, doi:10.1016/j.jfca.2008.02.010.
• Naftz, D., Morrison, S. J., Davis, J. A. & Fuller, C. C. (2002): Handbook of Groundwater Remediation Using Permeable Reactive Barriers – Applications to Radionuclides, Trace Metals, and Nutrients. – 539 p., 10 Abb., 4 Tab.; Amsterdam (Academic Press).
• Nagai, C., Furuya, H. & Asano, H. (2009): Research and Development of Acid Mine Drainage Treatment Technology in Japan. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 600–605, 6 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Nagare, R. M., Park, Y.-J. & Barbour, S. L. (2018): Analytical Approach to Estimate Salt Release from Tailings Sand Hummocks in Oil Sands Mine Closure. – Mine Water Environ., 37(4):673–685, doi:10.1007/s10230-018-0513-5.
• Nägeli, H. (1920): Die postglazial-prähistorischen Biaschina-Bergstürze. – Vierteljahresschr. Naturforsch. Ges. Zürich, 65:1–58.
• Nagorski, S. A., Moore, J. N., McKinnon, T. E. & Smith, D. B. (2003): Geochemical response to variable streamflow conditions in contaminated and uncontaminated streams. – Water Resour. Res., 39(2) doi:10.1029/2001WR001247.
• Nagorski, S. A., Moore, J. N., McKinnon, T. E. & Smith, D. B. (2003): Scale-dependent Temporal Variations in Stream Water Geochemistry. – Environ. Sci. Technol., 37(5):859–864.
• Nagorski, S. A., Moore, J. N. & Smith, D. B. (2002): Distribution of Metals in Water and Bed Sediment in a Mineral-Rich Watershed, Montana, USA. – Mine Water Environ., 21(3):121–136, 5 Abb., 2 Tab.; doi:10.1007/s102300200033.
• Nahir, M., Sackmann, T. & Palmer, M. (1999): Environmental Assessment and Remediation of Abandoned Mines in the Yukon Territory. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 759–763, 4 Tab.; Sevilla (International Mine Water Association).
• Naicker, K., Cukrowska, E. & McCarthy, T. S. (2003): Acid mine drainage arising from gold mining activity in Johannesburg, South Africa and environs. – Environ. Pollut., 122(1):29–40, doi:10.1016/S0269-7491(02)00281-6.
• Naicker, K. & Lupankwa, K. (2015): Prediction of Seepage from a Platinum-Group Metals Tailings Storage Facility. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Naicker, K., Van Zyl, A. & Barnard, P. (2018): Prediction of Seepage Quality from Coal Discard Facility in a Semi-Arid Climate. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 685–691; (Tshwane University of Technology).
• Naidoo, R., du Preez, K. & Govender-Ragubeer, Y. (2018): Are We Making Progress In The Treatment Of Acid Mine Drainage? Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 215–220; (Tshwane University of Technology).
• Naidoo, S. (2015): An assessment of the impacts of acid mine drainage on socio-economic development in the Witwatersrand: South Africa. – Environ. Dev. Sustain., 17(5):1045–1063, doi:10.1007/s10668-014-9589-7.
• Naidoo, S. (2017): Acid Mine Drainage in South Africa – Development Actors, Policy Impacts, and Broader Implications. – 128 p., Heidelberg (Springer); doi:10.1007/978-3-319-44435-2.
• Naidoo, S. (2022): Background on the Eastern Basin and the Blesbokspruit. Social Constructions of Water Quality in South Africa: A case study of the Blesbokspruit River in the Context of Acid Mine Drainage Treatment. – p. 31–59, Cham (Springer); doi:10.1007/978-3-030-98237-9_3.
• Naidoo, S. (2022): Social Constructions of Water Quality in South Africa – A case study of the Blesbokspruit River in the Context of Acid Mine Drainage Treatment. – 38 Abb.; Cham (Springer); doi:10.1007/978-3-030-98237-9.
• Naidu, J., Franzsen, S. & Espach, J. (2023): Methodology For The Performance Monitoring Of An Unconventional Acidic RO. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 383–389; (International Mine Water Association).
• Naidu, P. D. & Malmgren, B. A. (1995): A 2,200 years periodicity in the Asian monsoon system. – Geoph. Res. Letters, 22(17):2361–2364.
• Naidu, T. S., Moyo, N., Hardwick, E., Falconer, J., Smith, J., Sheridan, C. & van Dyk, L. (2023): Exploring the Potential for Rare Earth Element Recovery from Coal Mine Acid Mine Drainage using Ion Exchange Technology. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 376–382; (International Mine Water Association).
• Naidu, T. S., Sheridan, C., Hardwick, E. & Holm, P. E. (2025): Critical Raw Materials Recovery from Acid Mine Drainage. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 915–920; Braga (International Mine Water Association).
• Naidu, T. S., Van Dyk, L. D., Sheridan, C. M. & Higginson, A. (2019): Acid Mine Drainage Pilot Remediation System using Waste Products from the Steel Manufacturing and Sugar Industries. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 121–126; Perm, Russia (Perm State University).
• Naik, T. R., Ramme, B. W. & Kolbeck, H. J. (1990): Filling Abandoned Underground Facilities with CLSM Fly Ash Slurry. – Concrete international – Design & Construction, 12(7):19–25, 5 Abb., 3 Tab.
• Nair, R. R., Ittekkot, V., Manganini, S. J., Ramaswamy, V., Haake, B., Degens, E. T., Desai, B. N. & Honjo, S. (1989): Increased particle flux to the deep ocean related to monsoons. – Nature, 338:749–751.
• Nairn, R. W. (2010): A Large, Multi-Cell, Ecologically Engineered Passive Treatment System for Ferruginous Lead-Zinc Mine Waters. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 255–259, Sydney, NS (Cape Breton University Press).
• Nairn, R. W. (2013): Carbon dioxide impacts both passive treatment system effectiveness and carbon footprint. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 673–678, 2 Abb., 3 Tab.; Golden (International Mine Water Association).
• Nairn, R. W. (2013): Successful Passive Treatment of Iron-Rich Lead-Zinc Mine Waters and an Effective Method to Address Nuisance Constituents. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 679–679, Golden (International Mine Water Association).
• Nairn, R. W., Dorman, D. M., McCann, J. I., Olson, L. H., Seago, H. N., Morgan, C. M., Shepherd, N. L. & Knox, R. C. (2024): Nature-based solutions for mine water challenges: Linking mining reclamation, environmental remediation, ecological restoration, and sustainable resource extraction. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 473–479; Morgantown (International Mine Water Association).
• Nairn, R. W., Hedin, R. S. & Watzlaf, G. R. (1991): A Preliminary Review of the Use of Anoxic Limestone Drains in the Passive Treatment of Acid Mine Drainage. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 12:elektronisches Dokument, 5 Abb., 3 Tab.
• Nairn, R. W., LaBar, J. A., Oxenford, L. R., Shepherd, N. L., Holzbauer-Schweitzer, B. K., Arango, J. G., Tang, Z., Dorman, D. M., Folz, C. A., McCann, J. I., Ingendorf, J., Stanfield, H. T. & Knox, R. C. (2020): Toward Sustainability of Passive Treatment in Legacy Mining Watersheds: Operational Performance and System Maintenance. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 123–128; (International Mine Water Association).
• Nairn, R. W. & Mercer, M. N. (2000): Alkalinity generation and metals retention in a successive alkalinity producing system. – Mine Water Environ., 19(2):124–135, 3 Abb., 2 Tab.
• Nairn, R. W., Shepherd, N. L., Danehy, T. & Neely, C. (2018): Aeration via Renewable Energies Improves Passive Treatment System Performance. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 151–156; (Tshwane University of Technology).
• Nairn, R. W., Shepherd, N. L., Dorman, D. M., McCann, J. I. & Knox, R. C. (2023): Stream Recovery through Managed Biogeochemical Redox Coupling in Ecologically Engineered Passive Treatment Systems: A Natural Infrastructure Approach. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 390–396; (International Mine Water Association).
• Naish, E. J. (1992): Dewatering Concepts at Zambian Copperbelt Mines. – Mine Water Environ., 11(3):35–45, 2 Abb., 1 Tab.
• Naish, E. J. H. (1993): Dewatering Concepts at ZCCM’s Copperbelt Mines. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 116–129, 3 Abb.; Chililabombwe (Konkola Division).
• Najafabadipour, A. (2024): Determination of groundwater level using advanced machine learning methods. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 480–486; Morgantown (International Mine Water Association).
• Nakamura, F., San, H. H., Iwaki, H., Rawangphai, M., Kitagawa, N., Morimoto, S., Nakagaki, T. & Sato, T. (2025): Passive Treatment of Acid Mine Drainage Integrated with Carbon Dioxide Removal by Enhanced Rock Weathering in Acid Mine Drainage. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1059–1059; Braga (International Mine Water Association).
• Nakatsuka, T., Harada, N., Matsumoto, E., Handa, N., Oba, T., Ikehara, M., Matsuoka, H. & Kimoto, K. (1995): Glacial-interglacial migration of an upwelling field in the western equatorial Pacific recorded by sediment 15N/14N. – Geoph. Res. Letters, 22(18):2525–2528, doi:10.1029/95GL02544.
• Nalecki, P. (2008): Development of a Groundwater and Water Supply Management Model for a Coal Bed Methane Project. – Proceedings, 10th International Mine Water Association Congress:469–472.
• Nalecki, P. & Gowan, M. (2008): Mine Water Management – Dynamic, Probabilistic Modelling Approach. – Proceedings, 10th International Mine Water Association Congress:533–536.
• Nalecki, T. (1987): Hydrogeological Conditions of small Brown Coal Strata Deposition: Hydrogeology of Coal Basins. – 343–350 p., 6 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Nalecki, T. (1987): Water-Bearing Capacity of the Swierklaniec Beds in Bytom Syncline Area: Hydrogeology of Coal Basins. – 351–356 p., 2 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Nam, I.-H., Chon, C.-M., Jung, K.-Y. & Kim, J.-G. (2014): Biodegradation of biphenyl and 2-chlorobiphenyl by a Pseudomonas sp. KM-04 isolated from PCBs-contaminated coal mine soil. – Bull. Environ. Contam. Toxicol., 93(1):89–94, doi:10.1007/s00128-014-1286-6.
• Namjesnik, D., Kinscher, J., Contrucci, I. & Klein, E. (2022): Impact of past mining on public safety: seismicity in area of flooded abandoned coal Gardanne mine, France. – International Journal of Coal Science & Technology, 9(1):1–11, doi:10.1007/s40789-022-00558-1.
• Nancucheo, I. & Johnson, D. B. (2012): Selective removal of transition metals from acidic mine waters by novel consortia of acidophilic sulfidogenic bacteria. – Microb. Biotechnol., 5(1):34–44, 7 Abb., 2 Tab.; doi:10.1111/j.1751-7915.2011.00285.x.
• Nanda, N. K. (2020): Intelligent Enterprise with Industry 4.0 for Mining Industry. – In: Topal, E. (ed) Proceedings of the 28th International Symposium on Mine Planning and Equipment Selection MPES 2019. – p. 213–218, Cham (Springer); doi:10.1007/978-3-030-33954-8_27.
• Nandakumar, R., Chen, L. & Rogers, S. M. D. (2005): Agrobacterium-mediated Transformation of the Wetland Monocot Typha Latifolia l. (broadleaf Cattail). – Plant Cell Reports, 23(10-11):744–750.
• Nannoni, A., Meloni, F., Benvenuti, M., Cabassi, J., Ciani, F., Costagliola, P., Fornasaro, S., Lattanzi, P., Lazzaroni, M., Nisi, B., Morelli, G., Rimondi, V. & Vaselli, O. (2022): Environmental impact of past Hg mining activities in the Monte Amiata district, Italy: A summary of recent studies. – AIMS Geosciences, 8(4):525–551, doi:10.3934/geosci.2022029.
• Nappa, M., Kiipula, K., Kyllönen, H., Kaartinen, T., Pajarre, R. & Kangas, P. (2018): Valorisation Of Effluent From Metal Recovery Plant. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 157–163; (Tshwane University of Technology).
• Narasimhan, A. (1999): Rayleigh-Benard Convection – Physics of a Widespread Phenomenon. – Resonance – Journal of Science Education, 4:82–90, 3 Abb.
• Narasimhan, A. (2001): Rayleigh-Bénard Convection. Southern Methodist University.
• Nariyan, E., Sillanpää, M. & Wolkersdorfer, Ch. (2016): Cadmium removal from real mine water by electrocoagulation. Paper presented at the IMWA 2016 – Mining Meets Water – Conflicts and Solutions, Leipzig/Germany. – p. 897–900, 1 Abb., 2 Tab.; (TU Bergakademie Freiberg).
• Nariyan, E., Sillanpää, M. & Wolkersdorfer, Ch. (2017): Electrocoagulation treatment of mine water from the deepest working European metal mine – performance, isotherm and kinetic studies. – Sep. Purif. Technol., 177:363–373, 4 Abb., 7 Tab.; doi:10.1016/j.seppur.2016.12.042.
• Nariyan, E., Wolkersdorfer, Ch. & Sillanpää, M. (2018): Sulfate removal from acid mine water from the deepest active European mine by precipitation and various electrocoagulation configurations. – J. Environ. Manage., 227:162–171, 9 Abb., 5 Tab.; doi:10.1016/j.jenvman.2018.08.095.
• Nariyan, E., Wolkersdorfer, Ch. & Sillanpää, M. (2018): Uranium removal from Pyhäsalmi/Finland mine water by batch electrocoagulation and optimization with the response surface methodology. – Sep. Purif. Technol., 193:386–397, 13 Abb., 15 Tab.; doi:10.1016/j.seppur.2017.10.020.
• Nasab, S. K., Hojat, A., Kamkar-Rouhani, A., Javar, H. A. & Maknooni, S. (2011): Successful Use of Geoelectrical Surveys in Area 3 of the Gol-e-Gohar Iron Ore Mine, Iran. – Mine Water Environ., 30(3):208–215, 8 Abb., 1 Tab.; doi:10.1007/s10230-011-0135-7.
• Nascimento, S. C., Cooke, D. R., Cracknell, M. J., Miller, C. B., Davidson, G., Parbhakar-Fox, A. & Townsend, A. T. (2023): Long-Term Impact of Historical Mining on Water Quality at Mount Lyell, Western Tasmania, Australia. – Mine Water Environ., 42(3):399–417, doi:10.1007/s10230-023-00943-5.
• Nasir, B. A. (2014): Design Considerations of Micro-hydro-electric Power Plant. – Energy Procedia, 50:19–29, doi:10.1016/j.egypro.2014.06.003.
• Nason, P. (2013): Advances in using sewage sludge to remediate sulfidic mine tailings – An overview from pilot- and field-scale experiments, northern Sweden. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 681–686, 6 Abb.; Golden (International Mine Water Association).
• Nason, P., Alakangas, L. & Öhlander, B. (2014): Impact of Sewage Sludge on Groundwater Quality at a Formerly Remediated Tailings Impoundment. – Mine Water Environ., 33(1):66–78, 6 Abb., 2 Tab.; doi:10.1007/s10230-013-0244-6.
• Nason, P., Jia, Y., Maurice, C., Alakangas, L. & Öhlander, B. (2016): Biodegradation of Biosolids Under Aerobic Conditions: Implications for Cover Materials for Sulfide Mine Tailings Remediation. – Mine Water Environ., 35(3):273–282, doi:10.1007/s10230-015-0339-3.
• Nason, P. A., Alakangas, L. & Öhlander, B. (2011): Assessing the Impact of Sewage Sludge on a Formally Remediated Tailings Impoundment in Relation to the Transport of Metals in Groundwater: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 429–434 p., Aachen (RWTH Aachen University).
• Nason, P. A., Alakangas, L. I. & Öhlander, B. (2010): The Effectiveness of Using Sewage Sludge as a Sealing Layer on Sulphide-rich Mine Tailings: A Pilot-scale Experiment, Northern Sweden. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 155–159, Sydney, NS (Cape Breton University Press).
• Nassery, H. R. & Alijani, F. (2014): The Effects of an Abandoned Coal Mine on Groundwater Quality in the Science and Research Park (SRP) of Shahid Beheshti University, Zirab (Northern Iran). – Mine Water Environ., 33(3):266–275, 10 Abb., 1 Tab.; doi:10.1007/s10230-014-0266-8.
• Nathoo, J., Jivanji, R. & Lewis, A. E. (2009): Freezing your Brines off: Eutectic Freeze Crystallization for Brine Treatment. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 431–438, 5 Abb., 4 Tab; Pretoria (Document Transformation Technologies).
• National Coordination Committee for the Environment & State Planning Commission (2008): National Implementation Plan for the Stockholm Convention on Persistent Organic Pollutants – The Democratic People’s Republic of Korea. – (Report Nr. July 2008). – 74 p., Pyongyang (National Coordination Committee for the Environment, State Planning Commission).
• National Mining Association & Society for Mining Metallurgy and Exploration (2012): Hardrock Mining and Beneficiation Environmental Management System Guide. – 51 p., 16 Abb., 5 Anh.; (Nme; Sme).
• National Planning Commission (2012): Our Future-make it work – National Development Plan 2030. – 484 p., Pretoria (National Planning Commission).
• National Research Council & Committee on the Assessment of Polychlorinated Biphenyls in the Environment (1979): Polychlorinated Biphenyls. – (Report Nr. 68-01-3962). – 182 p., 7 Abb., 61 Tab.; Washington (National Academy of Sciences).
• Nativ, R., Adar, E. M. & Becker, A. (1999): Designing a monitoring network for contaminated ground water in fractured chalk. – Ground Water, 37(1):38–47.
• Natural Resources Conservation Service (1999): Mine Shaft and Adit Closing – Code 457. – 3 p., Minnesota (Natural Resources Conservation Service).
• Natural Resources Management Unit – Division „Protection of the Environment and Natural Resources“ (1999): Report on the International Round Table on Mining and the Environment („Berlin II Declaration“). – 105 p., 4 Tab.; Köln (Carl Duisberg Gesellschaft).
• Naudet, V., Revil, A. & Bottero, J. Y. (2003): Relationship between self-potential (SP) signals and redox conditions in contaminated groundwater. – Geoph. Res. Letters, 30(21):HLS 2–1–2–4, 3 Abb., 1 Tab.; doi:10.1029/2003GL018096.
• Nauman, E. B. (2008): Chemical Reactor Design, Optimization, and Scaleup, 2nd edn. – 608 p., Hoboken (Wiley).
• Naumann, F. (2006): 450 Jahre „De re metallica libri XII“ – das Hauptwerk Georgius Agricolas. – Schriftenreihe der Georg-Agricola-Gesellschaft, 31:9–40, 9 Abb.
• Naumov, V. A., Fiorucci, A., Goldyrev, V. V. & Bryukhov, V. N. (2019): Dissolution And Redistribution Mechanisms Of Gold Inside The Tailings (Mine Dumps) And Their Applied Significance. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 535–538; Perm, Russia (Perm State University).
• Naumova, O., Naumov, V., Osovetsky, B. & Lunyov, B. (2019): Training of Specialists and Masters on Geology in the Field of Placers, Technogenic Deposits and Research the Microstructures of Substance in Perm University. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 748–752; Perm, Russia (Perm State University).
• Naurath, L., Weidner, C., Rüde, T. R. & Banning, A. (2011): A New Approach to Quantify Na-Fluorescein (Uranine) in Acid Mine Waters. – Mine Water Environ., 30(3):231–236, 5 Abb., 1 Tab.; doi:10.1007/s10230-011-0138-4.
• Navarrete-Calvo, Á. A., Sánchez-Yáñez, C. E., Bustamante-Penagos, N., Maturana, R., Hidalgo, M. & Montserrat, S. (2025): Environmental geochemical impact of tailings spills in natural streams in Chile (Mapocho river case). Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 909–914; Braga (International Mine Water Association).
• Navarro, A. & Cardellach, E. (2008): Mobilization of Ag, heavy metals and Eu from the waste deposit of the Las Herrerias mine (Almeria, SE Spain). – Environ. Geol., 56(7):1389–1404, 10 Abb., 9 Tab.; doi:10.1007/s00254-008-1234-z.
• Navarro, A., Cardellach, E., Mendoza, J., Corbella, M. & Domenech, L. (2008): Metal mobilization from base-metal smelting slag dumps in Sierra Almagrera (Almeria, Spain). – Appl. Geochem., 23(4):895–913, 11 Abb., 7 Tab.
• Navarro, A. & Carulla, N. (2018): Evaluation of Geothermal Potential in the Vicinity of the Flooded Sierra Almagrera Mines (Almeria, SE Spain). – Mine Water Environ., 37(1):137–150, doi:10.1007/s10230-017-0478-9.
• Navarro, A., Font, X. & Viladevall, M. (2015): Metal Mobilization and Zinc-Rich Circumneutral Mine Drainage from the Abandoned Mining Area of Osor (Girona, NE Spain). – Mine Water Environ., 34(3):329–342, doi:10.1007/s10230-015-0344-6.
• Navarro, L., Hayton, S., Williams, M. & Weber, P. (2022): Globe Progress Lake – Closure performance monitoring and adaptive management. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 323–328; (International Mine Water Association).
• Nave, M. L. (1988): Considerations for application of electrical submersible pumps for underground coal mine dewatering. – Proceedings, Industry Applications Society Annual Meeting IEEE, 2:1263–1266, 2 Abb.; doi:10.1109/IAS.1988.25223.
• Navratil, J. D. (2008): Mine Water Treatment Using Iron Ferrites and Magnetite. – Proceedings, 10th International Mine Water Association Congress:305–308.
• Navratil, J. D., Akin, A. & Feis, J. (2011): Treatment of Mining-contaminated Waters with an Iron Ferrite–Magnetite Process: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 435–436 p., Aachen (RWTH Aachen University).
• Navratil, J. D. & Akin, A. C. (2009): Mine Water Treatment using Magnetite and Iron Ferrites. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 439–446, 4 Abb., 6 Tab; Pretoria (Document Transformation Technologies).
• Navratil, J. D. & Akin, A. C. (2010): Use of Recycled Concrete and Magnetite for Mine Water Treatment and Metal Recovery. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 159–163, Sydney, NS (Cape Breton University Press).
• Navratil, J. D., Akin, A. C. & Feis, J. (2012): Treatment of acid mine drainage (AMD) using iron oxides: International Mine Water Association Symposium. – 725–726 p., Bunbury (Edith Cowan University).
• Nayak, D. R., Babu, Y. J. & Adhya, T. K. (2007): Long-term application of compost influences microbial biomass and enzyme activities in a tropical Aeric Endoaquept planted to rice under flooded condition. – Soil Biol Biochem, 39(8):1897–1906, doi:10.1016/j.soilbio.2007.02.003.
• Nayal, A. (2009): Development of a visibility criterion for marine discharge of Iron-rich mine water. – 58 p., 30 Abb., 8 Tab., 3 Anh.; Tübingen (unpubl. Master Thesis Univ. Tübingen).
• Nazarov, A. V., Egorova, D. O., Makarenko, A. A., Demakov, V. A. & Plotnikova, E. G. (2016): Эколого-Микробиологическая Оценка Грунтов, Загрязненных Полихлорированными Бифенилами [Ecological-Microbiological Assessment of Polychlorinated Biphenyl-Contaminated Grounds]. – Ekologiya cheloveka [Human Ecology], 3:3–8.
• Nazaruk, S., Yungwirth, G., Nicholls, J. & Digges La Touche, G. (2021): Innovative Adaptation of Mining Hydrogeology Practices during a Pandemic. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 398–404; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Ndour, N. Y. B., Baudoin, E., Guisse, A., Seck, M., Khouma, M. & Brauman, A. (2008): Impact of irrigation water quality on soil nitrifying and total bacterial communities. – Biol Fert Soils, 44(5):797–803, doi:10.1007/s00374-008-0285-3.
• Neal, C., Fox, K. K., Harrow, M. & Neal, M. (1998): Boron in the major UK rivers entering the North Sea. – Sci. Total Environ., 210(1-6):41–51.
• Neal, J. T., Johnson, K. S. & Gunay, G. (2002): McCauley Sinks; a compound breccia pipe in evaporite karst, Holbrook Basin, Arizona, U.S.A. – Carbonate Evaporite, 17(2):98–106.
• Neale, J. W., Gericke, M. & Mühlbauer, R. (2018): On-Site Pilot-Scale Demonstration of a Low-Cost Biological Process for the Treatment of High-Sulphate Mine Waters. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 164–170; (Tshwane University of Technology).
• Neale, J. W., Muller, H. H., Gericke, M. & Mühlbauer, R. (2017): Low-Cost Biological Treatment of Metal- and Sulphate-Contaminated Mine Waters. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 453–460, Lappeenranta (Lappeenranta University of Technology).
• Neculita, C. M., Demers, I. & Braghiroli, F. L. (2024): Performance of natural and residual materials for mine water treatment and mine sites rehabilitation. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 487–493; Morgantown (International Mine Water Association).
• Neef, T. (2004): Hydrogeochemische Verhältnisse in einem natürlichen Feuchtgebiet zur passiven Grubenwasserreinigung. – 141 p., Freiberg (Unveröff. Dipl.-Arb. TU Bergakademie Freiberg).
• Nei, M. & Kumar, S. (2000): Molecular Evolution and Phylogenetics. – 348 p., (Oxford University Press).
• Neil, L. L., McCullough, C. D., Lund, M. A., Evans, L. H. & Tsvetnenko, Y. (2009): Toxicity of acid mine pit lake water remediated with limestone and phosphorus. – Ecotoxicol. Environ. Saf., 72(8):2046–2057, doi:10.1016/j.ecoenv.2009.08.013.
• Neira-Arenas, G. & Navarro-Martínez, S. (2025): Analysis of mine closure practices and the regulatory mining framework in the Córdoba province – Colombia. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1080–1081; Braga (International Mine Water Association).
• Neira-Arenas, G. & Navarro-Martínez, S. (2025): Multitemporal Remote Sensing Assessment of Fluvial Dynamics and the Efects of alluvial mining in the Guaviare River Basin, Colombia. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1082–1087; Braga (International Mine Water Association).
• Neitzel, P. L., Schneider, P. & Hurst, S. (2000): Feldversuche zur in-situ Entfernung von Uran(NAT.) und Ra-226 aus Berge- und Flutungswässern. – Freib. Forsch.-H., C 482:196–206, 2 Abb., 5 Tab.
• Neitzel, P. L., Schneider, P. & Schlumprecht, H. (2002): Physico-chemical surface water conditions of catchments with metallogenic origin: A contribution to the establishment of the EC Water Framework Directive 2000/60/EG in Germany. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 77–83, 2 Abb., 1 Tab.; Heidelberg (Springer).
• Neiva, A. M. R., Carvalho, P. C. S., Antunes, I., Silva, M., Santos, A. C. T., Pinto, M. & Cunha, P. P. (2014): Contaminated water, stream sediments and soils close to the abandoned Pinhal do Souto uranium mine, central Portugal. – J. Geochem. Explor., 136:102–117, doi:10.1016/j.gexplo.2013.10.014.
• Nel, P. J. L. (1993): Shaft Sinking Through High Water Bearing Rocks. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 508–531, 10 Abb., 1 Tab., 3 Anh.; Chililabombwe (Konkola Division).
• Nel, P. J. L. (1997): A Critical Overview of a Completet Shaft Project and the Disposal of Excessive Water Inflows into the Upcast Ventilation Compartment. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:113–125, 10 Abb., 1 Tab.
• Nel, P. J. L., Melbye, T. A. & Hognestad, H. O. (2000): Cover drilling and cementation of water fissure during shaft sinking and the use of micro fine cement as a grouting medium. – Proceedings, 7th International Mine Water Association Congress:585–594, 4 Abb.
• Nellier, Y.-M., Perga, M.-E., Cottin, N., Fanget, P. & Naffrechoux, E. (2015): Particle-Dissolved Phase Partition of Polychlorinated Biphenyls in High Altitude Alpine Lakes. – Environ. Sci. Technol., 49(16):9620–9628, doi:10.1021/acs.est.5b01274.
• Nelson, M., Lechner, M., Norlund, K., Pelletier, C. & Murphy, B. (2015): Effect of Geological Models on ML/ARD Characterization Program Design at the KSM Project. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Nelson, M. R., Hazen, G. L. & Fundingsland, S. D. (2010): Mine Water Remediation at Large Scale Metal Mines: Balancing Near-Term Expenditures for Source Control with Long-Term Expenditures for Collection and Treatment. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 503–507, Sydney, NS (Cape Breton University Press).
• Nelson, M. S. & et al. (2000): Invertebrate assemblages and trace element bioaccumulation associated with constructed wetlands. – Wetlands, 20(2):406–415, 1 Abb., 2 Tab.
• Nengovhela, A. C., Yibas, B. & Ogola, J. S. (2007): Characterisation of gold tailings dams of the Witwatersrand Basin with reference to their acid mine drainage potential,Johannesburg, South Africa. – Water SA, 32(4) doi:10.4314/wsa.v32i4.5290.
• Nengovhela, A. C., Yibas, B. & Ogola, J. S. (2007): An investigation into the availability and role of oxygen gas in gold tailings dams of the Witwatersrand basin with reference to their acid mine drainage potential. – Water SA, 33(2):271–274, 3 Abb., 1 Tab.
• Nengovhela, N. R., Strydom, C. A., Maree, J. P. & Greben, H. A. (2004): Chemical and Biological Oxidation of Iron in Acid Mine Wate. – Mine Water Environ., 23(2):76–80, 4 Abb., 6 Tab.
• Nepgen, E. S., Hill, M. P. & Moore, S. D. (2015): The Effect of Long-Distance Transportation on the Fitness of Irradiated False Codling Moth (Lepidoptera: Tortricidae) for use in a Sterile Insect Release Program. – J. Econ. Entomol., 108(6):2610–2619, doi:10.1093/jee/tov246.
• Nephalama, A. & Muzerengi, C. (2016): Assessment of the influence of coal mining on groundwater quality: Case of Masisi village in the Limpopo province in South Africa. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 430–438, Freiberg (TU Bergakademie Freiberg).
• Nepomuceno, A. (2018): Managing ARD in a Gold Mine in the Vicinity of Paracatu Town, MG State, Brazil. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 52–56; (Tshwane University of Technology).
• Nesbitt, H. W. & Markovics, G. (1997): Weathering of granodioritic crust, long-term storage of elements in weathering profiles, and petrogenesis of siliciclastic sediments. – Geochim. Cosmochim. Acta, 61(8):1653–1670, doi:10.1016/S0016-7037(97)00031-8.
• Nesbitt, H. W. & Young, G. M. (1982): Early Proterozoic Climates and Plate Motions Inferred from Major Element Chemistry of Lutites. – Nature, 299(5885):715–717, doi:10.1038/299715a0.
• Nesbitt, H. W. & Young, G. M. (1989): Formation and Diagenesis of Weathering Profiles. – J. Geol., 97(2):129–147, doi:10.1086/629290.
• Ness, I., Janin, A. & Stewart, K. (2014): Passive Treatment of Mine Impacted Water In Cold Climates: A Review. – 48 p., 22 Abb.; Whitehorse (Yukon Research Centre, Yukon College).
• Netchaef, P. (1988): Mine Water Management Objectives – General Report. – Proceedings, 3rd International Mine Water Congress, Melbourne:389–395.
• Netchaef, P. & Dundon, P. (1988): The Interaction and Impact of Water on Mining in Australia – An Overview. – Proceedings, 3rd International Mine Water Congress, Melbourne:873–882, 1 Abb.
• Netshitungulwana, K. R. T., Gauert, C., Vermeulen, D., Yibas, B., Shai, M. & Lusunzi, R. (2022): Geochemical Characterisation of the Witbank Coalfield Geological Strata and Assessment of Potential Metal Impact on the Receiving Environment. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 329–335; (International Mine Water Association).
• Netshitungulwana, K. R. T., Yibas, B., Grobbelaar, D., Lusunzi, R. & Gauert, C. (2024): Regional spatial distribution of elements in the Vaal primary catchment using stream sediments geochemistry: Implication on anthropogenic and geogenic source. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 326–331; Morgantown (International Mine Water Association).
• Netshitungulwana, R. & Yibas, B. (2012): Stream sediment geochemistry of the Olifants catchment, South Africa: Implication for acid mine drainage: International Mine Water Association Symposium. – 257–264 p., Bunbury (Edith Cowan University).
• Netshitungulwana, R., Yibas, B., Novhe, O. N. & Motlakeng, T. (2013): Stream sediment geochemistry of the areas impacted by mining around Emalahleni (formerly known as Witbank), South Africa: Fingerprinting AMD potential point sources. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 429–434, 4 Abb.; Golden (International Mine Water Association).
• Netter, R. (1994): Flow Characteristics of Planted soil Filters. – Water Sci. Technol., 29(4):37–44, doi:10.2166/wst.1994.0153.
• Neubert, E. W. (1891): Über die Grundwasserverhältnisse bei dem Berggebäude Himmelsfürst Fundgrube bei Freiberg. – Jahrbuch für das Berg- und Hüttenwesen im Königreich Sachsen:16–26, 1 Tab., 3 Taf.
• Neubert, J. T. (2000): Naturally Degraded Surface Waters Associated with Hydrothermally Altered Terrane in Colorado. – Colorado Geol. Surv. Open File Rep., 00-16:1–158, 61 Abb., 12 Tab.
• Neudert, A. & Barnekow, U. (2005): Decommissioning of Uranium mill tailings ponds at WISMUT (Germany). – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 415–424, Heidelberg (Springer).
• Neuhauser, G. (2010): The Shift Foreman („Schichtmeister”) – An Important Mining Functionary for the Montafon? – In: Anreiter, P., et al. (eds): Mining in European History and its Impact on Environment and Human Societies. – p. 57–60, Innsbruck (Innsbruck University Press).
• Neuhauser, G. (2011): Die Geschichte des Berggerichts Montafon in der frühen Neuzeit. – 295 p., 82 Abb.; Innsbruck (unveröff. Diss Uni Innsbruck).
• Neuhauser, G. (2011): Vom „schinzug“ im Lobinger – eine Vermessungskarte des 16. Jahrhunderts aus dem Berggericht Montafon: Die Geschichte des Bergbaus in Tirol und seinen angrenzenden Gebieten. – 173–177 p., 3 Abb.; Innsbruck (Innsbruck University Press).
• Neuhauser, G. (2011): Von Ehebrechern und „armen gselln“ – die Bergbeamten des 16. Jahrhunderts im Montafon: Die Geschichte des Bergbaus in Tirol und seinen angrenzenden Gebieten. – 59–67 p., 2 Abb., 1 Tab.; Innsbruck (Innsbruck University Press).
• Neuhauser, G. & Taddei, E. (2024): Rohstoffe – Menschen – Wissen – Einblicke in die Ressourcengeschichte des historischen Tirols: Innsbrucker Historische Studien 35. – 320 p., Innsbruck (innsbruck university press); doi:10.15203/99106-113-7.
• Neukirchen, F. & Ries, G. (2016): Die Welt der Rohstoffe – Lagerstätten, Förderung und wirtschaftliche Aspekte, 2nd edn. – 355 p., Heidelberg (Springer); doi:10.1007/978-3-662-48242-1.
• Neukirchen, F. & Ries, G. (2020): The World of Mineral Deposits – A Beginner’s Guide to Economic Geology. Springer, Cham.
• Neumann, C. (2007): Ermittlung der Hydrodynamik mit Hilfe von Tracertests im Richtschacht Reiche Zeche/Freiberg (Sachsen). – 62 p., 38 Abb., 23 Tab., 7 Anh.; Freiberg (unveröff. Studienarbeit).
• Neumann, V., Nitsche, C., Tienz, B.-S. & Pokrandt, K.-H. (2007): Erstmalige Neutralisation eines großen Tagebausees durch In-Lake-Verfahren – Erste Erfahrungen zu Beginn der Nachsorgephase. – Wiss. Mitt. Inst. Geol., 35:117–124, 4 Abb., 1 Tab.
• Neuner, M. (2015): Reactive Transport Model of the Carbonate-Evaporite Elk Point Group Underlying the Athabasca Oil Sands. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Neuner, P. (2008): Zeitreise ins Tiroler Gletscherbergwerk. –.
• Nevolin, N. V., Shilkov, B. P. & Potepko, V. M. (2003): Sudden rock failures in mining coal seams of the Kizel Basin. – J. Min. Sci., 39(1):21–26, doi:10.1023/A:1025701008629.
• New, R., Ball, A. & Copeland, A. (2011): Minerals and energy Major development projects – April 2011 listing. – 19 p., 9 Abb., 4 Tab.; Canberra (Australian Bureau of Agricultural and Resource Economics and Sciences).
• Newbrough, P. & Gammons, C. H. (2002): An experimental study of water-rock interaction and acid rock drainage in the Butte mining district, Montana. – Environ. Geol., 41(6):705–719, 11 Abb., 6 Tab.
• Newete, S. W. & Byrne, M. J. (2016): The capacity of aquatic macrophytes for phytoremediation and their disposal with specific reference to water hyacinth. – Environ. Sci. Pollut. Res., 23(11):10630–10643, doi:10.1007/s11356-016-6329-6.
• Newete, S. W., Erasmus, B. F. N. & Byrne, M. J. (2014): Hyperspectral Remote Sensing to Detect Biotic and Abiotic Stress in Water Hyacinth, (Eichhornia crassipes) (Pontederiaceae). – (Report Nr. WRC 2037/1/13). – 202 p., Pretoria (Water Research Commission).
• Newete, S. W., Erasmus, B. F. N., Weiersbye, I. M. & Byrne, M. J. (2014): The effect of water pollution on biological control of water hyacinth. – Biological Control, 79:101–109, doi:10.1016/j.biocontrol.2014.08.006.
• Newman, C. P. (2020): A Quantitative Framework for Comparing Observed and Simulated Pit-Lake Geochemistry. – Mine Water Environ., 39(3):630–646, doi:10.1007/s10230-019-00634-0.
• Newman, C. P. (2023): Hydrologic compartmentalization and analytic-element groundwater-flow simulations for a draining mine tunnel. – Environ Earth Sci, 82(5):117, doi:10.1007/s12665-023-10797-3.
• Newman, C. P., Cowie, R., Wilkin, R. T. & Navarre-Sitchler, A. (2025): Tracing metal sources and groundwater flow paths in the Upper Animas River watershed using rare earth elements and stable isotopes. – Geochem.-Explor. Environ. Anal., 25(1) doi:10.1144/geochem2024-023.
• Newman, G., Newman, L., Chapman, D. & Harbicht, T. (2011): Artificial Ground Freezing: An Environmental Best Practice at Cameco’s Uranium Mining Operations in Northern Saskatchewan, Canada: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 113–118 p., Aachen (RWTH Aachen University).
• Newman, H. R. (2007): Minerals Yearbook – The Mineral Industry of Egypt. – 13.1–13.8 p., 2 Tab.; Reston (U.S. Geol Survey).
• Newman Portela, A. M., Kvashnina, K., Bazarkina, E., Roßberg, A., Bok, F., Kassahun, A., Raff, J., Merroun, M. L. & Krawczyk-Bärsch, E. (2025): Effective Uranium(VI) Reduction in Mine Water: Uncovering U(IV) and U(V) Formation and Stabilization through Glycerol-Based Biostimulation. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 52–57; Braga (International Mine Water Association).
• Newton, P. P. & Liss, P. S. (1987): Positively charged suspended particles: Studies in an iron-rich river and its estuary. – Limnol. Oceanogr., 32(6):1267–1276 5 Abb., 1 Tab.; doi:10.4319/lo.1987.32.6.1267.
• Nex, P. A. M. (2022): Formation of bifurcating chromitite layers of the UG1 in the Bushveld Igneous Complex, an analogy with sand volcanoes. – J. Geol. Soc. London, 161(6):903–909, doi:10.1144/0016-764903-154.
• Neymeyer, A., Williams, R. T. & Younger, P. L. (2007): Migration of polluted mine water in a public supply aquifer. – Q. J. Eng. Geol. Hydrogeol., 40(1):75–84, doi:10.1144/1470-9236/05-060.
• Ng, K. L. & Obbard, J. P. (2006): Prevalence of microplastics in Singapore’s coastal marine environment. – Mar. Pollut. Bull., 52:761–767, doi:10.1016/j.marpolbul.2005.11.017.
• Ng’andu, D. E. (2001): The effect of underground mine water on performance of the Mufulira flotation process. – J. S. Afr. Inst. Min. Metall., 101(7):367–380.
• Ngah, S. A., Reed, S. M. & Singh, R. N. (1984): Ground Water Problems in Surface Mining in the United Kingdom. – Int. J. Mine Water, 3(1):1–12, 5 Abb., 1 Tab.
• Ngoubeyou, P. S. K., Wolkersdorfer, Ch., Ndibewu, P. P. & Augustyn, W. (2022): Toxicity of Polychlorinated Biphenyls in Aquatic Environments – A Review. – Aquat. Toxicol.,(251):106284, 2 Abb.; doi:10.1016/j.aquatox.2022.106284.
• Ngoyi, K. & Dejonghe, L. (1995): Géologie et genèse du gisement stratoïde cuprifère de Kinsenda (SE du Shaba, Zaïre) [Geology and genesis of the Kinsenda stratabound copper deposit, southeastern Shaba, Zaire]. – Bulletin de la Societe Belge de Geologie [Bulletin van de Belgische Vereniging voor Geologie], 104:245–281, 5 Abb., 3 Tab., 2 Plat.
• Ngoyo Mandemvo, D. D., Comeau, F.-A., Raymond, J., Grasby, S. E. & Terlaky, V. (2023): Geothermal Potential of Closed Underground Mines: Resource Assessment Study of the Con Mine, Northwest Territories, Canada. – Natural Resources Research, 32(4):1579–1593, doi:10.1007/s11053-023-10214-3.
• Nguyen, H. N. (2011): Untersuchungen zur Behandlung saurer Grubenwässer in Pflanzenklärsystemen. – 119 p., 33 Abb., 7 Tab.; Clausthal-Zellerfeld (unveröff. Diss. TU Clausthal).
• Nguyen, N., Boruff, B. & Tonts, M. (2018): Fool’s Gold: Understanding Social, Economic and Environmental Impacts from Gold Mining in Quang Nam Province, Vietnam. – Sustainability-Basel, 10(5):22, doi:10.3390/su10051355.
• Nguyen, Q. H., Kawamura, Y., Watari, T., Niihara, K., Yamaguchi, T. & Nakayama, T. (2020): Electrocoagulation with a nanosecond pulse power supply to remove COD from municipal wastewater using iron electrodes. – Int. J. Electrochem. Sci., 15(1):493–504, doi:10.20964/2020.01.66.
• Nguyen, T. H., Helm, B., Hettiarachchi, H., Caucci, S. & Krebs, P. (2020): Quantifying the Information Content of a Water Quality Monitoring Network Using Principal Component Analysis: A Case Study of the Freiberger Mulde River Basin, Germany. – Water, 12(2):420.
• Nhantumbo, C., Larsson, R., Larson, M., Juízo, D. & Persson, K. (2016): Modelling pH and alkalinity in rivers impacted by acid mine drainage. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 167–173, Freiberg (TU Bergakademie Freiberg).
• Nhantumbo, C., Larsson, R., Larson, M., Juízo, D. & Persson, K. M. (2018): A Simplified Model to Simulate pH and Alkalinity in the Mixing Zone Downstream of an Acidic Discharge. – Mine Water Environ., 37(3):552–564, doi:10.1007/s10230-018-0515-3.
• Nhantumbo, C., Pondja, E., Juizo, D., Cumbane, A., Matsinhe, N., Paqueleque, B., Uamusse, M., Gettel, G., Franca, M. & Paron, P. (2020): Effect of Mining to Water Quality in Chua and Revué Rivers, Mozambique. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 57–62; (International Mine Water Association).
• Niavis, P. & [Schneevogel, P. (ca. 1495): Iudicium Iovis ad quod mortalis homo a terra tractus parricidii accusatus mit Widmungsbrief des Autors an Stephan Gülden. – 30 p., 1 Pl.; Leipzig (Martin Landsberg).
• Nica, D. B., Georgescu, D., Boboiceanu, T. & Petrescu, S. (2005): Use of underground excavated space for disposal of low radioactive mining waste resulted from uranium ore exploitation. Study case. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 757–764, Heidelberg (Springer).
• Nicholson, A. D., Williams, L., Rudnick, D. & Ortega, J. (2013): Spatial and Temporal Assessment of Ecological Risks at a Gold Mine Pit Lake. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 59–62, 3 Abb., 1 Tab.; Golden (International Mine Water Association).
• Nicholson, K. (1993): Geothermal Fluids – Chemistry and Exploration Techniques. – 263 p., Heidelberg (Springer); doi:10.1007/978-3-642-77844-5.
• Nicholson, R. V., Shaw, S., Barabash, S. & Stirling, J. (2018): Evaluation of Acid Rock Drainage Potential in a Retrospective Study 25 Years after Mine Closure: Acid Base Accounting Statistics are Not Sufficient. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 692–698; (Tshwane University of Technology).
• Nicklow, J. W. & Boulos, P. F. (2005): Flow Measurement and Control. Comprehensive Water and Wastewater Treatment Plant Hydraulics Handbook for Engineers and Operators. – p. 4–1–4–35, (MWH Soft Press).
• Nicolai, J., Märten, H., Krause, J., Kalka, H. & Zauner, M. J. (2016): Geochemistry of In-Situ Recovery of Metals. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1355, Freiberg (TU Bergakademie Freiberg).
• Nie, M., Zhou, M. & Fu, X. (2014): Monitoring of Flooding Water under Coal Mine Based on Improved Fuzzy Clustering. – Applied Mechanics and Materials, 580-583:2713–2716, doi:10.4028/www.scientific.net/AMM.580-583.2713.
• Nieboer, E. & Richardson, D. H. S. (1980): The replacement of the nondescript term ‘heavy metals’ by a biologically and chemically significant classification of metal ions. – Environmental Pollution Series B, Chemical and Physical, 1(1):3–26, doi:10.1016/0143-148X(80)90017-8.
• Niedbalska, K., Bukowski, P. & Augustyniak, I. (2019): Carboniferous Rock Mass Permeability Studies in Underground Mines of the Upper Silesian Coal Basin in Poland. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 559–563; Perm, Russia (Perm State University).
• Niedbalska, K., Haladus, A., Bukowski, P., Augustyniak, I. & Kubica, J. (2011): Modelling of changes of hydrodynamic conditions in the aquatic environment of the Maczki-Bór sand pit due to the fact of planned closure of mining operations (NE part of Upper Silesian Coal Basin – Poland): Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 231–234 p., Aachen (RWTH Aachen University).
• Niederbacher, P. (1982): Geologisch-Tektonische Untersuchungen in den Südöstlichen Lechtaler Alpen (Nördliche Kalkalpen, Tirol). – Geol. Paläont. Mitt. Innsbruck, 12(7):123–154, 15 Abb., 2 Tab., 3 Phot., 3 Beil.
• Niedermayr, E. & Niedermayr, G. (1983): Beitrag zu den Vererzungen im Quarzporphyr und in den Grödener Schichten im Raum Kaltenbrunn-Bletterbach bei Radein, Südtirol. – Mitt. Österr. Geol. Ges., 76:179–187, Refs: 18; illus. incl. 8 anal., sketch map.
• Niedersächsischer Arbeitskreis Sickerwasserprognose (2001): Die Sickerwasserprognose in der Praxis. – NN, 14 Abb., 7 Tab.
• Niederstätter, A. (2003): Neues aus dem „finsteren“ Mittelalter. – 1–12 p., Bregenz (Vortrag aus der Reihe „Neue Forschungen aus dem Vorarlberger Landesarchiv“).
• Niederstätter, A. (2009): Das Mittelalter: Montafon: Besiedlung – Bergbau – Relikte 2. – 92–125 p., 19 Abb.; Schruns (Eigenverlag Stand Montafon).
• Niehren, S. (1999): Neue Methoden zur Grundwassermarkierung – Entwicklung eines feldtauglichen Mikrosphärenzählers. – Schriftenreihe des Instituts für Hydromechanik und Wasserwirtschaft, 1:1–92, zahlr. Abb., zahlr. Tab.
• Niehren, S. & Kinzelbach, W. (1998): Artificial colloid tracer tests – development of a compact on-line microsphere counter and application to soil column experiments. – J. Contam. Hydrol., 35(1-3):249–259, 3 Abb., 1 Tab.
• Niehren, S., Kinzelbach, W., Seeger, S. & Wolfrum, J. (1995): An All-Solid-State Flow Cytometer for Counting Fluorescent Microspheres. – Anal. Chem., 67(15):2666–2671, 8 Abb.; doi:10.1021/ac00111a027.
• Nielsen, D. M. (2006): Practical Handbook of Environmental Site Characterization and Ground-Water Monitoring 2nd edn. – 1330 p., Boca Raton (CRC Press).
• Nielsen, G., Coudert, L., Janin, A., Blais, J. F. & Mercier, G. (2019): Influence of Organic Carbon Sources on Metal Removal from Mine Impacted Water Using Sulfate-Reducing Bacteria Bioreactors in Cold Climates. – Mine Water Environ., 38(1):104–118, doi:10.1007/s10230-018-00580-3.
• Nielsen, G., Janin, A., Coudert, L., Blais, J. F. & Mercier, G. (2018): Performance of Sulfate-reducing Passive Bioreactors for the Removal of Cd and Zn from Mine Drainage in a Cold Climate. – Mine Water Environ., 37(1):42–55, doi:10.1007/s10230-017-0465-1.
• Nieto, J. M., Rötting, T., Stanley, P., Siddorn, L., Macías, F., Fuentes, J. M., León, R. & Millán, R. (2021): Passive treatment of Acid Mine Drainage at Parys Mountain (Wales): column experiment results. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 405–405; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Nieto, J. M., Sarmiento, A. M., Olías, M., Canovas, C. R., Riba, I., Kalman, J. & Delvalls, T. A. (2007): Acid mine drainage pollution in the Tinto and Odiel rivers (Iberian Pyrite Belt, SW Spain) and bioavailability of the transported metals to the Huelva Estuary. – Environ. Intern., 33(4):445–455, doi:10.1016/j.envint.2006.11.010.
• Nieva, H. O., Vilte, D. R., Acuna, A. C. & Baez, G. A. (1999): Environmental Quality Control of Mining Activities in the Province of Catamarca. Argentine Republic. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 367–373, 10 Abb.; Sevilla (International Mine Water Association).
• Nigéus, S., Maurice, C. & Lindblom, J. (2023): The Drivers of Hydraulic Conductivity in Green Liquor Dregs Amended Till: Application to Reclamation of Acid Generating Mine Sites. – Mine Water Environ., 42(1):59–69, doi:10.1007/s10230-023-00919-5.
• Nigéus, S., Maurice, C. & Lindblom, J. (2023): Instrumentation of Sealing Layers Made of Two Different Amendments (Green Liquor Dregs and Bentonite) to Till for Reclamation of Sulfidic Mine Waste. – Mine Water Environ., 42(3):441–448, doi:10.1007/s10230-023-00949-z.
• Nigéus, S. P. T. & Maurice, C. (2018): Monitoring a Field Application of Green Liquor Dregs, a Paper Mill Residue, in a Sealing Layer on Top of Mine Waste. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 57–63; (Tshwane University of Technology).
• Nigéus, S. P. T., Maurice, C. & Lindblom, J. (2022): Water Retention Capacity As a Measure to Evaluate the Effectiveness of a Green Liquor Dregs-amended Till to Cover Sulfidic Mine Waste. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 337–343; (International Mine Water Association).
• Niiranen, T., Lahti, I. & Nykänen, V. (2015): Chapter 10.2 – The Orogenic Gold Potential of the Central Lapland Greenstone Belt, Northern Fennoscandian Shield. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 733–752, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00028-5.
• Nikcevic, I., Piruska, A., Wehmeyer, K. R., Seliskar, C. J., Limbach, P. A. & Heineman, W. R. (2010): Parallel separations using capillary electrophoresis on a multilane microchip with multiplexed laser-induced fluorescence detection. – Electrophoresis, 31:2796–2803, 6 Abb., 2 Tab.; doi:10.1002/elps.201000030.
• Nikić, Z., Kovačević, J. & Radošević, B. (2002): Uranium content in ground water in Stara Planina Triassic sediments. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 99–106, 2 Abb.; Heidelberg (Springer).
• Nikić, Z., Kovačević, J. & Radošević, B. (2005): Changes in discharged water quality from abandoned uranium mines near Kalna. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 765–772, Heidelberg (Springer).
• Nikitin, A. A., Sergeyeva, E. I., Khodakovskiy, I. L. & Naumov, G. B. (1972): Gidroliz uranilia v gidrotermal’noy oblasti [Hydrolysis of uranyl in the hydrothermal region]. – Geokhimiya, 3:297–307, 2 Abb., 3 Tab.
• Nikraz, H. R., Evans, A. W. & Press, M. E. (1994): Effects of Mines Dewatering on Poorly Consolidated Sandston. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:143–153, 7 Abb., 1 Tab.
• Nikraz, H. R., Press, M. E. & Evans, A. W. (1995): An Experimental Investigation into the Deformation Characteristics of Sandstone under Mine Dewatering: Water resources at risk. – IMWA.73–84 p., 7 Abb., 2 Tab.; Denver (American Institute of Hydrology).
• Nikutta, S. E., Teichert, B. M. A., Jasnowski-Peters, H., Strauss, H. & Westermann, S. (2025): Geochemical modelling of sulfur cycling processes during mine water rebound in former hard coal mines of the Ruhr and Saar region, Germany. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 452–457; Braga (International Mine Water Association).
• Nillert, P. & Tesch, J. (1987): A Method to forecast the Concentration of Salt in Water drained off deep Open-Cut Mines: Hydrogeology of Coal Basins. – 457–466 p., 1 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Nilsson, C., Karlsson, S., Sjöberg, V. & Kronhelm, T. v. (2016): Municipal sludge ash for abatement of ARD. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 699–705, Freiberg (TU Bergakademie Freiberg).
• Nilsson, L. (2013): Nitrogen Transformations at the Kiruna Mine – The Use of Stable Nitrogen Isotopes to Trace Nitrogen-Transforming Processes. – Examensarbete, 30:1–39.
• Nilsson, M. & De Ladurantaye-Noel, M. (2025): Partners in Sustainability: The Benefits of a Collaborative Relationship Between a Mine, Consultant, and Supplier in Water Management. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 144–149; Braga (International Mine Water Association).
• Nindel, K. & Bracke, G. (1996): Der Einsatz von lsotopenmethoden bei Sanierungsvorhaben – Vorbereitung und Überwachung der Sanierung mit Hilfe von Umweltisotopen. – Geowissenschaften, 14(11):458–460.
• Nisbet, M. C. & Myers, T. (2007): The Polls Trends: Twenty Years of Public Opinion about Global Warming. – Public Opin. Q., 71(3):444–470, doi:10.1093/poq/nfm031.
• Nishihara, H. & Kyotani, T. (2012): Zeolite-Templated Carbon – Its Unique Characteristics and Applications. – In: Tascón, J. M. D. (ed) Novel Carbon Adsorbents. – p. 295–322, Oxford (Elsevier); doi:10.1016/B978-0-08-097744-7.00010-7.
• Nishikata, M., Hashimoto, Y., Oguri, T. & Yasutaka, T. (2025): Characterization of core samples and mechanisms of zinc leaching in a waste rock dump of abandoned mines. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 565–578; Braga (International Mine Water Association).
• Nishri, A., Herbert, H.-J., Jockwer, N. & Stichler, W. (1988): The geochemistry of brines and minerals from the Asse salt mine, Germany. – Appl. Geochem., 3(3):317–332, Refs: 25; illus. incl. 8 tables, sketch maps; doi:10.1016/0883-2927(88)90109-6.
• Nitschke, C. R. (2008): The cumulative effects of resource development on biodiversity and ecological integrity in the Peace-Moberly region of Northeast British Columbia, Canada. – Biodiversity and Conservation, 17(7):1715–1740, 10 Abb., 3 Tab.; doi:10.1007/s10531-008-9376-6.
• Nitz, M., Eichler, R. A., Biedermann, M., Mansel, H., Drebenstedt, C., Struzina, M. & Jolas, P. (2016): Field Tests and Ecological Assessment of an Opencast Mine-Dewatering using a Horizontal Directional Drilled Well. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1154–1160, Freiberg (TU Bergakademie Freiberg).
• Nitzsche, O., Deissmann, G. & Cramer, T. (2005): Development of a 2-D modeling system for reactive transport in variable saturated porous media. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 247–254, Heidelberg (Springer).
• Nitzsche, O., Meinrath, G. & Merkel, B. J. (2000): Database uncertainty as a limiting factor in reactive transport prognosis. – J. Contam. Hydrol., 44(3-4):223–237, 7 Abb., 3 Tab.
• Nitzsche, O. & Merkel, B. J. (1999): Reactive Transport modeling of uranium 238 and radium 226 in groundwater of the Königstein uranium mine, Germany. – Hydrogeol. J., 7(5):423–430.
• Nitzsche, O. & Vereecken, H. (2002): Modeling Sorption and Exchange Processes in Column Experiments and Large Scale Field Studies. – Mine Water Environ., 21(1):15–23, 5 Abb., 1 Tab.; doi:10.1007/s102300200003.
• Nixdorf, B. (1999): Mining Lakes in East Germany – The Problem of Acidification and Chances for Ecosystem Development. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 557–561, 6 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Nixdorf, E. & Boehrer, B. (2015): Quantitative analysis of biogeochemically controlled density stratification in an iron-meromictic lake. – Hydrol. Earth Syst. Sci., 19(11):4505–4515, doi:10.5194/hess-19-4505-2015.
• Nixdorf, E. & Boehrer, B. (2016): Biogeochemical processes controlling density stratification in an iron-meromictic lake. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 269–275, Freiberg (TU Bergakademie Freiberg).
• Nixdorf, E., Böhmeke, M. & Fahle, M. (2025): Investigating the Effects of Storm Events on the Temporal Dynamics of Acid Mine Drainage Loads in Receiving Streams of the Lusatian Lignite Mining District (Germany). Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 652–657; Braga (International Mine Water Association).
• Niyogi, D. K., Lewis, J. W. M. & McKnight, D. M. (2002): Effects of Stress from Mine Drainage on Diversity, Biomass, and Function of Primary Producers in Mountain Streams. – Ecosystems, 5(6):554–567, doi:10.1007/s10021-002-0182-9.
• Niyogi, D. K., Lewis, W. M., Jr. & McKnight, D. M. (2001): Litter Breakdown in Mountain Streams Affected by Mine Drainage: Biotic Mediation of Abiotic Controls. – Ecol. Appl., 11(2):506–516, 9 Abb., 3 Tab.
• Niyogi, D. K., McKnight, D. M., Lewis, W. M., Jr. & Kimball, B. A. (1999): Experimental diversion of acid mine drainage and the effects on a headwater stream. – Water Resour. Investig. Rep., WRI 99-4018-A:123–130, 4 Abb.
• Njinga, R. L. & Tshivhase, V. M. (2017): The Impact of Mine Tailings on the Witwatersrand and the Surrounding Water Bodies in Gauteng Province, South Africa. – Mine Water Environ., 36(4):638–645, doi:10.1007/s10230-017-0469-x.
• Nkansah-Boadu, F. & Baldwin, S. (2019): Biological Removal of Selenium from Mining Influenced Waters: A Critical Review of Challenges. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 250–255; Perm, Russia (Perm State University).
• Nkansah-Boadu, F., Hatam, I., Taylor, J. & Baldwin, S. (2018): Bio-reduction of Selenium Oxyanions in the Presence of Nitrate in Neutral pH Coal Mining Influenced Water. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 258–263; (Tshwane University of Technology).
• Nkele, K. M., Mpenyana-Monyatsi, L. & Masindi, V. (2022): Effective Removal Of Manganese From Mine Effluent Contaminated River Water Using Ca-Mg-(OH)₂ Nanocomposite. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 345–351; (International Mine Water Association).
• Nkhuwa, D. C. W. (1993): Summary Report on the Geological and Hydrogeological Aspects of the Lusaka Water Supply and the Impacts of Pollution. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 443–451, 1 Abb., 1 Tab., 3 Taf.; Chililabombwe (Konkola Division).
• Nkwonta, O. I. & Ochieng, G. M. (2009): Passive Treatment of Mine Water using Roughing Filters as a Pre-Treatment Option. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 359–365, 3 Abb., 4 Tab; Pretoria (Document Transformation Technologies).
• Noack, G., Clelland, L., Ross, T. & Donato, R. (2010): Controlling Surface Water at One of Canada’s Largest Base Metals Operations: From Legacy Challenges to Environmental Award Winner. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 163–167, Sydney, NS (Cape Breton University Press).
• Nobahar, A., Melka, A., Carlier, J. & Costa, M. C. (2021): Solvent Extraction To Recover Copper From Extreme Acid Mine Drainage. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 406–411; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Nobahar, A., Melka, A. B., Pusta, A., Carlier, J. D., Costa, M. C. & Lourenço, J. P. (2022): A New Application of Solvent Extraction to Separate Copper from Extreme Acid Mine Drainage Producing Solutions for Electrochemical and Biological Recovery Processes. – Mine Water Environ., 41(2):387–401, doi:10.1007/s10230-022-00858-7.
• Nober, G. (2016): Untersuchung des diffusiven Transportes von Uranin in einer Wassersäule mit unterschiedlichen NaCl-Konzentrationen. – 108 p., MSc, Ruhr Universität Bochum, 19 Abb., 6 Tab., 3 Anl.; Bochum.
• Noble, E. A. (1963): Formation of ore deposits by water of compaction. – Econ. Geol., 58(7):1145–1156, doi:10.2113/gsecongeo.58.7.1145.
• Noble, R. (2014): Reviving Totten Mine from its flooded past. – Canadian Mining Journal, 135(2):10–16.
• Noble, T. L., Lottermoser, B. G. & Parbhakar-Fox, A. (2016): Evaluation of pH Testing Methods for Sulfidic Mine Waste. – Mine Water Environ., 35(3):318–331, doi:10.1007/s10230-015-0356-2.
• Noddack, I. (1936): Über die Allgegenwart der chemischen Elemente. – Angew. Chem., 49(47):835–841, doi:10.1002/ange.19360494702.
• Noël, M. M. & Ritchie, A. I. M. (1999): Some physical Properties of Water Transport in Waste Rock Material. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 449–454, 5 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Nöggerath, J. (1827): Vorkommen von gediegen Gold im dem Preußischen Mosel-Gebiet. – Jb. Chemie Physik, 2(3):257–263.
• Noh, J., Park, S.-I. & Kwon, S. (2018): 충남분지 성주리향사의 구조기하학적 해석 [Structural Geometry of the Seongjuri Syncline, Chungnam Basin]. – 자원환경지질 [Econ. Environ. Geol.], 51(6):579–587, 8 fig.; doi:10.9719/EEG.2018.51.6.579.
• Nolakana, P., Ligavha-Mbelengwa, L., Madzivire, G. & Coetzee, H. (2022): Evaluation Of The Water Quality Impacts Associated With Relaxation Of Environmental Critical Levels: A Case Study In The West Rand Basin, South Africa. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 353–358; (International Mine Water Association).
• Noll, H.-P. (2016): Der Bergbau geht – die Fläche bleibt – Folgenutzungen auf ehemaligen Bergbaustandorten. – Veröff. Dt. Bergbau-Mus. Bochum, 217:83–94.
• Nonde, W. & Bengt, A. D. (1993): Developments in Pumps and Mixers for the Mining Industry – The Advance of Submersible Technology. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 657–664; Chililabombwe (Konkola Division).
• Nørby, J. G. (2000): The origin and the meaning of the little p in pH. – Trends in Biochemical Sciences, 25(1):36–37, doi:10.1016/S0968-0004(99)01517-0.
• Nord, G. & Esteves, M. (2010): The effect of soil type, meteorological forcing and slope gradient on the simulation of internal erosion processes at the local scale. – Hydrol. Processes, 24(13):1766–1780, 11 Abb., 3 Tab.; doi:10.1002/hyp.7613.
• Nordbotten, J. M., Celia, M. A., Bachu, S. & Dahle, H. K. (2005): Semianalytical Solution for CO₂ Leakage through an Abandoned Well. – Environ. Sci. Technol., 39(2):602–611, 6 Abb., 1 Tab.
• Nordhausen, K. & Taskinen, S. (2015): Modern Nonparametric, Robust and Multivariate Methods – Festschrift in Honour of Hannu Oja. – 506 p., doi:10.1007/978-3-319-22404-6.
• Nordström, A. & Herbert, R. (2017): Field-scale Denitrifying Woodchip Bioreactor Treating High Nitrate Mine Water At Low Temperatures. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1087–1094, Lappeenranta (Lappeenranta University of Technology).
• Nordstrom, D. K. (1977): Hydrogeochemical and microbiological factors affecting the heavy metal chemistry of an acid mine drainage system. – 230 p., Stanford (Degree: Doctoral).
• Nordstrom, D. K. (1982): Aqueous pyrite oxidation and the consequent formation of secondary minerals. – In: Kittrick, J. A., Fanning, D. S. & Hossner, L. R. (eds): Acid Sulfate Weathering. – p. 37–56, 3 Abb., 2 Taf.; Madison (Soil Science Society of America); doi:10.2136/sssaspecpub10.c3.
• Nordstrom, D. K. (1982): The effect of sulfate on aluminum concentrations in natural waters: some stability relations in the system Al2O3-SO3-H₂O at 298 K. – Geochim. Cosmochim. Acta, 46(4):681–692, 7 Abb., 2 Tab.; doi:10.1016/0016-7037(82)90168-5.
• Nordstrom, D. K. (1999): Efflorescent Salts and their Effects on Water Quality and Mine Plugging. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 543–546, 1 Tab.; Sevilla (International Mine Water Association).
• Nordstrom, D. K. (2000): Advances in the Hydrogeochemistry and Microbiology of Acid Mine Waters. – Int. Geol. Rev., 42:499–515, 4 Abb., 2 Tab.; doi:10.1080/00206810009465095.
• Nordstrom, D. K. (2000): Aqueous Redox Chemistry and the Behavior of Iron in Acid Mine Waters: EPA/600/R-02/002. – 43–47 p., 2 Abb.; Dallas (Proceedings Workshop on Monitoring Oxidation-Reduction Processes for Groundwater Restoration).
• Nordstrom, D. K. (2003): Effects of microbiological and geochemical interactions in mine drainage. – In: Jambor, J. L., Blowes, D. W. & Ritchie, A. I. M. (eds): Environmental Aspects of Mine Wastes 31. – p. 227–238, 3 Abb., 3 Tab.; Waterloo, Ontario (Mineralogical Association of Canada).
• Nordstrom, D. K. (2004): From research to remediation: application of hydrogeochemical research for effective mine site remediation. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 141–148, 3 Abb., 2 Tab.; Newcastle upon Tyne (University of Newcastle).
• Nordstrom, D. K. (2004): Negative pH, Efflorescent Mineralogy, and the Challenge of Environmental Restoration at the Iron Mountain Superfund site or why not plug a mine. – Wiss. Mitt. Inst. Geol., 25:125–131, 3 Abb., 1 Tab.
• Nordstrom, D. K. (2007): Effects of seasonal and climatic Change on Water Quality from Acid Rock Drainage in the Western United States: Water in Mining Environments. – 11–16 p., 5 Abb.; Cagliari (Mako Edizioni).
• Nordstrom, D. K. (2008): Questa Baseline and Pre-Mining Ground-Water Quality Investigation. 25. Summary of Results and Baseline and Pre-Mining Ground-Water Geochemistry, Red River Valley, Taos County, New Mexico, 2001–2005. – U.S. Geol. Surv. Prof. Pap., 1728:1–111.
• Nordstrom, D. K. (2009): Acid rock drainage and climate change. – J. Geochem. Explor., 100(2):97–104, doi:10.1016/j.gexplo.2008.08.002.
• Nordstrom, D. K. (2011): Hydrogeochemical processes governing the origin, transport and fate of major and trace elements from mine wastes and mineralized rock to surface waters. – Appl. Geochem., 26(11):1777–1791, doi:10.1016/j.apgeochem.2011.06.002.
• Nordstrom, D. K. (2011): Mine Waters: Acidic to Circumneutral. – Elements, 7(6):393–398, 4 Abb., 1 Tab.; doi:10.2113/gselements.7.6.393.
• Nordstrom, D. K. (2012): Models, validation, and applied geochemistry: Issues in science, communication, and philosophy. – Appl. Geochem., 27(10):1899–1919, doi:10.1016/j.apgeochem.2012.07.007.
• Nordstrom, D. K. (2015): Baseline and premining geochemical characterization of mined sites. – Appl. Geochem., 57:17–34, doi:10.1016/j.apgeochem.2014.12.010.
• Nordstrom, D. K. (2016): From Research To Remediation – 42 Years of AMD Hydrogeochemistry. Paper presented at the West Virginia Surface Mine Drainage Task Force Symposium. – p. electronic document [1–9].
• Nordstrom, D. K. (2016): Waste or resource? Extraction potential from acid mine drainage for useful resources. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 7–8, Freiberg (TU Bergakademie Freiberg).
• Nordstrom, D. K. (2019): Geochemical Modeling For Mine Site Characterization And Remediation. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 431–436; Perm, Russia (Perm State University).
• Nordstrom, D. K. (2020): Geochemical Modeling of Iron and Aluminum Precipitation during Mixing and Neutralization of Acid Mine Drainage. – Minerals, 10(6) doi:10.3390/min10060547.
• Nordstrom, D. K. (2025): A Hydrogeochemist’s Mindful Toolkit: Conceptualization, Characterization, and Modeling of Mine Sites Producing Acid Mine Drainage. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 999–1004; Braga (International Mine Water Association).
• Nordstrom, D. K. & Alpers, C. N. (1995): Remedial investigation, decisions and geochemical consequences at Iron Mountain Mine, California. Paper presented at the Sudbury ’95 – Mining and the Environment. – p. 633–642, 2 Abb., 1 Tab.
• Nordstrom, D. K. & Alpers, C. N. (1999): Geochemistry of Acid Mine Waters. – In: Plumlee, G. S. & Logsdon, M. J. (eds): The Environmental Geochemistry of Mineral Deposits 6A. – p. 133–160, 7 Abb., 14 Tab.; Littleton (Society of Economic Geologists).
• Nordstrom, D. K. & Alpers, C. N. (1999): Negative pH, efflorescent mineralogy, and consequences for environmental restoration at the Iron Mountain Superfund site, California. – Proc. Natl. Acad. Sci. U.S.A., 96(7):3455–3462, 7 Abb., 4 Tab.; doi:10.1073/pnas.96.7.3455.
• Nordstrom, D. K., Alpers, C. N., Ptacek, C. J. & Blowes, D. W. (2000): Negative pH and Extremely Acidic Mine Waters from Iron Mountain, California. – Environ. Sci. Technol., 34:254–258, 3 Abb., 2 Tab.; doi:10.1021/es990646v.
• Nordstrom, D. K. & Ball, J. W. (1985): Toxic element composition of acid mine waters from sulfide ore deposits. – Proceedings, 2nd International Mine Water Association Congress, 2:749–758.
• Nordstrom, D. K. & Ball, J. W. (1986): The geochemical behavior of aluminum in acidified surface waters. – Science, 232(4746):54–6, doi:10.1126/science.232.4746.54.
• Nordstrom, D. K. & Ball, J. W. (1989): Mineral saturation states in natural waters and their sensitivity to thermodynamic and analytic errors. – Sci. Geol. Bull., 42(4):269–280, doi:10.3406/sgeol.1989.1828.
• Nordstrom, D. K., Blowes, D. W. & Ptacek, C. J. (2015): Hydrogeochemistry and microbiology of mine drainage: An update. – Appl. Geochem., 57:3–16, doi:10.1016/j.apgeochem.2015.02.008.
• Nordstrom, D. K., Bowell, R. J., Campbell, K. M. & Alpers, C. N. (2017): Challenges In Recovering Resources From Acid Mine Drainage. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1138–1146, Lappeenranta (Lappeenranta University of Technology).
• Nordstrom, D. K. & Campbell, K. M. (2014): Modeling Low-temperature Geochemical Processes. – In: Turekian, H. D. & Holland, K. K. (eds): Treatise on Geochemistry 7. – p. 27–68, 18 Abb., 3 Tab.; Amsterdam (Elsevier); doi:10.1016/B978-0-08-095975-7.00502-7.
• Nordstrom, D. K., Campbell, K. M. & Alpers, C. N. (2022): Quantifying Mineral Precipitation Processes during Dilution, Mixing, and Neutralization of Acid Rock Drainage. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 359–364; (International Mine Water Association).
• Nordstrom, D. K., Jenne, E. A. & Ball, J. W. (1979): Redox Equilibria of Iron in Acid Mine Waters. – In: Jenne, E. A. (ed) Chemical Modeling in Aqueous Systems 93. – p. 51–79, 7 Abb., 3 Tab.; Washington (American Chemical Society); doi:10.1021/bk-1979-0093.ch003.
• Nordstrom, D. K., McCleskey, R. B. & Ball, J. W. (2009): Sulfur geochemistry of hydrothermal waters in Yellowstone National Park: IV Acid–sulfate waters. – Appl. Geochem., 24(2):191–207, doi:10.1016/j.apgeochem.2008.11.019.
• Nordstrom, D. K., McCleskey, R. B. & Ball, J. W. (2010): Challenges in the analysis and interpretation of acidic waters. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 379–383, Sydney, NS (Cape Breton University Press).
• Nordstrom, D. K., Nicholson, A., Weinig, W., Mayer, U. & Maest, A. S. (2017): Geochemical modeling for mine site characterization and remediation: Management technologies for metal mining influenced water 4. – 159 p., Englewood (SME).
• Nordstrom, D. K., Olsson, T., Carlsson, L. & Fritz, P. (1989): Introduction to the hydrogeochemical investigations within the International Stripa Project. – Geochim. Cosmochim. Acta, 53(8):1717–1726, Abb., 8 Tab.; doi:10.1016/0016-7037(89)90293-7.
• Nordstrom, D. K., Plummer, L. N., Wigley, T. M. L., Wolery, T. J., Ball, J. W., Jenne, E. A., Bassett, R. L., Crerar, D. A., Florence, T. M., Fritz, B., Hoffman, M., Holdren Jr, G. R., Lafon, G. M., Mattigod, S. V., McDuff, R. E., Morel, F. M. M., Reddy, M. M., Sposito, G. & Thrailkill, J. (1979): A Comparison of computerized chemical models for equilibrium calculations in aqueous systems. – ACS Symp. Ser., 93:857–892, 12 Tab.; doi:10.1021/bk-1979-0093.ch038.
• Nordstrom, D. K. & Southam, G. (1997): Geomicrobiology of sulfide mineral oxidation. – Rev. Mineral. Geochem., 35:361–390, 6 Abb., 3 Tab.
• Nordstrom, D. K. & Wilde, F. D. (2005): Reduction-Oxidation Potential (Electrode Method). Techniques of Water-Resources Investigations of the United States Geological Survey TWRI 9-A6. – p. 1–22.
• Nordstrom, D. K., Wright, W. G., Mast, M. A., Bove, D. J. & Rye, R. O. (2007): Aqueous-sulfate stable isotopes – A study of mining-affected and undisturbed acidic drainage. – U.S. Geol. Surv. Prof. Pap., 1651:391–496, 9 Abb., 2 Tab.
• Norecol Environmental Consultants & Zenon Environmental Laboratories (1993): Fraser River Action Plan – Recommended Guidelines for Wastewater Characterization in the Fraser River Basin – Volume II Draft Methods Manual: DOE FRAP 1993-11. – 81 p., 24 Tab.; North Vancouver (Environment Canada).
• Nöring, F. (1959): Die richtige Ausdeutung von Beobachtungen beim Niederbringen einer Brunnenbohrung und beim Versuchspumpen. – bbr, 10:567–571.
• Norman, T. S. & Brown, P. E. (1995): Black Hawk, Colorado, Construction Dewatering Evaluation: Water resources at risk. – IMWA.157–160 p., 3 Tab.; Denver (American Institute of Hydrology).
• Normenausschuß Wasserwesen im D. I. N. Deutschen Institut für Normung e V. (1990): DIN 4049 Teil 2. Hydrologie – Begriffe der Gewässerbeschaffenheit. – 25 p., 2 Abb., 2 Tab.; Berlin (Beuth).
• Normenausschuß Wasserwesen im D. I. N. Deutschen Institut für Normung e V. (1992): DIN 4049 Teil 1. Hydrologie – Grundbegriffe. – 12 p., 1 Abb., 2 Tab.; Berlin (Beuth).
• Normenausschuß Wasserwesen im D. I. N. Deutschen Institut für Normung e. V. (1992): DIN 4049 Teil 3. Hydrologie – Begriffe zur quantitativen Hydrologie. – 80 p., 20 Abb., 1 Tab.; Berlin (Beuth).
• Norris, L. R., III (1972): Barium Carbonate Treatment of Sulfuric Acid Wastewater. – 102 p., Master of Science, Virginia Polytechnic Institute and State University; Blacksburg.
• North, M. A., Hastie, W. W. & Hoyer, L. (2020): Out of Africa: The underrepresentation of African authors in high-impact geoscience literature. – Earth-Science Reviews, 208:103262, doi:10.1016/j.earscirev.2020.103262.
• Northcott, K. A., Snape, I., Scales, P. J. & Stevens, G. W. (2005): Dewatering behaviour of water treatment sludges associated with contaminated site remediation in Antarctica. – Chem. Eng. Sci., 60:6835 – 6843, 7 Abb., 2 Tab.; doi:10.1016/j.ces.2005.05.049.
• Northey, S. A., Madrid López, C., Haque, N., Mudd, G. M. & Yellishetty, M. (2018): Production weighted water use impact characterisation factors for the global mining industry. – J. Clean. Prod., 184:788–797, doi:10.1016/j.jclepro.2018.02.307.
• Norton, D. & Knapp, R. (1977): Transport phenomena in hydrothermal systems: the nature of porosity. – Am. J. Sci., 277:913–936, 10 Abb., 3 Tab.; doi:10.2475/ajs.277.8.913.
• Norton, P. J. (1982): Advance Dewatering and Control of Ground Water in Surface Coal Mining. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:517–530, 5 Abb., 2 Tab.
• Norton, P. J. (1982): Groundwater Problems in Surface Coal Mining in Scottland. – Int. J. Mine Water, 1(1):17–24, 1 Abb.
• Norton, P. J. (1987): Latest Methods of Prediction and Prevention of the hydrogeological Impact of Coal Mining in the U.K: Hydrogeology of Coal Basins. – 467–476 p., 6 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Norton, P. J. (1992): The Control of Acid Mine Drainage with Wetlands. – Mine Water Environ., 11(3):27–34, 1 Abb.; doi:10.1007/BF02914814.
• Norton, P. J. (1993): The Treatment of Acid Mine Drainage with Wetlands. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 367–376, 1 Abb.; Chililabombwe (Konkola Division).
• Norton, P. J. (1995): The Impact of Mine Closure on Ground Water and the Environment: A UK Lesson for all Countries: Water resources at risk. – IMWA.85–91 p., 1 Abb.; Denver (American Institute of Hydrology).
• Norton, P. J. (1995): Mine Closure and its Effects on Groundwater and the Environment related to Uranium Mining. – Proceedings, Uranium-Mining and Hydrogeology, Freiberg, Germany; GeoCongress, 1:415–421, 3 Abb.
• Norton, P. J. (1996): Torr Quarry – Foster Yeoman – Slope Stability Study: Engineering in Karst. – 23 p., 7 Abb., 8 Fot.; Portoroz (Proceedings International Mine Water Association Workshop).
• Norton, P. J., Norton, C. J. & Tyrrell, W. (1998): The design, construction and cost of an engineered wetland for treatment of acid drainage from sulphide mineral-rich strata: Mine Water and Environmental Impacts 2. – 425–432 p., 4 Abb., 1 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Norton, R. (1988): Mine Dewatering. – Proceedings, 3rd International Mine Water Congress, Melbourne:891–900.
• Noubactep, C. (2006): Contaminant reduction at the surface of elemental iron: the end of a myth. – Wiss. Mitt. Inst. Geol., 31:173–179, 1 Abb.
• Noubactep, C. (2010): The fundamental mechanism of aqueous contaminant removal by metallic iron. – Water SA, 36(5):663–670, 1 Abb.
• Noubactep, C., Meinrath, G., Dietrich, P. & Merkel, B. J. (2003): Mitigating Uranium in Groundwater: Prospects and Limitation. – Environ. Sci. Technol., 37(18):4304–4308.
• Noubactep, C., Meinrath, G., Volke, P., Peter, H. J., Dietrich, P. & Merkel, B. J. (2002): Mechanism of Uranium Fixation by Zero Valent Iron: The Importance of Co-precipitation. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 581–590, 3 Abb., 3 Tab.; Heidelberg (Springer); doi:10.1007/978-3-642-55668-5_68.
• Noubactep, C., Merten, D., Heinrichs, T., Sonnefeld, J. & Sauter, M. (2005): Characterizing Uranium Solubilization Under Natural Near Oxic Conditions. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 425–436, Heidelberg (Springer).
• Novak, D. (1977): Nekaj Hydrogeoloških raziskav v obmocju Žirovskega vrha. – Loški razgledi, 24:149–163, 4 Abb., 2 Tab.
• Novák, J. (2001): Groundwater Remediation in the Stráz Leaching Operation. – Mine Water Environ., 20(4):158–167, 10 Abb., 1 Tab.; doi:10.1007/s10230-001-8101-4.
• Novák, J., Čermáková, H. & Královcová, J. (2005): The modeling system for finding the optimal mining and wastewater discharge. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 309–316, Heidelberg (Springer).
• Novak, P. (1994): Improvement of water quality in rivers by aeration at hydraulic structures. – In: Hino, M. (ed) Water Quality and its Control. – p. 147–168, 7 Abb., 3 Tab.; Rotterdam (Balkema).
• Novak, P., Moffat, A. I. B., Nalluri, C. & Narayanan, R. (2006): Hydraulic Structures, 4th edn. – 700 p., London (Taylor & Francis).
• NovaTec Consultants Ltd. (2003): Effluent Flow Measurement. – In: Province of British Columbia (ed) British Columbia Field Sampling Manual. – p. 307–349, 15 Abb., 1 Anl.
• Novhe, N. O. (2012): Evaluation of the applicability of the passive treatment for the management of polluted mine water in the Witwatersrand Goldfields, South Africa: International Mine Water Association Symposium. – 417–424 p., Bunbury (Edith Cowan University).
• Novhe, N. O., Netshitungulwana, R., Yibas, B., Motlakeng, T. & Sakala, E. (2013): Metal pollution sources and transport in mined watershed: an insight from Ermelo Coalfield, South Africa. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1067–1072, 3 Abb., 3 Tab.; Golden (International Mine Water Association).
• Novhe, N. O., Ogola, J. S. & Maree, J. (2013): Characterization of potential acid leachate from raw coal, discard coal, and slimes from a Colliery in the Witbank Coalfield, Mpumalanga Province, South Africa. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 875–880, 4 Abb., 3 Tab.; Golden (International Mine Water Association).
• Novhe, N. O., Yibas, B., Coetzee, H., Atanasova, M., Mashalane, T. B., Vadapalli, V. R. K. & Wolkersdorfer, Ch. (2018): Geochemistry and Mineralogy of Precipitates Formed During Passive Treatment of Acid Mine Drainage in Ermelo Coalfield, South Africa. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 171–176, 7 Abb.; (Tshwane University of Technology).
• Novhe, N. O., Yibas, B., Netshitungulwana, R. & Lusunzi, R. (2014): Geochemical and Minerological Characterization of Mine Residue Deposits in the Komati/Crocodile Catchment, South Africa: an Assessment for Acid/Alkaline Mine Drainage. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 359–365, 2 Abb., 2 Tab.; Xuzhou (International Mine Water Association).
• Novhe, O., Yibas, B., Coetzee, H., Atanasova, M., Netshitungulwana, R., Modiba, M. & Mashalane, T. (2016): Long-Term Remediation of Acid Mine Drainage from Abandoned Coal Mine using Integrated (anaerobic and aerobic) passive Treatment System, in South Africa: A Pilot Study. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 668–675, Freiberg (TU Bergakademie Freiberg).
• Nowak, N. & Briest, J. (2013): High Density Polyethylene (HDPE) Lined Produced/Flow-back Water Evaporation Ponds. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1217–1222, 1 Abb.; Golden (International Mine Water Association).
• Nowakowski, C. & Lindberg, A. (1984): Hydrogeological conditions in the coastal zone of southwestern Finland with respect to the disposal of radioactive waste. – Tutkimusraportti – Report of Investigation, 66:1–21, 11 Abb., 5 Tab.
• Nowotny, E. (1971/73): Die Herrschaft Wolkersdorf vom Ende des 13. bis zum Ende des 16. Jahrhunderts – Ein Beitrag zur älteren Geschichte der späteren Hofspitalsherrschaft. – Jb. Landeskd. Niederösterr., 39:69–112.
• Nozaki, Y. (2001): Rare Earth Elements and their Isotopes: Encyclopedia of Ocean Sciences, 4 edn. – 2354–2366 p., 7 Abb., 3 Tab.; London (Academic Press); doi:10.1006/rwos.2001.0284.
• Nsaka Christophe, N., Jannie Philippus, M. & Veronica, N.-J. (2024): Valorisation of acid mine drainage through effective recovery of selected rare earth elements using cationic resins. – Water SA, 50(4) doi:10.17159/wsa/2024.v50.i4.4091.
• Nsimba, B. E., Tutu, H., Cukrowska, E. M. & Weiersbye, I. M. (2008): Characterisation of cyanide in gold-mine tailings of the Witwatersrand. – Proceedings, 10th International Mine Water Association Congress:387–389.
• Ntholi, T. & de Wit, M. (2018): Passive Underground Mine-water Purification System (PUMPS) : A conceptual geo-engineering model designed for the treatment and management of acid mine water in the Witwatersrand gold mines, South Africa. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 553–558; (Tshwane University of Technology).
• Ntsume, G. M. & McCarthy, T. S. (2005): A preliminary study of the relative contributions of diffuse and point sources of pollution arising from gold mining activity in a Witwatersrand goldfield: Mine Water 2005 – Mine Closure. – 169–175 p., 5 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Nunes, J. F., Richards, D. G. & Gama, H. A. (1990): Mine Water and Environmental Protection – The Somincor Case. – Int. J. Mine Water, 9(1-4):237–253, 5 Abb., 2 Tab.
• Nunoo, S., Manu, J., Owusu-Akyaw, F. K. B. & Nyame, F. K. (2022): Impact of artisanal small-scale (gold and diamond) mining activities on the Offin, Oda and Pra rivers in Southern Ghana, West Africa: A scientific response to public concern. – Heliyon, 8(12) doi:10.1016/j.heliyon.2022.e12323.
• Nurmesniemi, E.-T., Juholin, P., Picken, P., Haanpää, K.-M., Vaarasuo, A. & Vähänen, K. (2023): How to Determine Financial Guarantees of Water Treatment for Mine Closure: A Summary of Affecting Factors. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 397–401; (International Mine Water Association).
• Nurmi, P. A. & Rasilainen, K. (2015): Chapter 11 – Finland’s Mineral Resources: Opportunities and challenges for future mining. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 753–780, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00029-7.
• Nurtjahya, E., Nashriah, T. & Lukman, L. (2024): Pollution and the abundance of plankton in Rangkui River in Bangka Island. – J. Nat. Resour. Environ. Manage., 14(4):855–865, 5 Abb., 2 Tab.; doi:10.29244/jpsl.14.4.855.
• Nussbaum, F. (1934): Ueber die Formen von Bergsturzmassen, mit besonderer Berücksichtigung des Bergsturzes im Kandertal. – Schweizer Geogr., 11(1):12–13, doi:10.5169/seals-13979.
• Nuttall, C. A. (2003): Testing and performance of a newly constructed full-scale passive treatment system at Whittle Colliery, Northumberland. – Land Contam. Reclam., 11(2):105–112, doi:10.2462/09670513.804.
• Nuttall, C. A., Adams, R. & Younger, P. L. (2002): Integrated hydraulic-hydrogeochemical assessment of flooded deep mine voids by test pumping at the Deerplay (Lancashire) and Frances (Fife) Colliery. – Spec. Publ. – Geol. Soc. London, 198:315–326, 11 Abb., 5 Tab.
• Nuttall, C. A. & Younger, P. L. (2000): Assessment and experimental passive treatment of zinc-rich net alkaline minewaters, Nent Valley, UK. – Proceedings, 7th International Mine Water Association Congress:456–463.
• Nuttall, C. A. & Younger, P. L. (2000): Zinc removal from hard, circum-neutral mine waters using a novel closed-bed limestone reactor. – Water Res., 34(4):1262–1268, 5 Abb., 4 Tab.
• Nuttall, C. A. & Younger, P. L. (2002): Secondary minerals in the abandoned mines of Nenthead Cumbria as sinks for pollutant metals. – Spec. Publ. – Geol. Soc. London, 198:241–250, 6 Abb., 2 Tab.; doi:10.1144/GSL.SP.2002.198.01.15.
• Nuttall, C. A. & Younger, P. L. (2004): Hydrochemical stratification in flooded underground mines: an overlooked pitfall. – J. Contam. Hydrol., 69(1-2):101–114, 6 Abb., 3 Tab.; doi:10.1016/S0169-7722(03)00152-9.
• Nuzzo, R. (2014): Statistical errors – values, the ‘gold standard’ of statistical validity, are not as reliable as many scientists assume. – Nature, 506:150–153, 1 Abb.; doi:10.1038/506150a.
• Nwaila, G. T., Durrheim, R. J., Jolayemi, O. O., Maselela, H. K., Jakaitė, L., Burnett, M. & Zhang, S. E. (2020): Significance of granite-greenstone terranes in the formation of Witwatersrand-type gold mineralisation – A case study of the Neoarchaean Black Reef Formation, South Africa. – Ore Geol. Rev., 121:103572, doi:10.1016/j.oregeorev.2020.103572.
• Nyabeze, P. K. & Gwavava, O. (2016): Investigating heat and magnetic source depths in the Soutpansberg Basin, South Africa; exploring the Soutpansberg Basin geothermal field. – Geotherm. Energy, 4(8) doi:10.1186/s40517-016-0050-z.
• Nyabeze, P. K., Gwavava, O. & Sekiba, M. (2018): Using electrical resistivity tomography (ERT) to delineate subsurface structures at Siloam hot spring in the Soutpansberg Basin, South Africa. – J. Geogr. Geol., 10(4):19–28, doi:10.5539/jgg.v10n4p19.
• Nydegger, P. (1967): Untersuchungen über Feinststofftransport in Flüssen und Seen, über Entstehung von Trübungshorizonten und zuflußbedingten Strömungen im Brienzersee und einigen Vergleichsseen. – Beitr. Geol. Schweiz – Hydrol., 16:92.
• Nydegger, P. (1976): Strömungen in Seen – Untersuchungen in situ und an nachgebildeten Modellseen. – Vierteljahresschr. Naturforsch. Ges. Zürich, 121:141–177.
• Nyile, E. K. & Kirwah, J. K. (2020): Cultural Aspects Constraining Mine Water Supply Chain Management In Asal Areas Of Kitui County, Kenya. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 237–241; (International Mine Water Association).
• Nyirenda, T. M., Zhou, J., Mapoma, H. W. T., Xie, L. & Li, Y. (2016): Hydrogeochemical Characteristics of Groundwater at the Xikuangshan Antimony Mine in South China. – Mine Water Environ., 35(1):86–93, doi:10.1007/s10230-015-0341-9.
• Nyström, E., Kaasalainen, H. & Alakangas, L. (2017): Prevention of Sulfide Oxidation in Waste Rock using By-products and Industrial Remnants, a Suitability Study. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1170–1177, Lappeenranta (Lappeenranta University of Technology).
• Nyström, E., Kaasalainen, H. & Alakangas, L. (2019): Suitability study of secondary raw materials for prevention of acid rock drainage generation from waste rock. – J. Clean Prod., 232:575–586, doi:10.1016/j.jclepro.2019.05.130.
• Nystrom, E. A., Rehmann, C. R. & Oberg, K. A. (2007): Evaluation of Mean Velocity and Turbulence Measurements with ADCPs. – J. Hydraul. Eng., 133(12):1310–1318, 7 Abb., 2 Tab.; doi:10.1061/(ASCE)0733-9429(2007)133:12(1310).
• O’Brien, H. (2015): Chapter 4.1 – Introduction to Carbonatite Deposits of Finland. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 291–303, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00011-X.
• O’Brien, H. (2015): Chapter 4.4 – Kimberlite-Hosted Diamonds in Finland. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 345–375, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00014-5.
• O’Brien, H., Heilimo, E. & Heino, P. (2015): Chapter 4.3 – The Archean Siilinjärvi Carbonatite Complex. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 327–343, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00013-3.
• O’Brien, H. & Hyvönen, E. (2015): Chapter 4.2 – The Sokli Carbonatite Complex. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 305–325, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00012-1.
• O’Brien, M. D., Sullivan, T. D. & Redman, P. G. (1988): Design and Operation of the Dewatering System for the Lochiel Trial Pit. – Proceedings, 3rd International Mine Water Congress, Melbourne:721–731, 4 Abb., 2 Tab.
• O’Brien, S. R. O., Mayewski, P. A., Meeker, L. D., Meese, D. A., Twickler, M. S. & Whitlow, S. I. (1995): Complexity of Holocene climate as reconstructed from a Greenland ice core. – Science, 270(5244):1962–1964, 2 Abb.; doi:10.1126/science.270.5244.1962.
• O’Connor, J. M., Stoffers, P., van den Bogaard, P. & McWilliams, M. (1999): First seamount age evidence for significantly slower African plate motion since 19 to 30 Ma. – Earth Planet. Sci. Lett., 171:575–589, 6 Abb., 3 Tab.; doi:10.1016/s0012-821x(99)00183-1.
• O’Connor, K. M. & Murphy, E. W. (1997): TDR monitoring as a component of subsidence risk assessment. – Int. J. Rock. Mech. Min. Sci. Geomech. Abstr., 34(3-4):619.
• O’Donnell, J. A., Carey, M. P., Koch, J. C., Baughman, C., Hill, K., Zimmerman, C. E., Sullivan, P. F., Dial, R., Lyons, T., Cooper, D. J. & Poulin, B. A. (2024): Metal mobilization from thawing permafrost to aquatic ecosystems is driving rusting of Arctic streams. – Commun. Earth Environ., 5(1) doi:10.1038/s43247-024-01446-z.
• O’Flaherty, A. E. (1903): Water, Dams, Pumps and Drainage. – South African mines, commerce and industry, 1(2):916.
• O’Hara, C., Grobler, J., Hookey, G. & Vermaak, J. (2012): The Impact of Climate Change on a Mine Water Source: International Mine Water Association Symposium. – 445–450 p., Bunbury (Edith Cowan University).
• O’Hara, E. & Davidson, S. (2015): Comparison of Pre-Mining Geochemical Predictions to Operating Conditions at the New Afton Tailings Storage Facility. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• O’Hara, G. (2007): Water Management Aspects of the Britannia Mine Remediation Project, British Columbia, Canada. – Mine Water Environ., 26(1):46–54, 13 Abb.
• O’Hayre, A., Kos, P. & Morr, D. (2013): Reclamation of a Pit Lake at a Coal Mine in the Pacific Northwest. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1073–1079, 2 Tab.; Golden (International Mine Water Association).
• O’Kane, M., Birkham, T., Goodbrand, A., Barbour, L., Carey, S., Straker, J., Baker, T. & Klein, R. (2015): Near-Surface Water Balances of Coal Waste Rock Dumps. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• O’Neil, D. E. (2013): Addressing Legal, Regulatory, and Risk-Allocation Challenges for Water Reuse in Hydraulic Fracturing. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1223–1228, Golden (International Mine Water Association).
• O’Sullivan, A. D., Moran, B. M. & Otte, M. L. (2004): Accumulation and fate of Contaminants (Zn, Pb, Fe and S) in Substrates of Wetlands Constructed for Treating mine Wastewater. – Water Air Soil Pollut., 157(1-4):345–364, 4 Abb., 2 Tab.
• O’Sullivan, A. D., Murray, D. A. & Otte, M. L. (2004): Removal of Sulfate, Zinc, and Lead from Alkaline Mine Wastewater Using Pilot-scale Surface-Flow Wetlands at Tara Mines, Ireland. – Mine Water Environ., 23(2):58–65, 3 Abb., 1 Tab.
• Oberc-Dziedzic, T., Mochnacka, K., Mayer, W., Pieczka, A., Creaser, R. A. & Góralski, M. (2011): Studies on Magnetite and Pyrite Mineralization, and on Their Early Palaeozoic Ocean-Floor Host-Rocks from the Leszczyniec Unit (West Sudetes, Poland). – Ann. Soc. Geol. Pol., 81(2):133–160.
• Oberhauser, R. (1980): Der geologische Aufbau Österreichs. – 699 p., 166 Abb.; Wien (Springer); doi:10.1007/978-3-7091-3744-4.
• Oberhauser, R., Hantke, R. & Vonbank, E. (1979): Helvetikum, Südliche Flyschzone und Quartär am Rheintalrand und im westlichen Walgau (Exkursion F am 20. April 1979). – Jber. Mitt. oberrhein. geol. Ver., 61:87–100, 5 Abb.
• Obernhumer, J. (1964): Hans Bernrather (Bernreuther). – Oberösterreichische Heimatblätter, 18(1/2):77–82.
• Oberste-Brink, K. (1940): Die Frage der Hebungen bei Bodenbewegungen infolge Bergbaues [Surface uplift due to ground movements as a result of mining]. – Glückauf, 76(18):249–256, 14 Abb., 2 Tab.
• Oberverwaltungsgericht N. R. W. (2012): Bergwerkbetreiberin ist auch nach Schließung des Bergwerks grundsätzlich für die Klärung des Grubenwassers verantwortlich: Az: 11 A 2635/09. – (Pressemitteilung zum Urteil vom 26. Januar 2012).
• Obiora, S. C., Chukwu, A. & Davies, T. C. (2019): Contamination of the Potable Water Supply in the Lead–Zinc Mining Communities of Enyigba, Southeastern Nigeria. – Mine Water Environ., 38(1):148–157, doi:10.1007/s10230-018-0550-0.
• Obiri, S., Dodoo, D. K., Armah, F. A., Essumang, D. K. & Cobbina, S. J. (2010): Evaluation of lead and mercury neurotoxic health risk by resident children in the Obuasi municipality, Ghana. – Environ. Toxicol. Pharmacol., 29(3):209–212, 5 Tab.; doi:10.1016/j.etap.2010.01.001.
• Obradović, L., Milenović, S., Stanković, S., Stevanović, Z., Albulescu, M., Urioc, S. & Filimon, N. (2011): Using of Neutralization Process for Purification of Drainage Wastewaters from Underground Mine Jama Bor. – Annals of West University of Timisoara. Series of Chemistry, 20(4):127–132, 4 Abb., 1 Tab.
• Obregón-Castro, C., Prudêncio, M. I., Diamantino, C., Carvalho, E., Russo, D. & Marques, R. (2023): Geochemical Behaviour of Rare Earth Elements Throughout an Acid Mine Drainage Passive Treatment System in the Lousal Mine Area, Portugal. – Mine Water Environ., 42(4):533–545, doi:10.1007/s10230-023-00954-2.
• Obschonka, M., Stuetzer, M., Rentfrow, P. J., Shaw-Taylor, L., Satchell, M., Silbereisen, R. K., Potter, J. & Gosling, S. D. (2018): In the shadow of coal: How large-scale industries contributed to present-day regional differences in personality and well-being. – J. Pers. Soc. Psychol., 115(5):903–927, doi:10.1037/pspp0000175.
• Ochieng, L. (2018): Determination of the Rate of Release of Nitrates from Waste Rock, Tailings and Kimberlitic Materials under Site Conditions – A Case Study. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 699–704; (Tshwane University of Technology).
• Ochieng, L., Harck, T. & Peters, M. (2009): Net Neutralisation Potential (NNP) in Kimberley Diamond Tailings and Slimes Waste Materials. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 910–916, 1 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Ochoa, O. Y. V., Escobar, M. C., Neculita, C. M., Arbeli, Z. & Roldan, F. (2016): Microbial community dynamics during the biochemical treatment of acid mine drainage under three different hydraulic retention times. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1016–1021, Freiberg (TU Bergakademie Freiberg).
• October, L. L., Corin, K., Schreithofer, N., Manono, M. & Wiese, J. (2019): Considering the Ionic Strength and pH of Process Water on Bubble-Particle Attachment of Sulfide Minerals: Implications for Froth Flotation in Saline Water. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 437–444; Perm, Russia (Perm State University).
• Ødegaard, H. (2004): Sludge minimization technologies – an overview. – Water Sci. Technol., 49(10):31–40, 1 Abb., 4 Tab.; doi:10.2166/wst.2004.0602.
• Ødegaard, H., Paulsrud, B. & Karlsson, I. (2002): Wastewater sludge as a resource – sludge disposal strategies and corresponding treatment technologies aimed at sustainable handling of wastewater sludge. – Water Sci. Technol., 46(10):295–303, 2 Abb., 3 Tab.
• Odegaard-Jensen, A., Ekberg, C. & Meinrath, G. (2004): Ljungskile: a Program for Assessing Uncertainties in Speciation Calculations. – Talanta, 63(4):907–916.
• Odell, P. L., Erasmus, J. P. & Minie, C. A. C. (1999): Sealing of hot, high Pressure Water in a deep Underground Gold Mine – a case Study. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 643–646, 5 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Odernheimer, F. (1865 – 1867): Das Berg- und Hüttenwesen im Herzogthum Nassau – Statistische Nachrichten, geognostische, mineralogische und technische Beschreibungen des Vorkommens nutzbarer Mineralien, des Bergbaues und Hüttenbetriebes. – Wiesbaden (Kreidel).
• Odum, H. T., Wojcik, W. & Pritchard, L. (2000): Heavy metals in the environment – using wetlands for their removal. – 326 p., Boca Raton (Lewis).
• OECD (Organisation for Economic Co-operation and Development) (2011): OECD Guidelines for Multinational Enterprises, 2011 edn. – 89 p., (OECD Publishing); doi:10.1787/9789264115415-en.
• Oeggl, K. (2003): Vegetations- und Siedlungsgeschichte im Montafon. – Rheticus, 25(3):49–59, 3 Abb.
• Oeggl, K. (2004): Palynologische Untersuchungen zur vor- und frühgeschichtlichen Erschließung des Lermooser Beckens in Tirol. – Ber. d. Reinh.-Tüxen-Ges., 16:75–86, 3 Abb., 1 Tab.
• Oeggl, K. & Nicolussi, K. (2009): Prähistorische Besiedlung von zentralen Alpentälern in Bezug zur Klimaentwicklung. alpine space – man & environment 6. – p. 77–86, 3 Abb.; Innsbruck (innsbruck university press).
• Oelofse, S. H. H., Hobbs, P. J., Rascher, J. & Cobbing, J. E. (2007): The pollution and destruction threat of gold mining waste on the Witwatersrand – A West Rand case study. Paper presented at the 10th International Symposium on Environmnetal Issues and Waste Management in Energy and Mineral Production, Bangkog. – p. 617–627, 3 Abb., 1 Tab.
• Oelofsen, B. W. (1987): The Biostratigraphy and Fossils of the Whitehill and Irati Shale Formations of the Karoo and Paraná Basins. – In: McKenzie, G. D. (ed) Gondwana Six: Stratigraphy, Sedimentology, and Paleontology 41. – p. 131–138, 3 Abb.; Washington (American Geophysical Union); doi:10.1029/GM041p0131.
• Oertel, B., Wölk, M., Debus, B., Handke, V., Scheermesser, M., Hilty, L., Köhler, A., Som, C., Ruddy, T., Kelter, H., Ullmann, M. & Wittmann, S. (2004): Risiken und Chancen des Einsatzes von RFID-Systemen – Trends und Entwicklungen in Technologien, Anwendungen und Sicherheit. – 128 p., 28 Abb., 6 Tab.; Bonn (Bundesamt für Sicherheit in der Informationstechnik–BSI).
• Oertel, H., Böhle, M., Ehrhard, P., Etling, D., Müller, U., Riedel, U. & Sreenivasan, K. R. (2017): Prandtl – Führer durch die Strömungslehre – Grundlagen und Phänomene, 14 edn. – 793 p., 510 Abb., 3 Tab.; Braunschweig (Springer Vieweg); doi:10.1007/978-3-658-08627-5.
• Oertel, S. (2007): Grubenwasseraustritte und potentielle Grundwassergefährdungen in Bayern. – 61 p., BSc, Ludwig-Maximilians-Universität München; München.
• Oesterr. Literar. Centralblatt (1890): Österreich-Ungarns Bäder, Brunnen und Curorte – Ein populär-wissenschaftlicher Führer durch den Bäderkränz Oesterreich-Ungarns für Aerzte und Heilbedürftige, 2 edn. – 315 p., 100 Abb.; Wien (Perles).
• O'Faircheallaigh, C. (2001): Getting under the skin: The Bougainville Copper Agreement and the creation of Panguna Mine (Book Review). – J. Pac. Hist., 36(2):268–269, doi:10.1080/00223340120075692.
• O'Faircheallaigh, C. & Corbett, T. (2016): Understanding and improving policy and regulatory responses to artisanal and small scale mining. – Extr. Ind. Soc., 3(4):961–971, doi:10.1016/j.exis.2016.11.002.
• Offenthaler, I. & Weiss, P. (2007): Metalle und Nährstoffe in Fichtenholz – Entwicklung ab dem 18. Jahrhundert und heutige Situation. – 58 p., 28 Abb., 14 Tab.; Wien (Umweltbundesamt).
• Ofner, C. & Wieber, G. (2008): Geothermische Potenziale gefluteter Bergwerke. – bbr Jahresmagazin, 59(12):72–77, 6 Abb., 2 Tab.
• Ofner, C. & Wieber, G. (2008): Zum geothermischen Potential gefluteter Erzbergwerke: Der Geothermiekongress 2008. – 528–534 p., 2 Abb., 4 Tab.; Geeste (Geothermische Vereinigung – Bundesverband Geothermie e.V.).
• Ofoegbu, S. U. (2019): Technological Challenges of Phosphorus Removal in High-Phosphorus Ores: Sustainability Implications and Possibilities for Greener Ore Processing. – Sustainability-Basel, 11(23) doi:10.3390/su11236787.
• Ogan, E. (1993): Bougainville – The Mine and the People. By Paul Quodling (book review). – Pac. Aff., 66(1):149–150, doi:10.2307/2760058.
• Ogasawara, H., Fujimori, K., Koizumi, N., Hirano, N., Fujiwara, S., Otsuka, S., Nakao, S., Nishigami, K., Taniguchi, K., Iio, Y., Nishida, R., Oike, K. & Tanaka, Y. (2002): Microseismicity induced by heavy rainfall around flooded vertical ore veins. – Pure Appl. Geophys., 159(1-3):91–109, 11 Abb., 2 Tab.; doi:10.1007/PL00001269.
• Ogasawara, H., Kuwabara, Y., Miwa, T., Fujimori, K., Hirano, N. & Koizumi, M. (2002): Post-seismic effects of an M 7.2 earthquake and microseismicity in an abandoned, flooded, deep mine. – Pure Appl. Geophys., 159(1-3):63–90, 13 Abb., 2 Tab.
• Ogden, A. E. & Pearce, E. W. (1984): A Comparison Between Fluorescein Dye and Amorphous Silica for Groundwater Tracing –Natl. Speleol. Soc. Bull., 46(2):36–40, 4 Abb.
• OGewV (2020): Oberflächengewässerverordnung vom 20. Juni 2016 (BGBl. I S. 1373), die zuletzt durch Artikel 2 Absatz 4 des Gesetzes vom 9. Dezember 2020 (BGBl. I S. 2873) geändert worden ist. –.
• Ogilvy, R. D., Kuras, O., Palumbo-Roe, B., Meldrum, P. I., Wilkinson, P. B., Chambers, J. E. & Klinck, B. A. (2009): The Detection and Tracking of Mine-Water Pollution from Abandoned Mines using Electrical Tomography. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 917–925, 8 Abb; Pretoria (Document Transformation Technologies).
• Ogola, J., Maiyana, B. & Yibas, B. (2011): Water Balance Determination in Mine Residue Deposits: Case Studies in the Witwatersrand Basin, South Africa: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 615–618 p., Aachen (RWTH Aachen University).
• Ogola, J. S. (2010): Heavy Metals Impacts on the Environment: A Case Study of Gold Mine Tailings Dams in Giyani Greenstone Belt, Limpopo Province, South Africa. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 591–595, Sydney, NS (Cape Breton University Press).
• Oh, C., Ji, S., Cheong, Y., Yim, G. & Hong, J. H. (2016): Evaluation of design factors for a cascade aerator to enhance the efficiency of an oxidation pond for ferruginous mine drainage. – Environ. Technol., 37(19):2483–93, 8 Abb., 2 Tab.; doi:10.1080/09593330.2016.1153154.
• Oh, C., Yu, C., Cheong, Y., Yim, G., Song, H., Hong, J.-h. & Ji, S. (2014): Efficiency assessment of cascade aerator in a passive treatment system for Fe(II) oxidation in ferruginous mine drainage of net alkaline. – Environ. Earth Sci., 73(9):5363–5373, doi:10.1007/s12665-014-3791-7.
• Ohimain, E. I. (2003): Available options for the bioremediation and restoration of abandoned pyritic dredge spoils causing the death of fringing mangroves in the Niger Delta. – 9 p., 2 Abb., 1 Tab.; Athen (Proceedings International Biohydrometallurgy Symposium).
• Ohimain, E. I. (2003): Environmental Impacts of oil mining activities in the Niger Delta Mangrove Ecosystem. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 503–517, 3 Abb., 3 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Ohlemacher, S., Post, C. & Baier, K. (2022): Mining Related PCB in Wetland Sediments of the River Lippe (North Rhine-Westphalia, Germany). – In: Kumar, P., Nigam, G. K., Sinha, M. K. & Singh, A. (eds): Water Resources Management and Sustainability. – p. 59–72, 6 Abb., 5 Tab.; Singapore (Springer Nature); doi:10.1007/978-981-16-6573-8_2.
• Ohlenbusch, R. (2000): Numerische Modellrechnungen zur Ausbreitung von Inhaltsstoffen aus Weichgelinjektionssohlen. – 188 p., Universität Karlsruhe, 108 Abb., 16 Tab.; Karlsruhe.
• Ohlsson, A. (1993): Development in Diamond Drilling Products. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 574–586, 6 Abb., 3 Tab.; Chililabombwe (Konkola Division).
• Ohmoto, H., Watanabe, Y. & Kumazawa, K. (2004): Evidence from massive siderite beds for a CO₂-rich atmosphere before ~1.8 billion years ago. – Nature, 429:395–399, 3 Abb.
• Ohnesorge, T. (1903): Der Schwazer Augengneis. – Jb. k.-k. geol. R.-A.:373–384.
• Ohnesorge, T. (1906): Die Fahlerzvorkommen von Schwaz. – Verh. Geol. R. A.:188–189.
• Ohnuki, T., Sakamoto, F., Kozai, N., Samadfam, M., Sakai, T., Kamiya, T., Satoh, T. & Oikawa, M. (2002): Application of the micro-PIXE technique for analyzing arsenic in biomat and lower plants of lichen and mosses around an arsenic mine site, at Gunma, Japan. – Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms, 190:477–481.
• Okamoto, H., Morimoto, K., Anraku, S., Sato, T. & Yoneda, T. (2010): A Novel Remediation Method Learnt from Natural Attenuation Process for Cu- and Zn-Bearing Wastewater. – Anglais, 14(5):203–310.
• Okay, A. I. (2008): Geology of Turkey: A Synopsis. – Der Anschnitt – Beiheft, 21:19–42, 13 Abb.
• Okay, A. I. & Satır, M. (2000): Coeval plutonism and metamorphism in a latest Oligocene metamorphic core complex in northwest Turkey. – Geol. Mag., 137:495–516, 11 Abb., 5 Tab.
• Okay, A. I., Satır, M., Tüysüz, O., Akyüz, S. & Chen, F. (2001): The tectonics of the Strandja Massif: late-Variscan and mid-Mesozoic deformation and metamorphism in the northern Aegean. – Int. J. Earth Sciences (Geol. Rundsch.), 90(2):217–233, 11 Abb., 2 Tab.; doi:10.1007/s005310000104.
• Okay, A. I., Siyako, M. & Bürkan, K. A. (1991): Geology and tectonic evolution of the Biga Peninsula, northwest Turkey. – Bulletin, Technical University of Istanbul, 44(1-2):191–256, 21 Abb.
• Okrusch, M., Lorenz, J. A. & Weyer, S. (2007): The genesis of sulfide assemblages in the former Wilhelmine mine, Spessart, Bavaria, Germany. – Can. Mineral., 45:723–750, doi:10.2113/gscanmin.45.4.723.
• Okrusch, M. & Matthes, S. (2014): Mineralogie – Eine Einführung in die spezielle Mineralogie, Petrologie und Lagerstättenkunde, 9 edn. – 728 p., 438 Abb.; Berlin (Springer); doi:10.1007/978-3-642-34660-6.
• Okumus, K. (2002): Turkey’s Environment – A Review and Evaluation of Turkey’s Environment and its Stakeholders. – 44 p., 3 Abb., 4 Tab.; Szentendre (The Regional Environmental Center for Central and Eastern Europe).
• Okutsu, H. (1978): Groundwater problems caused by excavation of building basement from the viewpoint of nature conservation. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1275–1290; Maracena (Asociación Nacional de lngenieros de Minas).
• Olad, A., Amani-Ghadim, A. R., Dorraji, M. S. S. & Rasoulifard, M. H. (2010): Removal of the Alphazurine FG Dye from Simulated Solution by Electrocoagulation. – Acta Hydrochim. Hydrobiol., 38(4):401–409.
• Olaniran, A. O., Pillay, D. & Pillay, B. (2006): Biostimulation and bioaugmentation enhances aerobic biodegradation of dichloroethenes. – Chemosphere, 63(4):600–8, doi:10.1016/j.chemosphere.2005.08.027.
• Olasupo, A. (2018): Assessment of Persistent Organic Pollutant accumulation in Sediments of the Klip River Wetland, Johannesburg. – 58 p., MSc, University of the Witwatersrand, 28 Abb., 11 Tab.; Johannesburg.
• Olcott, P. G. (1969): Progress Report on Feasibility of Developing a Municipal Water Supply from Abandoned Iron Mines in Montreal, Wisconsin. – Wisconsin Geological and Natural History Survey Open-File Report, 69-2:1–10.
• Oldenburg, C. M. & Lewicki, J. L. (2004): Leakage and seepage in the near-surface environment – an integrated approach to monitoring and detection: LBNL-54283. – 1–6 p., 3 Abb., 1 Tab.; Vancouver (Proceedings 7th International Conference on Greenhouse Gas Control Technologies).
• Oldenburg, C. M. & Lewicki, J. L. (2005): Leakage and Seepage of CO₂ from Geologic Carbon Sequestration Sites: CO₂ Migration into Surface Water: LBNL-57768. – 10 Abb., 6 Tab.; Berkeley (Ernest Orlando Lawrence Berkeley National Laboratory).
• Oldenburg, C. M., Lewicki, J. L. & Hepple, R. P. (2003): Near-Surface Monitoring Strategies for Geologic Carbon Dioxide Storage Verification. – 54 p., 14 Abb., 3 Tab.; Berkeley (Ernest Orlando Lawrence Berkeley National Laboratory).
• Oldenburg, C. M. & Unger, A. J. A. (2004): Coupled Vadose Zone and Atmospheric Surface-Layer Transport of Carbon Dioxide from Geologic Carbon Sequestration Sites. – Vadose Zone J., 3:848–857, 10 Abb., 1 Tab.
• Oldendick, R. W., Bishop, G. F., Sorenson, S. B. & Tuchfarber, A. J. (1988): A Comparison of the Kish and Last Birthday Methods of Respondent Selection in Telephone Surveys. – J. Off. Stat., 4(4):307–318.
• Oldham, C. (2013): Acidic Pit Lakes – The Legacy of Coal and Metal Surface Mines (Book Review). – Mine Water Environ., 32(3):247–248, doi:10.1007/s10230-013-0231-y.
• Oldham, C., Singh, A. C., Kanse, L. & Bourgault, C. (2022): Developing The Business Case For Responsible Acid And Metalliferous Drainage (AMD) Management. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 365–371; (International Mine Water Association).
• Oleksiienko, O. (2016): Physico-chemical properties of sol-gel synthesized titanosilicates for the uptake of radionuclides from aqueous solutions: 709. – 99 p., Lappeenranta (Lappeenranta University of Technology).
• Oleksiienko, O., Levchuk, I., Sitarz, M., Meleshevych, S., Strelko, V. & Sillanpää, M. (2015): Adsorption of Caesium (Cs+) from aqueous solution by porous titanosilicate xerogels. – Desalin. Water Treat., 9 Abb., 4 Tab.; doi:10.1080/19443994.2014.1003103.
• Oleksiienko, O., Levchuk, I., Sitarz, M., Meleshevych, S., Strelko, V. & Sillanpää, M. (2015): Removal of strontium (Sr²⁺) from aqueous solutions with titanosilicates obtained by the sol-gel method. – J. Colloid Interface Sci., 438:159–168, doi:10.1016/j.jcis.2014.09.075.
• Oleksiienko, O., Meleshevych, S., Strelko, V., Wolkersdorfer, Ch., Tsyba, M. M., Kylivnyk, Y. M., Levchuk, I., Sitarz, M. & Sillanpää, M. (2015): Pore structure and sorption characterization of titanosilicates obtained from concentrated precursors by the sol–gel method. – RSC Advances, 5(89):72562–72571, 7 Abb., 4 Tab.; doi:10.1039/c5ra06985h.
• Oleksiienko, O., Wolkersdorfer, Ch. & Sillanpää, M. (2017): Titanosilicates in Cation Adsorption and Cation Exchange – A Review. – Chem. Eng. J., 317:570–585, 4 Abb., 3 Tab.; doi:10.1016/j.cej.2017.02.079.
• Olem, H. (1984): Prevention of Acid Drainage from Stored Coal – Closure. – J. Energy Eng.-ASCE, 110(2):177–178, doi:10.1061/(ASCE)0733-9402(1984)110:2(177).
• Olem, H. (1991): Minerals and mine drainage. – Research Journal WPCF, 63(4):472–475.
• Olem, H., Bell, T. L. & Longaker, J. J. (1983): Prevention of Acid Drainage from Stored Coal. – J. Energy Eng.-ASCE, 109(2):103–112, doi:10.1061/(ASCE)0733-9402(1983)109:2(103).
• Olias, M., Canovas, C. R. & Basallote, M. D. (2021): Surface and Groundwater Quality Evolution in the Agrio and Guadiamar Rivers After the Aznalcollar Mine Spill (SW Spain): Lessons Learned. – Mine Water Environ., 40(1):235–249, doi:10.1007/s10230-020-00713-7.
• Olías, M., Cánovas, C. R., Macías, F., Basallote, M. D. & Nieto, J. M. (2020): The Evolution of Pollutant Concentrations in a River Severely Affected by Acid Mine Drainage: Río Tinto (SW Spain). – Minerals, 10(7):598, doi:10.3390/min10070598.
• Olías, M., Cánovas, C. R., Pérez-López, R., Macías, F., Riera, J. & Nieto, J. M. (2016): REE behavior during evaporative salt precipitation in a severely affected AMD creek (SW Spain). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1336–1338, Freiberg (TU Bergakademie Freiberg).
• Olías, M. & Nieto, J. M. (2015): Background Conditions and Mining Pollution throughout History in the Río Tinto (SW Spain). – Environments, 2(3):295–316, doi:10.3390/environments2030295.
• Olías, M., Nieto, J. M., Sarmiento, A. M., Cerón, J. C. & Cánovas, C. R. (2004): Seasonal water quality variations in a river affected by acid mine drainage: the Odiel River (South West Spain). – Sci. Total Environ., 333(1-3):267–281, 11 Abb., 2 Tab.; doi:10.1016/j.scitotenv.2004.05.012.
• Olias, M., Ruiz Cánovas, C., Macias, F. & Nieto, J. M. (2017): Water Resources Degradation by Acid Mine Drainage: The Sancho Reservoir (Odiel River Basin, SW Spain). Paper presented at the IMWA 2017 – Mine Water & Circular Economy, Lappeenranta. – p. 1389–1396; (Lappeenranta University of Technology).
• Oliphant, D. S. & Christophersen, D. (2010): Three-Phase Mining Effluent Treatment Plant To Meet Stringent Standards. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 167–171, Sydney, NS (Cape Breton University Press).
• Oliveira, C. d. R. & Rubio, J. (2007): Adsorption of ions onto treated natural zeolite. – Materials Research, 10(4):407–412, doi:10.1590/S1516-14392007000400014.
• Oliveira, S. M. & Ferreira, A. S. (2014): Change in Soil Microbial and Enzyme Activities in Response to the Addition of Rock-Phosphate-Enriched Compost. – Commun Soil Sci Plan, 45(21):2794–2806, doi:10.1080/00103624.2014.954286.
• Olivier, J. & Jonker, N. (2013): Optimal Utilisation of Thermal Springs in South Africa. – (Report Nr. WRC TT 577/13). – 144 p., 26 Abb., 11 Tab.; Pretoria (Water Research Commission).
• Olowoyo, J. O., Chiliza, U., Selala, C. & Macheka, L. (2022): Health Risk Assessment of Trace Metals in Bottled Water Purchased from Various Retail Stores in Pretoria, South Africa. – Int. J. Environ. Res. Public Health, 19(22) doi:10.3390/ijerph192215131.
• Olson, E. C. (1935): A mounted skeleton of the mammal-like reptile Dicynodon tigriceps. – J. Geol., 43(8/2):1063–1066, 1 Abb.; doi:10.1086/624377.
• Olson, E. C. & Byrne, F. (1938): The osteology of Aulococephalodon peavoti Broom. – J. Geol., 46(2):177–190, 6 Abb.; doi:10.1086/624629.
• Olson, E. D., Poling, D. & Solomon, G. (1999): Bottled Water: Pure Drink or Pure Hype? – 123 p., New York (Natural Resources Defense Council).
• Olson, G. J., Clark, T. R., Mudder, T. I. & Logsdon, M. (2006): Toward Source Control of Acid Rock Drainage: ICARD 2006 7. – 1435–1452 [CD–ROM] p., 4 Abb., 6 Tab.; St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06021435.
• Olsson, E. (2015): Water use in the Chinese coal industry. – 46 p., Uppsala University; Uppsala.
• Olyphant, G. A. & Harper, D. (1998): Hydrologic conditions in the coal mining district of Indiana and implications for reclamation of abandoned mine lands. – 283–288 p., 2 Abb., 1 Tab.; Princeton (Proceedings 15th Annual National Meeting – American Society for Surface Mining and Reclamation); doi:10.21000/JASMR98010283.
• Omole, D. O., Ndambuki, J. M. & Balogun, K. (2015): Consumption of sachet water in Nigeria: quality, public health and economic perspectives. – Afr. J. Sci. Technol. Innovation Dev., 7(1):45–51, doi:10.1080/20421338.2014.979654.
• Omo-Okoro, P. N. (2015): Temporal Variation in the Allocation of Acid Mine Drainage Contaminants in the Waters and Sediments of the Engineered Remediation Reed Beds along the Varkenslaagte Stream: An Autumn – Winter Study. – 155 p., MSc, University of the Witwatersrand; Johannesburg.
• Onac, B. P., Wynn, J. G. & Sumrall, J. B. (2011): Tracing the sources of cave sulfates: a unique case from Cerna Valley, Romania. – Chem. Geol., 288(3-4):105–114, doi:10.1016/j.chemgeo.2011.07.006.
• Onal, M., Helvaci, C., Tekin, E. & Ayyildiz, T. (2008): Sedimentology and geochemistry of the middle Miocene playa lake evaporites in the Gurun Basin (S of Sias), central Anatolia, Turkey. – Carbonate Evaporite, 23(1):11–20.
• Oncel, M. S., Muhcu, A., Demirbas, E. & Kobya, M. (2013): A comparative study of chemical precipitation and electrocoagulation for treatment of coal acid drainage wastewater. – J. Environm. Chem. Eng., 1(4):989–995, 2 Abb., 8 Tab.; doi:10.1016/j.jece.2013.08.008.
• Oncini, F. & Forno, F. (2021): Testing the Waters: A Sociological Analysis of Domestic Water Use and Consumption. – In: Turrini, P., Massarutto, A., Pertile, M. & de Carli, A. (eds): Water Law, Policy and Economics in Italy. – p. 81–103, 5 Abb., 4 Tab.; Cham (Springer); doi:10.1007/978-3-030-69075-5_4.
• Ondrejková, I., Ženišová, Z., Fľakova, R., Krèmář, D. & Sracek, O. (2013): The Distribution of Antimony and Arsenic in Waters of the Dúbrava Abandoned Mine Site, Slovak Republic. – Mine Water Environ., 32(3):207–221, 7 Abb., 3 Tab.; doi:10.1007/s10230-013-0229-5.
• Ondruschka, J. & Bley, T. (2002): Biosorption umweltrelevanter Schwermetalle an ausgewählten Biomaterialien als Grundlage für die Reinigung belasteter Abwässer. – Chemie Ingenieur Technik, 74(4):500–504, doi:10/bw84pt.
• Onen, V., Beyazyuz, P. & Yel, E. (2018): Removal of Turbidity from Travertine Processing Wastewaters by Coagulants, Flocculants and Natural Materials. – Mine Water Environ., 37(3):482–492, doi:10.1007/s10230-017-0499-4.
• Ong, C., Carrere, V., Chabrillat, S., Clark, R., Hoefen, T., Kokaly, R., Marion, R., Souza, C. R., Swayze, G. & Thompson, D. R. (2019): Imaging Spectroscopy for the Detection, Assessment and Monitoring of Natural and Anthropogenic Hazards. – Surveys in Geophysics, 40(3):431–470, doi:10.1007/s10712-019-09523-1.
• Ong, C. C. H. & Cudahy, T. J. (2014): Mapping contaminated soils: using remotely-sensed hyperspectral data to predict pH. – European Journal of Soil Science, 65(6):897–906, doi:10.1111/ejss.12160.
• Onnis, P., Byrne, P., Hudson-Edwards, K. A., Stott, T. & Hunt, C. (2018): Source Apportionment of Trace Metals Over a Range of Stream Flows Using a Multi-method Tracer Approach. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 843–848; (Tshwane University of Technology).
• Onstott, T. C., Moser, D. P., Pfiffner, S. M., Fredrickson, J. K., Brockman, F. J., Phelps, T. J., White, D. C., Peacock, A., Balkwill, D., Hoover, R., Krumholz, L. R., Borscik, M., Kieft, T. L. & Wilson, R. (2003): Indigenous and contaminant microbes in ultradeep mines. – Environ. Microbiol., 5(11):1168–1191, 8 Abb., 5 Tab.; doi:10.1046/j.1462-2920.2003.00512.x.
• Onur, A. H., Bakraç, S. & Karakus, D. (2012): Ultrasonic Waves in Mining Application: Ultrasonic Waves. – 189–210 p., 17 Abb., 9 Tab.; Shanghai (InTech); doi:10.5772/29565.
• Onyemaobi, O. O. (1988): Problems Encountered in Dewatering a Nigerian Coal Mine. – Proceedings, 3rd International Mine Water Congress, Melbourne:41–47, 2 Abb., 1 Tab.
• Onysko, S. J., Kleinmann, R. L. P. & Erickson, P. M. (1984): Ferrous Iron Oxidation by Thiobacillus-Ferrooxidans – Inhibition with Benzoic-Acid, Sorbic Acid, and Sodium Lauryl Sulfate. – Appl. Environ. Microbiol., 48(1):229–231.
• Oosthuizen, M. A., John, J. & Somerset, V. (2010): Mercury exposure in a low-income community in South Africa. – S. Afr. Med. J., 100(6):366–371, 1 Abb., 3 Tab.
• Opara, A., Peoples, M. J., Adams, D. J. & Martin, A. J. (2014): Electro-biochemical reactor (EBR) technology for selenium removal from British Columbia’s coal-mining waste waters –Miner. Metall. Proc., 31(4):209–214.
• Opekunov, A., Opekunova, M., Kukushkin, S., Somov, V., Spasskij, V. & Yaskevich, E. (2019): Transformation of Sibay Chalcopyrite Deposits Acid Mine Drainage on Geochemical Barriers of the River System. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 445–450; Perm, Russia (Perm State University).
• Opel, K., Hüttig, G. & Zänker, H. (2004): Anorganische Kolloide im Wasser der Elbe – Methodenvergleich. – Wissenschaftlich-Technische Berichte, FZR-395:1–42, 14 Abb., 10 Tab.
• Opitz, A., Becker, M., Harrison, S. T. L. & Broadhurst, J. L. (2016): Characterising Environmental Risks Associated with Sulfide-bearing Gold Wastes. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1050–1057, Freiberg (TU Bergakademie Freiberg).
• Opitz, A., Broadhurst, J., Harrison, S., Bradshaw, D. & Becker, M. (2018): Understanding Mineralogy As A Tool For Acid Rock Drainage Characterisation. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 424–429; (Tshwane University of Technology).
• Opitz, J., Alte, M., Bauer, M. & Peiffer, S. (2019): Testing Iron Removal in a Trifurcated Pilot Plant for Passive Treatment of Circum-neutral Ferruginous Mine Water. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 256–261; Perm, Russia (Perm State University).
• Opitz, J., Alte, M., Bauer, M. & Peiffer, S. (2021): The Role of Macrophytes in Constructed Surface-flow Wetlands for Mine Water Treatment: A Review. – Mine Water Environ., 40(3):587–605, doi:10.1007/s10230-021-00779-x.
• Opitz, J., Alte, M., Bauer, M., Schäfer, W. & Söll, T. (2017): Investigation of a Pit Lake Acting as a Large-scale Natural Treatment System for Diffuse Acid Mine Drainage. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1095–1102, Lappeenranta (Lappeenranta University of Technology).
• Opitz, J., Alte, M., Bauer, M., Schäfer, W. & Söll, T. (2020): Estimation of Self-Neutralisation Rates in a Lignite Pit Lake. – Mine Water Environ., 39(3):556–571, doi:10.1007/s10230-020-00692-9.
• Opitz, J. & Timms, W. (2016): Mine water discharge quality – a review of classification frameworks. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 17–26, Freiberg (TU Bergakademie Freiberg).
• Oppelt, L., Grab, T., Ebel, T., Wunderlich, T., Storch, T. & Fieback, T. (2025): Mine Water as an Energy Source: Overview of Technical Basics, Existing Plants, and Monitoring Results. – Mine Water Environ., doi:10.1007/s10230-025-01057-w.
• Oppelt, L., Wenzel, T., Bleidiessel, M., Heinrich, P., Arab, A., Wiedener, R., Engelmann, C., Chen, C., Schenker, F., Lotter, T., Schneider, T., Hellmuth, F., Binder, M., Nagel, T., Grab, T., Fieback, T. & Scheytt, T. (2024): Seasonal heat storage in partially flooded mines - In-situ investigations at the Freiberg, Saxony, site. Paper presented at the Der Geothermiekongress, Potsdam. –.
• Opperman, D. J., Sewell, B. T., Litthauer, D., Isupov, M. N., Littlechild, J. A. & van Heerden, E. (2010): Crystal structure of a thermostable Old Yellow Enzyme from Thermus scotoductus SA-01. – Biochem. Biophys. Res. Commun., 393(3):426–431, 4 Abb., 3 Tab.; doi:10.1016/j.bbrc.2010.02.011.
• Oppikofer, T., Jaboyedoff, M. & Keusen, H.-R. (2008): Collapse at the eastern Eiger flank in the Swiss Alps. – Nature Geoscience, 1:531, doi:10.1038/ngeo258.
• Opthof, T., Coronel, R. & Janse, M. J. (2002): Submissions, impact factor, reviewer’s recommendations and geographical bias within the peer review system (1997-2002): Focus on Germany. – Cardiovasc. Res., 55(2):215–219, 6 Abb.
• Orandi, S., Lewis, D. M., Eslami, A. & Mohebbi, A. (2012): A novel approach to exploit indigenous mining algal-microbes in a photo-rotating biological contactor for heavy metal removal from acid mine drainage: International Mine Water Association Symposium. – 231–236 p., 1 Abb.; Bunbury (Edith Cowan University).
• Ordóñez, A., Álvarez, R., Bros, T. & Loredo, J. (2005): Consequences of abandoned Cu-Co mining in Northern Spain in surface watercourses: Mine Water 2005 – Mine Closure. – 611–617 p., 3 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Ordóñez, A., Álvarez, R., García, C. & García, S. (2025): Study of the flooding of coal mines in Asturias. Possibilities for the use of mining reservoirs. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 932–938; Braga (International Mine Water Association).
• Ordóñez, A., Álvarez, R. & Loredo, J. (2016): Water management issues in an abandoned mine sector of El Bierzo coal basin (Spain). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 642–643, Freiberg (TU Bergakademie Freiberg).
• Ordónez, A., Andres, C., Álvarez, R. & Jardón, S. (2010): Aprovechamiento de las Aguas Subterráneas como recurso hídrico y energético. – Seguridad y Medio Ambiente, 118(3):46–60, 10 Abb.
• Ordóñez, A., Jardón, S., Alvarez, R., Andres, C. & Pendás, F. (2012): Hydrogeological definition and applicability of abandoned coal mines as water reservoirs. – J. Environ. Monit., 14(8):2127–2136, doi:10.1039/c2em11036a.
• Ordóñez, A., Loredo, J. & Pendás, F. (1999): A Successive Alkalinity Producing System (SAPS) as operational Unit in a Hybrid Passive Treatment System for Acid Mine Drainage. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 575–580, 5 Abb., 4 Tab.; Sevilla (International Mine Water Association).
• Orescanin, V. & Kollar, R. (2012): A combined CaO/electrochemical treatment of the acid mine drainage from the “Robule” Lake. – J. Environ. Sci. Health A Tox. Hazard. Subst. Environ. Eng., 47(8):1186–1191, 1 Abb., 4 Tab.; doi:10.1080/10934529.2012.668405.
• Oreskes, N. & Conway, E. M. (2010): Merchants of Doubt – How a Handful of Scientists Obscured the Truth on Issues from Tobacco Smoke to Global Warming. – 355 p., New York (Bloomsbury).
• Oreskes, N. & Conway, E. M. (2010): What’s Bad Science? Who Decides? The Fight over Secondhand Smoke. Merchants of Doubt – How a Handful of Scientists Obscured the Truth on Issues from Tobacco Smoke to Global Warming. – p. 136–168, New York (Bloomsbury).
• Orfila, A., Jordi, A., Basterretxea, G., Vizoso, G., Marbà, N., Duarte, C. M., Werner, F. E. & Tintoré, J. (2005): Residence time and Posidonia oceanica in Cabrera Archipelago National Park, Spain. – Cont. Shelf Res., 25(11):1339–1352, doi:10.1016/j.csr.2005.01.004.
• Organisation for Economic Co-Operation and Development (OECD) (1992): The Polluter-Pays Principle – OECD Analyses and Recommendations. – (Report Nr. OCDE/GD(92)81). – p., Paris (Organisation for Economic Co-Operation and Development).
• Örmeci, B. (2007): Optimization of a full-scale dewatering operation based on the rheological characteristics of wastewater sludge. – Water Res., 41(6):1243–1252, 8 Abb., 2 Tab.; doi:10.1016/j.watres.2006.12.043.
• Orschall, P. & Latsch, H. (1983): Der Siegerländer Erzbergbau – Geschichte und Mineralführung. – Der Aufschluss, 34(8/9):365–372, 2 Abb.
• Orth, W. (2009): Bodenvereisung. – In: Witt, K. J. (ed) Grundbau-Taschenbuch Teil 2: Geotechnische Verfahren, 7th edn. – p. 233–302, 45 Abb., 6 Tab.; Berlin (Ernst & Sohn).
• Ortner, H. & Kilian, S. (2022): Thrust tectonics in the Wetterstein and Mieming mountains, and a new tectonic subdivision of the Northern Calcareous Alps of Western Austria and Southern Germany. – Int. J. Earth Sciences (Geol. Rundsch.), 111(2):543–571, doi:10.1007/s00531-021-02128-3.
• Oruc, E., Hrustic, I. H. & Bijedic, D. (1997): Groundwater Level Dynamik in Salt Deposit “Tusanj” in Function of Preventing Shaft Stability Against Critical Hydrostatic Pressure. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:423–430, 4 Abb., 1 Tab.
• Oruc, E., Jahic, I. & Balta, K. (1993): Construction and Production Features of Dewatering Wells in the “Kreka” Lignite Basin. – Mine Water Environ., 12(1-4):41–51, 6 Abb., 1 Tab.
• Oruc, E., Osmanovic, S. & Hadzic, E. J. I. (1997): Preventing Against Water Outbursts in Underground Mines and Against Pollution of Underground Waters by Slag Dumps from Power Plant-Tuzla. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:19–28, 4 Abb.
• Osann, A. (1903): Versuch einer chemischen Klassifikation der Eruptivgesteine. – Tschermaks Min. Petr. Mitt., 22(5):403–436, 3 Tab.; doi:10.1007/BF03000269.
• Osborne, J. W. & Holland, A. (2009): What is authorship, and what should it be? A survey of prominent guidelines for determining authorship in scientific publications. – Pract. Assess. Res. Eval., 14(15):1–19.
• Osiensky, J. L. & Williams, R. E. (1995): Finite Difference Simulation of the Application of electrical Flow through conductive Contaminant Plumes. – Mine Water Environ., 14(1-4):39–56, 9 Abb., 1 Tab.
• Osiensky, J. L., Williams, R. E., Ralston, D. R., Johnson, G. S. & Mink, L. L. (1998): Simulation of electrical Potential Differences near a contaminant Plume excited by a Point Source of Current. – Mine Water Environ., 17(1):62–71.
• Osiensky, J. L., Williams, R. E., Ralston, D. R., Johnson, G. S. & Mink, L. L. (1999): Simulation of Electrical Potential Differences near a Contaminat Plume Excited by a Point Source of Current. – Mine Water Environ., 18(1):29–44, 11 Abb.
• Osiensky, J. L., Williams, R. E., Williams, B. & Johnson, G. S. (2000): Evaluation of Drawdown Curves Derived from Multiple Well Aquifer Tests in Heterogenous Environments. – Mine Water Environ., 19(1):30–55, 14 Abb.
• Osovetsky, B. & Badyanova, I. (2019): Natural Environmental Pollutants In The Black Shale Zones. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 701–705; Perm, Russia (Perm State University).
• Osswald, K. (1921): Geologie der Umgebung von Erbendorf und die dortigen Steinkohlenlager. – Geogn. Jh., 34:113–124, 1 Abb., 1 Kart.
• Oster, H. (2002): Neue chemische Tracer. – Wiss. Mitt. Inst. Geol., 19:11–17, 6 Abb.
• Ostermann, M. & Prager, C. (2014): Major Holocene rock slope failures in the Upper Inn- and Ötz valley region (Tyrol, Austria) – Holozäne „Bergstürze“ in der Region Oberinntal-Ötztal (Tirol, Österreich). – In: Kerschner, H., Krainer, K. & Spötl, C. (eds): From the foreland to the Central Alps – Field trips to selected sites of Quat. Res. in the Tyrolean and Bavarian Alps. – p. 116–126, 12 Abb.; (Geozon).
• Ostermann, M. & Prager, C. (2016): Rock slope failures shaping the landscape in the Loisach‑, Inn- and Ötz Valley region (Tyrol, Austria). – Geo.Alp, 13:257–276, 18 Abb.
• Ostermann, M., Sanders, D., Prager, C. & Kramers, J. (2007): Aragonite and calcite cementation in “boulder-controlled” meteoric environments on the Fern Pass rockslide (Austria): implications for radiometric age dating of catastrophic mass movements. – Facies, 53(2):189–208, 8 Abb., 4 Tab.
• Osuchowski, R. (1992): Advanced treatment of acid mine water. – Technology SA:9,11.
• Oswald, P., Strasser, M., Skapski, J. & Moernaut, J. (2022): Magnitude and source area estimations of severe prehistoric earthquakes in the western Austrian Alps. – Nat. Hazards Earth Syst. Sci., 22(6):2057–2079, doi:10.5194/nhess-22-2057-2022.
• Otero, N. & Soler, A. I. G. (2002): Sulphur isotopes as tracers of the influence of potash mining in groundwater salinisation in the Llobregat Basin (NE Spain). – Water Res., 36(16):3989–4000, doi:10.1016/S0043-1354(02)00125-2.
• Othmani, M. A., Souissi, F., Benzaazoua, M., Bouzahzah, H., Bussiere, B. & Mansouri, A. (2013): The Geochemical Behaviour of Mine Tailings from the Touiref Pb–Zn District in Tunisia in Weathering Cells Leaching Test. – Mine Water Environ., 32(1):28–41, 12 Abb., 4 Tab.; doi:10.1007/s10230-012-0210-8.
• Otruba, G. & Kropf, R. (1969): Die Entwicklung von Bergbau und Industrie in Oberösterreich – Von der Manufakturepoche bis zur Frühindustrialisierung (Erläuterungen zu den Industriekarten I (ca. 1780-1820) und II (1820-1841). – Oberösterreichische Heimatblätter, 23(3/4):3–19, 3 Abb., 2 Kart.
• Ott, A. N. (1986): Estimating iron and aluminum content of acid mine discharge from a north-central Pennsylvania coal field by use of acidity titration curves. – Water Resour. Investig. Rep., WRI 84-4335:25, 9 Abb., 9 Tab.
• Ott, A. N. (1988): Dual-acidity titration curves – fingerprint, indicator of redox state, and estimator of iron and aluminum content of acid mine drainage and related waters. – US Geol. Surv. Water-Supply Paper, W 2330:19–33, 11 Abb., 5 Tab.
• Ottenjann, M.-B., Kons, S., Meßer, J., Werner, F., Getta, M. & Göbel, P. (2022): Rekonstruktion des Druckpotenzials für den unteren Grundwasserleiter im Münsterländer Kreidebecken im Falle eines ungehinderten Grubenwasseranstiegs im Grundgebirge. – Grundwasser, 27(1):15–28, doi:10.1007/s00767-021-00506-x.
• Ottermann, H. T., Truter, K. J., Haarhoff, S. J., van der Westhuizen, D., Meyer, F. & Swanepoel, P. A. (2025): Trends and drivers of fertiliser consumption in the South African agricultural industry. – Agrekon, 64(2):149–166, doi:10.1080/03031853.2025.2515868.
• Otto, R. (2001): Estimating groundwater recharge rates in the southeastern Holstein region, northern Germany. – Hydrogeol. J., 9(5):498–511, 9 Abb., 4 Tab.; doi:10.1007/s100400100155.
• Otz, M. H., Hinchey, E., Siegel, D. I., Otz, H. K. & Otz, I. (2004): Fluorescent Dye-Tracing as a Cost-Effective Tool in Applied Contaminant Hydrology: A Case Study of Synchronous Spectro-Fluorometry in a Heavily Oil-Contaminated Aquifer. Paper presented at the Petroleum Hydrocarbons and Organic Chemicals in Ground Water, Baltimore. – p. 198–209, 5 Abb., 2 Tab.
• Ouakibi, O., Loqman, S., Hakkou, R. & Benzaazoua, M. (2013): The Potential Use of Phosphatic Limestone Wastes in the Passive Treatment of AMD: A Laboratory Study. – Mine Water Environ., 32(4):266–277, 6 Abb., 3 Tab.; doi:10.1007/s10230-013-0226-8.
• Oury, T. D., Sporn, T. A. & Roggli, V. L. (2014): Pathology of Asbestos-Associated Diseases. – Heidelberg (Springer); doi:10.1007/978-3-642-41193-9.
• Ouyang, Y., Liu, Y., Zhu, R., Ge, F., Xu, T., Luo, Z. & Liang, L. (2015): Pyrite oxidation inhibition by organosilane coatings for acid mine drainage control. – Miner. Eng., 72:57–64, doi:10.1016/j.mineng.2014.12.020.
• ÖWav Regelblatt (2007): Markierungsversuche in der Hydrologie und Hydrogeologie. – 69 p., 1 Abb., 11 Tab.; Wien (ON Österreichisches Normungsinstitut).
• Owen, J. R. & Kemp, D. (2013): Social licence and mining: A critical perspective. – Resour. Policy, 38(1):29–35, doi:10.1016/j.resourpol.2012.06.016.
• Owen, J. R. & Kemp, D. (2017): Social management capability, human migration and the global mining industry. – Resour. Policy, 53:259–266, doi:10.1016/j.resourpol.2017.06.017.
• Owens, A. & Burke, J. (2009): A Consolidated Approach to Implementing Best Practice Guidelines, Water Use Licence Conditions and Integrated Water and Waste Management Plans in the Mining Environment – Opportunities and Challenges. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 79–88, 3 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Oyarzún, J., Maturana, H., Paulo, A. & Pasieczna, A. (2003): Heavy Metals in Stream Sediments from the Coquimbo Region (Chile): Effects of Sustained Mining and Natural Processes in a Semi-arid Andean Basin. – Mine Water Environ., 22(3):155–161, 3 Abb., 2 Tab.
• Oyarzún, J., Núñez, J., Duhalde, D., Oyarzún, R., Maturana, H., Paulo, A., Lillo, J., Pastén, P., González, C. & Portilla, A. (2022): Environmental Aspects of a Major ARD Source at El Indio Au-Cu-As District, North-Central Chile. – Mine Water Environ., 41(1):210–224, doi:10.1007/s10230-021-00804-z.
• Oyarzún, J., Núñez, J., Fairley, J. P., Tapia, S., Alvarez, D., Maturana, H., Arumí, J. L., Aguirre, E., Carvajal, A. & Oyarzún, R. (2019): Groundwater Recharge Assessment in an Arid, Coastal, Middle Mountain Copper Mining District, Coquimbo Region, North-central Chile. – Mine Water Environ., 38(2):226–242, doi:10.1007/s10230-019-00603-7.
• Oyarzún, R., Guevara, S., Oyarzún, J., Lillo, J., Maturana, H. & Higueras, P. (2006): The As-Contaminated Elqui River Basin: a Long Lasting Perspective (1975–1995) Covering the Initiation and Development of Au–Cu–As Mining in the High Andes of Northern Chile. – Environ. Geochem. Health., 28(5):431–443, doi:10.1007/s10653-006-9045-1.
• Oyarzún, R., Jofré, E., Morales, P., Maturana, H., Oyarzún, J., Kretschmer, N., Aguirre, E., Gallardo, P., Toro, L. E., Muñoz, J. F. & Aravena, R. (2015): A hydrogeochemistry and isotopic approach for the assessment of surface water-groundwater dynamics in an arid basin: the Limari watershed, North-Central Chile. – Environ. Earth Sci., 73(1):39–55, doi:10.1007/s12665-014-3393-4.
• Oyebog, S. A., Ako, A. A., Nkeng, G. E. & Suh, E. C. (2012): Hydrogeochemical characteristics of some Cameroon bottled waters, investigated by multivariate statistical analyses. – J. Geochem. Explor., 112:118–130, doi:10.1016/j.gexplo.2011.08.003.
• Oyewo, O., Onyango, M. & Wolkersdorfer, Ch. (2019): Synthesis and Application of Alginate Immobilized Banana peels Nanocomposite in Rare Earth and Radioactive Minerals Removal from Mine Water. – IET Nanobiotechnology, 13(7):756–765, 13 Abb., 7 Tab.; doi:10.1049/iet-nbt.2018.5399.
• Oyewo, O. A., Wolkersdorfer, Ch., Onyango, M. S. & Amos, A. (2018): The Performance of Nano-sized Banana Peels in the Removal of Vanadium from mine water. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 177–181, 2 Abb., 1 Tab.; (Tshwane University of Technology).
• Oyourou, J.-N. (2016): Rapid Assessment of Soil Pollution Using a Field Portable X-Ray Fluorescence Spectrometer. –.
• Oyourou, J.-N., McCrindle, R., Combrinck, S. & Fourie, C. J. S. (2019): Investigation of zinc and lead contamination of soil at the abandoned Edendale mine, Mamelodi (Pretoria, South Africa) using a field-portable spectrometer. – J. S. Afr. I. Min. Metall., 119(1):55–62, doi:10.17159/2411-9717/2019/v119n1a7.
• Özcan, H. (2005): Monitoring and evaluation of the spatial and temporal changes of pH, spcond, DO, ORP and TDS in the waters of Troia (Turkey) by GIS. – Göttinger Geograph. Abh., 113:175–182, 6 Abb.
• Özcan, H., Ekinci, H., Baba, A., Kavdir, Y., Yüksel, O. & Yiğini, Y. (2007): Assessment of the Water Quality of Troia for the Multipurpose Usages. – Environ. Monit. Assess., 130:389–402, 9 Abb., 5 Tab.; doi:10.1007/s10661-006-9406-3.
• Özcan, H. & Kavdir, Y. (2005): GIS monitoring and evaluation of nitrogen pollution in the waters of Troy, Turkey. – Fresenius Environ. Bull., 14(1):28–35, 5 Abb., 1 Tab.
• Özcan, H. & Yilmaz, S. (2005): Determination of boron in the waters of Troia by inductively coupled plasma-atomic emission spectrometry (ICP-AES). – J. Serb. Chem. Soc., 70(10):1219–1227, 3 Abb., 2 Tab.
• Ozcan, S. (2011): Analyses of polychlorinated biphenyls in waters and wastewaters using vortex-assisted liquid–liquid microextraction and gas chromatography-mass spectrometry. – J. Sep. Sci., 34(5):574–584, doi:10.1002/jssc.201000623.
• Ozcan, S., Tor, A. & Aydin, M. E. (2009): Determination of selected polychlorinated biphenyls in water samples by ultrasound-assisted emulsification-microextraction and gas chromatography-mass-selective detection. – Anal. Chim. Acta., 647(2):182–188, doi:https://doi.org/10.1016/j.aca.2009.06.037.
• Ozhan, H. O. & Guler, E. (2018): Design of a Geomembrane-Laminated Geosynthetic Clay Liner on the Slopes of a Mine Tailings Dam in Emet, Turkey. – Mine Water Environ., 37(3):541–551, doi:10.1007/s10230-018-0538-9.
• Ozis, U., Alkan, A. & Ozdemir, Y. (2019): Water Works of Ancient Civilizations. – In: Harmancioglu, N. B. & Altinbilek, D. (eds): Water Resources of Turkey. – p. 11–59, 31 Abb.; Cham (Springer); doi:10.1007/978-3-030-11729-0.
• Pääbo, S. (2024): Die Neandertaler und wir – Meine Suche nach den Urzeit-Genen, Erweiterte Neuausgabe edn. – 413 p., München (Deutsche Verlags-Anstalt).
• Pabsch, T., Müller, F. & Rosner, P. (2013): Begleitprojekte für die Umsetzung der Wasserrahmenrichtlinie – Erzbergbau-Projekt – Signifikante Belastungsquellen des Erzbergbaus und mögliche Maßnahmen im Rahmen der Bewirtschaftungsplanung NRW: Umsetzung im Fluss! – 1–16 p., 10 Abb., 4 Tab.; Essen (Proceedings Symposium zur EG-WRRL).
• Pace, Nathan L., Ohmura, A. & Mashimo, T. (1979): Averaging pH vs. H+ Values. – Anesthesiology, 51(5):481–481, doi:10.1097/00000542-197911000-00036.
• Paces, J. B., Ludwig, K. R., Peterman, Z. E. & Neymark, L. A. (2002): 234U/238U Evidence for Local Recharge and Patterns of Ground-water flow in the Vicinity of Yucca Mountain, Nevada, USA. – Appl. Geochem., 17(6):751–779, doi:10.1016/S0883-2927(02)00037-9.
• Pačes, T. (1969): Chemical equilibria and zoning of subsurface water from Jáchymov ore deposit, Czechoslovakia. – Geochim. Cosmochim. Acta, 33(5):591–609, 6 Abb., 6 Tab.; doi:10.1016/0016-7037(69)90017-9.
• Pache, G., Aime, S. & Michalet, R. (1996): A Simple Model for the Study of the Altitudinal Rainfall Gradient, Applied in the Tyrolian Orographic Complex. – Rev. Ecol. Alp., 3:13–20, 9 Abb.
• Pacheco, F., Hermosilla, G., Piña, O., Villavicencio, G., Allende-Cid, H., Palma, J., Valenzuela, P., García, J., Carpanetti, A., Minatogawa, V., Suazo, G., León, A., López, R. & Novoa, G. (2022): Generation of Synthetic Data for the Analysis of the Physical Stability of Tailing Dams through Artificial Intelligence. – Mathematics, 10(23) doi:10.3390/math10234396.
• Packter, A. & Dhillon, H. S. (1970): Studies on amorphous aluminium hydroxide precipitates (gels) – Kinetics of dissolution by sodium hydroxide solutions. – Kolloid-Zeitschrift und Zeitschrift für Polymere, 239(1):598–601, 3 Abb., 1 Tab.
• Packter, A. & Dhillon, H. S. (1974): Studies on recrystallised aluminium hydroxide precipitates – Kinetics and mechanism of dissolution by sodium hydroxide solutions. – Colloid & Polymer Sci., 252:249–256, 6 Abb., 2 Tab.
• Paddock, S. W. (2014): Confocal Microscopy – Methods and Protocols: Methods in molecular biology 1075, 2nd edn. – 381 p., zahlr. Abb., zahlr. Tab.; Totowa (Humana Press); doi:10.1007/978-1-60761-847-8.
• Padgett, D. E., Rogerson, C. B. & Hackney, C. T. (1998): Effects of soil drainage on vertical distribution of subsurface tissues in the salt marsh macrophyte Spartina alterniflora Lois. – Wetlands, 18(1):35–41, Refs: 16; illus.
• Padilla, F., Vellando, P., Delgado, J. L., Juncosa, R., Delgado, J. & Fernández, J. (2007): Surface and Ground Water Flow Modelling in the Restoration of the Meirama open Pit Mine: Water in Mining Environments. – 343–347 p., 5 Abb.; Cagliari (Mako Edizioni).
• Pagano, G., Guida, M., Siciliano, A., Oral, R., Koçbaş, F., Palumbo, A., Castellano, I., Migliaccio, O., Thomas, P. J. & Trifuoggi, M. (2016): Comparative toxicities of selected rare earth elements: Sea urchin embryogenesis and fertilization damage with redox and cytogenetic effects. – Environ. Res., 147:453–460, doi:10.1016/j.envres.2016.02.031.
• Page, J. & Atkinson-Grosjean, J. (2013): Mines and Microbes: Public Responses to Biological Treatment of Toxic Discharge. – Soc. Nat. Resour., 26(3):270–284, doi:10.1080/08941920.2012.685147.
• Paguican, E. M. R., van Wyk de Vries, B. & Lagmay, A. M. F. (2014): Hummocks: how they form and how they evolve in rockslide-debris avalanches. – Landslides, 11(1):67–80, doi:10.1007/s10346-012-0368-y.
• Paikaray, S. (2015): Arsenic Geochemistry of Acid Mine Drainage. – Mine Water Environ., 34(2):181–196, doi:10.1007/s10230-014-0286-4.
• Paikaray, S. (2021): Environmental Stability of Schwertmannite: A Review. – Mine Water Environ., 40(3):570–586, doi:10.1007/s10230-020-00734-2.
• Paikaray, S. & Peiffer, S. (2010): Dissolution Kinetics of Sulfate from Schwertmannite under Variable pH Conditions. – Mine Water Environ., 29(4):263–269, 7 Abb., 2 Tab.; doi:10.1007/s10230-010-0118-0.
• Paikaray, S. & Peiffer, S. (2015): Lepidocrocite Formation Kinetics from Schwertmannite in Fe(II)-Rich Anoxic Alkaline Medium. – Mine Water Environ., 34(2):213–222, doi:10.1007/s10230-014-0309-1.
• Paillet, P. L. (1991): Application of Borehole Geophysics in Charcterizing the Hydraulic and Geomechanical Properties of Fractured Crystalline Rocks. – Proceedings, 4th International Mine Water Association Congress, 1:99–108, 8 Abb.
• Paine, P. J. & Blakeman, W. B. (1987): The National Coal Wastewater Survey: 1982 – 1984. – 1–217 p., Ottawa (Environment Canada).
• Pak, A. & Nabipour, M. (2017): Numerical Study of the Effects of Drainage Systems on Saturated/Unsaturated Seepage and Stability of Tailings Dams. – Mine Water Environ., 36(3):341–355, doi:10.1007/s10230-017-0468-y.
• Pak, G., Jung, M., Kim, H., Mallari, K. J. B., Chung, G., Kim, S., Kim, Y., Oa, S. & Yoon, J. (2016): Assessment of Metals Loading in an Acid Mine Drainage Watershed. – Mine Water Environ., 35(1):44–54, doi:10.1007/s10230-015-0336-6.
• Pakhmode, V., Kulkarni, H. & Deolankar, S. B. (2003): Hydrological-drainage analysis in watershed-programme planning: a case from the Deccan basalt, India. – Hydrogeol. J., 11(5):595–604, 4 Abb., 5 Tab.; doi:10.1007/s10040-003-0279-z.
• Palandri, J. L. & Kharaka, Y. K. (2005): Ferric iron-bearing sediments as a mineral trap for CO₂ sequestration: Iron reduction using sulfur-bearing waste ga. – Chem. Geol., 217(3/4):351–364, 7 Abb., 1 Tab.
• Paliewicz, C. C., Sirbescu, M.-L. C., Sulatycky, T. & van Hees, E. H. (2015): Environmentally Hazardous Boron in Gold Mine Tailings, Timmins, Ontario, Canada. – Mine Water Environ., 34(2):162–180, doi:10.1007/s10230-014-0284-6.
• Palihakkara, C. R., Dassanayake, S., Jayawardena, C. & Senanayake, I. P. (2018): Floating Wetland Treatment of Acid Mine Drainage using Eichhornia crassipes (Water Hyacinth). – Journal of Health and Pollution, 8(17):14–19, doi:10.5696/2156-9614-8.17.14.
• Paliwoda, R. E., Newbigging, A. M., Wang, Z. & Le, X. C. (2016): Benefits and risks associated with consumption of Great Lakes fish containing omega-3 fatty acids and polychlorinated biphenyls (PCBs). – Journal of Environmental Sciences, 41:1–5, doi:10.1016/j.jes.2015.12.002.
• Pallier, V., Feuillade-Cathalifaud, G. & Serpaud, B. (2011): Influence of organic matter on arsenic removal by continuous flow electrocoagulation treatment of weakly mineralized waters. – Chemosphere, 83(1):21–29.
• Palme, R. (2000): Das Messingwerk Mühlau bei Innsbruck – Ein Innovationsversuch Kaiser Maximilians I. – aus den Quellen dargestellt. – 159 p., Hall i. T. (Berenkamp).
• Palmer, J. P. (1990): Reclamation and Decontamination of Metalliferous Mining Tailings. – Int. J. Mine Water, 9(1-4):223–235, 2 Abb., 3 Tab.
• Palmer, M. & El-Idrysy, H. (2015): Comparison of Borehole Testing Techniques and their Suitability in the Hydrogeological Investigation of Mine Sites. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Palmer, M., Waygood, C. & Lea, I. (2006): Case Study on the Remediation of Water Ingress to Old Gold Workings Linked to Active Mining Areas in South Africa. Paper presented at the ICARD 2006, St. Louis. – p. 1483–1494; (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)).
• Palmer, M. R. & Helvaci, C. (1995): The boron isotope geochemistry of the Kirka borate deposit, western Turkey. – Geochim. Cosmochim. Acta, 59(17):3599–3605.
• Palmer, M. R. & Helvaci, C. (1997): The boron isotope geochemistry of the Neogene borate deposits of western Turkey. – Geochim. Cosmochim. Acta, 61(15):3161–3169, Refs: 30; illus. incl. 5 tables, sketch maps.
• Palmer, M. W. & Bladen, C. (2025): Integrated Water Balance, Streamflow and Quality Model for Holistic Determination of Security of Water Supply and Ecological Flow Requirements at a West African Mineral Sands Mine. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 772–777; Braga (International Mine Water Association).
• Palmqvist, U., Ahlberg, E., Lövgren, L. & Sjöberg, S. (1997): In Situ Voltammetric Determinations of Metal Ions in Goethite Suspensions: Single Metal Ion Systems. – J. Colloid Interface Sci., 196(2):254–266, 11 Abb., 3 Tab.; doi:10.1006/jcis.1997.5189.
• Palmroth, M., Huttunen, H., Rissanen, R., Rantala, L. & Niskanen, I. (2008): Real-time Monitoring of Surface Water Quality Water Downstream of a Mine. – Proceedings, 10th International Mine Water Association Congress:77–80.
• Palumbo-Roe, B., Banks, V., Chenery, S. & Weiss, D. (2010): Tracing sources and fate of zinc in a mining-impacted river catchment: insights from flow measurements, synoptic sampling and zinc isotopes. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 383–387, Sydney, NS (Cape Breton University Press).
• Palumbo-Roe, B., Banks, V., Quigley, S. & Klinck, B. (2007): Sensitivity of Mine Spoil Heaps from an abandoned Lead Mine in Mid Wales (UK) to Changes in pH of natural Water Systems in the Context of Climate Change: Water in Mining Environments. – 105–110 p., 7 Abb.; Cagliari (Mako Edizioni).
• Palumbo-Roe, B., Colman, T., Cameron, D. G., Linley, K. & Gunn, A. G. (2010): The nature of waste associated with closed mines in England and Wales. – British Geol. Surv. Open Rep., OR/10/14:82, 21 Abb., 13 Tab.
• Palumbo-Roe, B., Crewdson, E., Jarvis, A., Gandy, C., Banks, V., Mulcahy, A., Zarate, M., Arrowsmith, C., Loft, S., Pullen, J., Moorhouse-Parry, A. & Potter, H. (2023): Insights Into Catchment Connectivity Using Water Stable Isotopes To Address Diffuse Mine Pollution In Streams. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 402–408; (International Mine Water Association).
• Pan, G., Lin, Y. & Wu, Y. (2013): The hydrogeological exploration and test technology to precisely determine the location of groundwater recharge channel in mining area. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 881–885, 3 Abb., 1 Tab.; Golden (International Mine Water Association).
• Pandey, S. K., Kim, K. H. & Tang, K. T. (2012): A review of sensor-based methods for monitoring hydrogen sulfide. – TrAC-Trend. Anal. Chem., 32:87–99, 2 Abb., 1 Tab.; doi:10.1016/j.trac.2011.08.008.
• Pandey, T. P., Maes, A. M., Sarode, H. N., Peters, B. D., Lavina, S., Vezzu, K., Yang, Y., Poynton, S. D., Varcoe, J. R., Seifert, S., Liberatore, M. W., Di Noto, V. & Herring, A. M. (2015): Interplay between water uptake, ion interactions, and conductivity in an e-beam grafted poly(ethylene-co-tetrafluoroethylene) anion exchange membrane. – Phys. Chem. Chem. Phys., 17(6):4367–78, 13 Abb., 2 Tab.; doi:10.1039/c4cp05755d.
• Pane, C., Villecco, D. & Zaccardelli, M. (2013): Short-Time Response of Microbial Communities to Waste Compost Amendment of an Intensive Cultivated Soil in Southern Italy. – Commun Soil Sci Plan, 44(15):2344–2352, doi:10.1080/00103624.2013.803566.
• Pánek, T. (2015): Recent progress in landslide dating: A global overview. – Progress in Physical Geography, 39:198, doi:10.1177/0309133314550671.
• Pánek, T. & Hradecký, J. (2016): Landscapes and Landforms of the Czech Republic: World Geomorphological Landscapes. – 422 p., Cham (Springer); doi:10.1007/978-3-319-27537-6.
• Pánek, T., Svennevig, K., Břežný, M. & Migoń, P. (2024): The occurrence, mechanisms and hazards of large landslides along tablelands. – Nature Reviews Earth & Environment, 5(10):686–700, doi:10.1038/s43017-024-00587-1.
• Pang, H. & Zhang, T. C. (1998): Fabrication of Redox Potential Microelectrodes for Studies in Vegetated Soils or Biofilm Systems. – Environ. Sci. Technol., 32(22):3646–3652, 7 Abb., 1 Tab.
• Pangarkar, V. G. (2015): Design of Multiphase Reactors. – 512 p., Hoboken (Wiley).
• Panizza, M. (2010): Importance of Electrode Material in the Electrochemical Treatment of Wastewater Containing Organic Pollutants. – In: Comninellis, C. & Chen, G. (eds): Electrochemistry for the Environment. – p. 25–54, 12 Abb., 6 Tab.; Heidelberg (Springer); doi:10.1007/978-0-387-68318-8_2.
• Pankow, K. L., Moore, J. R., Hale, J. M., Koper, K. D., Kubacki, T., Whidden, K. M. & McCarter, M. K. (2014): Massive landslide at Utah copper mine generates wealth of geophysical data. – GSA Today, 24(1):4–9, 4 Abb.; doi:10.1130/GSATG191A.1.
• Paños, N. H. (1999): Bio-Deshydrometallurgy. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 409–415, 6 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Paños, N. H. & Bellini, M. R. (1999): Microbial Degradation of Cyanides. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 201–206, 8 Abb.; Sevilla (International Mine Water Association).
• Paños, N. H., Gutierrez, L. & Senese, A. (2012): Approaches to predetermine the variables affecting the efficiency for the design of mining effluents and acidic drainage treatment systems: International Mine Water Association Symposium. – 265–274 p., Bunbury (Edith Cowan University).
• Panos, N. H., Gutierrez, L. V. & Senese, A. A. (2013): Influence of temperature in sulphate-reducing anaerobic bacteria (SRB) development and metal removal efficiency. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 687–690, 2 Abb., 1 Tab.; Golden (International Mine Water Association).
• Panova, I. A., Rusanov, I. I., Kadnikov, V. V., Latygolets, E. A., Avakyan, M. R., Ivanov, M. V., Zyusman, V. C., Kovaleva, A. A., Ravin, N. V., Pimenov, N. V. & Karnachuk, O. V. (2020): Sulfate Reduction in Underground Horizons of a Flooded Coal Mine in Kuzbass. – Microbiology (Moscow, Russ. Fed.), 89(5):542–550, doi:10.1134/s0026261720050185.
• Panteleev, V. M., Volkov, G. A. & Kuzkin, V. I. (1985): Biogenic nature of corrosivity of sulphide deposits mine water and some of its geochemical and mining-technical impacts. – Proceedings, 2nd International Mine Water Association Congress, 2:759–764.
• Pantelis, G., Ritchie, A. I. M. & Stepanyants, Y. A. (2002): A Conceptual Model for the Description of Oxidation and Transport Processes in Sulphidic Waste rock Dumps. – Appl. Math. Model., 26(7):751–770.
• Panturu, E., Groza, N., Filcenco-Olteanu, A., Jinescu, G. & Panturu, R.-I. (2009): In situ Decontamination of the Mine Waters from Uranium Mining Activities. – Rev. Chim., 60(12):1318–1323.
• Pany-Kucera, D. & Reschreiter, H. (2014): Im Berg statt am Herd? – Hinweise auf Frauen- und Kinderarbeit im Salzbergwerk von Hallstatt vor über 2500 Jahren. – In: Röder, B. (ed) Ich Mann. Du Frau. – Feste Rollen seit Urzeiten? – Begleitbuch zur Ausstellung des Archäologischen Museums Colombischlössle. – p. 166–179, 10 Abb.; Freiburg i.Br. (Rombach).
• Papini, G., Gossen, J. & Pierce, B. (2018): Consideration of Metal-Attenuation in Groundwater Quality Prediction. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 705–710; (Tshwane University of Technology).
• Papirio, S., Villa-Gomez, D. K., Esposito, G., Pirozzi, F. & Lens, P. N. L. (2013): Acid Mine Drainage Treatment in Fluidized-Bed Bioreactors by Sulfate-Reducing Bacteria: A Critical Review. – Crit. Rev. Environ. Sci. Technol., 43(23):2545–2580, doi:10.1080/10643389.2012.694328.
• Papp, A. & Turnovsky, K. (1953): Die Entwicklung der Uvigerinen im Vindobon (Helvet und Torton) des Wiener Beckens. – Jb. Geol. B.-A., 96:117–142, 3 Tab., 1 Taf.
• Papp, D. C. (2000): Deuterium content and salinity of the present free waters from the Rodna-Bargau Mountains, Romania: an assessment for their origin and underground dynamics. – J. Geochem. Explor., 69:429–433.
• Papp, D. C., Cociuba, I., Baciu, C. & Cozma, A. (2017): Origin and Geochemistry of Mine Water and its Impact on the Groundwater and Surface Running Water in Post-mining Environments: Zlatna Gold Mining Area (Romania). – Aquat. Geochem., 23(4):247–270, doi:10.1007/s10498-017-9321-y.
• Papp, R. Z. & Koba, M. (2025): Autonomous Robotic Exploration in Flooded Mines. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 592–597; Braga (International Mine Water Association).
• Papst, M., Preuße, A. & Sroka, A. (2016): Bodenbewegungen in Folge eines Grubenwasseranstiegs. – Veröff. Dt. Bergbau-Mus. Bochum, 217:164–172.
• Papunen, H. (1986): Geology and ore deposits of southwestern Finland. – In: Gaál, G. (ed) 17e Nordiska Geologmötet 1986 – Excursion guide, excursion C 3 – Metallogeny and ore deposits in South Finland Guide 16. – p. 8–18, Espoo (Geologian Tutkimuskeskus).
• Papunen, H. & Gorbunov, G. I. (1985): Nickel-copper deposits of the Baltic Shield and Scandinavian Caledonides. – Bull. Geol. Surv. Finland, 333:394, 165 Abb., 70 Tab., 2 Anl.
• Papunen, H., Häkli, T. A. & Idman, H. (1979): Geological, Geochemical and Mineralogical Features of sulfide-bearing ultramafic Rocks in Finland. – Can. Mineral., 17:217–232, 16 Abb., 1 Tab.
• Papunen, H. & Koskinen, J. (1985): Geology of the Kotalahti Nickel-Copper Ore. – Bull. Geol. Surv. Finland, 228-240:394, 5 Abb., 3 Tab.
• Parada, H., Wolff, M. S., Engel, L. S., Eng, S. M., Khankari, N. K., Neugut, A. I., Teitelbaum, S. L. & Gammon, M. D. (2016): Polychlorinated biphenyls and their association with survival following breast cancer. – European Journal of Cancer, 56:21–30, doi:10.1016/j.ejca.2015.11.023.
• Parafiniuk, J. (1996): Sulfate minerals and their origin in the weathering zone of the pyrite-bearing shists at Wieściszowice (Rudawy Janowickie Mts, Western Sudetes). – Acta Geol Pol, 46(3-4):353–414.
• Parafiniuk, J., Dobrzycki, Ł. & Woźniak, K. (2010): Slavikite – Revision of chemical composition and crystal structure. – Am. Mineral., 95(1):11–18, doi:10.2138/am.2010.3272.
• Parafiniuk, J. & Siuda, R. (2006): Schwertmannite precipitated from acid mine drainage in the Western Sudetes (SW Poland) and its arsenate sorption capacity. – Geol. Q., 50(4):475–486.
• Parafiniuk, J., Siuda, R. & Borkowski, A. (2016): Sulphate and arsenate minerals as environmental indicators in the weathering zones of selected ore deposits, Western Sudetes, Poland. – Acta Geol Pol, 66(3):493–508, doi:10.1515/agp-2016-0022.
• Paramananda, I. D., Hasanah, S., Nisa, L., Kusuma, G. J., Gautama, R. S., Badhurahman, A., Salmawati, S., Dwiki, S. & Rizki, I. N. (2025): Mine Closure Strategy for Pit Lakes Formation in Indonesia: Initial Framework for Open Pit Coal Mine. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 579–584; Braga (International Mine Water Association).
• Paramananda, I. K. D., Badhurahman, A., Kusuma, G. J., Gautama, R. S., Dwiki, S. & Salmawati, S. (2023): Modelling of Coal Pit Lake Quantity and Quality for Mine Closure (Case Study ON2 Area, Lati Mine Operation, Berau Coal). Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 409–414; (International Mine Water Association).
• Parbhakar-Fox, A., Aalders, J. & Lottermoser, B. (2015): Effective Field-Based Testing Tools for Rapid ARD Prediction. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–16 [electronic document], Santiago/Chile (Gecamin).
• Parbhakar-Fox, A., Fox, N., Ferguson, T., Hill, R. & Maynard, B. (2018): Dissection of the NAG pH Test: Tracking Efficacy Through Examining Reaction Products. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 949–955; (Tshwane University of Technology).
• Parekh, P. P., Khan, A. R., Torres, M. A. & Kitto, M. E. (2008): Concentrations of selenium, barium, and radium in Brazil nuts. – J. Food Compos. Anal., 21(4):332–335, doi:10.1016/j.jfca.2007.12.001.
• Parga, J. R., Rodrguez, M., Vzquez, V., Valenzuela, J. L. & Moreno, H. (2012): Recovery of Silver and Gold from Cyanide Solution by Magnetic Species Formed in the Electrocoagulation Process. – Miner. Process. Extr. Metall. Rev., 33(6):363–374.
• Parga, J. R., Valenzuela, J. L. & Vazquez, V. (2011): Analysis of the Adsorption of Gold and Silver on Magnetic Species Formed in the Electrocoagulation Process: Supplemental Proceedings: Materials Processing and Energy Materials 1. – 267–275 p., 6 Abb., 3 Tab.; Hoboken (Wiley & Sons).
• Parhi, P. K., Rao, M. S. & Asnani, C. K. (2022): Groundwater Hydrology Studies around a Carbonate Hosted Flatly Dipping Uranium Deposit and Environmental Management. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 373–378; (International Mine Water Association).
• Paris, E. (1982): Connection of mine water utilization and artificial recharg. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, ABCD Supplementary volume:149–162, 5 Abb.
• Parizek, R. R. (1971): Prevention of Coal Mine Drainage Formation by Well Dewatering. –.
• Parizek, R. R. & Tarr, E. G. (1972): Mine drainage pollution prevention and abatement using hydrogeological and geochemical systems. Paper presented at the 4th Symposium on Coal Mine Drainage Research, Pittsburgh. – p. 56–82, 11 Abb., 1 Tab.; Pittsburgh (Bituminous Coal Res. Inc.).
• Park, B. T., Wangerud, K. W., Fundingsland, S. D., Adzic, M. E. & Lewis, N. M. (2006): In situ Chemical and Biological Treatment Leading to Successful Water Discharge from Anchor Hill Pit Lake, Gilt Edge Mine Superfund Site, South Dakota, U.S.A. Paper presented at the ICARD 2006, St. Louis. – p. 1065–1069; (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)).
• Park, E. Y., Park, E., Kim, J., Oh, J.-K., Kim, B., Hong, Y.-C. & Lim, M. K. (2020): Impact of environmental exposure to persistent organic pollutants on lung cancer risk. – Environment International, 143:105–925, doi:10.1016/j.envint.2020.105925.
• Park, K.-H., Lee, S.-H., Kwon, S.-W., Jang, J.-R., Choi, Y. & Choi, H.-J. (2021): 북한 환경상태: 하수도와 폐기물 [Environmental Status in North Korea – Sewerage and Waste]. – 270 p., City Hall-daero (Korea Environment Institute).
• Park, M., Leahey, E. & Funk, R. J. (2023): Papers and patents are becoming less disruptive over time. – Nature, 613(7942):138–144, doi:10.1038/s41586-022-05543-x.
• Park, S.-S., Choi, K.-W., Kang, C.-U., Lee, J.-H., Park, M.-S., Kim, S.-J. & Lee, G.-H. (2023): Column Adsorption Experiments for the Removal of Arsenic and Fluoride Ions in Mine Drainage using Adsorbents. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 415–420; (International Mine Water Association).
• Park, S.-S., Lee, G.-H., Kim, D.-M., Park, M.-S. & Kim, S.-J. (2024): Column experiments on the settling characteristics of suspended solids in mine water treatment facilities. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 494–495; Morgantown (International Mine Water Association).
• Parker, A. R. (2009): Public Opinion Survey on Metals Mining in Guatemala. Association for Social Research and Study (ASIES), 9.
• Parker, J. C. & van Genuchten, M. T. (1984): Determining Transport Parameters from Laboratory and Field Tracer Experiments. – Bulletin – Virginia Agriculture Experiment Station, 84–3:96.
• Parker, K. (2003): Mine water management on a national scale – experiences from the Coal Authority. – Land Contam. Reclam., 11(2):181–190, 8 Abb., 2 Tab.; doi:10.2462/09670513.813.
• Parker, K., Ní Chonchubhair, R. & Novellino, A. (2025): Brine migration from deep flooded abandoned salt mines and its influence on surface stability. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 208–213; Braga (International Mine Water Association).
• Parker, L., Boughton, S., Bero, L. & Byrne, J. A. (2024): Paper mill challenges: past, present, and future. – Journal of Clinical Epidemiology, 176:111549, doi:10.1016/j.jclinepi.2024.111549.
• Parkhurst, D. F. (1998): Arithmetic Versus Geometric Means for Environmental Concentration Data. – Environ. Sci. Technol., 32(3):92A–98A, doi:10.1021/es9834069.
• Parkhurst, D. L. (1997): Geochemical mole-balance modeling with uncertain data. – Water Resour. Res., 33(8):1957–1970, doi:10.1029/97wr01125.
• Parkhurst, D. L. & Appelo, C. A. J. (1999): User’s Guide to PHREEQC (Version 2) – A Computer Program for Speciation, Batch-Reaction, One-Dimensional Transport, and Inverse Geochemical Calculations. – Water Resour. Investig. Rep., WRI 99-4259:312, 16 Abb., 56 Tab., 3 Anl.
• Parkhurst, D. L. & Appelo, C. A. J. (2013): Description of Input and Examples for PHREEQC Version 3 – A Computer Program for Speciation, Batch-Reaction, One-Dimensional Transport, and Inverse Geochemical Calculations. – U.S. Geol. Surv. Tech. Methods, 6(A43):1–497, 28 Abb., 62 Tab.; doi:10.3133/tm6A43.
• Parkhurst, D. L. & Wissmeier, L. (2015): PhreeqcRM: A reaction module for transport simulators based on the geochemical model PHREEQC. – Adv. Water Resour., 83:176–189, doi:10.1016/j.advwatres.2015.06.001.
• Parks, B., Kosinski, S., Williams, L. & Nicholson, A. (2015): Using Spatially Explicit Data and Modeling to Inform Ecological Risk Assessment at Mining Sites. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Parmar, J. & Qureshi, A. (2023): Accounting of the Use and Emissions of Polychlorinated Biphenyl Compounds (PCBs) in India, 1951–2100. – Environ. Sci. Technol., 57(12):4763–4774, doi:10.1021/acs.est.2c09438.
• Parra, A., Oyarzún, J., Maturana, H., Kretschmer, N., Meza, F. & Oyarzún, R. (2011): Natural factors and mining activity bearings on the water quality of the Choapa basin, North Central Chile: insights on the role of mafic volcanic rocks in the buffering of the acid drainage process. – Environ. Monit. Assess., 181(1-4):69–82, doi:10.1007/s10661-010-1814-8.
• Parry, W. T., Forster, C. B., Solomon, D. K. & James, L. P. (2000): Ownership of Mine-Tunnel Discharge. – Ground Water, 38(4):487–496, 6 Abb., 2 Tab.; doi:10.1111/j.1745-6584.2000.tb00240.x.
• Parshall, R. L. (1928): The Improved Venturi Flume. – Collorado Agricultural College Bulletin, 336:1–84, 30 Abb., 35 Tab.
• Parshall, R. L. (1936): The Parshall Measuring Flume. – Collorado Agricultural College Bulletin, 423:1–84, 30 Abb., 35 Tab.
• Parshley, J. V. & Bowell, R. J. (2003): The Limnology of Summer Camp Pit Lake: A Case Study. – Mine Water Environ., 22(4):170–186, 15 Abb., 2 Tab.; doi:10.1007/s10230-003-0020-0.
• Parsons, A. S. & Hunter, M. D. (1972): Investigation into the movement of groundwater from Bryn Pit above Ebbw Vale, Monmouthshire. – Water Pollut. Control, 71:568–572, 2 Abb., 1 Tab.
• Parsons, M. B., Bird, D. K., Einaudi, M. T. & Alpers, C. N. (2001): Geochemical and mineralogical controls on trace element release from the Penn Mine base-metal slag dump, California. – Appl. Geochem., 16(14):1567–1593.
• Parsons, R., Lacey, J. & Moffat, K. (2014): Maintaining legitimacy of a contested practice: How the minerals industry understands its ‘social licence to operate’. – Resour. Policy, 41:83–90, doi:10.1016/j.resourpol.2014.04.002.
• Parviainen, A. (2009): Tailings Mineralogy and Geochemistry at the Abandoned Haveri Au–Cu Mine, SW Finland. – Mine Water Environ., 28(4):291–304, 6 Abb., 3 Tab.; doi:10.1007/s10230-009-0088-2.
• Parviainen, A., Kauppila, T. & Loukola-Ruskeeniemi, K. (2012): Long-term lake sediment records and factors affecting the evolution of metal(loid) drainage from two mine sites (SW Finland). – J. Geochem. Explor., 114(3):46–56, 5 Abb., 4 Tab.; doi:10.1016/j.gexplo.2011.12.004.
• Parviainen, A. & Loukola-Ruskeeniemi, K. (2009): Arsenic mobility in the Cu-W-As tailings in SW Finland. – 1–8 [electronic document] p., 4 Abb.; Skellefteå (Proceedings Securing the Future 2009 & 8th ICARD).
• Pascaly, P. (1997): Forum – Leserbriefe. – Grundwasser, 2(4):185.
• Paschen, H., Oertel, D. & Grünwald, R. (2003): Möglichkeiten geothermischer Stromerzeugung in Deutschland – Sachstandsbericht: TAB Arbeitsbericht 84. – 124 p., 27 Abb., 13 Tab.; Berlin (Büro für Technikfolgen-Abschätzung beim Deutschen Bundestag).
• Paschoa, A. S. (1998): Potential Environmental and Regulatory Implications of Naturally Occurring Radioactive Materials (NORM). – Appl. Radiat. Isot., 49(3):189–196, 3 Abb., 3 Tab.
• Pascual, D. & McPhee, M. (2015): Fulfilment of EPA Discharge Requirements for ARD Using Co-Precipitation Iron Process at Neutral pH. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–8 [electronic document], Santiago/Chile (Gecamin).
• Pascucci, V., Gibling, M. R. & Williamson, M. A. (2000): Late Paleozoic to Cenozoic history of the offshore Sydney Basin, Atlantic Canada. – Can. J. Earth Sci., 37(8):1143–1165, 16 Abb.; doi:10.1139/cjes-37-8-1143.
• Pasierbiński, D. A., Magdalena, M., Andrzej, W., Bartosz, Ł., Wanda, J., Rafał, U., Agnieszka, B. & Pasierbiński, A. (2020): Multi-Faceted Environmental Analysis to Improve the Quality of Anthropogenic Water Reservoirs (Paprocany Reservoir Case Study). – Sensors, 20(9):2626, doi:10.3390/s20092626.
• Paskin, N. (2004): Digital Object Identifiers for scientific data. – 1–9 p., Berlin (Proceedings 19th International CODATA Conference).
• Passarge, S. (1973): Morphology of Climatic Zones or Morphology of Landscape Belts? – In: Derbyshire, E. (ed) Climatic Geomorphology. – p. 91–95, London (Macmillan).
• Pastor, J., Klinger, C., Talbot, C., Whitworth, K. & Llamas, J. M. S. (2008): Optimisation of mine water discharge by monitoring and modelling of geochemical processes and development of measures to protect aquifers and active mining areas from mine water contamination. – RTD Info, EUR 23456 EN:1–130.
• Paszkowski, D., Mendoza, C., Crozier, T. & Holtby, M. (2016): Adit Dewatering at a Proposed Gold Mine: Numerical Analysis of a Large-Scale Long-Term Pumping Test. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1134–1140, Freiberg (TU Bergakademie Freiberg).
• Patalas, N., Förster, A. & Klein, J. (1992): Untersuchungsbericht – Abscheidung von Schwermetallen aus saurem Grubenwasser. – Unpubl. Report for Fluß- und Schwerspat GmbH Rottleberode (Report Nr. ICU-14/109/92). – 9 p., 5 Tab.; Essen (DMT – Gesellschaft für Forschung und Prüfung mbH).
• Patel, J. K. & Read, C. B. (1996): Handbook of the normal distribution: Statistics: A Series of Textbooks and Monographs 150, 2nd edn. – New York (CRC Press).
• Patel, M. M., Goyal, B. R., Bhadada, S. V., Bhatt, J. S. & Amin, A. F. (2009): Getting into the Brain – Approaches to Enhance Brain Drug Delivery. – CNS Drugs 23(1):35–58, doi:10.2165/0023210-200923010-00003.
• Pat-Espadas, A. M., Loredo Portales, R., Amabilis-Sosa, L. E., Gómez, G. & Vidal, G. (2018): Review of Constructed Wetlands for Acid Mine Drainage Treatment. – Water, 10(11):1685.
• Pathak, V. & Banerjee, A. K. (1992): Mine Water Pollution Studies in Chapha Incline, Umaria Coalfield, Eastern Madhya Pradesh, India. – Mine Water Environ., 11(2):27–35, 3 Abb., 4 Tab.
• Patmak, B. D. (1985): Investigations of the hydrogeological Problems in some Mines in India. – Proceedings, 2nd International Mine Water Association Congress, 1:181–189.
• Patnaik, P. (2017): Handbook of Environmental Analysis: Chemical Pollutants in Air, Water, Soil, and Solid Wastes, 3rd edn. – London (CRC Press).
• Patoczka, J., Johnson, R. K. & Scheri, J. J. (1998): Trace Heavy Metals Removal with Ferric Chloride. – 1–14 p., 8 Abb., 6 Tab.; Nashville (Proceedings Water Environment Federation Industrial Wastes Technical Conference).
• Patra, D. & Barakat, C. (2011): Synchronous fluorescence spectroscopic study of solvatochromic curcumin dye. – Spectrochimica acta. Part A, Molecular and biomolecular spectroscopy, 79(5):1034–41, doi:10.1016/j.saa.2011.04.016.
• Patsa, L., Van Zyl, D., Zarrouk, S. & Arianpoo, N. (2015): Geothermal Energy in Mining Developments: Synergies and Opportunities Throughout a Mine’s Operational Life Cycle. Paper presented at the World Geothermal Congress 2015, Melbourne, 19–25 April 2015. – p. 1–14, 6 Abb., 1 Tab.; Melbourne (International Geothermal Association).
• Patterson, B. M., Robertson, B. S., Woodbury, R. J., Talbot, B. & Davis, G. B. (2006): Long-term Evaluation of a Composite Cover Overlaying a Sulfidic Tailings Facility. – Mine Water Environ., 25(3):137–145, 9 Abb., 1 Tab.
• Patterson, G. D. & Mellon, M. G. (1951): Automatic Operations in Analytical Chemistry. – Anal. Chem., 23(1):101–115, doi:10.1021/ac60049a020.
• Patterson, J. B. & Morris, E. C. (1994): Measurement of Absolute Water Density, 1 °C to 40 °C. – Metrologia, 31(4):277, doi:10.1088/0026-1394/31/4/001.
• Patterson, R. J. L. & Ferguson, K. D. (1994): The Gibraltar North Project Assessing Acid Rock Drainage. Paper presented at the International Land Reclamation and Mine Drainage Conference, Pittsburgh. – p. 12–21, 9 Abb., 5 Tab.
• Patton, F. D. (1979): Groundwater Instrumentation for Mining Projects: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 123–153 p., 10 Abb., 1 Tab.; San Francisco (Freeman).
• Patton, P. C. & Schumm, S. A. (1981): Ephemeral-Stream Processes: Implications for Studies of Quaternary Valley Fills. – Quat. Res., 15(1):24–43, doi:10.1016/0033-5894(81)90112-5.
• Patvaros, J. (1982): Feasibility of Mineral Extraction from Underwater Deposits without a lowering Water Table. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:153–164, 6 Abb.
• Paudyal, R., Kang, S., Sharma, C. M., Tripathee, L., Huang, J., Rupakheti, D. & Sillanpää, M. (2015): Major ions and trace elements of two selected rivers near Everest region, southern Himalayas, Nepal. – Environ. Earth Sci., 75(1):1–11, doi:10.1007/s12665-015-4811-y.
• Paugh, J. H. (1979): Drainage Control at a Central Florida Open Pit Phosphate Mine: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 463–480 p., 12 Abb., 2 Tab.; San Francisco (Freeman).
• Paul, B. C., Singh, G., Esling, S., Chaturvedula, S. & Paudel, H. (1998): The Impact of Scrubber Sludge on Ground Water Quality at an Abandoned Mine Site. – Environ. Monit. Assess., 50(1):1–13, 7 Abb.
• Paul, M. (2016): Progress and prospects of mine water management in the former East German Uranium Mining Province. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 6, Freiberg (TU Bergakademie Freiberg).
• Paul, M., Baacke, D., Metschies, T. & Kuhn, W. (2009): Post-Flooding Water Management at the Ronneburg Uranium Mine: Lessons Learned and Remaining Challenges. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 952–957, 2 Tab; Pretoria (Document Transformation Technologies).
• Paul, M., Gengnagel, M. & Baacke, D. (2005): Integrated water protection approaches under the WISMUT project: The Ronneburg case. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 369–380, Heidelberg (Springer).
• Paul, M., Gengnagel, M., Vogel, D. & Kuhn, W. (2002): Four years of flooding WISMUT’s Ronneburg uranium mine – a status report. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 783–792, 4 Abb., 4 Tab.; Heidelberg (Springer).
• Paul, M., Jenk, U., Meyer, J. & Gengnagel, M. (2006): Source Manipulation in Water Bodies of Flooded Underground Mines – Experiences from the Wismut Remediation Program: ICARD 2006. – 1514–1530 p., 5 Abb., 3 Tab.; St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06021514.
• Paul, M., Kassahun, A., Sommer, K., Meyer, J. & Braun, L. (2016): Advanced chemical oxidation for arsenic treatment at a flooded uranium mine with a bio-geochemically reduced mine water pool. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 894–901, Freiberg (TU Bergakademie Freiberg).
• Paul, M. & Lux, J. P. (2021): Michael Eckart 1959-2020. – Mine Water Environ., 40(3):805–807, doi:10.1007/s10230-021-00766-2.
• Paul, M., Metschies, T., Frenzel, M. & Meyer, J. (2011): The Mean Hydraulic Residence Time and Its Use for Assessing the Longevity of Mine Water Pollution from Flooded Underground Mines. – In: Merkel, B. & Schipek, M. (eds): The New Uranium Mining Boom. – p. 689–699, Heidelberg (Springer); doi:10.1007/978-3-642-22122-4_79.
• Paul, M., Meyer, J., Jenk, U., Baacke, D., Schramm, A. & Metschies, T. (2013): Mine Flooding and Water Management at uranium underground mines two decades after decommissioning. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1081–1087, 1 Abb., 1 Tab.; Golden (International Mine Water Association).
• Paul, M., Meyer, J., Jenk, U., Jahn, S. & Klemm, W. (2010): Investigation of arsenic emissions from flooded ore mines of the Westerzgebirge region, Saxony, Germany. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 387–391, Sydney, NS (Cape Breton University Press).
• Paul, M., Meyer, J., Jenk, U., Kassahun, A., Schramm, A., Baacke, D., Forbrig, N. & Metschies, T. (2015): Water Management – a Core Task of the Wismut Remediation Programme. – Mining Rep., 151(6):511–521, 4 Abb., 2 Tab.
• Paul, M., Rapantová, N., Wlosok, J., Licbinska, M., Jenk, U. & Meyer, J. (2016): Experience of mine water quality evolution at abandoned uranium mines in Germany and the Czech Republic. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 636, Freiberg (TU Bergakademie Freiberg).
• Paul, M. & Winde, F. (2022): Neue globale Trends in der Rohstoffindustrie – Internationales Potential und die zukünftige Rolle der deutschen Sanierungsexpertise. – Mining Rep. Glückauf, 158(6):533–546.
• Pauley, E., Shumaker, T. & Cole, B. (2003): Non-Injury Mine Inundation Accident (Entrapment) July 24, 2002 – Black Wolf Coal Company, Inc. Quecreek No. 1 Mine – CMAP # 56981301 – Quecreek, Somerset County, Pennsylvania. – Report of Investigations – Pennsylvanian Department of Environmental Protection Bureau of Deep Mine Safety:52, 26 Abb., 23 Anl.
• Paull, D., Banks, G., Ballard, C. & Gillieson, D. (2006): Monitoring the Environmental Impact of Mining in Remote Locations through Remotely Sensed Data. – Geocarto Int., 21(1):33–42, doi:10.1080/10106040608542372.
• Paulson, A. J. (1997): The transport and fate of Fe, Mn, Cu, Zn, Cd, Pb and SO₄ in a groundwater plume and in downstream surface waters in the Coeur d’Alene mining district, Idaho, U.S.A. – Appl. Geochem., 12(4):447–464, 11 Abb., 5 Tab.
• Paulsson, O. & Widerlund, A. (2022): Geochemical Loading Rates from Open Pit Walls at the Åkerberg and Laver Mine Sites in Relation to Pit Lake Water Quality. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 379–384; (International Mine Water Association).
• Pauwels, H., Fouillac, C. & Fouillac, A. M. (1993): Chemistry and Isotopes of Deep Geothermal Saline Fluids in the Upper Rhine Graben – Origin of Compounds and Water-Rock Interactions. – Geochim. Cosmochim. Acta, 57(12):2737–2749, doi:10.1016/0016-7037(93)90387-C.
• Pavel, E. W., Reneau, R. B., Jr., Berry, D. F., Smith, E. P. & Mostaghimi, S. (1996): Denitrification potential of nontidal riparian wetland soils in the Virginia coastal plain. – Water Res., 30(11):2798–2804.
• Pavicevic, M. K. & El Goresy, A. (1987): Mineralogy of the Uranium Deposit of Žirovski Vrh, Slovenia/Yugoslavia – A Reflected Light, SEM, Electron Microprobe and PIXE Investigation. – Monograph Series on Mineral Deposits, 27:113–128, 13 Abb., 4 Tab.
• Pavlovic, V., Ignjatovic, D. & Subaranovic, T. (2016): Realization of the operational strategy for the rehabilitation of the flooded opencast mine Tamnava-West Field. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 578–585, Freiberg (TU Bergakademie Freiberg).
• Pavoni, N. (1968): Über die Entstehung der Kiesmassen im Bergsturzgebiet von Bonaduz-Reichenau (Graubünden). – Eclogae geol. Helv., 61(2):494–500, doi:10.5169/seals-163598.
• Pavúk, P., Pieniążek, M. & Riehl, S. (2014): Troy and the Troad in the Second Millennium: Changing Patterns in Landscape Use. Paper presented at the L’Environnement Naturel et la Relation Homme-Milieu dans le Monde Égéen Protohistorique, Paris. – p. 111‒124, 9 Abb.; Liège (Aegaeum).
• Pavuza, R. & Traindl, H. (1991): Zur Hydrogeologie einiger Kontaminierter Karstquellen in Österreich. – Höhle – Z. Karst- und Höhlenkd. – Wiss. Beih., 39:36–42, 5 Abb.
• Pavuza, R. J. (1983): Karsthydrogeologische Untersuchungen in den Kalkvoralpen S Waidhofen/Ybbs (Niederösterreich). – Mitt. Ges. Geol. Bergbaustud., 29:133–160, 13 Abb., 1 Tab.
• Pavuza, R. J. & Traindl, H. (1982): Quellsinterbildungen. – Karst-Bull., 2(2):6–8, 3 Abb.
• Pavuza, R. J. & Traindl, H. (1983): Über Dolomitkarst in Österreich. – Höhle – Z. Karst- und Höhlenkd., 34(1):15–25, 7 Abb., 1 Tab.
• Pavuza, R. J. & Traindl, H. (1985): Zur Hydrochemie und Bakteriologie alpiner Karstwässer. – Höhle – Z. Karst- und Höhlenkd., 36(4):123–142, 5 Abb., 5 Tab.
• Pavuza, R. J. & Traindl, H. (1989): Wechselwirkung von Karst- und Grundwasser im Unterinntal [Interaction of karst and ground water in the lower Inn Vally, Tyrol, Austria]. – Proceedings, international symposium on physical, chemical and hydrological research of karst 1988:67–70, 4 Abb.
• Pavuza, R. J. & Traindl, H. (1990): Temperaturanomalien einiger alpiner Karstquellen. – Karst-Bull., 12:34–41, 6 Abb., 6 Tab.
• Pawlik, M., Gellendin, M., Bernsdorf, B., Rudolph, T. & Benndorf, J. (2022): Digital-Twin – How to Observe Changes and Trends on the Post-Mining Areas? – Int. J. Earth Environ. Sci., 7(1):195, doi:10.15344/2456-351x/2022/195.
• Pawlowska, A. (2025): Interaction between bacteria and minerals in post-mining heaps in view of metal(loid) release. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 926–931; Braga (International Mine Water Association).
• Payne, F. C., Quinnan, J. A. & Potter, S. T. (2008): Remediation Hydraulics. – 432 p., zahlr. Abb., zahlr. Tab.; Boca Raton (CRC Press).
• Pearce, J. & Gutierrez, J. (2015): Opportunistic AMD Sampling from Multi-Discipline Drilling Programs for Large Mining Companies. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Pearce, J. M. & Kemp, S. J. (1994): A Geochemical Study of Acid Mine Water from a Pyrite Mine, North Wales. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:561–575, 3 Abb., 2 Tab.
• Pearce, P. F. & Ries, E. R. (1982): Protection of environmental resources by effective mine water management. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, C:80–95, 6 Abb., 3 Tab.
• Pearce, S., Dobchuk, B., Shurniak, R., Song, J. & Christensen, D. (2016): Linking waste rock dump construction and design with seepage geochemistry: an integrated approach using quantitative tools. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 512–519, Freiberg (TU Bergakademie Freiberg).
• Pearce, S. & Pearce, J. (2016): Advanced Customisable Leach Columns (ACLC) – A New Kinetic Testing Method to Predict AMD risks by Simulating Site-specific Conditions. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 321–328, Freiberg (TU Bergakademie Freiberg).
• Pearce, S. & Pearce, J. (2016): Validating WRD conceptual models and implications for mine closure in semi arid environments: a high level assessment using field data. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1242–1245, Freiberg (TU Bergakademie Freiberg).
• Pearce, S., Scott, P. & Weber, P. (2015): Waste Rock Dump Geochemical Evolution – Matching Lab Data, Models and Predictions with Reality. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Pearce, S. R. & Barteaux, M. (2017): Gas Flux Rates and the Linkage with Predicting AMD Loads in Waste Rock Dumps, and Designing Practical Engineered Solutions – Field Based Case Studies in Three Distinct Climates. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 595–602, Lappeenranta (Lappeenranta University of Technology).
• Pearce, S. R., Barteaux, M., Orr, M., Nugraha, C., Purnamasari, H., Grohs, K. & Hertrijana, J. (2017): Progressive Management of AMD Risk During Construction of an Integrated Waste Storage Landform – A Case Study of Managing Gas Flux Through Optimised Waste Placement Strategies at Martabe Gold Mine, Indonesia. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 610–617, Lappeenranta (Lappeenranta University of Technology).
• Pearce, S. R., Brookshaw, D., Mueller, S. & Barnes, A. (2021): Evaluating Circum-neutral Mine Drainage: Case Studies of Advanced Testing Methods Generating Representative Empirical Data. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 412–417; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Pearse, M. J. (2005): An overview of the use of chemical reagents in mineral processing. – Miner. Eng., 18(2):139–149, doi:10.1016/j.mineng.2004.09.015.
• Pearson, B., Whittle, P., French, B. & Chen, J. (2014): Tracking the Fate of Mine Derived Sediments Using Chemical Fingerprinting and Statistical Analysis. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 161–165, Xuzhou (International Mine Water Association).
• Pearson, M. A., Biagioni, R. N. & Gutiérrez, M. (2019): Geochemical Fractionation of Stream Sediments Impacted by Pb-Zn Mining Wastes: Missouri, USA. – Mine Water Environ., 38(2):378–384, doi:10.1007/s10230-018-0568-3.
• Pecehniuk, O. & Bortsov, V. (2017): Heritage of the Soviet Union in the Context of Sovereign Kyrgyzstan. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1283–1289, Lappeenranta (Lappeenranta University of Technology).
• Pechar, J. (1978): Kohle und Eisen in allen Ländern der Erde. – 248 p., Berlin (Springer); doi:10.1007/978-3-662-36559-5.
• Peck, P., Balkau, F., Bogdanovic, J., Sevaldsen, P., Fernandez Skaalvik, J., Simonett, O., Thorsen, T. A., Kadyrzhanova, I., Svedberg, P. & Daussa, R. (2005): Mining for Closure – Policies and guidelines for sustainable mining practice and closure of mines. – 97 p., Paris (UNEP, UNDP, OSCE, NATO).
• Pedder, R. K. & El Idrysy, H. (2013): The combined use of spinner flow logging and geotechnical information to investigate the hydraulic properties of fractured rock mass. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 175–180, 5 Abb.; Golden (International Mine Water Association).
• Pedretti, D., Beckie, R. & Mayer, K. U. (2017): Risk Assessment Of Acidic Drainage From Waste Rock Piles Using Stochastic Muticomponent Reactive Transport Modeling. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 696–702, Lappeenranta (Lappeenranta University of Technology).
• Pedretti, D., Mayer, K. U. & Beckie, R. D. (2017): Stochastic multicomponent reactive transport analysis of low quality drainage release from waste rock piles: Controls of the spatial distribution of acid generating and neutralizing minerals. – J. Contam. Hydrol., 201:30–38, doi:10.1016/j.jconhyd.2017.04.004.
• Pedroni, L., Dromer, J.-B., Aubertin, M. & Kennedy, G. (2006): Properties of Treatment Sludge During Sedimentation and Consolidation Tests: ICARD 2006 7. – 1531–1544 p., 8 Abb., 1 Tab.; St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06021531.
• Peer, R. A. M., Strosnider, W. H. J., Winfrey, B. K. & Nairn, R. W. (2013): Passive Co-Treatment of Acid Mine Drainage and Municipal Wastewater: Removal of Less Commonly Addressed Metals at Cerro Rico de Potosí, Bolivia. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 691–692, 1 Abb.; Golden (International Mine Water Association).
• Peeters, F. & Kipfer, R. (2009): Currents in Stratified Water Bodies 1: Density-Driven Flows. – In: Likens, G. E. (ed) Encyclopedia of Inland Waters. – p. 530–538, Oxford (Academic Press); doi:10.1016/B978-012370626-3.00080-6.
• Peeters, F. & Wüest, A. (1992): Mess-System zur Erfassung dreidimensionaler Tracerverteilungen in Seen. – GWA Gas Wasser Abwasser, 72(7):456–461, 6 Abb.
• Peh, Z., Šorša, A. & Halamić, J. (2010): Composition and variation of major and trace elements in Croatian bottled waters. – J. Geochem. Expl., 107(3):227–237, doi:https://doi.org/10.1016/j.gexplo.2010.02.002.
• Pehlivan, R. (2003): The effects on human health and hydrogeochemical characteristics of the Kirkgeçit and Ozancik hot springs, Çanakkale, Turkey. – Environ. Geochem. Health, 25(2):205–217, 7 Abb., 4 Tab.; doi:10.1023/A:1023205900038.
• Pei, Y. (1988): The Main Hydrogeological Characteristics of Mineral Deposits in China. – Proceedings, 3rd International Mine Water Congress, Melbourne:93–101, 5 Abb.
• Peikam, E. N. & Jalali, M. (2017): Potential Release of Metals from Tailings and Soil at the Hamekasi Iron Mine, Hamadan, Iran. – Mine Water Environ., 36(2):180–192, doi:10.1007/s10230-016-0425-1.
• Pejcinovic, J., Brasnjevic, R. & Cvjetic, A. (1997): Groundwaters in Mine “Trepca” and Drainage Problems. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:185–193, 6 Abb.
• Pekdeğer, A. & Özgür, N. (1995): Hydrogeochemical investigations of acid drainage water from the Emirli antimony mine, Western Turkey: Water-Rock Interaction 8. – 891–893 p., 6 Abb.; Rotterdam u.a. (Balkema).
• Peksezer-Sayit, A., Cankara-Kadioglu, C. & Yazicigil, H. (2015): Assessment of Dewatering Requirements and their Anticipated Effects on Groundwater Resources: A Case Study from the Caldag Nickel Mine, Western Turkey. – Mine Water Environ., 34(2):122–135, doi:10.1007/s10230-014-0306-4.
• Peksezer-Sayit, A. & Yazicigil, H. (2022): Assessment of Dewatering Requirements and Dewatering Well Design for an Open Pit Coal Mine in Central Anatolia. – Mine Water Environ., 41(3):748–763, doi:10.1007/s10230-022-00877-4.
• Pelayo, B. C., Menéndez, R., Cueva, J. M., Loredo, J. & Pendas, F. (2005): Underground water flow modelling in finite elements with uncertain propagation: Application to mining: Mine Water 2005 – Mine Closure. – 467–473 p., 4 Abb.; Oviedo (University of Oviedo).
• Pelletier, R. A. (1941): Mineral resources of South Africa and the Rhodesias and their importance in relation to the mineral wealth of the British Empire. – S. Afr. J. Geol., 44(01):25–78.
• Pellicori, D. A., Gammons, C. H. & Poulson, S. R. (2005): Geochemistry and stable isotope composition of the Berkeley pit lake and surrounding mine waters, Butte, Montana. – Appl. Geochem., 20(11):2116–2137, doi:10.1016/j.apgeochem.2005.07.010.
• Pelz, F. (2004): Untersuchungen im Zeitraum 1982 bis 1991 zur Nutzung der geothermischer Energie der Lagerstätte Schlema-Alberoda. – 20 p., 9 Abb., 1 Tab.; Schlema (Unveröff. Vortrag).
• Pena, E., Suárez, J., Sánchez-Tembleque, F., Jácome, A. & Puertas, J. (2004): Characterization of polluted Runoff in a Granite Mine, Galicia (Spain). – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 185–194, 5 Abb., 5 Tab.; Newcastle upon Tyne (University of Newcastle).
• Pena-Pereira, F., Lavilla, I. & Bendicho, C. (2009): Miniaturized preconcentration methods based on liquid–liquid extraction and their application in inorganic ultratrace analysis and speciation – A review. – Spectrochim. Acta Part B, 64:1–15, doi:10.1016/j.sab.2008.10.042.
• Penck, A. (1882): Die Vergletscherung der deutschen Alpen. – 483 p., Leipzig.
• Penck, A. (1905): Glacial Features in the Surface of the Alps. – J. Geol., 13(1):1–19.
• Pendás, F., Cienfuegos, P., García, R., Cueva, J. M., Pelayo, C. & Loredo, J. (2007): Consequences of Pumping Cessation at Reocin Mine, Cantabria (Spain): Water in Mining Environments. – 111–115 p., 5 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Pendás, F., Cienfuegos, P. & Loredo, J. (2008): Hydrochemical Signature of Formation Waters Associated to Unconventional Gas Resources – Application to Central Coal Basin (Spain). – Proceedings, 10th International Mine Water Association Congress:27–30.
• Peng, L. & Cheng, L. (2014): Identification of Water Filling Source by Hydrochemical Characteristics at Liuqiao No.1 Coal Mine. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 574–578, Xuzhou (International Mine Water Association).
• Peng, T., Wu, J., Zhang, H., Shen, S. & Ren, Z. (2014): Comprehensive Evaluation and Analysis of Water-inrush Source in Wolonghu Coal Mine. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 81–84, Xuzhou (International Mine Water Association).
• Penrose, R. G., Jr. (1974): Limestone selection for permeable plug mine seals. – Papers Presented Before the Symposium on Coal Mine Drainage Research, 5:133–145, 6 Abb., 1 Tab.
• Pentreath, R. J. (1994): The discharge of waters from active and abandoned mines. – In: Hester, R. E. & Harrison, R. M. (eds): Mining and its Environmental Impact 1. – p. 121–132, (The Royal Society of Chemistry); doi:10.1039/9781847551467-00121.
• Pentreath, R. J. & Hamilton, R. M. (1994): A regulator’s view of policy changes requiered in England and Wales to control the problems arising from abandoned mines. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:759–767, 2 Tab.
• Pentti, E., Heikkinen, E. & Vaittinen, T. (2021): Application Of Detailed Interval Flow Data Measured In Drillholes With PFL Tool In Hydrogeological Conceptualization And Numerical Flow Modelling For Mine Feasibility Scoping. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 418–424; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Pentz, D. L. (1979): Case Examples of Open Pit Mine Drainage: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 324–341 p., 12 Abb.; San Francisco (Freeman).
• Pepe, M. G. & Byrne, J. J. (1980): Adhesion-binding of 2,2′,4,4′,5,5′-hexachlorobiphenyl to glass and plastic: A possible source of error for PCB analysis. – Bull. Environ. Contam. Toxicol., 25(1):936–940, doi:10.1007/BF01985634.
• Pepin, G., Bussière, B., Aubertin, M., Benzaazoua, M., Plante, B., Laflamme, D. & Zagury, G. J. (2008): Field Experimental Cells to Evaluate the Generation of Contaminated Neutral Drainage by Waste Rock at the Tio Mine, Quebec, Canada. – Proceedings, 10th International Mine Water Association Congress:309–312.
• Peplow, D. (2003): Distinguishing natural from man-caused trace element contamination using causal inferential methods for Ecoepidemiologists. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 331–349, 9 Abb., 3 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Peplow, D. & Edmonds, R. (2006): Cell Pathology and Developmental Effects of Mine Waste Contamination on Invertebrates and Fish in the Methow River, Okanogan County, Washington (USA). – Mine Water Environ., 25(4):190–203, 6 Abb., 2 Tab.
• Peppoloni, S. & Di Capua, G. (2022): Geoethics – Manifesto for an Ethics of Responsibility Towards the Earth. – 123 p., Cham (Springer); doi:10.1007/978-3-030-98044-3.
• Pera, F. (1982): Special Control Methods of Underground Water and Sediment in the Veszprém Coal Mining Company. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:165–176, 6 Abb.
• Pereira, G., Rocha, H., Hoffert, D. & Paiva, P. (2016): AcquaTailings: A Tool for Streamlining Mining Water Budgets. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1226–1233, Freiberg (TU Bergakademie Freiberg).
• Pereira, M. R., Almeida, C. & Montes, R. (2005): Arsenic and trace metals in groundwater of abandoned Au-Ag Freixeda Mine (Portugal NE): Mine Water 2005 – Mine Closure. – 75–79 p., 4 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Pereira, W. E., Rostad, C. E. & Taylor, H. E. (1980): Mount St. Helens, Washington, 1980 volcanic eruption: Characterization of organic compounds in ash samples. – Geoph. Res. Letters, 7(11):953–954, doi:10.1029/GL007i011p00953.
• Peres, A., Agarwal, N., Bartalini, N. & Beda, D. (2000): Environmental impact of an etheramine utilized as flotation collector. – Proceedings, 7th International Mine Water Association Congress:464–471, 2 Tab.
• Peres, A. E. C. & Guimaraes, R. C. (1999): Closed Water Circuit in a Phosphate Ore Concentrator. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 417–422, 6 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Perez, A. A. (2011): Minerals Yearbook – The Mineral Industry of Finland. – p. 15.1–15–5, 2 Tab.; Reston (U.S. Geol Survey).
• Pérez-Franco, D. (1982): Nono-Linear Flow of Ground Water during Mine Dewatering Operations. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:195–208, 3 Abb.
• Pérez-López, R., Cama, J., Nieto, J. M. & Ayora, C. (2005): The role of iron coating in the oxidative dissolution of a pyrite-rich sludge: Mine Water 2005 – Mine Closure. – 575–579 p., 7 Abb.; Oviedo (University of Oviedo).
• Pérez-López, R., Nieto, J. M. & Almodóvar, G. R. (2005): Geochemistry and mineralogy of hardpan formation processes at the interface between sulphide-rich sludge and fly ash: Mine Water 2005 – Mine Closure. – 581–585 p., 5 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Pérez-López, R., Nieto, J. M. & Almodóvar, G. R. (2005): The use of alkaline residues for the inhibition of acid mine drainage processes in sulphide-rich mining wastes: Mine Water 2005 – Mine Closure. – 5–10 p., 7 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Pérez-Sindín, X. & Blanchette, M. L. (2020): Understanding Public Perceptions of a New Pit Lake in As Pontes, Spain. – Mine Water Environ., 39(3):647–656, doi:10.1007/s10230-020-00651-4.
• Perjés, T. (1982): Hydrogeological and environmental Analyses of the Relationship between surface Mining and riverine Water Well. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, C:96–101, 1 Abb.
• Perkin Elmer Filters (2000): Perkin Elmer Filtration Units Validation Experiments September 1997. https://faculty.washington.edu/glenny/fmrc/ResVal/PEFilters97.shtml Accessed 2000-02-01.
• Perkins, W. T., Hartley, S., Pearce, N. J. G., Dinelli, E., Edyvean, R. G. J., Priestman, G., Sandlands, L. & Bachmann, R. (2007): Laboratory Scale Testing of the Adsorption Characteristics of dealginated Seaweed: Results from the Bioman Project: Water in Mining Environments. – 249–253 p., 1 Abb.; Cagliari (Mako Edizioni).
• Permanent Secretariat of the International Commission for the Protection of the Danube, R. & Zinke Environment, C. (2002): Regional Inventory of Potential Accidental Risk Spots in the Tisa catchment area of Romania, Hungary, Ukraine and Slovakia. – 49 p., 1 Abb., 5 Tab.; Vienna (International Commission for the Protection of the Danube River).
• Pernicka, E. (2009): Der prähistorische Bergbau in Europa und archäometallurgische Untersuchungen im Montafon: Montafon: Besiedlung – Bergbau – Relikte 2. – 66–79 p., Schruns (Eigenverlag Stand Montafon).
• Pernicka, E., Lutz, J. & Stöllner, T. (2016): Bronze Age Copper Produced at Mitterberg, Austria, and its Distribution. – Archaeologia Austriaca, 100:19–55.
• Pernicka, E., Schubiger, P. A. & Mueller, O. (1978): Radiochemical neutron-activation analysis of sulphide ores using zinc diethyldithiocarbamate as extraction reagent. – Analyst, 103(1226):475–481, illus.
• Perotti, M., Ghezzi, L., Casiot, C., D’Orazio, M., Giannecchini, R. & Petrini, R. (2017): The Geochemistry of Pore Waters in Riverbed Sediments in a Mining-Impacted Landscape: Sources of Potentially Toxic Elements. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 732–736, Lappeenranta (Lappeenranta University of Technology).
• Perotti, M., Ghezzi, L., Giannecchini, R., D’Orazio, M., Vezzoni, S., Cidu, R. & Petrini, R. (2017): Thallium and Other Potentially Toxic Elements in Surface Waters Contaminated by Acid Mine Drainages in Southern Apuan Alps (Tuscany). – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 728–731, Lappeenranta (Lappeenranta University of Technology).
• Perotti, M., Petrini, R., D’Orazio, M., Ghezzi, L., Giannecchini, R. & Vezzoni, S. (2018): Thallium and Other Potentially Toxic Elements in the Baccatoio Stream Catchment (Northern Tuscany, Italy) Receiving Drainages from Abandoned Mines. – Mine Water Environ., 37(3):431–441, doi:10.1007/s10230-017-0485-x.
• Perren, W., Wojtasik, A. & Cai, Q. (2018): Removal of Microbeads from Wastewater Using Electrocoagulation. – ACS Omega, 3(3):3357–3364, doi:10.1021/acsomega.7b02037.
• Perrin, C. J., Wilkes, B. & Richardson, J. S. (1992): Stream periphyton and benthic insect responses to additions of treated and mine drainage in a continuous-flow on-site mesocosm. – Environ. Toxicol. Chem., 11(11):1513–1525, 3 Abb., 5 Tab.
• Perry, A. & Kleinmann, R. L. P. (1991): The use of constructed wetlands in the treatment of acid-mine drainage. – Nat. Resour. Forum (Netherlands), 15(3):178–184, doi:10.1111/j.1477-8947.1991.tb00131.x.
• Perry, E. F. (2000): Mine Drainage Prediction, a Summary of Concepts and Processes. – In: Kleinmann, R. L. P. (ed) Prediction of Water Quality at Surface Coal Mines. – p. 168–194, 5 Abb., 6 Tab.; Morgantown (National Mine Land Reclamation Center).
• Perry, E. F. (2001): Modelling rock-water interactions in flooded underground coal mines, Northern Appalachian Basin. – Geochem.-Explor. Environ. Anal., 1(1):61–70, 4 Abb., 6 Tab.
• Perry, E. F. (2009): Chemical and physical properties of abandoned underground coal mine pools. – Graduate Theses, Dissertations, and Problem Reports, 2890:1–379, doi:10.33915/etd.2890.
• Perry, E. F. & Evans, R. S. (1999): Application of geochemical modeling and hydrologic techniques to interpret sources, mixing and evolution of mine drainage. – In: Bengson, S. A. & Bland, D. M. (eds): Mining and Reclamation for the Next Millennium 2. – p. 444–452, 1 Abb., 4 Tab.; Boulder (Proceedings 16th Annual National Meeting – American Society for Surface Mining and Reclamation); doi:10.21000/JASMR99010444.
• Perry, E. F. & Rauch, H. W. (2004): Long-Term Water Quality Trends in a Partly Flooded Underground Coal Mine. Paper presented at the West Virginia Surface Mine Drainage Task Force. – p. 1–24 [elektronisches Dokument], 10 Abb., 5 Tab.
• Perry, E. F. & Rauch, H. W. (2012): Estimating Water Quality Trends in Abandoned Coal Mine-pools. – p. 1–12 [USB flash drive], 5 Abb., 2 Tab.; Ottawa (Proceedings 9th International Conference on Acid Rock Drainage (ICARD)).
• Perry, E. F. & Rauch, H. W. (2013): Estimating Water Quality Trends in Abandoned Coal Mine-pools. – Proceedings, West Virginia Mine Drainage Task Force Meeting:1–11 [elektronisches Dokument], 4 Abb., 4 Tab.
• Perry, R. S., Dudeney, A. W. L. & Chan, B. K. C. (2016): Characteristics and treatment of mine water from three historical coal workings in Yorkshire, UK: interrelationships between rates in geochemical, environmental and operational processes. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 970–976, Freiberg (TU Bergakademie Freiberg).
• Persson, J., Somes, N. L. G. & Wong, T. H. F. (1999): Hydraulics efficiency of constructed wetlands and ponds. – Water Sci. Technol., 40(3):291–300, 4 Abb., 3 Tab.; doi:10.1016/S0273-1223(99)00448-5.
• Perzoff, T., Banning, J., Kingston, S. & Hoos, R. (2013): The challenges of re-opening historical Canadian mine sites with respect to water quality. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1089–1094, 1 Abb.; Golden (International Mine Water Association).
• Pesta, O. (1924): Hydrobiologische Studien über Ostalpenseen. – Archiv für Hydrobiologie, Suppl. III:I–IV; 385–595, doi:10.5962/bhl.title.51999.
• Pester, S. (2005): Modellierung des Wärmetransports im Umfeld eines Grubengebäudes mittels FEFLOW. – 84 p., 44 Abb., 22 Tab., 5 Anl.; Freiberg (unveröff. Dipl.-Arb. TU Bergakademie Freiberg).
• Pester, S., Kühne, K., Maul, A.-A. & Schulz, R. (2006): Aufbau eines geothermischen Informationssystems für Deutschland. – Wiss. Mitt. Inst. Geol., 31:221–225, 2 Abb., 1 Tab.
• Petach, T. N., Runkel, R. L., Cowie, R. M. & McKnight, D. M. (2021): Effects of hydrologic variability and remedial actions on first flush and metal loading from streams draining the Silverton caldera, 1992–2014. – Hydrol. Process., 35(11):15, doi:10.1002/hyp.14412.
• Peterhans, J. C. K., Celesia, G. G. & Gnoske, T. P. (2019): Lion-Porcupine Interactions in Africa, Including Impacts on Lion Predatory Behavior. – J. East Afr. Nat. Hist., 108(1):1–15, doi:10.2982/028.108.0101.
• Peterhans, J. C. K. & Gnoske, T. P. (2001): The Science of ‘Man-Eating’ Among Lions Panthera leo with a Reconstruction of the Natural History of the ‘Man-Eaters of Tsavo’. – J. East Afr. Nat. Hist., 90(1):1–40, doi:10.2982/0012-8317(2001)90[1:TSOMAL]2.0.CO;2.
• Peterka, J., Čech, M., Draštík, V., Jůza, T., Frouzová, J., Prchalová, M. & Kubečka, J. (2011): Ten years of fish community succession in post-mining lake Milada-Chabařovice: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 535–536 p., Aachen (RWTH Aachen University).
• Peterka, J. & Kubecka, J. (2011): Fish in the pit lakes – towards a functional ecosystem: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 537–538 p., Aachen (RWTH Aachen University).
• Peters, T. (2010): Membrane Technology for Water Treatment. – Chem. Eng. Technol., 33(8):1233–1240, 11 Abb.; doi:10.1002/ceat.201000139.
• Petersen, A. & Lupton, D. (2000): The New Public Health: Health and self in the age of risk. – London (Sage Publications); doi:10.4135/9781446217429.
• Peterson, B. J., Bahr, M. & Kling, G. W. (1997): A tracer investigation of nitrogen cycling in a pristine tundra river. – Canadian Journal of Fisheries and Aquatic Sciences, 54(10):2361–2367, 3 Abb., 1 Tab.
• Peterson, C. (2009): pH Dependence and Unsuitability of Fluorescein Dye as a Tracer for Pesticide Mobility Studies in Acid Soil. – Water Air Soil Pollut., 209(1-4):473–481, doi:10.1007/s11270-009-0215-5.
• Peterson, H. E., Mayer, U. & Beckie, R. (2015): The Effects of Preferential and Matrix Flow and Water Residence Time on Seasonal Fluctuations in Mine Waste Rock Effluent Water Quality. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Petkovšek, B. & Ločniškar, A. (1991): Water Inrushes onto the Face of the Karavanke Tunnel. – Proceedings, 4th International Mine Water Association Congress, 1:265–278, 6 Abb.
• Petkovsek, G., Hassan, M., Lumbroso, D. & Collell, M. R. (2021): A Two-Fluid Simulation of Tailings Dam Breaching. – Mine Water Environ., 40(1):151–165, doi:10.1007/s10230-020-00717-3.
• Petraccia, L., Liberati, G., Masciullo, S. G., Grassi, M. & Fraioli, A. (2006): Water, mineral waters and health. – Clin. Nutr., 25(3):377–85, doi:10.1016/j.clnu.2005.10.002.
• Petrascheck, W. (1902): Die Ammoniten der sächsischen Kreideformation. – Beiträge zur Paläontologie und Geologie Österreich-Ungarns und des Orients, 14(3+4):131–162, 8 Abb., 5 Taf.
• Petrascheck, W. E. (1933): Die Vererzung der Sudeten. – Mitt. Geol. Ges. Wien, 26:191–206.
• Petrascheck, W. E., Jr. (1956): Die Gesichtspunkte für eine hydrothermale Entstehung der kalkkalpinen Blei-Zinklagerstätten Diakussionsreferat für die Tagung des Lagerstättenausschusses der GDMB am 17.11.1956 in München. Maschinenmanuskript edn, München, 11.
• Petraschek, W. E. (1961): Lagerstättenlehre – Ein kurzes Lehrbuch von den Bodenschätzen in der Erde, 2nd edn. – 374 p., 232 Abb.; Wien (Springer); doi:10.1007/978-3-7091-7909-3.
• Petrelli, M. (2021): Introduction to Python in Earth Science Data Analysis – From Descriptive Statistics to Machine Learning: Springer Textbooks in Earth Sciences, Geography and Environment. – Cham (Springer); doi:10.1007/978-3-030-78055-5.
• Petrescu, S., Georgescu, D., Ciuciu, S. & Curelea, D. (2005): Environmental impact evaluation of a pilot installation for „in situ” processing for uranium ore. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 773–778, Heidelberg (Springer).
• Petric, M. & Janez, J. (1997): The Use of Hydrogeological Forecasting in the Process of Shutdown of the Idrija Mercury Mine. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:73–83, 5 Abb., 6 Tab.
• Petrič, M., Ravbar, N., Gostinčar, P., Krsnik, P. & Gacin, M. (2020): Vzpostavitev prosto dostopne GIS zbirke rezultatov sledenj toka podzemne vode in možnosti njene uporabe [Establishment of a freely accessible GIS database containing the results of groundwater tracing and possibilities of its use]. – Geologija, 63(2):203–220, 12 Abb., 1 Tab.; doi:10.5474/geologija.2020.017.
• Petrich, C. R., Stormo, K. E., Ralston, D. R. & Crawford, R. L. (1998): Encapsulated cell bioremediation; evaluation on the basis of particle tracer tests. – Ground Water, 36(5):771–778, 9 Abb.
• Petrini, R., Cidu, R. & Slejko, F. F. (2016): Thallium Contamination in the Raibl Mine Site Stream Drainage System (Eastern Alps, Italy). – Mine Water Environ., 35(1):55–63, doi:10.1007/s10230-015-0346-4.
• Petrisor, I. G., Komnitsas, K., Lazar, I., Voicu, A., Dobrota, S. & Stefanescu, M. (2002): Biosorption of Heavy Metals from Leachates Generated at Mine Waste Disposal Sites. – Eur. J. Miner. Process. Environ. Prot., 2(3):158–167, 4 Tab.
• Petritz, K. M., Gammons, C. H. & Nordwick, S. (2009): Evaluation of the Potential for Beneficial Use of Contaminated Water in a Flooded Mine Shaft in Butte, Montana. – Mine Water Environ., 28(4):264–273, 7 Abb., 3 Tab.; doi:10.1007/s10230-009-0083-7.
• Petrova, R. (2005): Accumulation of natural radionuclides in wooden and grass vegetation from abandoned uranium mines. Opportunities for phytoremediation. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 507–518, Heidelberg (Springer).
• Petrovic, N. (1984): Hidrogeoloske karakteristike juznog revira rudnika bakra „Majdanpek“ [Hydrogeology in the southern section of the Majdanpek copper mine]. – Vesnik, Zavod za Geoloska i Geofizicka Istrazivanja, Serija B:83–96, 3 Abb., 3 Tab.
• Petrović, T., Zlokolica-Mandić, M., Veljković, N. & Vidojević, D. (2010): Hydrogeological conditions for the forming and quality of mineral waters in Serbia. – J. Geochem. Expl., 107(3):373–381, doi:https://doi.org/10.1016/j.gexplo.2010.07.009.
• Petschel, B. E. & Drummond, A. (2018): A Review of Brine Treatment Technologies for MIW Treatment Plants. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 182–187; (Tshwane University of Technology).
• Petticrew, E. L., Albers, S. J., Baldwin, S. A., Carmack, E. C., Déry, S. J., Gantner, N., Graves, K. E., Laval, B., Morrison, J., Owens, P. N., Selbie, D. T. & Vagle, S. (2015): The impact of a catastrophic mine tailings impoundment spill into one of North America’s largest fjord lakes: Quesnel Lake, British Columbia, Canada. – Geophysical Research Letters, 42(9):3347–3355, doi:10.1002/2015GL063345.
• Pettifer, G., Brett, D., Hein, S., Gray, S., Kemp, A., Schafer, W., Virtue, R. & Goebel, B. (2012): Exemplar mine-site water management – A necessity in an era of climatic variability: International Mine Water Association Symposium. – 355–356 p., Bunbury (Edith Cowan University).
• Peukert, D., Gutt, B. A., Rossbach, B. & Kaden, S. (1985): Groundwater flow submodel for the analysis of regional water policies in open-pit lignite mining areas. – Proceedings, 2nd International Mine Water Association Congress, 2:765–775.
• Peukert, D., Reisner, H. & Kunze, W. (1982): Application of a continuously operating Model for Forecasting a Regional Groundwater Flow Situation Caused by Open-Cast Mine Dewatering Measures. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:209–225, 6 Abb.
• Peulvast, J. P., Bouchard, M., Jolicoeur, S., Pierre, G. & Schroeder, J. (1996): Palaeolandforms and morphotectonic evolution around the Baie des Chaleurs (Eastern Canada). – Geomorphology, 16(1):5–32, 19 Abb.
• Pezdic, J. (1998): Simulation of Solubility and Equilibration Rate of relevant Coal Seam: a stable Isotope and chemical Study: Mine Water and Environmental Impacts 1. – 43–49 p., 3 Abb.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Pfaundler, A. v. (1846): Versuch über die mineralogisch-geognostischen Arbeiten, Nachrichten und Entdeckungen von Tirol und Vorarlberg, in Auszügen u. s. w. aus Journalen, Zeitschriften, Druckschriften, Manuscripten und andern Quellen. – 21 p., Innsbruck (Karl Pfaundler).
• Pfaundler v. Sternfeld, A. (1806): Gelber Bleyspath aus Tyrol. – Alpina, I.:420.
• Pfeifer, J. (2012): Die historische Entwicklung des Quecksilberbergwerks in der Lagerstätte Idrija(Idria)/Krain in Slowenien. Paper presented at the 15. Internationaler Montanhistorik-Workshop, Bad Bleiberg. – p. 82–87, 6 Abb.; (Marktgemeinde Bad Bleiberg, Bergmännischer Kulturverein).
• Pfeufer, J. (1996): Wahrung von Menge und Qualität des Trinkwassers im Nebengestein der Eisenerzlagerstätte Leonie in Auerbach (Opf.) während und nach der Abbauphase. – Glückauf, 132(9):626–635, 7 Abb., 2 Tab.
• Pfiffner, O. A. (2014): Geology of the Alps. – 377 p., Oxford (John Wiley & Sons).
• Pfiffner, O. A. & Hitz, L. (1997): Geological interpretation of the seismic profiles of the Eastern Traverse (lines E1-E3, E7-E9): eastern Swiss Alps: Deep structure of the Swiss Alps: results of NRP 20. – 73–100 p., 29 Abb.; Basel (Birkhäuser).
• Pfingsten, W. & Soler, J. M. (2003): Modelling of Nonreactive Tracer Dipole Tests in a Shear zone at the Grimsel test Site. – J. Contam. Hydrol., 61(1-4):387–403.
• Pfister, H. (1979): Uran- und Radiumbelastung der Oberflächenwässer in der Bundesrepublik Deutschland durch Phosphatdüngemittel. – 1–9 p., Erlangen (Institut für Radiologie der Universität Erlangen).
• Pfister, L. & Hoffmann, L. Uncertainties in the ‘monitoring-conceptualisation-modelling’ sequence of catchment research. Luxembourg, 2007. vol SC-2007/WS/54. International Hydrological Programme (IHP) of the United Nations Educational Scientific and Cultural Organization (UNESCO),, 192 S.
• Pfister, O. v. (1880): Neue Streifzüge im Montafon. – Jahrbuch des Schweizer Alpenclub, 15:346–372.
• Pfleiderer, S., Klein, P., Reitner, H. & Heinrich, M. (2006): The Hydrogeology of the Northern Calcareous Alps between the Rivers Enns and Ybbs. – Austrian J. Earth Sci., 99:4–10, 5 Abb., 1 Tab.
• Pflieger‐Bruss, S. & Schill, W. B. (2000): Effects of chlorinated hydrocarbons on sperm function in vitro. – Andrologia, 32(4‐5):311–315, doi:10.1046/j.1439-0272.2000.00399.x.
• Pflieger‐Bruss, S., Schuppe, H. C. & Schill, W. B. (2004): The male reproductive system and its susceptibility to endocrine disrupting chemicals. – Andrologia, 36(6):337–345, doi:10.1111/j.1439-0272.2004.00641.x.
• Pflug, W. (1998): Braunkohlentagebau und Rekultivierung –Landschaftsökologie – Folgenutzung – Naturschutz. – 1068 p., 498 Abb., 205 Tab.; Berlin (Springer); doi:10.1007/978-3-642-58846-4.
• Pfotzer, G. H. & Schuler, C. (1997): Effects of different compost amendments on soil biotic and faunal feeding activity in an organic farming system. – Biol Agric Hortic, 15(1-4):177–183.
• Pfung, C. (1895): Bergbauversuche im Isarwinkel und Werdenfelser Gebiete im fünfzehnten Jahrhundert –Z. Dt.-Österr. Alpenver., 26:36–43.
• Pham, N., Amos, R., Blowes, D., Smith, L. & Sego, D. (2015): The Diavik Waste Rock Project – Heat Transfer in a Large Scale Waste Rock Pile Constructed in a Permafrost Region. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Phan, T. T., Paukert Vankeuren, A. N. & Hakala, J. A. (2018): Role of water−rock interaction in the geochemical evolution of Marcellus Shale produced waters. – Int. J. Coal Geol., 191:95–111, doi:10.1016/j.coal.2018.02.014.
• Phieler, R., Merten, D., Roth, M., Büchel, G. & Kothe, E. (2015): Phytoremediation using microbially mediated metal accumulation in Sorghum bicolor. – Environ. Sci. Pollut. Res., 22(24):19408–19416, doi:10.1007/s11356-015-4471-1.
• Philippitsch, R. & Grath, J. (2003): Wassergüte in Österreich Jahresbericht 2002 – Erhebung der Wassergüte gemäß Hydrographiegesetz (BGBL.-Nr. 252/90, i.d.g.F.). – 178 p., Wien (Umweltbundesamt).
• Philips Electron Optics & Johnson, R. (1996): Environmental scanning electron microscopy : an introduction to ESEM. – 49 Abb.; Eindhoven, Netherlands (Philips Electron Optics).
• Phillips, G. W. (2024): A watershed-based NPDES approach to AMD treatment in Muddy Creek, Cheat River, West Virginia, USA. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 496–502; Morgantown (International Mine Water Association).
• Phillips, J. I., Rees, D., Murray, J. & Davies, J. C. A. (2012): Mineralogy and Malignant Mesothelioma: The South African Experience. – In: Belli, C. & Anand, S. (eds): Malignant Mesothelioma. – p. 1–30, 9 Abb., 1 Tab.; London (IntechOpen); doi:10.5772/47974.
• Phillips, P. & Bender, J. (1998): Bioremediation of Metals in Acid Tailings by Mixed Microbial Mats. – In: Geller, W., Klapper, H. & Salomons, W. (eds): Acidic Mining Lakes – Acid Mine Drainage, Limnology and Reclamation. – p. 347–363, 6 Abb., 5 Tab.; Berlin (Springer).
• Phonseela, N. & Booth, T. (2025): Coupled groundwater-surface water modelling workflow to support risk assessment of an abandoned underground coal mine due to natural mine water rebound. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 682–688; Braga (International Mine Water Association).
• Physikalisch-Technische Bundesanstalt (1987): Schachtanlage Konrad – vom Erzbergwerk zum Endlager für radioaktive Abfälle. – 55 p., Braunschweig (Phys.-Tech. Bundesanst.).
• Piacentini, P. (1997): Il Fayyum nell’Antico Regno. Paper presented at the Archeologia e papiri nel Fayyum, Siracusa. – p. 21–39, 2 Abb.; Siracusa (Istituto Internationale del Papiro).
• Piao, C., Yuan, J., Wang, D. & Li, P. (2014): Distribution Measurement and Mechanism Research on Deformation due to Losing Water of Overburden Layer. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 205–212, Xuzhou (International Mine Water Association).
• Piatak, N., Seal, R., Jones, P. & Woodruff, L. (2015): Copper Toxicity and Organic Matter – Resiliency of Watersheds in the Duluth Complex, Minnesota, USA. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Piatak, N. M., Parsons, M. B. & Seal Ii, R. R. (2015): Characteristics and environmental aspects of slag: A review. – Appl. Geochem., 57:236–266, doi:10.1016/j.apgeochem.2014.04.009.
• Piatak, N. M., Seal, R. R., Hoppe, D. A., Green, C. J. & Buszka, P. M. (2017): Slag: What is it good for? Utilization of steelmaking slag to remove phosphate and neutralize acid. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 869–876, Lappeenranta (Lappeenranta University of Technology).
• Piatak, N. M., Seal, R. R. I., Levitan, D. M. & Hammarstrom, J. M. (2009): Geochemistry of mine waste, mine drainage, and stream sediments from the Vermont Asbestos Group Mine, northern Vermont, USA. Paper presented at the Securing the Future 2009 & 8th ICARD, Skellefteå. – p. 1–10 [electronic document], 4 Abb.. 2 Tab.
• Piatak, N. M., Woodruff, L. G., Seal, R. R., II & Jones, P. M. (2013): Baseline geochemical characterization of trace elements in stream sediments in mineralized watersheds of the Duluth Complex, northeastern Minnesota. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1095–1095, Golden (International Mine Water Association).
• Piatek, Z. (2000): Der niederschlesische Steinkohlenbergbau im 19. und frühen 20. Jahrhundert. – 16 p., 8 Tab.; Szczawno Zdrój (Unveröff. Manuskript).
• Pichler, A. (1857): Zur Geognosie der nordöstlichen Kalkalpen Tirols. – Jb. k.-k. geol. R.-A.:717–738, 6 Abb.
• Pichler, A. (1866): Beiträge zur Geognosie Tirols. – Jb. k.-k. geol. R.-A., 16:501–504, 1 Tab.
• Pichler, A. (1875): Beiträge zur Geognosie Tirols. – N. Jb. Min. Geol. Pal.:926–936.
• Pichler, A. (1888): Beiträge zur Mineralogie und Geologie von Tirol. – Verh. geol. R.-A.:298–300.
• Picken, P., Karvonen, T., Heikkinen, E., Vaittinen, T., Seppä, V.-M. & Saukkoriipi, J. (2017): Kittilä Gold Mine dewatering assessment: benefits of a new approach. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 540–547, Lappeenranta (Lappeenranta University of Technology).
• Pickles, W. L. & Cover, W. A. (2004): Hyperspectral Geobotanical Remote Sensing for CO₂ Storage Monitoring: UCRL-JRNL-204165. – 44 p., 27 Abb.; Livermore (Lawrence Livermore National Laboratory).
• Pickup, G. & Higgins, R. J. (1979): Estimating Sediment Transport in a Braided Gravel Channel – Kawerong River, Bougainville, Papua-New-Guinea. – J. Hydrol., 40(3-4):283–297, doi:10.1016/0022-1694(79)90035-0.
• Pierce, M. L. & Moore, C. B. (1982): Adsorption of arsenite and arsenate on amorphous iron hydroxide. – Water Res., 16(7):1247–1253, 8 Abb., 3 Tab.; doi:10.1016/0043-1354(82)90143-9.
• Pierzynski, G. M., Schnoor, J. L., Schnoor, M. K., Banks, M. K., Tracy, J. C., Licht, L. A. & Erickson, L. E. (1994): Vegetative remediation at superfund sites. – In: Hester, R. E. & Harrison, R. M. (eds): Mining and its Environmental Impact 1. – p. 49–70, (The Royal Society of Chemistry); doi:10.1039/9781847551467-00049.
• Pieterse, H. (2012): A Hybrid Model for Scholarly Publishing in South Africa: The Challenge to Engage with an Open Access Environment within a Global Arena. – Intern. J. Book, 9(4):1–16.
• Pietryga, B. (1962): Rohnau. – Schlesischer Gebirgsbote, 16:7.
• Pietrzykowski, M., Świątek, B., Pająk, M., Małek, S. & Tylek, P. (2021): Survival and nutrient supply of seedlings of different tree species at the early stages of afforestation of a hard coal mine dump. – Ecological Engineering, 167:106270, doi:10.1016/j.ecoleng.2021.106270.
• Pigati, E. & López, D. L. (1999): Effect of Subsidence on Recharge at Abandoned Coal Mines Generating Acid Drainage: the Majestic Mine, Athens County, Ohio. – Mine Water Environ., 18(1):45–66, 13 Abb., 1 Tab.
• Pihlajakuja, M., Rantanen, V. & Kettunen, A. (2017): Biofouling Data Combined with Reverse Osmosis Operational Data. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1119–1124, Lappeenranta (Lappeenranta University of Technology).
• Piirainen, T. (1975): The Svecokarelian Orogenic Cycle and Related Metallogenesis in Finland. – Bull. Geol. Soc. Finland, 47:139–153, 5 Abb., 4 Tab.
• Piispanen, R. (1991): Correlation of cancer incidence with groundwater geochemistry in northern Finland. – Environ Geochem Health, 13(2):66–69, doi:10.1007/BF01734296.
• Pikaar, I., Flugen, M., Lin, H.-W., Salehin, S., Li, J., Donose, B. C., Dennis, P. G., Bethke, L., Johnson, I., Rabaey, K. & Yuan, Z. (2019): Full-scale investigation of in-situ iron and alkalinity generation for efficient sulfide control. – Water Res., 167:115032, doi:10.1016/j.watres.2019.115032.
• Pikaar, I., Likosova, E. M., Freguia, S., Keller, J., Rabaey, K. & Yuan, Z. (2015): Electrochemical Abatement of Hydrogen Sulfide from Waste Streams. – Crit. Rev. Environ. Sci. Technol., 45(14):1555–1578, 1 Abb., 1 Tab.; doi:10.1080/10643389.2014.966419.
• Pike, K. L. (1968): How to Make an Index. – PMLA, 83(4):991–993, doi:10.2307/1261125.
• Pilgrim’s Rest Museum (s.a.): Pilgrim’s Gold – A Humble Place That Made a Huge Constribution to South Africa’s Gold Industry. – 27 p., Pilgrim’s Rest (Pilgrim’s Rest Museum).
• Piller, W. E., Egger, H., Erhart, C. W., Gross, M., Harzhauser, M., Hubmann, B., van Husen, D., Krenmayr, H.-G., Krystyn, L., Lein, R., Lukeneder, A., Mandl, G. W., Rögl, F., Roetzel, R., Rupp, C., Schnabel, W., Schönlaub, H. P., Summesberger, H., Wagreich, M. & Wessely, G. (2004): Die stratigraphische Tabelle von Österreich 2004 (sedimentäre Schichtfolgen). – 1 Tab.; Wolkersdorf (Gerin).
• Pilz, A. (1916): Die bayerischen staatlichen Bergwerks-, Hütten- und Salinenbetriebe. – Glückauf, 52(13, 14):257–263, 285–, 2 Abb., 14 Tab.
• Pine, R. J., Ledingham, P. & Merrifield, C. M. (1983): In-situ stress measurement in the Carnmenellis granite – II. Hydrofracture tests at Rosemanowes Quarry to depths of 2000 m (Cornwall, UK). – Int. J. Rock Mech. Min. Sci, 20(2):63–72.
• Pine, R. J., Pascoe, D. M. & Howe, J. (1994): Assessment of the Risk of Failure of Pit Slopes in China Clay Deposits of South West England. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:467–477, 4 Abb., 2 Tab.
• Pinetown, K. L., Ward, C. R. & van der Westhuizen, W. A. (2007): Quantitative evaluation of minerals in coal deposits in the Witbank and Highveld Coalfields, and the potential impact on acid mine drainage. – Int. J. Coal Geol., 70(1–3):166–183, doi:10.1016/j.coal.2006.02.013.
• Pinho, A. C. G., Fonseca, R. M. F., Carneiro, J. & Araújo, A. A. (2020): Assessment of the Environmental Risk of a Floodplain Contaminated by Metals Based on Different Indices and Environmental Classification Factors, Minas Gerais, Brazil. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 63–69; (International Mine Water Association).
• Pinkse, T., Quensel, R., Lack, D., Zimmermann, R., Fliss, T., Scherzberg, H., Marx, H., Niessing, S., Deppe, S., Eichholtz, M. & Waldmann, L. (2019): Introducing a New Approach for the Stowage of Waste Brines from Potash Mines of the Werra District in Germany as a Measure to Ensure the Safe and Sustainable Continuation of Potash Extraction and Processing. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 127–133; Perm, Russia (Perm State University).
• Pinon, A. & Vialette, M. (2018): Survival of Viruses in Water. – Intervirology, 61(5):214–222, doi:10.1159/000484899.
• Piñon-Flores, L. F., Gutiérrez-Ruiz, M. E., González-Chávez, J. L., Amaro-Ramírez, D. E., Molina-Reyes, M. A. & Aguirre-Gómez, A. (2024): Removal of Metal(Loids) from Acid Mine Drainage Using Manganese Oxide Wastes from a Mining-Metallurgical Process. – Mine Water Environ., 43(3):449–462, doi:10.1007/s10230-024-01003-2.
• Pint, T. & Hinck, P. (2013): Use of an integrated source-to-receptor model to facilitate rapid assessment of water quality impacts during mine planning. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 435–440, 3 Abb.; Golden (International Mine Water Association).
• Pinto da Costa, J., Girao, A., Lourenço, J., Monteiro, O., Trindade, T. & Costa, M. C. (2013): Integrated synthesis of nanosized semiconductors in a bioremediation system for the treatment of AMD using biologically produced sulfide. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 693–698, 2 Abb.; Golden (International Mine Water Association).
• Pinto, M. M. S. C., Silva, M. M. V. G. & Neiva, A. M. R. (2004): Pollution of Water and Stream Sediments Associated with the Vale De Abrutiga Uranium Mine, Central Portugal. – Mine Water Environ., 23(2):66–75, 3 Abb., 5 Tab.
• Pinto, P. X., Al-Abed, S. R., Balz, D. A., Butler, B. A., Landy, R. B. & Smith, S. J. (2016): Bench-Scale and Pilot-Scale Treatment Technologies for the Removal of Total Dissolved Solids from Coal Mine Water: A Review. – Mine Water Environ., 35(1):94–112, doi:10.1007/s10230-015-0351-7.
• Pinto, P. X., Al-Abed, S. R., Holder, C. D., Warner, R., McKernan, J., Fulton, S. & Somerville, E. (2018): Assessing the Impact of Removing Select Materials from Coal Mine Overburden, Central Appalachia Region, USA. – Mine Water Environ., 37(1):31–41, doi:10.1007/s10230-017-0462-4.
• Pinto, R., Oliveira, Z., Diamantino, C. & Carvalho, E. (2016): Passive treatment of radioactive mine water in Urgeiriça uranium mine, Portugal. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 881–888, Freiberg (TU Bergakademie Freiberg).
• Piotrowski, J. A., Bartels, F., Salski, A. & Schmidt, G. (1997): Regionalisierung der Durchlässigkeitsbeiwerte mit unscharfen (fuzzy) Zahlen: Der Natur näher? – Grundwasser, 2(1):3–10, 14 Abb.; doi:10.1007/s767-1997-8507-1.
• Piotrowski, K., Mondal, K., Lorethova, H., Stonawski, L., Szymanski, T. & Wiltowski, T. (2005): Effect of gas composition on the kinetics of iron oxide reduction in a hydrogen production process. – International Journal of Hydrogen Energy, 30(15):1543–1554, doi:10.1016/j.ijhydene.2004.10.013.
• Piper, A. M. (1944): A graphic procedure in the geochemical interpretation of water analyses. – Trans. Am. Geophys. Union, 25:914–923, 6 Abb., 2 Tab; doi:10.1029/TR025i006p00914.
• Piper, A. M. (1953): A graphic procedure in the geochemical interpretation of water analyses. – U.S. Geol. Surv. Ground Water Notes Geochem., 12:1–14, 6 Abb., 2 Tab.
• Piperoff, C. (1897): Geologie des Calanda. – Beitr. Geol. Schweiz – N. F., 7 doi:10.3931/e-rara-33719.
• Pirajno, F. (1995): Volcanic-hosted epithermal systems in Northwest Turkey. – S. Afr. J. Geol., 98(1):13–24, Refs: 27; illus. incl. 3 tables, geol. sketch map.
• PIRAMID Consortium (2003): Engineering Guidelines for the Passive Remediation of Acidic and/or Metalliferous Mine Drainage and similar Wastewaters – “PIRAMID Guidelines”. – 166 p., 10 Abb., 27 Tab.; Newcastle Upon Tyne (University of Newcastle Upon Tyne).
• Pirazzoli, P. A., Laborel, J., Saliege, J. F., Erol, O., Kayan, İ. & Person, A. (1991): Holocene raised shorelines on the Hatay coasts (Turkey) – Palaeoecological and tectonic implications. – Mar. Geol., 96(3-4):295–311, Refs: 26; illus. incl. 2 tables, sketch maps.
• Pirc, S. & Uhan, J. (1991): Application of Hydrochemistry for Prediction Water Irruptions in Zasavje Collieries. – Proceedings, 4th International Mine Water Association Congress, 1:279–289, 4 Abb.
• Pires, J. A., Dutra, A. J. B., Peres, A. E. C. & Martins, A. H. (2008): Application of Pisolite as inorganic Sorbent for Heavy Metals and Arsenic Removal from river waters. – Proceedings, 10th International Mine Water Association Congress:313–316.
• Pirillo, S., García Einschlag, F. S., Ferreira, M. L. & Rueda, E. H. (2010): Eriochrome Blue Black R and Fluorescein degradation by hydrogen peroxide oxidation with horseradish peroxidase and hematin as biocatalysts. – Journal of Molecular Catalysis B: Enzymatic, 66(1-2):63–71, 9 Abb., 3 Tab.; doi:10.1016/j.molcatb.2010.03.003.
• Pirkl, H. (1961): Geologie des Trias-Streifens und des Schwazer Dolomits südlich des Inn zwischen Schwaz und Wörgl (Tirol). – Jb. Geol. B.-A., 104(1):1–150, 9 Abb., 7 Taf.
• Pirkl, H. (1985): Die Magnesit-Scheelit-Lagerstätte Tux in Tirol. – Mitt. Österr. Geol. Ges., 78(1):159–165, Refs: 9; illus. incl. geol. sketch map, sect.
• Pirkl, H., Schedl, A., Pfleiderer, S., Neinanveie, H., Reitner, H., Klein, P., Hobiger, G., Filzmoser, P., Lipiarski, P. & Linner, M. (2015): Geochemischer Atlas von Österreich – Bundesweite Bach- und Flusssedimentgeochemie (1978–2010). – Arch. f. Lagerst.forsch. Geol. B.-A., 28:288.
• Pisa, V. & Gulikova, E. (2005): Desalting of Acid Mine Drainage by Reverse Osmosis Method – Field Tests: Mine Water 2005 – Mine Closure. – 369–373 p., 2 Abb., 6 Tab.; Oviedo (University of Oviedo).
• Pistotnik, J. (1980): Die Deferegger Alpen. – In: Geologische Bundesanstalt, W. (ed) Der geologische Aufbau Österreichs. – p. 348–350, Wien (Springer); doi:10.1007/978-3-7091-3744-4_19.
• Pitcher, W. S. (1987): Granites and yet more granites forty years on. – Geol. Rundsch., 76(1):51–79, 1 Abb.; doi:10.1007/BF01820573.
• Pitchford, R. J. & Harrison, W. O. (1958): Treatment of bilharziasis with antimony dimercaptosuccinate –S. Afr. Med. J., 32(39):966–967.
• Piteau Associates Engineering Ltd. (1992): Groundwater Resources of Swaziland. – (Report Nr. December 1992). – 55 p., 58 Abb., 10 Tab., 32 Fotos, 7 Anh.; North Vancouver (Government of Swaziland – Department of Geological Surveys and Mines & Canadian International Development Agency).
• Pizzinini, M. (1991): Vom „Land mallen” zur k. k. Vermessung des 19. Jahrhunderts – Tirol im Kartenbild durch die Jahrhunderte. – Österr. Z. f. Vermessungsw. und Photogrammetr., 79(2):131–139.
• Plan, L., Decker, K., Faber, R., Wagreich, M. & Grasemann, B. (2008): Karst morphology and groundwater vulnerability of high alpine karst plateaus. – Environ. Geol., 58(2):285–297, doi:10.1007/s00254-008-1605-5.
• Plante, B., Benzaazoua, M. & Bussière, B. (2011): Kinetic Testing and Sorption Studies by Modified Weathering Cells to Characterize the Potential to Generate Contaminated Neutral Drainage. – Mine Water Environ., 30(1):22–37, 9 Abb., 4 Tab.; doi:10.1007/s10230-010-0131-3.
• Plante, B., Benzaazoua, M. & Bussière, B. (2011): Predicting Geochemical Behaviour of Waste Rock with Low Acid Generating Potential Using Laboratory Kinetic Tests. – Mine Water Environ., 30(1):2–21, 9 Abb., 5 Tab.; doi:10.1007/s10230-010-0127-z.
• Plante, B., Benzaazoua, M., Bussière, B., Pepin, G. & Laflamme, D. (2008): Geochemical Behaviour of Nickel Contained in Tio Mine Waste Rocks. – Proceedings, 10th International Mine Water Association Congress:317–320.
• Plante, B., Benzaazoua, M., Pepin, G. & Bussière, B. (2010): Evaluation of the Ni-contaminated neutral drainage generation potential in the Tio mine waste rocks. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 391–395, Sydney, NS (Cape Breton University Press).
• Plata-Bedmar, A. (1989): Investigation of the origin of the water discharging at the Reocin mine using isotope techniques. – Isotope techniques in the study of the hydrology of fractured and fissured rocks, 1:239–252, 5 Abb., 3 Tab.
• Platikanov, S., Hernández, A., González, S., Luis Cortina, J., Tauler, R. & Devesa, R. (2017): Predicting consumer preferences for mineral composition of bottled and tap water. – Talanta, 162:1–9, doi:10.1016/j.talanta.2016.09.057.
• Platner, S. B. (1929): Cloaca Maxima: A Topographical Dictionary of Ancient Rome. – 126–127 p., Oxford (Oxford University Press).
• Playford, P. E. (1988): Guidebook to the Geology of Rottnest Island. – Geological Society of Australia Excursion Guidebook, 2:1–67, 65 Abb., 1 Tab, 4 Beil.
• Playle, R. C. & Wood, C. M. (1989): Water chemistry changes in the gill micro-environment of rainbow trout: experimental observations and theory. – J. Comp. Physiol. B, 159(5):527–537, doi:10.1007/bf00694377.
• Playton, S. J., Davis, R. E. & McClaflin, R. G. (1980): Chemical Quality of Water in abandoned Zinc Mines in Northeastern Oklahoma and Southeastern Kansas. – Oklahoma Geological Survey Circular, 82:1–49, 13 Abb., 19 Tab.
• Plaza-Cazón, J., González, E. & Donati, E. R. (2021): Parastrephia quadrangularis: A Possible Alternative to Inhibit the Microbial Effect on the Generation of Acid Mine Drainage. – Mine Water Environ., 40(4):994–1002, doi:10.1007/s10230-021-00830-x.
• Plazinski, W., Dziuba, J. & Rudzinski, W. (2013): Modeling of sorption kinetics: the pseudo-second order equation and the sorbate intraparticle diffusivity. – Adsorption, 19(5):1055–1064, doi:10.1007/s10450-013-9529-0.
• Pleysier, R., Douglas, G., Trefry, M. G., Wendling, L., Benn, F., Grabsch, A. & Klauber, C. (2009): Characterisation of Ranger Mine Water Treatment Sludge. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 631–638, 9 Abb., 5 Tab; Pretoria (Document Transformation Technologies).
• Plinke, M. & Wildhagen, E. (2003): Mining and water in Germany – Legal framework and technical aspects. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 279–286, Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Plöchinger, B. (1953): Der Bau der südlichen Osterhorngruppe und die Tithon-Neokomtransgression. – Jb. Geol. B.-A., 96:357–372, 4 Abb., 1 Taf.
• Plöchinger, B. (1980): Die Nördlichen Kalkalpen. – In: Geologische Bundesanstalt Wien (ed) Der geologische Aufbau Österreichs. – p. 218–245, Wien (Springer); doi:10.1007/978-3-7091-3744-4_15.
• Plotnikov, I. I. (1988): Method of protecting mineral deposits in karst rocks from inundation. – Soviet Eng. Geol., 1:51–56, 1 Abb.
• Plotnikov, N. I., Roginets, I. I. & Viswanathan, S. (1989): Hydrogeology of Ore Deposits: Russian translations series 72. – 290 p., 76 Abb., 14 Tab.; Rotterdam (Balkema).
• Plotnikova, E. G., Solyanikova, I. P., Egorova, D. O., Shumkova, E. S. & Golovleva, L. A. (2012): Degradation of 4-chlorobiphenyl and 4-chlorobenzoic acid by the strain Rhodococcus ruber P25. – Microbiology, 81(2):143–153, doi:10.1134/s0026261712020117.
• Plšková, M., Záruba, J. & Procházka, M. (2014): D8-0805 Lovosice–Řehlovice – Hydrogeologické poměry v okolí čela násypu objektu SO 210 v km 57,340 – 57,500 [D8-0805 Lovosice–Řehlovice – Hydrogeological conditions in the vicinity of the embankment face of structure SO 210 at km 57.340 – 57.500]. – Unpubl. Report for Czech Road and Motorway Directorate 48 p., 14 Abb., 9 Tab., 4 Fotos; Praha (ARCADIS CZ a.s.).
• Plumb, R. H. J. (1999): Characterization of Mine Leachates and the Development of a Ground-Water Monitoring Strategy for Mine Sites, EPA/600/R-99/007. – 282 p., 154 Abb., 27 Tab.; Washington (Lockheed Martin Services Group).
• Plumlee, G. S. & Logsdon, M. J. (1999): The Environmental Geochemistry of Mineral Deposits: 6A-B. – 1–583 p., Littleton (Society of Economic Geologists); doi:10.5382/Rev.06.
• Plumlee, G. S. & Nash, J. T. (1995): Geoenvironmental models of mineral deposits – Fundamentals and applications. – Open-File Rep. US Geol. Surv., OF95-0831:1–9, 1 Abb.
• Plumlee, G. S., Smith, K. S., Montour, M. R., Ficklin, W. H. & Mosier, E. L. (1999): Geologic controls on the composition of natural waters and mine waters draining diverse mineral-deposit types. – In: Plumlee, G. S. & Logsdon, M. J. (eds): The Environmental Geochemistry of Mineral Deposits 6A. – p. 373–432, 27 Abb., 1 Anh.; Littleton (Society of Economic Geologists).
• Plummer, C. C. (2007): Geological History of Canada: Physical Geology & the Environment, 2 edn. – 538–573 p., 36 Abb.; Boston (McGraw-Hill).
• Pluta, I. (2000): Barium discharged in waters from the closed Zory Coal Mine in the Upper Silesian Coal Basin, Poland. – Proceedings, 7th International Mine Water Association Congress:595–603, 6 Abb., 2 Tab.
• Pluta, I. (2000): Identification of mine waters in the southern Upper Silesian Caol Basin (Poland) by .symbol.d34S and .symbol.d18O in sulphates. – Proceedings, 7th International Mine Water Association Congress:604–608, 1 Abb., 5 Tab.
• Pluta, I. (2000): Origin of sulphates in waters from Morcinek Coal Mine, Poland. – Proceedings, 7th International Mine Water Association Congress:609–614, 2 Abb., 2 Tab.
• Pluta, I. (2008): Influence of Salt Bed of the Zawada Basin on Mine Waters in the Upper Silesian Coal Basin (Poland). – Proceedings, 10th International Mine Water Association Congress:31–34.
• Pluta, I. (2008): Using of Mine Tailings in Treatment of Mine Waters in the Upper Silesian Coal Basin (Poland). – Proceedings, 10th International Mine Water Association Congress:391–393.
• Pluta, I. (2013): Removing barium from saline waters in coal mines of the Upper Silesia (Poland). – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 699–703, 2 Abb.; Golden (International Mine Water Association).
• Pluta, I. (2014): Wody wypływające ze zlikwidowanych kopalń północnej i wschodniej części Górnośląskiego Zagłębia Węglowego [Effluent waters from abandoned mines of the northern and eastern part of the Upper Silesian Coal Basin]. – Wydawnictwo Górnicze,(3):147–152.
• Pluta, I. & Jackowicz-Korczynski, J. (2003): Acid mine process in Polish coal mines, the Niwka-Modrzejów coal mine example. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 37–41, 2 Abb., 1 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Pluta, I. & Jackowicz-Korczyski, J. (2008): Possibility of Using Waters from the Closed Coal Mines of the Upper Silesian Coal Basin (Poland) as the Resources of the Potentially Medicinal Waters. – Proceedings, 10th International Mine Water Association Congress:91–93.
• Pluta, I., Marcol, A., Dziendziel, F. & Karwasiecka, M. (2008): Utilization and Purification of the Mine Waters at the Marcel and 1 Maja Coal Mines in the Upper Silesian Coal Basin (Poland). – Proceedings, 10th International Mine Water Association Congress:95–98.
• Pluta, I. & Szczepaska, J. (2008): Mine Waters of the Upper Silesian Coal Basin (Poland) in Polish Law Regulations and the European Directives. – Proceedings, 10th International Mine Water Association Congress:537–539.
• Pluta, I. & Trembaczowski, A. (2001): Changes of the chemical composition of discharged coal mine water in the Rontok Pond, Upper Silesia, Poland. – Environ. Geol., 40(4-5):454–457, 3 Abb., 5 Tab.
• Pociecha, A., Bielańska-Grajner, I., Szarek-Gwiazda, E., Wilk-Woźniak, E., Kuciel, H. & Walusiak, E. (2018): Rotifer Diversity in the Acidic Pyrite Mine Pit Lakes in the Sudety Mountains (Poland). – Mine Water Environ., 37(3):518–527, doi:10.1007/s10230-017-0492-y.
• Podányi, K. (1982): Desalting tests of Mine Waters, Recsk, Hungary. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:177–193, 16 Abb.
• Pohjolainen, E. (2015): Chapter 9.4 – Uranium deposits of Finland. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 659–683, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00025-X.
• Pohl, W. (1968): Zur Geologie und Paläogeographie der Kohlenmulden des Hausruck (Oberösterreich). – Wien (unveröff. Diss.).
• Pohl, W. (2011): Economic Geology – Principles and Practice – Metals, Minerals, Coal and Hydrocarbons – Introduction to Formation and Sustainable Exploitation of Mineral Deposits, 1st edn. – 678 p., Chichester (Wiley-Blackwell).
• Poinapen, J. (2012): Biological sulphate reduction of acid mine drainage using primary sewage sludge: International Mine Water Association Symposium. – 237–244 p., 2 Abb., 1 Tab.; Bunbury (Edith Cowan University).
• Poirier, P. J. & Roy, M. (1997): Acid Mine Drainage Characterization and Treatment at La Mine Doyon. – Proceedings, 4th International Conference on Acid Rock Drainage, 4:1485–1497, 10 Abb., 2 Tab.
• Pokryszka, Z., Tauziède, C., Lagny, C., Guise, Y., Gobillot, R., Planchenault, J.-M. & Lagarde, R. (2005): Gas migration from closed coal mines to the surface – Risk assessment methodology and prevention means. – 1–15 [CD–ROM] p., 8 Abb.; Nancy (Proceedings Post-Mining 2005).
• Polak, K., Czop, M., Klich, J. & Motyka, J. (2002): Natural processes caused by soil resaturation in the Patnow open-pit cone of depression. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1009–1017, 3 Abb.; 1 Tab.; Heidelberg (Springer).
• Polak, K., Kaznowska-Opala, K. & Pawlecka, K. (2016): Causes of Decreased Discharge and Damage to a Dewatering Well’s Gravel Coat. – Mine Water Environ., 35(2):120–127, doi:10.1007/s10230-015-0361-5.
• Polak, K., Klich, J. & Kaznowska, K. (2011): The method of wells’ efficiency estimation: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 153–157 p., Aachen (RWTH Aachen University).
• Polak, K., Różkowski, K. & Czaja, P. (2016): Causes and Effects of Uncontrolled Water Inrush into a Decommissioned Mine Shaft. – Mine Water Environ., 35(2):128–135, doi:10.1007/s10230-015-0360-6.
• Polemio, M., Bufo, S. & Paoletti, S. (1980): Evaluation of Ionic-Strength and Salinity of Groundwater – Effect of the Ionic Composition. – Geochim. Cosmochim. Acta, 44(6):809–814, 6 Tab.; doi:10.1016/0016-7037(80)90262-8.
• Polesnig, W. (1969): Studium der Erzgefüge in der Grube Bleiberg—Kreuth. – Arch. f. Lagerst.forsch., 9:73–106, 10 Fig., 12 Abb.
• Polic, M. (1996): Human and Social Constraints of Environmental Management in Karst: Engineering in Karst. – 9 p., 2 Abb.; Portoroz (Proceedings International Mine Water Association Workshop).
• Pöll, J. (1998): Der Streckenabschnitt der Via Claudia Augusta in Nordtirol – Die Grabungen am Prügelweg Lermoos/Bez. Reutte 1992 – 199. – In: Walde, E. (ed) Via Claudia – Neue Forschungen. – p. 15–111, Innsbruck (Institut für Klassische Archäologie).
• Pöll, J. (2005): Die via Claudia Augusta in Nordtirol – ein Jahrzehnt Forschung. Paper presented at the I Territori della Via Claudia Augusta: Incontri di Archeologia, Trento. – p. 191–202; (Verein Via Claudia Augusta Bavariae).
• Pöll, J., Nicolussi, K. & Oeggl, K. (1998): Die römische Reichsstraße Via Claudia Augusta bei Lermoos (Tirol) – Ergebnisse der archäologischen, dendrochronologischen und palynologischen Untersuchungen. – Archäologie Österreichs, 9(1):55–70, 13 Abb., 2 Tab.
• Pöll, J., Oswald, P., Nittel-Gärtner, P., Figl, T., Aufleger, M., Erhardt, M. & Strasser, M. (2020): Seegeologische Untersuchungen im Fernsteinsee und Blindsee (Fernpass, Tirol). Paper presented at the Geoforum Umhausen, Umhausen. – p. 62–75, 7 Abb.
• Pollio, F. & Kunin, R. (1967): Ion Exchange Processes for the Reclamation of Acid Mine Drainage Waters. – Environ. Sci. Technol., 1(3):235–241, 3 Abb., 10 Tab.; doi:10.1021/es60003a002.
• Pollmann, O., Rensburg, L. v. & Lange, C. (2009): Reforestation and Landscaping on Mine Tailings – A Step Forward in Mine Closure. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 837–842, 2 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Pollmer, K. & Eckart, M. (1999): Description of Reaction and Transport Processes in the Zone of Aeration of Mine Dumps. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 461–466, 6 Abb.; Sevilla (International Mine Water Association).
• Pollution Research Group (1990): The Chemical Removal of Sulphates. – Unpubl. Report for Water Research Commission (Report Nr. 203/1/90). – 18 p., 3 Abb., 9 Tab., 4 Anl.; Johannesburg (Pollution Research Group, Department of Chemical Engineering, University of Natal).
• Pollution Research Group (2015): NATSURV 3: Water and Wastewater Management in the Soft Drink Industry. – (Report Nr. WRC Report № TT 640/15). – 85 p., Durban (University of KwaZulu‐Natal).
• Polozov, J. A. (1982): Integrated Grouting Method on Karstic Rock Isolation in Dobrogea Coal Field. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:320–323.
• Polozov, J. A. (1988): Sealing of Fissured-Porous Rock during the Construction of Mine Shafts. – Proceedings, 3rd International Mine Water Congress, Melbourne:641–647, 2 Abb., 2 Tab.
• Polozov, J. A. & Popov, I. V. (1985): Grouting of Porous Aquifers During Shaft Sinking. – Int. J. Mine Water, 4(1):25–31, 3 Abb., 1 Tab.
• Polozov, J. A., Spichak, J. N. & Lagunov, V. A. (1985): Advanced Grouting of 960-m-Level Shaft Station in Nagolchanskaya Mine. – Int. J. Mine Water, 4(1):33–42, 5 Abb.
• Polyakova, S., Lane, J., Losavio, M., Gritsenko, E., Snegova, S., Klochko, K. & Firstova, M. (2019): International Collaboration In Geo Science Education Via Project Based Learning. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 753–758; Perm, Russia (Perm State University).
• Pond, G. J., Passmore, M. E., Borsuk, F. A., Reynolds, L. & Rose, C. J. (2008): Downstream effects of mountaintop coal mining: comparing biological conditions using family- and genus-level macroinvertebrate bioassessment tools. – J. N. Am. Benthol. Soc., 27(3):717–737, doi:10.1899/08-015.1.
• Pönicke, H. (1972): Die Familie Alberti in Waldenburg – Ein Beitrag zur schlesischen Wirtschaftsgeschichte. – Jahrbuch der Schlesischen Friedrich-Wilhelms-Universität zu Breslau, 17:113–142.
• Ponomarev, V. M. (1936): Vechnaya merzlota i rudnichnye vody v Arktike [Permafrost and mine waters in the Arctic]. – Sovetskaya Arktika, 4:111–116, 7 Abb.
• Pope, J., Christenson, H., Gordon, K., Nigel, N. & Trumm, D. (2018): Wall Wash Samples to Predict AMD Longevity at Coal Mines in New Zealand. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 430–435; (Tshwane University of Technology).
• Pope, J. & Craw, D. (2015): Current Research on Mine Water and the Environment in New Zealand. – Mine Water Environ., 34(4):363–363, doi:10.1007/s10230-015-0374-0.
• Pope, J., Newman, N., Craw, D., Trumm, D. & Rait, R. (2010): Factors that influence coal mine drainage chemistry West Coast, South Island, New Zealand. – New Zealand Journal of Geology and Geophysics, 53(2-3):115–128, doi:10.1080/00288306.2010.498405.
• Pope, J. & Trumm, D. (2014): New Zealand Coal Acid Mine Drainage, Mineral Control of Acidity and Downstream Chemical Evolution. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 152–156, Xuzhou (International Mine Water Association).
• Pope, J. & Trumm, D. (2015): Controls on Zn Concentrations in Acidic and Neutral Mine Drainage from New Zealand’s Bituminous Coal and Epithermal Mineral Deposits. – Mine Water Environ., 34(4):455–463, doi:10.1007/s10230-015-0372-2.
• Pope, J., Weber, P. & Olds, W. (2016): Control of acid mine drainage by managing oxygen ingress into waste rock dumps at bituminous coal mines in New Zealand. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 368–376, Freiberg (TU Bergakademie Freiberg).
• Popielak, R. S. & Siegel, J. (1985): Issues of aquifer leakage in in-situ uranium mining. – Proceedings, 2nd International Mine Water Association Congress, 2:1003–1014, 6 Abb.
• Popielak, R. S., Taylor, M. J. & Olsen, R. L. (1982): Predicting Water Quality and Quantity to be Discharged from a proposed Underground Uranium Mine. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:226–245, 5 Abb.
• Popp, C. J., Hawley, J. W., Love, D. W. & Dehn, M. (1988): Use of Radiometric (Cs-137, Pb-210), Geomorphic, and Stratigraphic Techniques to Date Recent Oxbow Sediments in the Rio Puerco Drainage Grants Uranium Region, New Mexico. – Environ. Geol. Water Sci., 11(3):253–269, 9 Abb., 2 Tab.
• Poppe, A., Alberti, J., Friege, H. & Rönnefahrt, B. (1988): Umweltgefährdung durch chlorierte Diphenylmethane (Ugilec 141). – Vom Wasser, 70:33–42, 1 Abb., 4 Tab.
• Poppei, J., Mayer, G., Hubschwerlen, N. & Resele, G. (2006): Flooding of an Abandoned Salt Mine – Modeling Two-Phase Flow in Complex Mine Structures. Paper presented at the TOUGH Symposium 2006, Berkeley, May 15–17, 2006. – p. 1–8 [electronic resource], 8 Abb.
• Porter, D. V. & Earl, R. O. (1992): Food Labeling: Toward National Uniformity. – Washington (National Academies Press); doi:10.17226/2001.
• Poschinger, A. v. (2005): Der Flimser Bergsturz als Staudamm. – Bull. angew. Geol., 10(1):33–47, 9 Abb.; doi:10.5169/seals-225564.
• Poschinger, A. v. (2005): Fluidisation of Alluvial Deposits by Large Rock Slides. – Geophys. Res. Abstr., 7(1607-7962/gra/EGU05-A-01785):01785.
• Poschinger, A. v. (2006): The Stability of the Flims Rockslide Dam. – Ital. J. Eng. Geol. Environ.,(Special Issue 1):87–91, 6 Abb.; doi:10.4408/IJEGE.2006-01.S-10.
• Poschinger, A. v. (2006): Weitere Erkenntnisse und weitere Fragen zum Flimser Bergsturz. – Bull. angew. Geol., 11(2):35–43, 7 Abb., 1 Tab.; doi:10.5169/seals-226167.
• Poschinger, A. v. (2011): The Flims Rockslide Dam. – In: Evans, S. G., Hermanns, R. L., Strom, A. & Scarascia-Mugnozza, G. (eds): Natural and Artificial Rockslide Dams 133. – p. 407–421, (Springer Berlin Heidelberg); doi:10.1007/978-3-642-04764-0_15.
• Poschinger, A. v. & Haas, U. (1997): Der Flimser Bergsturz, doch ein warmzeitliches Ereignis? – Bull. angew. Geol., 2(1):35–46, 3 Abb., 2 Tab.; doi:10.5169/seals-219960.
• Poschinger, A. v. & Ruegg, T. (2012): Die Churer Tomahügel, ein besonderes Zeugnis der Landschaftsgenese. – Jber. Natf. Ges. Graubünden, 117:93–100.
• Poschinger, A. v., Wassmer, P. & Maisch, M. (2006): The Flims Rockslide: History of Interpretation and New Insights. – In: Evans, S. G., Mugnozza, G. S., Strom, A. & Hermanns, R. L. (eds): Landslides from Massive Rock Slope Failure. – p. 329–356, Dordrecht (Springer Netherlands); doi:10.1007/978-1-4020-4037-5_18.
• Pose, S., Grab, T., Grimmer, M., Wilde, L.-M. & Fieback, T. (2019): Herausforderungen bei der energetischen Nutzung von Grubenwässern und dem Einsatz eines mobilen Wärmeübertragerversuchsstandes. Paper presented at the Der Geothermiekongress DGK 2019, München, 19. – 21. November 2019. – p. 1–13, 10 Abb., 1 Tab.
• Pošepný, F. (1870): Ueber alpine Erzlagerstätten. – Verh. Geol. R.-A.:124–126.
• Pošepný, F. (1880): Archiv für Praktische Geologie. – Archiv für Praktische Geologie, I:1–637.
• Pošepný, F. (1893): Über die Entstehung von Blei- und Zinklagerstätten in auflöslichen Gesteinen. – Z. f. prakt. Geol.,(1):398–401.
• Pošepný, F. (1895): Archiv für Praktische Geologie. – Archiv für Praktische Geologie, II:1–637.
• Pošepný, F. (1902): The Genesis of Ore-Deposits, 2 edn. – 806 p., New York (American Institute of Mining Engineers).
• Post, V., Kooi, H. & Simmons, C. (2007): Using Hydraulic Head Measurements in Variable-Density Ground Water Flow Analyses. – Ground Water, 45(6):664–671, 3 Abb., 4 Tab.; doi:10.1111/j.1745-6584.2007.00339.x.
• Post, V. E. A., Houben, G. J. & van Engelen, J. (2018): What is the Ghijben-Herzberg principle and who formulated it? – Hydrogeol. J., 26(6):1801–1807, doi:10.1007/s10040-018-1796-0.
• Postila, H., Ronkanen, A. K. & Kløve, B. (2015): Wintertime purification efficiency of constructed wetlands treating runoff from peat extraction in a cold climate. – Ecol. Eng., 85:13–25, doi:10.1016/j.ecoleng.2015.09.066.
• Postma, D. (1981): Formation of siderite and Vivianite and the Pore-Water Composition of a recent Bog Sediment in Denmark. – Chem. Geol., 31:225–244, 12 Abb., 4 Tab.; doi:10.1016/0009-2541(80)90088-1.
• Postma, D. (1982): Pyrite and Siderite Formation in brackish and freshwater Swamp Sediments. – Am. J. Sci., 282:1151–1183, 16 Abb., 4 Tab.; doi:10.2475/ajs.282.8.1151.
• Postma, D. (1983): Pyrite and siderite oxidation in swamp sediments. – J. Soil Sci., 34:163–182, 12 Abb.; doi:10.1111/j.1365-2389.1983.tb00821.x.
• Postolache, O., Pereira, J. D. & Girao, P. S. (2014): Wireless sensor network-based solution for environmental monitoring: water quality assessment case study. – IET Sci. Meas. Technol., 8(6):610–616, doi:10.1049/iet-smt.2013.0136.
• Posylek, E. (1987): Hydrogeological Characteristics of the Lower Silesian Coal Basin: Hydrogeology of Coal Basins. – 357–363 p., 2 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Posylek, E. (1997): Water Intakes in Underground Mines after their Closure. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:65–72, 3 Abb.
• Potgieter, G., Cason, E., Deflaun, M. & van Heerden, E. (2021): A Strategy to Stimulate and Manage Indigenous Bacterial Communities to Effectively Remediate Mine Drainages. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 425–434; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Potgieter, G., Jacobs, K., Cason, E., DeFlaun, M. & van Heerden, E. (2022): Optimizing Denitrification Efficiencies at Low-Temperature Conditions for the Enhancement of Site-Specific Bioremediations Solutions. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 385–391; (International Mine Water Association).
• Potgieter, J. H. & Green, C. (2006): A novel application of phosphogypsum: Treatment of a diamond mine’s slimes tailings. – Water SA, 32(4):489–498, 11 Abb., 6 Tab.
• Potter, H., Bone, B., Forster, J., Chatfield, P. & Tate, G. (2004): The Environment Agency`s approach to Mining Pollution. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 1–10, 2 Abb.; Newcastle upon Tyne (University of Newcastle).
• Potter, H. A. B. & Burke, S. P. (2005): Groundwater rebound in the South Yorkshire Coalfield: predicting impacts on water quality: Mine Water 2005 – Mine Closure. – 217–222 p., 2 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Pöttgens, J. J. E. (1985): Bodenhebung durch ansteigendes Grubenwasser [Uplift as a result of rising mine waters]: The Development Science and Art of Minerals Surveying 2. – 928–938 p., 7 Abb.; Harrogate (Proceedings 6th International Congress International Society for Mine Surveying).
• Pouliot, S., Bussière, B., Dagenais, A.-M., Wilson, W. & Letourneau, Y. (2018): Evaluation of the Use of Paste Rock as Cover Material in Mine Reclamation. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 559–564; (Tshwane University of Technology).
• Pouliquen, O., Delour, J. & Savage, S. B. (1997): Fingering in granular flow. – Nature, 386(6627):816–817, doi:10.1038/386816a0.
• Poulton, S. W. & Canfield, D. E. (2005): Development of a sequential extraction procedure for iron: implications for iron partitioning in continentally derived particulates. – Chem. Geol., 214(3–4):209–221, doi:10.1016/j.chemgeo.2004.09.003.
• Pourbaix, M. (1966): Atlas of Electrochemical Equilibria in Aqueous Solutions. – 644 p., Oxford (Pergamon).
• Pourbaix, M. (1973): Lectures on Electrochemical Corrosion. – 336 p., New York (Plenum); doi:10.1007/978-1-4684-1806-4.
• Pourbaix, M. & Pourbaix, A. (1992): Potential-pH equilibrium diagrams for the system S-H₂O from 25 to 150°C: Influence of access of oxygen in sulphide solutions. – Geochim. Cosmochim. Acta, 56(8):3157–3178, doi:10.1016/0016-7037(92)90295-T.
• Pourret, O. & Bollinger, J.-C. (2018): “Heavy metal” – What to do now: To use or not to use? – Sci. Total Environ., 610-611(Supplement C):419–420, doi:10.1016/j.scitotenv.2017.08.043.
• Pourret, O., Bollinger, J.-C. & Hursthouse, A. (2021): Heavy metal: a misused term? – Acta Geochimica, 40(3):466–471, doi:10.1007/s11631-021-00468-0.
• Pourret, O. & Hursthouse, A. (2019): It’s Time to Replace the Term “Heavy Metals” with “Potentially Toxic Elements” When Reporting Environmental Research. – Int. J. Environ. Res. Public Health, 16(22) doi:10.3390/ijerph16224446.
• Pouw, K., Campbell, K. & Babel, L. (2015): Best Available Technologies Economically Achievable (BATEA) to Manage Effluent from Mines in Canada. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Powell, B. B. (2007): Homer, 2nd edn. – 256 p., Malden (Blackwell).
• Powell, J. H. & Powell, R. E. (2001): Trace elements in fish overlying subaqueous tailings in the tropical west pacific. – Water Air Soil Pollut., 125(1-4):81–104, doi:10.1023/a:1005211832691.
• Powell, J. H., Powell, R. E. & Fielder, D. R. (1981): Trace-Element Concentrations in Tropical Marine Fish at Bougainville Island, Papua New-Guinea. – Water Air Soil Pollut., 16(2):143–158, doi:10.1007/bf01046851.
• Powell Water Systems (2001): Powell Electrocoagulation – Sustainable Technology for the Future. – 27 p., 5 Abb., 19 Tab.; Centennial (Powell Water Systems).
• Powers, J. P., Corwin, A. B., Schmall, P. C., Kaeck, W. E., Herridge, C. J. & Morris, M. D. (2007): Construction dewatering and groundwater control new methods and applications doi:10.1002/9780470168103.
• Pozdnyakov, D. V., Lyaskovsky, A. V., Tanis, F. J. & Lyzenga, D. R. (1999): Modeling of apparent hydro-optical properties and retrievals of water quality in the Great Lakes for SeaWiFS: A comparison with in situ measurements: 5. – 2742–2744 p., 2 Abb.; (Proceedings Geoscience and Remote Sensing Symposium).
• Praagh, L. V. (1906): The Transvaal and its Mines – The Encyclopedic History of the Transvaal. – 640 p., London (Praagh & Lloyd).
• Prager, C. (2005): Relevance of dating deep seated mass movements: evidence from the Holocene Fernpass-rockslide (Northern Calcareous Alps, Tyrol, Austria). – Geophys. Res. Abstr., 7(1607-7962/gra/EGU05-A-02729):1–3.
• Prager, C., Ivy-Ochs, S., Ostermann, M., Synal, H. A. & Patzelt, G. (2009): Geology and radiometric 14C‑, 36Cl- and Th-/U-dating of the Fernpass rockslide (Tyrol, Austria). – Geomorphology, 103:93–103, 9 Abb., 3 Tab.; doi:10.1016/j.geomorph.2007.10.018.
• Prager, C., Krainer, K., Seidl, V. & Chwatal, W. (2006): Spatial features of Holocene sturzstrom-deposits inferred from subsurface investigations (Fernpass rockslide, Tyrol, Austria). – Geo.Alp, 3:147–166, 11 Abb., 1 Tab.
• Prager, C., Ostermann, M. A. & Zangerl, C. (2011): Time-dependent rock slope weakening processes: evidence from dated landslides in the Eastern Alps. – Geophys. Res. Abstr., 13:EGU2011–13787.
• Prager, C. & Zangerl, C. (2005): Kinematics of a Long Run-Out Rockslide: A Case Study from the Fernpass-Region (Northern Calcareous Alps, Tyrol, Austria). – Geophys. Res. Abstr., 7:02737.
• Prager, C., Zangerl, C., Brandner, R. & Patzelt, G. (2007): Increased rockslide activity in the middle Holocene? New evidence from the Tyrolean Alps (Austria). – In: Mathie, E., McInnes, R., Fairbank, H. & Jakeways, J. (eds): Landslides and Climate Change: Challenges and Solutions. – p. 25–34, (Taylor & Francis); doi:10.1201/NOE0415443180.ch4.
• Prager, C., Zangerl, C. & Kerschner, H. Sedimentology and mechanics of major rock avalanches: Implications from (pre-) historic sturzstrom deposits (Tyrolean Alps, Austria). 2012. 895–900 S.
• Prager, C., Zangerl, C., Patzelt, G. & Brandner, R. (2008): Age distribution of fossil landslides in the Tyrol (Austria) and its surrounding areas. – Nat. Hazards Earth Syst. Sci., 8:377–407, 13 Abb., 1 Tab.
• Prange, A., Aulinger, A., Böddeker, H., Bössow, E., Erbslöh, B., Jablonski, R., Jantzen, E., Kraus, R., Leonhardt, P., Niedergesäß, R., Pepelnik, R., Schäfer, A., Schirmacher, M. & Tümpling, W. v., Jr. (1997): Erfassung und Beurteilung der Belastung der Elbe mit Schadstoffen – Teilprojekt 2 – Schwermetalle – Schwermetallspezies – Abschlußbericht für den Zeitraum 1.9.1993 – 30.9.1997. – 233 p., 164 Abb., 19 Tab.; Geesthacht (GKSS Forschungszentrum).
• Prange, J. A., Gaus, C., Weber, R., Päpke, O. & Müller, J. F. (2003): Assessing Forest Fire as a Potential PCDD/F Source in Queensland, Australia. – Environ. Sci. Technol., 37(19):4325–4329, doi:10.1021/es0343454.
• Prantauer, A. (1931): Schwazer Bergwerkssagen. – Tiroler Heimatblätter, 9(2, 3):62–63, 95–97.
• Prantl, L. (1926): Bemerkung zu dem Aufsatz von A. Einstein: Die Ursache der Mäanderbildung und das sogenannte Baersche Gesetz. – Naturwissenschaften, 14(26):619–620.
• Prasad, B. & Kumar, H. (2016): Treatment of Acid Mine Drainage Using a Fly Ash Zeolite Column. – Mine Water Environ., 35(4):553–557, doi:10.1007/s10230-015-0373-1.
• Prasad, B. & Kumar, H. (2019): Treatment of Lignite Mine Water with Lignite Fly Ash and Its Zeolite. – Mine Water Environ., 38(1):24–29, doi:10.1007/s10230-018-00570-5.
• Prasad, B., Mahato, A. K., Mondal, H. K. & Tewary, B. K. (2013): Removal of Ions and Acidity from Acid Mine Water Using Transformed Fly Ash. – Mine Water Environ., 32(2):133–138, 4 Abb., 4 Tab.; doi:10.1007/s10230-013-0222-z.
• Prasad, B., Maiti, D. & Singh, K. K. K. (2019): Impact of Fly Ash Placement in an Abandoned Opencast Mine on Surface and Ground Water Quality: A Case Study. – Mine Water Environ., 38(1):72–80, doi:10.1007/s10230-018-00577-y.
• Prasad, B. & Mondal, K. (2008): The Impact of Filling an Abandoned Open Cast Mine with Fly Ash on Ground Water Quality: A Case Study. – Mine Water Environ., 27(1):40–45, 1 Abb., 4 Tab.; doi:10.1007/s10230-007-0021-5.
• Prasad, B. & Sangita, K. (2008): Heavy Metal Pollution Index of Ground Water of an Abandoned Open Cast Mine Filled with Fly Ash: a Case Study. – Mine Water Environ., 27(4):265–267, 2 Tab.; doi:10.1007/s10230-008-0050-8.
• Prasad, B., Sangita, K. & Tewary, B. K. (2011): Reducing the Hardness of Mine Water Using Transformed Fly Ash. – Mine Water Environ., 30(1):61–66, 3 Abb., 5 Tab.; doi:10.1007/s10230-010-0130-4.
• Prasad, V. Rayleigh-Bénard Convection. – (unpublished Term Paper).
• Prashanth, J. P., Sivapullaiah, P. V. & Sridharan, A. (2001): Pozzolanic fly ash as a hydraulic barrier in land fills. – Eng. Geol., 60(1-4):245–252.
• Prat, N., Toja, J., Sola, C., Burgos, M. D., Plans, M. & Rieradevall, M. (1999): Effect of dumping and cleaning activities on the aquatic ecosystems of the Guadiamar River following a toxic flood. – Sci. Total Environ., 242(1-3):231–248.
• Pratama, Y., Syaifudin, F. & Pranoto, K. (2020): Open Pit-Mine Water Management In Equatorial Area. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 168–173; (International Mine Water Association).
• Pratas, J., Rodrigues, N. & Paulo, C. (2005): Uranium accumulator plants from the centre of Portugal – their potential to phytoremediation. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 477–482, Heidelberg (Springer).
• Prechtl, J. B. (1850): Chronik der ehemals bischöflich freisingischen Grafschaft Werdenfels in Oberbayern mit ihren drei Untergerichten und Pfarreien Garmisch, Partenkirchen und Mittenwald. – 244 p., 1 Ans., 6 Holzschn.; Augsburg (Lampart & Comp.).
• Prediction Workgroup of the Acid Drainage Technology Initiative (2000): Prediction of Water Quality at Surface Coal Mines. – 241 p., zahlr. Abb., zahlr. Tab.; Morgantown (National Mine Land Reclamation Center).
• Preene, M. & Younger, P. L. (2014): Can you take the heat? – Geothermal energy in mining. – Mining Technology, 123(2):107–118, doi:10.1179/1743286314Y.0000000058.
• Press, W. H. (2007): Numerical recipes – The art of scientific computing, 3rd edn. – Cambridge (Cambridge University Press).
• Preßlinger, H. (1998): Schlackenkundliche Untersuchungsergebnisse von bronzezeitlichen Schlacken aus dem Paltental. – res montanarum, 19:17–24, 10 Abb., 6 Tab.
• Preßlinger, H. & Eibner, C. (1996): Montanwesen und Siedlungen in der Bronzezeit im Paltental (Österreich). – Der Anschnitt, 48(5-6):158–165, 7 Abb., 8 Tab.
• Preßlinger, H., Harmuth, H., Prochaska, W. & Eibner, C. (2001): Metallurgische Schlacken – ein Sekundärrohstoff in der Bronzezeit. – Berg- u. Hüttenm. Mh., 146(5):222–226, 10 Abb., 2 Tab.
• Preßlinger, H., Walach, G., Eibner, C. & Prochaska, W. (1992): Montanarchäologische Untersuchungsergebnisse eines urnenfelderzeitlichen Kupfererzverhüttungsplatzes bei Mautern/Steiermark. – Berg- u. Hüttenm. Mh., 137(1):31–37, 6 Abb.
• Prestor, J., Štrucl, S. & Pungartnik, M. (2003): Mežica lead and zinc mine closure impact on hydrogeological conditions in upper Meža valley. – RMZ – Materials and Geoenvironment, 50(1):313–316, 1 Abb., 1 Tab.
• Prestwich, J. (1886): On Underground Temperatures; with Observations on the Conductivity of Rocks; on the Thermal Effects of Saturation and Imbibition; and on a Special Source of Heat in Mountain Ranges. – Proc. R. Soc. London, 41:1–116, 5 Abb., 4 Tab.
• Pretorius, D. A. (1964): The Geology of the South Rand Goldfield. – Economic Geology Research Unit – Information Circular, 17:1–86, 5 Abb., 33 Tab.
• Pretzel, S., Liu, D. & Osborn, B. (2024): Banning No. 4 Mine, a tale of Title V facility retrofit project development. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 503–508; Morgantown (International Mine Water Association).
• Preuß, V. (2004): Entwicklung eines biochemischen Verfahrens zur Aufbereitung sulfathaltiger Wässer am Beispiel der Entsäuerung schwefelsaurer Tagebauseen. – 142 p., 59 Abb., 25 Tab., 8 Anl.; Cottbus (Eigenverlag Lehrstuhl Wassertechnik und Siedlungswasserbau).
• Preuß, V. (2005): Konkurrenz zwischen Methanogenen und Desulfurikanten bei der biochemischen Entsäuerung von Bergbauwässern bei Verwendung von Methanol als C- und Energiequelle. – Wiss. Mitt. Inst. Geol., 28:57–62, 3 Abb.
• Preuß, V., Koch, T., Schöpke, R., Koch, R. & Rolland, W. (2007): Weitergehende Grubenwasserreinigung – Sulfatentfernung mittels Nanofiltration. – Wiss. Mitt. Inst. Geol., 35:19–25, 5 Abb., 2 Tab.
• Preuß, V., Riedel, C., Koch, T., Thürmer, K. & Domañska, M. (2012): Nanofiltration as an Effective Tool of Reducing Sulphate Concentration in Mine Water. – Architecture – Civil Engineering – Environment – ACEE, 3:127–132, 3 Abb., 2 Tab.
• Preuß, V., Schöpke, R. & Koch, R. (2006): Laboruntersuchungen zur Stabilität von Eisensulfidschlämmen. – Wiss. Mitt. Inst. Geol., 31:145–151, 6 Abb., 4 Tab.
• Preuß, V., Schöpke, R. & Koch, T. (2010): Reduction of Sulphate Load by Nanofiltration – Process Development in Bench Scale. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 171–175, Sydney, NS (Cape Breton University Press).
• Preuße, A., Krämer, J. & Sroka, A. (2007): Technische Abschätzung von Folgelasten des Steinkohlenbergbaus. – bergbau,(12):540–546, 12 Abb.
• Preußisches Oberbergamt Breslau (1933): Die Schlesischen Bergwerke 1933 – Verzeichnis der im Verwaltungsbezirke des Preußischen Oberbergamts Breslau betriebenen Bergwerke u. selbständigen Betriebsanlagen. – 70 p., Breslau.
• Prey, S. (1953): Flysch, Klippenzone und Kalkalpenrand im Almtal bei Scharnstein und Grünau (O.ö.). – Jb. Geol. B.-A., 96:301–343, 1 Abb., 1 Tab., 1 Taf.
• Prey, S. (1978): Rekonstruktionsversuch der alpidischen Entwicklung der Ostalpen. – Mitt. Österr. Geol. Ges., 69:1–25, 6 Abb.
• Price, J. G., Shevenell, L., Henry, C. D., Rigby, J. G., Christensen, L. G., Lechler, P. J., Desilets, M. O., Fields, R., Driesner, D., Durbin, B. & Lombardo, W. (1995): Water quality at inactive and abandoned mines in Nevada. – Open File Report (NBMG – Nevada Bureau of Mines and Geology, OF 95-4:74, 24 Abb., 9 Tab.
• Price, P. & Wright, I. A. (2016): Water Quality Impact from the Discharge of Coal Mine Wastes to Receiving Streams: Comparison of Impacts from an Active Mine with a Closed Mine. – Water Air Soil Pollut., 227(5):155, doi:10.1007/s11270-016-2854-7.
• Price, W. A. (2010): Acid base accounting criteria used in prediction of drainage chemistry. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 55–59, Sydney, NS (Cape Breton University Press).
• Prider, R. T. (1940): An unusual occurrence of gypsum at Kalgoorlie, Western Australia. – Am. Mineral., 25(9):591–605, 5 Abb.
• Prieto, A., Telleria, O., Etxebarria, N., Fernández, L. A., Usobiaga, A. & Zuloaga, O. (2008): Simultaneous preconcentration of a wide variety of organic pollutants in water samples – Comparison of stir bar sorptive extraction and membrane-assisted solvent extraction. – J. Chromatogr. A, 1214:1–10, doi:10.1016/j.chroma.2008.10.060.
• Prieto, G. & Duitama, L. M. (1999): Environmental Impacts and acid Drainage of Coal Mining in Cundinamarca Department, Colombia. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 395–401, 4 Abb., 7 Tab.; Sevilla (International Mine Water Association).
• Prietze, M., Leppla, N. A., Müller, R. & Hohensee, M. (1904): Das Saarbrücker Steinkohlengebirge Der Steinkohlenbergbau des Preussischen Staates in der Umgebung von Saarbrücken I. – 98 p., 12 Abb., 1 Taf.; Berlin (Springer); doi:10.1007/978-3-642-50862-2.
• Prikryl, I. & Kabrna, M. (2016): Findings from flooding residual pits remaining after coal mining in the Czech Republic. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 201–208, Freiberg (TU Bergakademie Freiberg).
• Prikryl, I., Špacek, J. & Koza, V. (2011): First large mine lake successfully filled up in Czech Republic: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 539–544 p., Aachen (RWTH Aachen University).
• Přikryl, P., Černý, R., Havlík, V., Segeth, K., Stupka, P. & Toman, J. (1999): Deposition of waste water into deep mines. – Environmetrics, 10(4):457–466, 7 Abb.; doi:10/dtpvvh.
• Primo Doncel, M. d. l. P., Möllerherm, S., Rudolph, T. & Goerke-Mallet, P. (2022): PostMinQuake: Diagnosis Of Post-Mining Induced Seismicity In Former European Hard Coal Basins. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 393–396; (International Mine Water Association).
• Pring, G. W. (1999): International law and mineral resources: Mining, Environment and Development. – 55 p., Genf (UNCTAD – United Nations Conference on Trade and Development).
• Prinz, H. & Strauß, R. (2018): Ingenieurgeologie, 6th edn. – 898 p., Heidelberg (Springer); doi:10.1007/978-3-662-54710-6.
• Pritzkoleit, K. (1957): Wem gehört Deutschland – Eine Chronik von Besitz und Macht. – 703 p., München (Desch).
• Pro, Ó. (2005): Water Control using polyurethane resins: Mine Water 2005 – Mine Closure. – 289–293 p., 4 Abb.; Oviedo (University of Oviedo).
• Procházka, M. & Plšková, M. (2014): D8 Prackovice – SO 210 zhodnocení inženýrskogeologických a hydrogeologických poměrů upřesněných geofyzikálními a karotážními metodami [D8 Prackovice – SO 210 Evaluation of engineering-geological and hydrogeological conditions specified by geophysical and logging methods]. – Unpubl. Report for Czech Road and Motorway Directorate 39 p., 13 Abb., 8 Tab., 12 Fotos; Praha (ARCADIS CZ a.s.).
• Prohaska, S. & Dragišic, V. (1991): Methodology of Computation of Flood Wave Hydrograph in Deep Open Pits. – Proceedings, 4th International Mine Water Association Congress, 1:109–117, 6 Abb., 2 Tab.
• Prommer, H. (2016): Simulating mining-related reactive transport processes acrossmultiple length and time-scales. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 14, Freiberg (TU Bergakademie Freiberg).
• Prommer, H., Grassi, M. E., Davis, A. C. & Patterson, B. M. (2005): Modeling of Microbial Dynamics and Geochemical Changes in a Metal Bioprecipitation Experiment. – Environ. Sci. Technol., 41(24):8433–8438, doi:10.1021/es071123n.
• Prosser, I., Wolf, L. & Littleboy, A. (2011): Water in mining and industry. – In: Prosser, I. (ed) Water. – p. 135–146, 7 Abb.
• Protano, G. & Riccobono, F. (2002): High contents of rare earth elements (REEs) in stream waters of a Cu-Pb-Zn mining area. – Environ. Pollut., 117(3):499–514, 10 Abb., 7 Tab.
• Provasnek, A. K., Schmid, E. & Steiner, G. (2018): Stakeholder Engagement: Keeping Business Legitimate in Austria’s Natural Mineral Water Bottling Industry. – J. Bus. Ethics, 150(2):467–484, doi:10.1007/s10551-016-3121-y.
• Province of British Columbia (2003): British Columbia Field Sampling Manual for Continuous Monitoring and the Collection of Air, Air-Emission, Water, Wastewater, Soil, Sediment, and Biological Samples. – 383 p., (Province of British Columbia).
• Pruess, K. (2003): Numerical Simulation of CO₂ Leakage from a Geologic Disposal Reservoir, Including Transitions from Super- to Sub-Critical Conditions, and Boiling of Liquid CO₂: LBNL-52423. – 1–40 p., 23 Abb., 4 Tab.; Berkeley (Report Lawrence Berkeley National Laboratory).
• Pruess, K. (2003): Numerical Simulation of Leakage from a Geologic Disposal Reservoir for CO₂, with Transitions between Super- and Sub-Critical Conditions. – 1–8 p., 14 Abb.; Berkeley (PROCEEDINGS TOUGH Symposium 2003).
• Pruess, K. (2005): Numerical Simulations Show Potential for Strong Nonisothermal Effects During Fluid Leakage from a Geologic Disposal Reservoir for CO₂: Dynamics of fluids and transport in fractured rock. – 81–89 p., 9 Abb.; Washington (American Geophysical Union).
• Pruess, K. & Azaroual, M. (2006): On the Feasibility of Using Supercritical CO₂ as Heat Transmission Fluid in an Engineered Hot Dry Rock Geothermal System: SGP-TR-179. – 1–8 p., 9 Abb., 2 Tab.; Stanford (Proceedings 31st Workshop on Geothermal Reservoir Engineering).
• Pruess, K., Finsterle, S., Moridis, G., Oldenburg, C. & Wu, Y.-S. (1997): General-purpose reservoir simulators: The TOUGH2 family. – Bulletin. Geothermal Resources Council, 26(2):53–57.
• Pruseth, K. L. (2009): Calculation of the CIPW norm: New formulas. – J. Earth Syst. Sci., 118(1):101–113, 2 Tab.; doi:10.1007/s12040-009-0010-0.
• Prustky, B. G., Sahu, K. C. & Godgul, G. (1994): Metal contamination due to mining and milling activities at the Zawar zinc mine, Rajasthan, India 1. Contamination of stream sediments. – Chem. Geol., 112(3-4):275–291.
• Pruzan, P. (2016): Research Methodology – The Aims, Practices and Ethics of Science. – 326 p., Cham (Springer); doi:10.1007/978-3-319-27167-5.
• Pryce, W. (1778): Mineralogia Cornubiensis; a treatise on minerals, mines and mining: containing the theory and natural history of strata, fissures, and lodes, with the methods of discovering and working of tin, copper, and lead mines, and of cleansing and metalizing their products; shewing each particular process for dressing, assaying, and smelting of ores. To which is added, an explanation of the terms and idioms of miners. – 331 p., London (Phillips); doi:10.3931/e-rara-9474.
• Pryster, B. S., Astasheva, N. P., Perepelyatnikova, L. A. & Sobolev, A. S. (1990): Regularities of 137Cs and 90Sr Transfer through the Chain “Soil – Plant – Animal” on the Territory of Ukraine, Contaminated after Chernobyl NPP Accident. – 1–18 p., 10 Tab.; Kiev (unveröffentlichtes Maschinenskript).
• Przigoda, S. (2004): Friedrich Hammacher und der Bergbau-Verein. – Essener Beiträge – Beiträge zur Geschichte von Stadt und Stift Essen, 116:149–170, 7 Abb.
• Ptacek, C. J., Price, W., Smith, J. L., Logsdon, M. & McCandless, R. (2004): Land-Use Practices and Changes – Mining and Petroleum Production, Threats to Water Availability in Canada. – In: Environment Canada (ed) Threats to Water Availability in Canada. – p. 67–76, Burlington (National Water Research Institute).
• Ptak, T., Piepenbrink, M. & Martac, E. (2004): Tracer tests for the investigation of heterogeneous porous media and stochastic modelling of flow and transport—a review of some recent developments. – J. Hydrol., 294(1–3):122–163, doi:10.1016/j.jhydrol.2004.01.020.
• Puchelt, H. (1964): Zur Geochemie des Grubenwassers im Ruhrgebiet. – Z. dt. geol. Ges., 116(1):167–203, 12 Abb., 2 Tab.; doi:10.1127/zdgg/116/1964/167.
• Puell, J. & Lazaro, P. (2018): Solution Collection System For a ROM Leach Dump: Design Criteria to Meet Best Available Control Guidelines. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 956–961; (Tshwane University of Technology).
• Puente, C. & Atkins, J. T. (1989): Simulation of rainfall-runoff response in mined and unmined watersheds in coal areas of West Virginia. – U.S. Geol. Surv. Water Supply Pap., 2298:48, doi:10.3133/wsp2298 .
• Puhalovich, A., Mundle, K., Pol, R. & Toll, N. (2012): One- and three-dimensional modelling of sub-surface solute transport processes in the region of Ranger uranium mine’s tailings storage facility, Northern Territory, Australia: International Mine Water Association Symposium. – 107–114 p., Bunbury (Edith Cowan University).
• Puhalovich, A., Thomas, A., Toll, N., Puig, P. & O’Neill, A. (2012): Characterisation of hydrogeological conditions and solute transport pathways in the region of the Ranger uranium mine tailings storage facility, Northern Territory, Australia: International Mine Water Association Symposium. – 101–106 p., Bunbury (Edith Cowan University).
• Puhalovich, A. A. (2018): Critical Importance of Conceptual Model Development When Assessing Mine Impacts on Groundwater Dependent Ecosystems: Case Study of an Australian Mine Development. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 711–716; (Tshwane University of Technology).
• Puhalovich, A. A. (2018): Model Simulations of the Layered Development of Waste Rock Stockpiles, Progressive Moisture Changes and Potential Seepage Generation in a Low Rainfall Environment: Case Study of an Australian Mine Development. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 436–441; (Tshwane University of Technology).
• Puhlmann, T., Voss, C., Esper, J. & Amaral, R. D. (2006): Development and Operation of a Water Balance at Rio Paracatu Mineração, Brazil: ICARD 2006 7. – 1632–1641 [CD–ROM] p., 6 Abb.; St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06021632.
• Pujol, L. & Sanchez Cabeza, J. A. (2000): Use of tritium to predict soluble pollutants transport in Ebro River waters (Spain). – Environ. Pollut., 108(2):257–269.
• Pule, M., Yahya, A. & Chuma, J. (2017): Wireless sensor networks: A survey on monitoring water quality. – J. Appl. Res. Technol., 15(6):562–570, doi:10.1016/j.jart.2017.07.004.
• Pulido-Bosch, A. (2021): Principles of Karst Hydrogeology – Conceptual Models, Time Series Analysis, Hydrogeochemistry and Groundwater Exploitation: Springer Textbooks in Earth Sciences, Geography and Environment. – Cham (Springer Nature); doi:10.1007/978-3-030-55370-8.
• Pulido-Bosch, A., Pulido-Leboeuf, P., Molina-Sánchez, L., Vallejos, A. & Martín-Rosales, W. (1999): Intensive Agriculture and Quarries in the Campo De Dalías (Almería, Spain). – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 681–684, 5 Abb.; Sevilla (International Mine Water Association).
• Pulles, W. (2008): Best Practice Guideline A6 – Water Management for Underground Mines. – 102 p., 29 Abb., 3 Tab., 7 Anl.; Pretoria (Department of Water Affairs and Forestry).
• Pulles, W. (2008): Best Practice Guideline G4 – Impact Prediction. – 122 p., 8 Abb., 5 Anl.; Pretoria (Department of Water Affairs and Forestry).
• Pulles, W. (2008): Best Practice Guideline G5 – Water Management Aspects for Mine Closure. – 43 p., 8 Abb., 1 Anl.; Pretoria (Department of Water Affairs and Forestry).
• Pulles, W., Coetser, L., Heath, R. & Muhlbauer, R. (2004): Development of high-rate passive sulphate reduction technology for mine waters. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 253–262, 8 Abb.; Newcastle upon Tyne (University of Newcastle).
• Pulles, W. & Heath, R. (2009): The Evolution of Passive Mine Water Treatment Technology for Sulphate Removal. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 2–14, 9 Abb.; Pretoria (Document Transformation Technologies).
• Pulles, W., Juby, G. J. G. & Busby, R. W. (1992): Development of the Slurry Precipitation and Recycle Reverse-Osmosis (SPARRO) Technology for Desalinating Scaling Mine Waters. – Water Sci. Technol., 25(10):177–192, doi:10.2166/wst.1992.0246.
• Pulles, W. & van Rensburg, H. (2007): Best Practice Guideline G3 – Water Monitoring Systems. – 43 p., 9 Abb., 9 Tab., 5 Anh.; Pretoria (Department of Water Affairs and Forestry).
• Pullin, H., Konstantinou, E., Sapsford, D. & Marsh, R. (2011): The effects of coal rank, temperature and residence time on the chemical composition of tar: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 197–202 p., Aachen (RWTH Aachen University).
• Punia, A. & Siddaiah, N. S. (2019): Mobility and Behaviour of Metals in Copper Mine Tailings and Soil at Khetri, India. – Mine Water Environ., 38(2):385–390, doi:10.1007/s10230-018-00582-1.
• Punkkinen, H., Räsänen, L., Mroueh, U.-M., Korkealaakso, J., Luoma, S., Kaipainen, T., Backnäs, S., Turunen, K., Hentinen, K., Pasanen, A., Kauppi, S., Vehviläinen, B. & Krogerus, K. (2016): Guidelines for mine water management. – VTT Technology, 266:1–157.
• Punz, W. (1992): Schwermetallstandorte im Ostalpenraum und ihre Vegetation. – Ber. nat.-med. Verein Innsbruck, 79:67–80, 1 Abb., 2 Tab.
• Punz, W. (2014): „Erbe des Bergbaus“ – zur Vegetation ostalpiner Schwermetallstandorte. – Geo.Alp, 11:239–249, 1 Abb., 1 Tab.
• Punz, W., Kovacs, G., Körber-Ulrich, S. M., Thonke, A., Wieländer, B. & Wieshofer, I. (1994): Schwermetallstandorte im mittleren Alpenraum und ihre Vegetation — neue Befunde. – Verh. Zool.-Bot. Ges. Österreich, 131:1–26, 1 Abb., 13 Tab.
• Punz, W. & Mucina, L. (1997): Vegetation on Anthropogenic Metalliferous Soils in the Eastern Alps. – Folia Geobotanica & Phytotaxonomica, 32(3):283–295, 1 Abb., 1 Tab.; doi:10.1007/BF02804008.
• Punz, W. & Orasche, I. C. (1995): Pflanzen auf Schwermetallstandorten im Ostalpenraum und deren Häufigkeitsverteilung. – Verh. Zool.-Bot. Ges. Österreich, 132:61–80, 1 Abb., 1 Tab.
• Purdon, G. (1993): How to Minimise Risk Exposures Through an Effective Environmental Risk Management Programme. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 348–366; Chililabombwe (Konkola Division).
• Pust, C., Schüppel, B. & Kwasny, J. (2011): Advanced Treatment of Waters Affected by AMD: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 437–440 p., 5 Abb.; Aachen (RWTH Aachen University).
• Pust, C., Schüppel, B., Merkel, B. J., Schipek, M., Lilja, G., Rabe, W. & Scholz, G. (2010): Advanced Mobile Inlake Technology (AMIT) – An efficient Process for Neutralisation of Acid Open Pit Lakes. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 175–179, Sydney, NS (Cape Breton University Press).
• Pustovoytov, K., Riehl, S., Hilger, H. H. & Schumacher, E. (2010): Oxygen isotopic composition of fruit carbonate in Lithospermeae and its potential for paleoclimate research in the Mediterranean. – Global and Planetary Change, 71(3-4):258–268, doi:10.1016/j.gloplacha.2009.11.015.
• Putman, A. L., Fiorella, R. P., Bowen, G. J. & Cai, Z. (2019): A Global Perspective on Local Meteoric Water Lines: Meta-analytic Insight Into Fundamental Controls and Practical Constraints. – Water Resour. Res., 55(8):6896–6910, doi:10.1029/2019WR025181.
• Putzig, C. L., Leugers, M. A., McKelvy, M. L., Mitchell, G. E., Nyquist, R. A., Papenfuss, R. R. & Yurga, L. (1992): Infrared Spectrometry. – Anal. Chem., 64(12):270R–302R, doi:10.1021/ac00036a016.
• Putzig, C. L., Leugers, M. A., McKelvy, M. L., Mitchell, G. E., Nyquist, R. A., Papenfuss, R. R. & Yurga, L. (1994): Infrared Spectroscopy. – Anal. Chem., 66(12):26R–66R, doi:10.1021/ac00084a003.
• Puura, E. & D’Alessandro, M. (2005): A Classification System for Environmental Pressures Related to Mine Water Discharges. – Mine Water Environ., 24(1):43–52, 6 Abb., 2 Tab.; doi:10.1007/s10230-005-0070-6.
• Puustinen, K. (1997): Mining in Finland during the Period 1530 – 1995. – Spec. Pap. Geol. Surv. Finland, 23:43–54, 4 Abb., 2 Tab.
• Puxeddu, M., Saupé, F., Déchomets, R., Gianelli, G. & Moine, B. (1984): Geochemistry and stratigraphic correlations – Application to the investigation of geothermal and mineral resources of Tuscany, Italy. – Chem. Geol., 43:77–113, 15 Abb., 3 Tab.
• Puzik, A. (2019): Useful Component Recovery from Saranovskaya Mine Rudnaya Wastes. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 539–544; Perm, Russia (Perm State University).
• Pyankov, S. V., Maximovich, N. G., Khayrulina, E. A., Berezina, O. A., Shikhov, A. N. & Abdullin, R. K. (2021): Monitoring Acid Mine Drainage’s Effects on Surface Water in the Kizel Coal Basin with Sentinel-2 Satellite Images. – Mine Water Environ., 40(3):606–621, 6 Abb., 7 Tab.; doi:10.1007/s10230-021-00761-7.
• Pyrbot, W., Shabong, L. & Singh, O. P. (2019): Neutralization of Acid Mine Drainage Contaminated Water and Ecorestoration of Stream in a Coal Mining Area of East Jaintia Hills, Meghalaya. – Mine Water Environ., 38(3):551–555, doi:10.1007/s10230-019-00601-9.
• Qi, J. & Sui, W. (2014): Slake Durability of a Deep Red Stratum Sandstone under Different Environments. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 230–234, Xuzhou (International Mine Water Association).
• Qi, P., Qi, M. & Jie, F. (2014): The Application of Horizontally-directional Long Drilling for the Bearing Mining in Dongjiahe Coal Mine. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 541–547, Xuzhou (International Mine Water Association).
• Qi, P., Zhang, G., Xu, Y. J., Wang, L., Ding, C. & Cheng, C. (2018): Assessing the Influence of Precipitation on Shallow Groundwater Table Response Using a Combination of Singular Value Decomposition and Cross-Wavelet Approaches. – Water, 10(5):598, doi:10.3390/w10050598.
• Qi, W., Huang, Y., He, H., Zhang, J., Li, J. & Qiao, M. (2019): Potential Pollution of Groundwater by Dissolution and Release of Contaminants due to Using Gangue for Backfilling. – Mine Water Environ., 38(2):281–293, doi:10.1007/s10230-018-00585-y.
• Qi, Y., Li, M. & Wang, G. (2014): Characteristics of Mine Water Inrush and Its Mechanisms — a Case Study in the Ganhe Coal Mine, Shanxi, China. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 46–51, Xuzhou (International Mine Water Association).
• Qi, Y. & Wei, C. (2014): Study on Draining the Aquifer Overlying Coalbeds Prior to the Extraction of Coalbed Methane. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 778, Xuzhou (International Mine Water Association).
• Qian, J., Tong, Y., Ma, L., Zhao, W., Zhang, R. & He, X. (2018): Hydrochemical Characteristics and Groundwater Source Identification of a Multiple Aquifer System in a Coal Mine. – Mine Water Environ., 37(3):528–540, doi:10.1007/s10230-017-0493-x.
• Qian, J., Wang, L., Ma, L., Lu, Y., Zhao, W. & Zhang, Y. (2016): Multivariate statistical analysis of water chemistry in evaluating groundwater geochemical evolution and aquifer connectivity near a large coal mine, Anhui, China. – Environ. Earth Sci., 75(9):747, doi:10.1007/s12665-016-5541-5.
• Qian, Z.-w., Jiang, Z.-q., Guan, Y.-z. & Yue, N. (2018): Mechanism and Remediation of Water and Sand Inrush Induced in an Inclined Shaft by Large-Tonnage Vehicles. – Mine Water Environ., 37(4):849–855, doi:10.1007/s10230-018-0531-3.
• Qian, Z.-w. & Yang, W.-h. (2018): Corrosion Mechanism of the Main Shaft Wall in the Liuyuanzi Coal Mine and Appropriate Countermeasures. – Mine Water Environ., 37(4):696–702, doi:10.1007/s10230-018-0520-6.
• Qiang, W., Yuanzhang, L. & Liu, Y. (2011): Using the Vulnerable Index Method to Assess the Likelihood of a Water Inrush through the Floor of a Multi-seam Coal Mine in China. – Mine Water Environ., 30(1):54–60, 8 Abb., 3 Tab.; doi:10.1007/s10230-010-0125-1.
• Qiang, W., Yujie, J., Dean, L., Yonghua, X., Yuelin, J. & Shuchong, Y. (1994): An Optimal Management Model for Stereo Prediction of Groundwater Inflows into an Operation Coal Mine in Jiu Lishan, China. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:155–162, 8 Abb.
• Qiao, H., Jooshaki, M., Rolle, M., Lähivaara, T., Vauhkonen, M., Kauppila, T. & Muniruzzaman, M. (2025): A physics- and chemistry-informed neural network for simulating mine waste weathering: Application to pyrite oxidation modeling. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 708–713; Braga (International Mine Water Association).
• Qiao, W. & Li, W. (2014): Formation Mechanism and Prevention Method of Water Inrush from Roof Bed Separation with Full-mechanized Caving Mining Ultra Thick Coal Seam. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 534, Xuzhou (International Mine Water Association).
• Qiao, W., Li, W., Li, T., Zhang, X., Wang, Y. & Chen, Y. (2018): Relevance Between Hydrochemical and Hydrodynamic Data in a Deep Karstified Limestone Aquifer: a Mining Area Case Study. – Mine Water Environ., 37(2):393–404, doi:10.1007/s10230-017-0506-9.
• Qiao, W., Li, W. P., Li, T., Chang, J. Y. & Wang, Q. Q. (2017): Effects of Coal Mining on Shallow Water Resources in Semiarid Regions: A Case Study in the Shennan Mining Area, Shaanxi, China. – Mine Water Environ., 36(1):104–113, doi:10.1007/s10230-016-0414-4.
• Qiren, L. (1988): The Basic Hydrogeological Characteristics of Solid Mineral Deposits in China. – Proceedings, 3rd International Mine Water Congress, Melbourne:406–414.
• Qiu, H. M., Zhu, S. Y. & Duan, H. D. (2024): A Study of Potential Water-Sand Inrush Based on Physical Model Experiments and Numerical Simulations. – Mine Water Environ., 43(3):540–559, doi:10.1007/s10230-024-01002-3.
• Qiu, M., Han, J., Zhou, Y. & Shi, L. Q. (2017): Prediction Reliability of Water Inrush Through the Coal Mine Floor. – Mine Water Environ., 36(2):217–225, doi:10.1007/s10230-017-0431-y.
• Qiu, M., Shi, L. Q., Teng, C. & Zhou, Y. (2017): Assessment of Water Inrush Risk Using the Fuzzy Delphi Analytic Hierarchy Process and Grey Relational Analysis in the Liangzhuang Coal Mine, China. – Mine Water Environ., 36(1):39–50, doi:10.1007/s10230-016-0391-7.
• Qiu, Z., Liu, C., Hu, Y., Hu, L. & Cheng, L. (2014): Preliminary Study on Detection and Application of Transient Electromagnetic Method in Coal Mine. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 299–306, Xuzhou (International Mine Water Association).
• Qu, B., Sillanpää, M., Zhang, Y., Guo, J., Wahed, M. S. M. A. & Kang, S. (2015): Water chemistry of the headwaters of the Yangtze River. – Environ. Earth Sci., 74(8):6443–6458, doi:10.1007/s12665-015-4174-4.
• Qu, S., Wang, G., Shi, Z., Zhu, Z., Wang, X. & Jin, X. (2022): Impact of Mining Activities on Groundwater Level, Hydrochemistry, and Aquifer Parameters in a Coalfield’s Overburden Aquifer. – Mine Water Environ., 41(3):640–653, doi:10.1007/s10230-022-00875-6.
• Qu, X., Shi, L., Xu, D. & Qin, D. (2019): Bivariate Multivariate Nonlinear Prediction Model for the Depth of Damaged Floor in Working Area Based on MATLAB. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 45–52; Perm, Russia (Perm State University).
• Quadros Amorím, L., Fernández Rubio, R. & Flecha Alkmin, F. (1999): The Effects of Mining Capao Xavier Iron Ore Deposit on the Water Supply of Belo Horizonte, Minas Gerais, Brazil. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 359–366, 4 Abb., 2 Tab.; Sevilla (International Mine Water Association).
• Quandt, D., Rudolph, T. & Hilgers, C. (2023): Post-Mining: Geomonitoring, process understanding, and utilisation of former mining areas. – Z. Dt. Ges. Geowiss., 173(4):507–511, doi:10.1127/zdgg/2023/0383.
• Quang Tran, T., Banning, A. & Wohnlich, S. (2020): Application of Multivariate Statistical Analysis in Mine Water Hydrogeochemical Studies of the Outcropped Upper Carboniferous, Ruhr Area, Germany. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 70–76; (International Mine Water Association).
• Quang Tran, T., Banning, A. & Wohnlich, S. (2021): Application of Multivariate Statistical Analysis in Mine Water Hydrogeochemical Studies of the Outcropped Upper Carboniferous, Ruhr Area, Germany. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 569–576; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Quaranta, J. D., Mack, B., Van Aken, B., Ducatman, A. & Ziemkiewicz, P. F. (2014): Practical Application of Dilution Analysis for Estimating Groundwater Quality Effects Due to Coal Slurry Injection into Underground Mine Voids. – Mine Water Environ., 33(4):353–361, 1 Abb., 10 Tab.; doi:10.1007/s10230-014-0274-8.
• Quarini, G. L., Chinarak, T. & Chang, Y. C. (2007): Development and characterization of a time-based, mass flow controller. – Proceedings of the Institution of Mechanical Engineers Part E Journal of Process Mechanical Engineering, 221(E4):207–217, 19 Abb.; doi:10.1243/09544089JPME116.
• Quarles, J. T., Vitale, M. J. & Calhoun, M. W. (2024): Identification of rare earth element occurrences in mine waste throughout Montana. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 509–513; Morgantown (International Mine Water Association).
• Quast, A. (2003): Calcretes aus jungpaläozoischen Bodenbildungen: ein möglicher Proxy für die CO₂-Konzentration der Paläoatmosphäre. – 146 p., 43 Abb., 35 Tab., 39 Anl.; Göttingen (Diss. Georg-August-Universität Göttingen).
• Quatrini, R. & Johnson, D. B. (2016): Acidophiles: Life in Extremely Acidic Environments. – 310 p., Poole (Caister Academic Press); doi:10.21775/9781910190333.
• Que, S. S., Wang, L., Awuah-Offei, K., Yang, W. & Jiang, H. (2019): Corporate Social Responsibility: Understanding the Mining Stakeholder with a Case Study. – Sustainability-Basel, 11(8):2407, doi:10.3390/su11082407.
• Queisser, W. (1967): Geochemische Tiefenprospektion zur Feststellung der Verteilung von Spurenelementen, insbesondere Zinn, Wolfram, Molybdän, und Wismut in den Nebengesteinen des Granits der Bohrungen Hegelshöhe 1/64 und Löwenhein 2/64 (Osterzgebirge). – Deut. Ges. Geol. Wiss. Ber. Reihe B, 12(3):327.
• Quevauviller, P., Balabanis, P., Fragakis, C., Weydert, M., Oliver, M., Kaschl, A., Arnold, G., Kroll, A., Galbiati, L., Zaldivar, J. M. & Bidoglio, G. (2005): Science-policy integration needs in support of the implementation of the EU Water Framework Directive. – Environ. Sci. Policy, 8(3):203–211, 9 Abb.
• Quine, W. V. O. (1976): The ways of paradox, and other essays, Rev. and enl. edn. – 335 p., Cambridge (Harvard University Press).
• Quinete, N., Lavandier, R., Dias, P., Taniguchi, S., Montone, R. & Moreira, I. (2011): Specific profiles of polybrominated diphenylethers (PBDEs) and polychlorinated biphenyls (PCBs) in fish and tucuxi dolphins from the estuary of Paraíba do Sul River, Southeastern Brazil. – Mar. Pollut. Bull., 62(2):440–446, doi:10.1016/j.marpolbul.2010.11.021.
• Quinlan, J. F. (1989): Ground-Water Monitoring in Karst Terranes – Recommended Protocols & Implicit Assumptions: EPA 600/X-89/050. – 79 p., 8 Abb.; Washington (U.S. Environmental Protection Agency).
• Quinn, J. J., Negri, M. C., Hinchman, R. R., Moos, L. P., Wozniak, J. B. & Gatliff, E. G. (2001): Predicting the Effect of Deep-Rooted Hybrid Poplars on the Groundwater Flow System at a Large-Scale Phytoremediation Site. – Int. J. Phytoremediation, 3(1):41–60, 8 Abb., 2 Tab.
• Quinn, L. P., de Vos, J., Fernandes-Whaley, M., Roos, C., Bouwman, H., Kylin, H., Pieters, R. & van den Berg, J. (2011): Pesticide Use in South Africa: One of the Largest Importers of Pesticides in Africa. – In: Margarita, S. (ed) Pesticides in the Modern World. – p. Ch. 4, Rijeka (IntechOpen); doi:10.5772/16995.
• Quintarelli, J. M., da Silva Junior, G. C. & Viglio, E. P. (2023): A Note on the Influence of the Mine Tailings Released in the Córrego do Feijão Mine Disaster on the Water Bodies of Brumadinho, Minas Gerais, Brazil. – Mine Water Environ., 42(1):187–199, doi:10.1007/s10230-023-00916-8.
• Quiring, H. (1936): Neue geothermische Messungen in Eisenstein- und Erzgruben des Rheinischen Gebirges. – Glückauf, 72(3):57–62, 1 Abb., 22 Tab.
• Quiroz, R., Popp, P. & Barra, R. (2009): Analysis of PCB levels in snow from the Aconcagua Mountain (Southern Andes) using the stir bar sorptive extraction. – Environ. Chem. Lett., 7:283–288, doi:10.1007/s10311-008-0164-z.
• Qureshi, A. & Bussière, B. (2021): Modelling the Geochemical Behaviour of Desulfurized Tailings as a Moisture-Retaining Layer in Insulation Covers with Capillary Barrier Effects using MIN3P-THCm. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 435–445; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Qureshi, A., Jia, Y., Maurice, C. & Öhlander, B. (2016): Characterisation of fly ashes for minimisation of acid mine drainage from coal mining waste rocks. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 977–986, Freiberg (TU Bergakademie Freiberg).
• R Sabale, S. & Tamhankar, B. V. (2012): Extraction, Determination and Bioremediation of Heavy Metal Ions and Pesticide Residues from Lake Water. – J. Biorem. Biodegrad., 3(4) 6 Abb., 3 Tab.; doi:10.4172/2155-6199.1000143.
• R., A. (1937): Vieille Montagne – A Hundred Years of Zinc Smelting. – Transactions of the Newcomen Society, 18(1):266–267, doi:10.1179/tns.1937.022.
• Raab, S. (2003): Bestimmung der regionalen Organdurchblutung mit Hilfe von fluoreszierenden Mikrosphären. – Dissertation, LMU München, LMU München; München.
• Raab, S., Thein, E., Harris, A. G. & Messmer, K. (1999): A new sample-processing unit for the fluorescent microsphere method: 276. – H1801–H1806 p.
• Raab, W. (1997): Der Bergbau und andere künstliche Objekte rund um das Estergebirge. – Karst und Höhle, 1996/97:269–292, 314 Abb.
• Rabe, W., Scholz, G., Clauß, D. & Günther, L. (2010): Die Neutralisation des Bergbaufolgesees Tröbitz RL 122 zur Vorbereitung als Fischereigewässer mittels Inlake-Schiffstechnik. – Wiss. Mitt. Inst. Geol., 42:183–188, 4 Abb., 1 Tab.
• Rabe, W. & Uhlmann, W. (2006): Neue Erkenntnisse zur Anwendung von In-Lake-Verfahren für die Neutralisation saurer Bergbaufolgeseen. – Wiss. Mitt. Inst. Geol., 31:97–104, 5 Abb., 5 Tab.
• Rabinowitz, H. & Vogel, S. (2009): The Manual of Scientific Style – A Guide for Authors, Editors, and Researchers. – 968 p., Burlington (Academic Press).
• Rabotnova, I. L. (1963): The Importance of Physical-Chemical Factors (pH and rH2) for the Life Activity of Microorganisms. – 296 p., 69 Abb., 78 Tab.; Washington (Army Biological Labs).
• Radhakrishnan Naresh, K., McCullough, C. D., Lund, M. A. & Larranaga, S. A. (2011): Evaluating the factors limiting algal biomass in acidic pit lakes of the Collie lake district, Western: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 523–528 p., Aachen (RWTH Aachen University).
• Radin, D., Hayssen, G., Emoto, M. & Kizu, T. (2006): Double-blind test of the effects of distant intention on water crystal formation. – Explore (NY), 2(5):408–11, doi:10.1016/j.explore.2006.06.004.
• Radiometer Analytical (2004): Conductivity – Theory and Practice. Villeurbanne, 49.
• Radko, T. (2013): Double-Diffusive Convection. – 342 p., Cambridge (Cambridge University Press).
• Radvanec, M., Grecula, P. & Žák, K. (2004): Siderite mineralization of the Gemericum superunit (Western Carpathians, Slovakia) – Review and a revised genetic model. – Ore Geol. Rev., 24(3-4):267–298, doi:10.1016/j.oregeorev.2003.07.004.
• Radwan, S. & Paleolog, A. (1983): Notes on the Rotifers of Coal-Mine water in Eastern Poland. – Hydrobiologia, 104:307–309, 3 Abb.; doi:10.1007/BF00045982.
• Raeder, U. Die Osterseen. – (Unveröff Handblatt).
• Rafael Fernández, R. (2012): Mining: The Challenge Knocks on our Door. – Mine Water Environ., 31(1):69–73, 3 Abb.; doi:10.1007/s10230-012-0169-5.
• Raff, O. & Wilken, R.-D. (1999): Uranium Removal from Water by Nanofiltration. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 321–324, 8 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Raffetti, E., Donat-Vargas, C., Mentasti, S., Chinotti, A. & Donato, F. (2020): Association between exposure to polychlorinated biphenyls and risk of hypertension: A systematic review and meta-analysis. – Chemosphere, 255:126–984, doi:10.1016/j.chemosphere.2020.126984.
• Rafique, V., Grimmer, M., Scheermann, F., Roscher, M. & Hoth, N. (2024): Integrated Hydrological and Hydrochemical Analysis of Arsenic and Iron Behavior in Waters of a Decommissioned Tin Mine in Ehrenfriedersdorf, Germany. – Hydrology, 11(4) 12 Abb., 2 Tab.; doi:10.3390/hydrology11040051.
• Raghav, M., Szaro, J., Graham, T. & Callen, B. (2021): Design, Operation, and Preliminary Findings from a Field Acid Rock Drainage (ARD) Study at the Bagdad Copper Mine in Arizona. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 446–452; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Ragusa, A. T. & Crampton, A. (2016): To Buy or not to Buy? Perceptions of Bottled Drinking Water in Australia and New Zealand. – Hum. Ecol., 44(5):565–576, doi:10.1007/s10745-016-9845-6.
• Rahe, J. (2018): Grubenwasseranstieg und Gewässerschutz. – Natur und Recht, 40(4):245–248, doi:10.1007/s10357-018-3320-7.
• Rahimi, E. & Mohaghegh, N. (2016): Removal of Toxic Metal Ions from Sungun Acid Rock Drainage Using Mordenite Zeolite, Graphene Nanosheets, and a Novel Metal–Organic Framework. – Mine Water Environ., 35(1):18–28, doi:10.1007/s10230-015-0327-7.
• Rahm, H., Plantikow, K., Spira, D., Reifferscheid, G. & Schäfer, S. (2019): Neues Leben ohne Grubenwasser? Auswirkungen der Beendigung des Steinkohlebergbaus auf die Gewässerqualität in NRW. – Mitt. Umweltchem. Ökotox., 25(3):67–71, 5 Abb.
• Rahm, L. & Walin, G. (2006): On thermal convection in stratified fluids. – Geophys. Astrophys. Fluid Dyn., 13(1):51–65, doi:10.1080/03091927908243760.
• Rahman, H., Magara, Y., Miyabayashi, S. & Yagi, Y. (2005): The results of the pilot plant study for arsenic removal. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 381–388, Heidelberg (Springer).
• Rahn, P. H., Davis, A. D., Webb, C. J. & Nichols, A. D. (1996): Water quality impacts from mining in the Black Hills, South Dakota, USA. – Environ. Geol., 27(1):38–53, 7 Abb., 16 Tab.
• Raileanu, M., Calmoi, R., Simion, C., Barbir, G. & Cecal, A. (2005): Study of the chemical leaching of uranium from several mineralogical layers. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 531–536, Heidelberg (Springer).
• Rainbow, A., Kyser, T. K. & Clark, A. H. (2006): Isotopic evidence for microbial activity during supergene oxidation of a high-sulfidation epithermal Au-Ag deposit. – Geology, 34(4):269–272, 4 Abb.; doi:10.1130/g22140.1.
• Rainer, E. (1972): Die Gefahren der Grubenwässer sowie ihre sichere und wirtschaftliche Ableitung im Bergbau. – Freiburg (unveröff. Maschinenschrift).
• Rainwater, F. H. & Thatcher, L. L. (1960): Methods for Collection and Analysis of Water Samples. – U.S. Geol. Surv. Water Supply Pap., 1454:1–301.
• Räisänen, M. L. (2009): Capability of natural and constructed wetlands to mitigate acidic leakage from closed mine waste facilities – cases in Eastern Finland. – 1–10 [electronic document] p., 2 Abb., 4 Tab.; Skellefteå (Proceedings Securing the Future 2009 & 8th ICARD).
• Räisänen, M. L., Bomberg, M. & Mäkinen, J. (2016): Passive water purification of pit lakes – a case study from the closed Hammaslahti Cu-Zn-Au mine. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 820–827, Freiberg (TU Bergakademie Freiberg).
• Räisänen, M. L. & Juntunen, P. (2004): Decommissioning of the old pyritic tailings Facility previously used in a Talc Operation, eastern Finland. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 91–100, 4 Tab.; Newcastle upon Tyne (University of Newcastle).
• Rait, R., Trumm, D., Pope, J., Craw, D., Newman, N. & MacKenzie, H. (2010): Passive treatment of mine drainage arsenic through adsorption by acid mine drainage precipitates, West Coast, New Zealand. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 259–263, Sydney, NS (Cape Breton University Press).
• Rajavuori, L. & Kriegsman, L. M. (2002): Fluorine in orthoamphibole dominated Zn-Cu-Pb deposits: examples from Finland and Australia. – Spec. Publ. – Geol. Soc. London, 204(1):337–353, doi:10.1144/gsl.sp.2002.204.01.19.
• Rajeshwar, K. & Ibanez, J. (1997): Environmental Electrochemistry – Fundamentals and Applications in Pollution Sensors and Abatement. – 776 p., Amsterdam (Academic Press).
• Rajšp, V. (2005): Die Josephinische Landesaufnahme als historische Quelle. – In: Merta, B., Andrea, S. & Herwig, W. (eds): Vom Nutzen des Edierens. – p. 277–284, Wien (Oldenbourg); doi:10.7767/boehlau.9783205160274.277.
• Rakotondrabe, F., Ngoupayou, J. R. N., Mfonka, Z., Rasolomanana, E. H., Abolo, A. J. N. & Ako, A. A. (2018): Water quality assessment in the Bétaré-Oya gold mining area (East-Cameroon): Multivariate Statistical Analysis approach. – Sci. Total Environ., 610:831–844, doi:10.1016/j.scitotenv.2017.08.080.
• Rakotonimaro, T. V., Neculita, C. M., Bussière, B., Benzaazoua, M. & Zagury, G. J. (2017): Recovery and reuse of sludge from active and passive treatment of mine drainage-impacted waters: a review. – Environ. Sci. Pollut. Res., 24(1):73–91, doi:10.1007/s11356-016-7733-7.
• Rakotonimaro, T. V., Neculita, C. M., Bussière, B., Genty, T. & Zagury, G. J. (2017): Iron and Sulfate Removal in Highly Contaminated Acid Mine Drainage Using Passive Multi-Step Systems. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1032–1038, Lappeenranta (Lappeenranta University of Technology).
• Ralston, D. R. (1979): Ground Water Flow Systems in Idaho’s Western Phosphate Field: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 342–361 p., 4 Abb., 2 Tab.; San Francisco (Freeman).
• Ralston, D. R. (1982): Interaction of Hydrologic and Mining Variables in the Western Phosphate Field, U.S.A. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:126–143, 8 Abb.
• Ralston, D. R., Trexler, B. D., Jr. & Williams, R. E. (1978): Ground water hydrology – a tool for mine planning, operation and abandonment. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1081–1094; Maracena (Asociación Nacional de lngenieros de Minas).
• Raltson, D. R. & Williams, R. E. (1985): Hydrogeologic aspects of the abandonment of an underground lead-zinc mine. – Proceedings, 2nd International Mine Water Association Congress, 2:777–788.
• Ramadorai, G. (1978): Treating Tailings Waters from Moly Operations – A Review. – Min. Eng., 30:1303–1306, 2 Abb., 1 Tab.
• Ramakuela, M., Adeniyi, A., Onyango, M. S., Mbaya, R. & Oyewo, O. (2018): Performance Evaluation of Orange Peels as Anti-Scaling Agent for Pretreatment of Water. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 188–192; (Tshwane University of Technology).
• Raman, C. D., MacSween, J., Shea, J., Kaliaperumal, R., Oakes, K. & Mkandawire, M. (2013): Prediction of hydrogeochemical changes due to surface water seepage into 1B Mine Pool of Cape Breton, Canada. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 441–446, 7 Abb.; Golden (International Mine Water Association).
• Ramanadhan, K. & Gill, W. N. (1969): Combined forced and free convective diffusion in vertical semipermeable parallel plate ducts. – AIChE J., 15(6):872–84, 22 Ref; doi:10.1002/aic.690150614.
• Ramanathan, R. & Nasr-El-Din, H. (2019): Evaluation of Chelating Agents for Iron Sulfide FeS Scale Removal. Paper presented at the Abu Dhabi International Petroleum Exhibition & Conference, Abu Dhabi, 11–14 November 2019. – p. 1–19, 15 Abb., 2 Tab.; Abu Dhabi.
• Ramaqele, M., Billing, C., Cukrowska, E. M. & Richards, H. L. (2019): In Search of a Speciation Method for Arsenic in Mine-Influenced Waters: Is Differential Pulse Anodic Stripping Voltammetry the Answer? – Mine Water Environ., 38(4):837–846, doi:10.1007/s10230-019-00630-4.
• Ramboll Finland Oy (2022): Outokumpu Mining Oy Kotalahden Kaivos – Sekoittumisvyöhykkeen Laajuuden ja Tarpeellisuuden Arviointi [Outokumpu Mining Oy Kotalahdi Mine – Assessment of the extent and necessity of the mixing zone]. – Unpubl. Report for Outokumpu Mining Oy (Report Nr. 1510064166 from 2022-06-06). – 22 p., Lahti (Ramboll Finland Oy).
• Ramesh, A. (1993): Selective Sorption of Heavy Metals Using an Iron-Rich Waste Byproduct. – 77 p., Lehigh University, 19 Abb., 9 Tab.; Lehigh.
• Ramirez, A. L., Newmark, R. L. & Daily, W. D. (2003): Monitoring Carbon Dioxide Floods Using Electrical Resistance Tomography (ERT): Sensitivity Studies. – J. Environ. Eng. Geophys., 8(3):187–208, 18 Abb., 1 Tab.
• Ramírez, M. & Carrascosa, H. (1999): Analysis of the Prevailing Environmental Legislation for Mining Activity. San Juan Province, Argentina. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 719–723, Sevilla (International Mine Water Association).
• Ramírez Pérez, J. A., Bolívar Raya, J. P., Barba Lobo, A. & Gázquez González, M. J. (2025): Radiological assessment of copper mining wastes from the Iberian Pyrite Belt. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 84–89; Braga (International Mine Water Association).
• Rammlmair, D. (2002): Hard pan formation on mining residuals. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 177–186, 3 Abb.; Heidelberg (Springer).
• Ramos, R. G., Cunha, O., Rodrigues, F., Scassiotti, W., Ribeiro, M. & Aerts, P. (2013): Remediation of Environmental Impact of Acidic Dam of Mines Through Membrane Process. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 705–710, 7 Abb., 4 Tab.; Golden (International Mine Water Association).
• Ramsey, D. & Martin, J. (2009): Subaqueous Disposal of Sulphide Tailings – Reclamation of the Sherridon Orphan Mine Site, Manitoba, Canada. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 746–755, 6 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Ramugondo, S. J., Molapo, D., Coetzee, H. & Tegegn, K. (2022): The effectiveness of upgrading the Van Ryn Canal as an option to reduce water ingress into the underground mine workings in the East Rand of the Witwatersrand Basin in Gauteng Province, South Africa. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 397–402; (International Mine Water Association).
• Ranangen, H. & Lindman, A. (2018): Exploring corporate social responsibility practice versus stakeholder interests in Nordic mining. – J. Clean. Prod., 197:668–677, doi:10.1016/j.jclepro.2018.06.159.
• Ranangen, H. & Zobel, T. (2014): Exploring the path from management systems to stakeholder management in the Swedish mining industry. – J. Clean. Prod., 84:128–141, doi:10.1016/j.jclepro.2014.04.025.
• Randall, D., Nathoo, J. & Lewis, A. E. (2009): Seeding for Selective Salt Recovery during Eutectic Freeze Crystallization. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 639–648, 11 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Rank, D., Papesch, W., Heiss, G. & Tesch, R. (2009): Isotopic Composition of River Water in the Danube Basin – Results from the Joint Danube Survey 2 (2007). – Austrian J. Earth Sci., 102(2):170–180.
• Ranson, C. M., Reynolds, N. & Smith, A. C. (2000): The Development of Passive Minewater Treatment in Neath and Port Talbot, South Wales. Paper presented at the National Meeting of the American Society for Surface Mining and Reclamation, Tampa. – p. 283–292, 4 Abb.
• Ranville, J. F. & Schmiermund, R. L. (1999): General Aspects of Aquatic Colloids in Environmental Geochemistry. – In: Plumlee, G. S. & Logsdon, M. J. (eds): The Environmental Geochemistry of Mineral Deposits 6A. – p. 183–199, 8 Abb., 4 Tab.; Littleton (Society of Economic Geologists); doi:10.5382/Rev.06.08.
• Rao, S. R. & Finch, J. A. (1989): A review of water re-use in flotation. – Miner. Eng., 2(1):65–85, doi:10.1016/0892-6875(89)90066-6.
• Rapant, S., Čermák, P., Cvečková, V., Hajduk, I., Kožíšek, F. & Stehlíková, B. (2024): The significance of calcium and magnesium content in drinking water for arterial stiffness among residents of the Slovak Republic. – J. Water Health, 22(10):1874–1885, doi:10.2166/wh.2024.179.
• Rapantová, N. & Grmela, A. (2000): Water balance of coal mines and its determination under the conditions of humid climate of Central Europe. – Proceedings, 7th International Mine Water Association Congress:615–623, 2 Abb., 4 Tab., 1 Kart.
• Rapantová, N., Grmela, A., Michalek, B., Hajek, A., Zabojnik, P. & Zeman, J. (2008): Utilization of Olsi-Dranonin uranium deposit after mine closure. – Proceedings, 10th International Mine Water Association Congress:221–224.
• Rapantová, N., Grmela, A., Vojtek, D., Halir, J. & Michalek, B. (2007): Ground Water Flow Modelling Applications in Mining Hydrogeology. – Mine Water Environ., 26(4):264–270, 5 Abb., 1 Tab.; doi:10.1007/s10230-007-0017-1.
• Rapantová, N., Grmela, A., Vojtek, D., Halir, J. & Michalek, B. (2007): Groundwater Flow Modelling Applications in Mining Hydrogeology: Water in Mining Environments. – 349–353 p., 2 Abb.; Cagliari (Mako Edizioni).
• Rapantová, N., Grycz, D., Malucha, P. & Mandrla, V. (2017): Simulation of Mine Water Rebound in the Ostrava Basin – Part of the Upper Silesian Coal Basin. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 488, Lappeenranta (Lappeenranta University of Technology).
• Rapantová, N., Krzeszowski, Ś., Grmela, A. & Wolkersdorfer, Ch. (2012): Quantitative Assessment of Mine Water Sources Based on the General Mixing Equation and Multivariate Statistics. – Mine Water Environ., 31(4):252–265, 6 Abb., 6 Tab.; doi:10.1007/s10230-012-0192-6.
• Rapantová, N., Licbinska, M., Babka, O., Grmela, A. & Pospisil, P. (2013): Impact of uranium mines closure and abandonment on groundwater quality. – Environ. Sci. Pollut. Res., 20(11):7590–602, doi:10.1007/s11356-012-1340-z.
• Rapantová, N., Licbinska, M., Grmela, A. & Lusk, K. (2013): Mine Water Quality at Abandoned Uranium Mining Sites in the Czech Republic. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1097–1103, 2 Abb.; Golden (International Mine Water Association).
• Rapantová, N., Wolkersdorfer, Ch., Krzeszowski, Ś. & Grmela, A. (2013): Methodology of Quantitative Assessment of Mine Water Inflow. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology I. – p. 181–187, 1 Abb., 3 Tab.; Denver (Publication Printers).
• Rapantová, N., Zeman, J., Vojtek, D., Grmela, A. & Michálek, B. (2009): Mathematical Modelling Application for Optimisation of Utilisation of Mine Waters with High Uranium Concentrations from Flooded Mines. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 89–94, 4 Abb; Pretoria (Document Transformation Technologies).
• Rapeta, M., Maree, J. & Nkambule, T. (2024): Treatment of coal mine leachate for neutralization and metal removal. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 514–521; Morgantown (International Mine Water Association).
• Rapeta, M. G., Maree, J. P., Msagati, T. & Nkambule, T. (2025): Solar evaporation of brine. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 169–174; Braga (International Mine Water Association).
• Rappl, A. (2007): Tracerhydrologische Untersuchungen im Einzugsgebiet des Partnach-Ursprungs – Zugspitzgebiet – Qualitative und Quantitative Auswertung der Ergebnisse. – 110 p., 43 Abb., 9 Tab., 8 Anh., 3 Anl.
• Rappl, A., Wetzel, K.-F., Scholz, G. & Büttner, M. (2010): Tracerhydrologische Untersuchungen am Partnach-Ursprung. – Hydrol. Wasserbewirtsch., 54(4):220–230, 7 Abb., 3 Tab.
• Rasbury, E. T., Hanson, G. N., Meyers, W. J. & Saller, A. H. (1997): Dating of the time of sedimentation using U-Pb ages for paleosol calcite. – Geochim. Cosmochim. Acta, 61(7):1525–1529.
• Rascher, J., Fischer, J., Dutschmann, U. & Schulz, C. (2005): Hydrogeologisches Kartenwerk auf Basis von Arc-Info für die Stadt Leipzig: Karten zur Verbreitung und Geschütztheit der quartären Grundwasserleiter. – Wiss. Mitt. Inst. Geol., 28:151–153.
• Rash, J. K. & Liehr, S. K. (1999): Flow Pattern Analysis of Constructed Wetlands Treating Landfill Leachate. – Water Sci. Technol., 40(3):309–315.
• Rasp, H. (1994): Möglichkeiten des Einsatzes organischer Abfallstoffe in Weinbau und Sonderkulturen. – Berichte über Landwirtschaft – Sonderhefte, 208:187–194, 1 Abb., 2 Tab.
• Rastogi, V. (1994): Control of Mine Water Quality in Coal Rejects Disposal Areas and Coal Stockpiles With Bactericides. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:577–586, 7 Abb., 6 Tab.
• Rathjens, C. (1949): Der Stand der Eiszeitforschung im Deutschen Alpenvorlande. – Geogr. Helv., 4(1):21–30, doi:10.5194/gh-4-21-1949.
• Ratié, G., Quantin, C., Jouvin, D., Calmels, D., Ettler, V., Sivry, Y., Vieira, L. C., Ponzevera, E. & Garnier, J. (2016): Nickel isotope fractionation during laterite Ni ore smelting and refining: Implications for tracing the sources of Ni in smelter-affected soils. – Appl. Geochem., 64:136–145, doi:10.1016/j.apgeochem.2015.09.005.
• Ratkvic, V. M., Todorovic, T. & Vujic, S. (1985): The Importance of Protection of the Open Casts from Underground and Surface Water concerning Slope Stability Aspects. – Proceedings, 2nd International Mine Water Association Congress, 1:215–220, 4 Abb.
• Ratna Kumar, P., Chaudhari, S., Khilar, K. C. & Mahajan, S. P. (2004): Removal of arsenic from water by electrocoagulation. – Chemosphere, 55(9):1245–1252.
• Rätsep, A. & Liblik, V. (2001): The influence of polluted water flows on hydrological and hydrochemical conditions of Purtse catchment rivers, NE Estonia. – Nord. Hydrol., 32(3):215–226, doi:10.2166/nh.2001.0013.
• Rau, G. C., Cuthbert, M. O., Post, V. E. A., Schweizer, D., Acworth, R. I., Andersen, M. S., Blum, P., Carrara, E., Rasmussen, T. C. & Ge, S. (2020): Future-proofing hydrogeology by revising groundwater monitoring practice. – Hydrogeol. J., doi:10.1007/s10040-020-02242-7.
• Rautio, A. B., Korkka-Niemi, K. & Salonen, V.-P. (2017): Thermal infrared remote sensing in assessing ground/surface water resources related to Hannukainen mining development site, Northern Finland. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1290–1296, Lappeenranta (Lappeenranta University of Technology).
• Ravindran, K. V. & Jeyaram, A. (1997): Groundwater prospects of Shahbad Tehsil, Baran District, Eastern Rajasthan; a remote sensing approach. – Photonirvachak (Dehra Dun), 25(4):239–246, Refs: 5; illus. incl. 2 tables, geol. sketch map.
• Rawat, N. S. & Singh, G. (1982): The role of Micro-Organisms in the Formation of Acid Mine Drainage in the North Eastern Coal Field of India. – Int. J. Mine Water, 1(2):29–36, 4 Abb., 3 Tab.
• Rawat, N. S. & Singh, G. (1982): Study of acid mine drainage in north eastern coal mines of India. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, ABCD Supplementary volume:133–148, 7 Abb., 4 Tab.
• Rawlings, D. E. (2005): Characteristics and adaptability of iron- and sulfur-oxidizing microorganisms used for the recovery of metals from minerals and their concentrates. – Microbial Cell Factories, 4(13):[1–15], 3 Abb.
• Rawlings, D. E., Tributsch, H. & Hansford, G. S. (1999): Reasons why ‘Leptospirillum’-like species rather than Thiobacillus ferrooxidans are the dominant iron-oxidizing bacteria in many commercial processes for the biooxidation of pyrite and related ores. – Nature reviews – Microbiology, 145:5–13, 5 Abb., 1 Tab.
• Ray, D., Clark, M. & Pitman, T. (2009): Treatment of an Iron-rich ARD Using Waste Carbonate Rock: Bench-Scale Reactor Test Results. – Mine Water Environ., 28(4):253–263, 3 Abb., 5 Tab.; doi:10.1007/s10230-009-0080-x.
• Raymond, E. S. (2003): The New Hacker’s Dictionary – version 4.4.7, 29 Dec 2003. http://www.catb.org/jargon/html/index.html Accessed 2019-01-26.
• Raymond, J. & Therrien, R. (2008): Low-temperature geothermal potential of the flooded Gaspé Mines, Québec, Canada. – Geothermics, 37:189–210, 8 Abb., 3 Tab.
• Raymond, J. & Therrien, R. (2013): Optimizing the design of a geothermal district heating and cooling system located at a flooded mine in Canada. – Hydrogeology Journal, 22(1):217–231, doi:10.1007/s10040-013-1063-3.
• Raymond, J., Therrien, R. & Hassani, F. (2008): Overview of Geothermal Energy Resources in Québec (Canada) Mining Enviroments. – Proceedings, 10th International Mine Water Association Congress:99, 5 Abb., 1 Tab.
• Raymond, O. L. (1996): Pyrite composition and ore genesis in the Prince Lyell copper deposit, Mt Lyell mineral field, western Tasmania, Australia. – Ore Geol. Rev., 10(3-6):231–250, Refs: 71; illus. incl. sect., 1 table, geol. sketch maps.
• Rayne, S., Forest, K. & Friesen, K. J. (2009): Analytical Framework for a Risk-based Estimation of Climate Change Effects on Mine Site Runoff Water Quality. – Mine Water Environ., 28(2):124–135, 2 Abb., 4 Tab.; doi:10.1007/s10230-009-0070-z.
• Razanamahandry, L. C., Onwordi, C. T., Saban, W., Bashir, A. K. H., Mekuto, L., Malenga, E., Manikandan, E., Fosso-Kankeu, E., Maaza, M. & Ntwampe, S. K. O. (2019): Performance of various cyanide degrading bacteria on the biodegradation of free cyanide in water. – J. Hazard. Mater., 380:6, doi:10.1016/j.jhazmat.2019.120900.
• Razowska, L. (2000): Water quality of the abandoned aquifer in the area of the abandoned iron mines (in southern Poland). – Proceedings, 7th International Mine Water Association Congress:309–318, 4 Abb., 2 Tab.
• Razowska, L. (2001): Changes of groundwater chemistry caused by the flooding of iron mines (Częstochowa Region, Southern Poland). – J. Hydrol., 244:17–32, 8 Abb., 4 Tab.; doi:10.1016/S0022-1694(00)00420-0.
• Razowska-Jaworek, L. (2024): Groundwater in Katowice – center of a large urban and deep coal mining area in Poland. – Acque Sotterranee – Italian Journal of Groundwater, 13(3) doi:10.7343/as-2024-805.
• Razowska-Jaworek, L., Pluta, I. & Chmura, A. (2008): Mine Waters and Their Usage in the Upper Silesia in Poland – Examples from Selected Regions. – Proceedings, 10th International Mine Water Association Congress:537–539, 4 Abb., 2 Tab.
• Read, D., Hellmuth, K.-H., Kaija, J. & Ahonen, L. (2002): Natural Uranium Fluxes and their Use in Repository Safety Assessment. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 115–127, 2 Abb.; 1 Tab.; Heidelberg (Springer).
• Real, F. & Franco, A. (1990): Tailings Disposal at Neves-Corvo Mine, Portugal. – Int. J. Mine Water, 9(1-4):209–221, 4 Abb., 4 Tab.
• Reason, J. T. (1990): Human error. – 302 p., Cambridge (Cambridge University Press); doi:10.1017/CBO9781139062367.
• Reason, J. T. (1997): Managing the risks of organizational accidents. – 252 p., Aldershot (Ashgate).
• Reason, J. T. (2000): Human error: models and management. – BMJ, 320(7237):768–770, doi:10.1136/bmj.320.7237.768.
• Rebholz, H., Köhler, W. & Tenbohlen, S. (2005): Dielektrische Festigkeit verschiedener Gase in GIS. – In: Kindersberger, J. (ed) ETG-Fachbericht 99. – p. 121–126, 9 Abb.; Hanau (Tagungsband VDE Fachtagung – Grenzflächen in elektischen Isoliersystemen).
• Recio, G., Segura, A., Schwarz, A. & Nancucheo, I. (2024): Recovery of copper as “clean” nanoparticles of CuS from acid rock drainage and mine process water. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 522–525; Morgantown (International Mine Water Association).
• Reckendrees, A. (2014): Der Steinkohlenbergbau in der Aachener Region, 1780–1860. The New Economy Of Industrial Capitalism. Industrial And Institutional Revolution In The Rhineland, 1790-1860. – p. 189, 24 Abb., 49 Tab.
• Reddish, D. J. & Smith, S. F. (1982): Underground Measurement of Fracture Permeabilty of Coal within a Shaft Pillar. – Int. J. Mine Water, 1(3):13–22, 9 Abb., 1 Tab.
• Reddish, D. J., Yao, X. L., Benbia, A., Cain, P. & Forrester, D. J. (1994): Modelling of Caving over the Lingan and Phalen Mines in the Sydney Coalfield Cape Breton. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:105–124, 14 Abb., 1 Tab.
• Reddy, A. V. B., Moniruzzaman, M. & Aminabhavi, T. M. (2019): Polychlorinated biphenyls (PCBs) in the environment: Recent updates on sampling, pretreatment, cleanup technologies and their analysis. – Chem. Eng. J., 358:1186–1207, doi:10.1016/j.cej.2018.09.205.
• Reddy, E. P. & Smirniotis, P. G. (2004): High-Temperature Sorbents for CO₂ Made of Alkali Metals Doped on CaO Supports. – J. Phys. Chem. B, 108(23):7794–7800, 10 Abb., 3 Tab.
• Reddy, K. R. & DeBusk, T. A. (1987): State-of-the-Art Utilization of Aquatic Plants in Water Pollution Control. – Water Sci. Technol., 19(10):61–79.
• Reddy, S. T., Kramer, H. J. M., Lewis, A. E. & Nathoo, J. (2009): Investigating Factors that Affect Separation in a Eutectic Freeze Crystallisation Process. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 649–656, 5 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Reddy, S. T. & Lewis, A. E. (2010): Waste minimisation through recovery of salt and water from a hypersaline brine. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 179–183, Sydney, NS (Cape Breton University Press).
• Reddy, S. T., Lewis, A. E., Witkamp, G. J., Kramer, H. J. M. & van Spronsen, J. (2010): Recovery of Na2SO4·10H₂O from a reverse osmosis retentate by eutectic freeze crystallisation technology. – Chem. Eng. Res. Des., 88(9):1153–1157, 8 Abb., 1 Tab.; doi:10.1016/j.cherd.2010.01.010.
• Redfern, H., Catley, J. & Yungwirth, G. (2021): Incorporating 2D Analytical Results into 3D Graphical and Multidisciplinary Mining Models. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 453–457; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Reed, S. M. & Singh, R. N. (1986): Groundwater Recovery Problems Associated with Opencast Mine Backfills in the United Kingdom. – Int. J. Mine Water, 5(3):47–73, 5 Abb., 2 Tab.
• Reed, S. M. & Singh, R. N. (1987): A geochemical Survey of Opencast Mine Water in the United Kingdom: Hydrogeology of Coal Basins. – 147–154 p., 1 Abb., 6 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Reeks, G. W. (2012): A History of Silver Mining in the greater Pretoria region, 1885-1999. – 188 p., 49 Abb., 3 Tab., 11 Anl.; Pretoria (unpubl. Master Thesis University of South Africa).
• Rees, B. (2005): An Update on Parys Mountain Remediation and Welsh Metal Mine Management. Paper presented at the Mine Water 2005 – Mine Closure, Oviedo. – p. 241–246, 5 Abb., 2 Tab.; (University of Oviedo).
• Rees, D. (2001): Asbestos lung fibre concentrations in South African chrysotile mine workers. – The Annals of Occupational Hygiene, 45(6):473–477, doi:10.1016/s0003-4878(00)00088-0.
• Rees, D., du Toit, D., Rendall, R. S. J., van Sittert, R. E. G. & Rama, G. C. H. (1992): Tremolite in southern African chrysotile. – S. Afr. J. Sci., 88(9-10):468–469, 1 Tab.
• Rees, D., Goodman, K., Fourie, E., Chapman, R., Blignaut, C., Bachmann, M. O. & Myers, J. (1999): Asbestos Exposure and Mesothelioma in South Africa. – S. Afr. Med. J., 89(6):627–634, 5 Tab.
• Rees, S. B. & Bowell, R. J. (1999): Stable Isotopic Modelling of the Longevity of Treatment Processes Operating in a Constructed Wetland for the Amelioration of Acid Mine Drainage. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 585–589, 4 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Rees, S. B., Bowell, R. J. & Wiseman, I. M. (2002): Influence of mine hydrogeology on minewater discharge chemistry. – Spec. Publ. – Geol. Soc. London, 198:379–390, 7 Abb., 3 Tab.; doi:10.1144/GSL.SP.2002.198.01.26.
• Rees, S. B., Bright, P., Connelly, R., Bowell, R. J. & Szabo, E. (2004): Application of the Welsh Mine Water Strategy: Cwmrheidol Case Study. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 235–244, 5 Abb., 3 Tab.; Newcastle upon Tyne (University of Newcastle).
• Rees, S. B. & Connelly, R. (2003): Review of design and performance of the Pelenna wetland systems. – Land Contam. Reclam., 11(2):293–300, 5 Abb., 3 Tab.; doi:10.2462/09670513.828.
• Regan, A. J. (1998): Causes and course of the Bougainville conflict. – J. Pac. Hist., 33(3):269–285, doi:10.1080/00223349808572878.
• Regan, A. J. & Griffin, H. M. (2015): Bougainville before the conflict, 2nd edn. – Canberra (ANU Press); doi:10.22459/BBC.08.2015.
• Regenspurg, S. (2002): Characterisation of Schwertmannite – Geochemical Interactions with Arsenate and Chromate and Significance in Sediments of Lignite Opencast Lakes. – 125 p., 42 Abb., 24 Tab., 9 Anl.; Bayreuth (Unveröff. Diss. Univ. Bayreuth).
• Regenspurg, S., Brand, A. & Pfeiffer, S. (2004): Formation and stability of schwertmannite in acidic mining lakes. – Geochim. Cosmochim. Acta, 68(6):1185–1197, 11 Abb., 7 Tab.
• Regenspurg, S., Meima, J. A., Kassahun, A. & Rammlmair, D. (2005): Krustenbildung in Bergbauhalden. – Wiss. Mitt. Inst. Geol., 28:63–67, 3 Abb., 2 Tab.
• Regier, A. (2003): Veränderungen im Eintrag von Schadstoffen in die Umwelt – Hochauflösende geochemische Sedimentuntersuchung in zwei Stauseen der Ruhr (Nordrhein-Westfalen). – 213 p., 137 Abb., 11 Tab.; Aachen (Shaker).
• Reh & Co. Straßenbau K.-G. (1939): 50 Jahre Reh & Co. 1889 – 1939. – 16 p., 2 Abb.; Berlin (Eigenverlag Reh & Co. Straßenbau K.-G.).
• Reibnagel, H. M. (2013): Gezähe im Mittelalter und in der frühen Neuzeit. – 189 p., Dipl.-Arb., Universität Wien, 129 Abb., 3 Tab., 4 Anl.; Wien.
• Reichardt, C. (2008): Heap Leaching and the Water Environment – Does Low Cost Recovery Come at a High Environmental Cost? – Proceedings, 10th International Mine Water Association Congress:395–398.
• Reichart, G. (2015): Modélisation thermo-hydrodynamique d’un réservoir minier profond ennoyé – Le cas du Bassin Houiller Lorrain [Thermo-hydrodynamical modelling of a flooded deep mine reservoir – Case of the Lorraine Coal Basin]. – 265 p., Doctoral, Université de Lorraine; Nancy.
• Reichart, G., Vaute, L., Collon-Drouaillet, P. & Buès, M. A. (2011): Modelling heat and salinity related convective processes in deep mining flooded wells. – In: Rüde, T. R., Freund, A. & Wolkersdorfer, Ch. (eds): Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – p. 183–188, 4 Abb.; Aachen (RWTH Aachen University).
• Reichel, F., Luckner, L. & Kaden, S. (1985): Estimation of the required Amount of Hydrological Exploration in Lignite Mining Areas on the Basis of Hypothetical Models. – Int. J. Mine Water, 4(4):1–20, 7 Abb., 7 Tab.
• Reichel, F., Roßbach, B. & Rösch, L. (1982): Stochastic Geohydraulic Computation for Open-Cast Mine Dewatering. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:246–257, 4 Abb.
• Reichel, J. (1973): Schwerentflammbare Druckflüssigkeiten für hydraulische Bergwerksmaschinen. – Glückauf, 109(17):871–877.
• Reichel, M., Uhlig, G., Wilsnack, T. & Schroeter, A. (2010): Natürlicher Rückhalt und Abbau deponiebürtiger Schadstoffe am Beispiel der submersen Deponie Großkayna (Rundstedter See). – Wiss. Mitt. Inst. Geol., 42:165–174.
• Reichel, W. & Schauer, M. (2006): Das Döhlener Becken bei Dresden – Geologie und Bergbau –: Bergbau in Sachsen 12. – 343 p., zahlr. Abb., 30 Tab., 11 Beil.; Dresden (Sächsisches Landesamt für Umwelt und Geologie (LfUG)).
• Reichel, W. & Schneider, J. W. (2012): Rotliegend im Döhlen-Becken. – Schriftenreihe der Deutschen Gesellschaft für Geowissenschaften, 61:589–625, 21 Abb.; doi:10.1127/sdgg/61/2012/589.
• Reichert, P. (1994): Aquasim – a Tool for Simulation and Data Analysis of Aquatic Systems. – Water Science and Technology, 30(2):21–30, doi:10.2166/wst.1994.0025.
• Reichert, P. (1995): Design techniques of a computer program for the identification of processes and the simulation of water quality in aquatic systems. – Environmental Software, 10(3):199–210, doi:10.1016/0266-9838(95)00010-i.
• Reichert, S. (2007): Möglichkeiten und Grenzen passiver Sanierungstechnologien für Grubenwässer des ehemaligen Erzbergbaus in Deutschland unter besonderer Berücksichtigung von zwei Fallbeispielen. – 231 p., 80 Abb., 47 Tab., 2 Anh.; Koblenz (unveröff. Dipl.-Arb. Universität Koblenz-Landau).
• Reid, R. C., Botsaris, G. D., Margolis, G., Kirwan, D. J., Denk, E. G., Ersan, G. S., Tester, J. & Wong, F. (2002): Crystallization—Part I – Transport Phenomena of Nucleation and Crystal Growth. – Ind. Eng. Chem., 62(11):52–67, doi:10.1021/ie50731a009.
• Reik, G. & Wolkersdorfer, Ch. (1999): Flutungsprognose eines Uranbergwerks – Hydrogeochemische und hydrodynamische Untersuchungen: Ressourcen-Umwelt-Management – Wasser, Boden, Sedimente. – 55–71 p., 5 Abb., 5 Tab.; Berlin (Springer); doi:10.1007/978-3-662-09759-5_4.
• Reimann, C. & Filzmoser, P. (2000): Normal and lognormal data distribution in geochemistry: death of a myth. Consequences for the statistical treatment of geochemical and environmental data. – Environ. Geol., 39(9):1001–1014, doi:10.1007/s002549900081.
• Reimann, C. & Garrett, R. G. (2005): Geochemical background – concept and reality. – Sci. Total Environ., 350(1-3):12–27, doi:10.1016/j.scitotenv.2005.01.047.
• Reimer, K. J. & Thompson, J. A. (1988): Arsenic speciation in marine interstitial water. The occurrence of organoarsenicals. – Biogeochemistry, 6(3):211–237, 10 Abb., 6 Tab.; doi:10.1007/BF02182997.
• Reimold, W. U. & Gibson, R. L. (2009): Meteorite Impact! The Danger from Space and South Africa’s Mega-Impact – The Vredefort Structure: Geoparks of the World, 3rd edn. – 337 p., 203 Abb., 2 Tab.; Berlin (Springer).
• Reimold, W. U., Hoffmann, M., Hauser, N., Schmitt, R. T., Zaag, P. T. & Mohr-Westerheide, T. (2016): A geochemical contribution to the discussion about the genesis of impact-related pseudotachylitic breccias: Studies of PTB in the Otavi and Kudu Quarries of the Vredefort Dome support the “In Situ Formation” hypothesis. – S. Afr. J. Geol., 119(3):453–472, doi:10.2113/gssajg.119.3.453.
• Reimold, W. U. & Koeberl, C. (2014): Impact structures in Africa: A review. – J. Afr. Earth Sci., 93:57–175, doi:10.1016/j.jafrearsci.2014.01.008.
• Reimold, W. U., Koeberl, C., Partridge, T. C. & Kerr, S. J. (1992): Pretoria Saltpan crater: Impact origin confirmed. – Geology, 20(12):1079–1082, 6 Abb., 1 Tab.; doi:10.1130/0091-7613(1992)020<1079:PSCIOC>2.3.CO;2.
• Reimus, P. W. & Haga, M. J. (1999): Analysis of Tracer Responses in the BULLION Forced-Gradient Experiment at Pahute Mesa, Nevada. – Los Alamos Report, LA-13615-MS:32, 16 Abb., 3 Tab, 2 Anh.
• Reimus, P. W., Haga, M. J., Adams, A. I., Callahan, T. J., Turin, H. J. & Counce, D. A. (2003): Testing and Parameterizing a Conceptual Solute Transport Model in Saturated Fractured tuff Using Sorbing and Nonsorbing Tracers in Cross-hole Tracer Tests. – J. Contam. Hydrol., 62-63:613–636, doi:10.1016/s0169-7722(02)00185-7.
• Reincke, H. (2000): Gewässergütewirtschaftliche Beurteilungskriterien bei der Grubenflutung. Paper presented at the Proceedings Wismut 2000 – Bergbausanierung Internationale Konferenz, Schlema. – p. 10; (Eigenverlag Wismut GmbH).
• Reincke, H., Hurst, S. & Schneider, P. (2002): Strategy Concept Elbe. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 41–47, 2 Abb.; Heidelberg (Springer).
• Reinders, F. B. (2010): Standards and Guidelines for Improved Efficiency of Irrigation Water Use from Dam Wall Release to Root Zone Application – Guidelines: WRC Project No K5/1482/4. – 275 p., Gezina (Water Research Commission).
• Reindl, A. R., Falkowska, L. & Grajewska, A. (2019): Halogenated organic compounds in the eggs of aquatic birds from the Gulf of Gdansk and Wloclawek Dam (Poland). – Chemosphere, 237:124463, doi:10.1016/j.chemosphere.2019.124463.
• Reingrabner, G. (s.a.): Die Verfolgung der österreichischen Protestanten während der Gegenreformation. http://www.religionen.at/irreingrabner.htm Accessed 2015-02-19.
• Reinhard, M. (1993): In-Situ Bioremediation Technologies for Petroleum-Derived Hydrocarbons Based on Alternate Electron Acceptors (Other Than Molecular Oxygen): Handbook of Bioremediation. – 131–148 p., 1 Abb.; Boca Raton (Lewis).
• Reinhardt, H. G. & Gast, H. (1995): The Importance of Radioactivity in Geoscience and Mining. – Experientia, 51(7):703–709, 4 Abb.
• Reis, O. M. (1897): Zur Geologie der Eisenoolithe führenden Eocänschichten am Kressenberg in Bayern. – Geogn. Jh., 10:24–49.
• Reis, O. M. (1910): Erläuterungen zur Geologischen Karte des Wettersteingebirges. I. Teil. Kurze Formationsbeschreibung, allgemeine tektonische und orogenetische Übersicht. – Geogn. Jh., 23:61–114, 15 Abb., 3 Kart.
• Reis, O. M. (1921): Nachträge zur geologischen Karte der Vorderalpenzone zwischen Bergen und Teisendorf (II. Teil). – Geogn. Jh., 34:223–244, 3 Abb., 1 Taf.
• Reiser, M. K., Scheiber, T., Fügenschuh, B. & Burger, U. (2010): Hydrological Characterisation of Lake Obernberg, Brenner Pass Area, Tyrol. – Austrian J. Earth Sci., 103(1) 15 Abb., 2 Tab.
• Reish, D. J., Oshida, P. S., Mearns, A. J., Ginn, T. C. & Buchman, M. (2005): Effect of pollution on marine organisms. – Water Environ. Res., 77(6):2733–2819, doi:10.2175/106143005x54669.
• Reisinger, T. & Rüde, T. R. (2017): Mass transport from hydraulically stowed waste materials in adjacent aquifers in the Ruhr Area, Germany. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 785–792, Lappeenranta (Lappeenranta University of Technology).
• Reiterer, A. (2018): Sicherungskonzept für den Balbierbach mit speziellen Bautypen. – Wildbach- und Lawinenverbau, 82(181):180–189.
• Reitfeld, M., Mainz, M., Mühlenkamp, M. & Schetelig, K. (2006): Ground heave induced by mine water recovery. Paper presented at the Eurock, Lüttich. – p. 315–320, 9 Abb.
• Reithofer, O. (1936): Die Quartärablagerungen im Silbertal. – Jb. Geol. B.-A., 86(1,2):177–196, 1 Kart.
• Reithofer, O. (1940): Die Bohrungen bei Rodund im Montafon. – Mitt. Reichamt Bodenf., Zweigst. Wien, 1(1):59–68, 1 Abb.
• Reithofer, O. (1941): Über die geologischen Ergebnisse eines Versuchsstollens im unteren Teil des Gampadelstales (Montafon). – Ber. Reichsamt Bodenf., Zweigst. Wien, 3-4:62–65, 1 Abb.
• Reithofer, O. (1955): Über interstadiale Schotter in Oberkrista (Montafon). – Verh. Geol. B.-A., 1955(2):141–144, 1 Abb.
• Reithofer, O. (1959): Geologische Beschreibung des Breitspitzstollens (Montafon). – Jb. Geol. B.-A., 102(3):461–475, 1 Tab., 1 Taf.
• Reitner, J. M. (2011): Das Inngletschersystem während des Würm-Glazials. – In: Gruber, A. (ed) Arbeitstagung 2011 der Geologischen Bundesanstalt Blatt 88 Achenkirch. – p. 79–88, 4 Abb.; Wien (Geologische Bundesanstalt).
• Reitzenstein, W.-A. v. (1978): Loisach. – Bl. oberdtsch. Namenforsch., 15:3–13.
• Reizenstein, P. (1966): Editorial: Do Tracers Trace? – Blood, 27(5):744–747, doi:10.1182/blood.V27.5.744.744.
• Reker, B. & Westermann, S. (2025): Re-Mining of mine water sludges in Germany. An opportunity? Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 633–638; Braga (International Mine Water Association).
• Reker, B., Westermann, S., Goerke-Mallet, P. & Melchers, Ch. (2019): Protecting Aquifers from Rising Mine Waters: Managing Mine Water in the Durham Coalfield (UK) and a Comparison with Methods used in Lorraine (France). – Mining Rep., 155(3):272–286.
• Rembuluwan, N., Dacosta, F. A. & Gumbo, J. R. (2014): Environmental Risk Assessment and Risk Management Strategies for Abandoned New Union Gold Mine in Malamulele, Limpopo, South Africa. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 367–373, 5 Abb.; Xuzhou (International Mine Water Association).
• Remenyik, T. (1959): Geologische Untersuchung der Bergsturzlandschaft zwischen Chur und Rodels (Graubünden). – Eclogae geol. Helv., 52(1):177–235.
• Remy, R. & Berginspektor Mengelberg (1904): Die Kohlenaufbereitung und Verkokung im Saargebiet: Der Steinkohlenbergbau des Preussischen Staates in der Umgebung von Saarbrücken V. – 133 p., 43 Abb., 14 Taf.; Berlin (Springer); doi:10.1007/978-3-662-33331-0.
• Ren, B., Yuan, L., Yu, G., Cao, C., Luo, Y., Mu, W., Zhang, Y., Li, L. & Wang, M. (2022): Investigation of a Method to Prevent Rock Failure and Disaster Due to a Collapse Column Below the Mine. – Mine Water Environ., 41(4):979–995, doi:10.1007/s10230-022-00890-7.
• Rendón, A. M., Franco-Gaviria, F., Jiménez, Y. R., Orejuela, C. & Castaño, C. F. M. (2024): Plant-based coagulant of Theobroma cacao L. as a substitute for Mercury in Colombian gold beneficiation. – Mine Water Environ., 43(1):183–192, doi:10.1007/s10230-024-00978-2.
• Rene, E. R., Şahinkaya, E., Lewis, A. & Lens, P. N. L. (2017): Sustainable Heavy Metal Remediation – Case studies: Environmental Chemistry for a Sustainable World 2. – 278 p., Heidelberg (Springer); doi:10.1007/978-3-319-61146-4.
• Rene, E. R., Şahinkaya, E., Lewis, A. & Lens, P. N. L. (2017): Sustainable Heavy Metal Remediation – Principles and Processes: Environmental Chemistry for a Sustainable World 1. – 283 p., Heidelberg (Springer); doi:10.1007/978-3-319-61146-4.
• René, M. (2015): Rare-earth, yttrium and zirconium mobility associated with the uranium mineralisation at Okrouhlá Radouň, Bohemian Massif, Czech Republic. – Eur. J. Mineral., 27(1):57–70, 11 Abb., 2 Tab.; doi:10.1127/ejm/2015/0027-2422.
• René, M. & Dolníček, Z. (2017): Uraninite, Coffinite and Brannerite from Shear-Zone Hosted Uranium Deposits of the Bohemian Massif (Central European Variscan Belt). – Minerals, 7(4) 11 Abb., 3 Tab.; doi:10.3390/min7040050.
• Renner, S. & Aguirre, I. (2015): Groundwater in the Chilean North – A Brief Synopsis. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–14 [electronic document], Santiago/Chile (Gecamin).
• Rennie, R. & Law, J. (2016): Oxford Dictionary of Chemistry, 7th edn. – 608 p., Oxford (Oxford University Press); doi:10.1093/acref/9780198722823.001.0001.
• Renton, J. J., Rymer, T. & Stiller, A. H. (1988): A Computer Simulation Probability Model for Geochemical Parameters Associated with Coal Mining Operations. – Bur. Mines Inf. Circ., 9183:76–82, 7 Abb., 6 Tab.; doi:10.21000/JASMR88010076.
• Rentzsch, J. (1974): The Kupferschiefer in comparison with the deposits of the Zambian Copperbelt. – Annales de la Société géologique de Belgique – Publications spéciales – Gisements stratiformes et provinces cuprifères:395–418, 13 Abb., 5 Tab.
• Renz, A., Rühaak, W., Schätzl, P. & Diersch, H. J. G. (2009): Numerical Modeling of Geothermal Use of Mine Water: Challenges and Examples. – Mine Water Environ., 28(1):2–14, 15 Abb., 2 Tab.; doi:10.1007/s10230-008-0063-3.
• Republic of South Africa & Department of Water Affairs and Forestry (2004): National Water Resource Strategy (NWRS). Department of Water Affairs and Forestry, Pretoria, 150.
• Republique Democratique du Congo – Ministere des Mines et Hydrocarbures (2003): Guide de L’Investisseur du Secteur des Mines et Hydrocarbures. – 67+19 p., 6 Tab.; (La Cellule Technique de Coordination et de Planification Minière).
• Resch, L. (1924): Das Braunkohlenbergwerk Großweil. – Das Bayerland, 35(15):388–391, 4 Abb.
• Research Center Uniroyal Inc. (1972): Use of latex as a soil sealant to control acid mine drainage. – Wat. Poll. Contr. Res. Ser., 14010 EFK:84.
• Reshetnyak, S., Melikhova, G., Fedotova, Y. & Melikhov, M. (2008): Problems of Deep Open Pits Closure in the Kola Peninsula. – Proceedings, 10th International Mine Water Association Congress:171–174.
• Reta, G. L., Dong, X., Su, B., Hu, X., Bo, H., Wan, H., Liu, J., Li, Y., Peng, T., Ma, H., Wang, K. & Xu, S. (2019): The Influence of Large Scale Phosphate Mining on the Water Quality of the Huangbaihe River Basin in China: Dominant Pollutants and Spatial Distributions. – Mine Water Environ., 38(2):366–377, doi:10.1007/s10230-019-00604-6.
• Reumann, G., Grundmann, J., Burghardt, D., Hauffe, C., Stevens, C. & Jahns, C. (2022): Identifikation von Stoffeinträgen aus dem Alterzbergbau in die Freiberger Mulde. – Grundwasser, 27(2):97–111, doi:10.1007/s00767-022-00512-7.
• Reuss, J. O., Cosbyt, B. J. & Wright, R. F. (1987): Chemical processes governing soil and water acidification. – Nature, 329:27–32, 7 Abb.; doi:10.1038/329027a0.
• Reutebuch, E., Deutsch, W. & Ruiz-Córdova, S. (2008): Community-Based Water Quality Monitoring – Data Credibility and Applications. – 24 p., Alabama.
• Reuter, M. A., Boin, U. M. J., A., v. S., Verhoef, E., Heiskanen, K., Yang, Y. & Georgalli, G. (2005): The Metrics of Material and Metal Ecology – Harmonizing the Resource, Technology and Environmental Cycles: Developments in Mineral Processing. – 720 p., Amsterdam (Elsevier).
• Revence, V. & Tronac, B. (2000): Sealing operations for Valea Ceplea flying ashes despostis, based near Turceni Powerstation. – Proceedings, 7th International Mine Water Association Congress:624–633, 2 Abb., 4 Fot.
• Revuelta, M. B. (2018): Mineral Resources – From Exploration to Sustainability Assessment: Springer Textbooks in Earth Sciences, Geography and Environment. – 653 p., Cham (Springer); doi:10.1007/978-3-319-58760-8.
• Rey, J., Martínez, J., Hidalgo, M. C. & Cortada, U. (2017): Application Of The Ground Penetrating Radar (GPR) Technique For Characterizing The Internal Structure Of Tailings Impoundments. Paper presented at the IMWA 2017 – Mine Water & Circular Economy, Lappeenranta. – p. 1400; (Lappeenranta University of Technology).
• Rey, J., Martinez, J., Hidalgo, M. C., Mendoza, R. & Sandoval, S. (2021): Assessment of Tailings Ponds by a Combination of Electrical (ERT and IP) and Hydrochemical Techniques (Linares, Southern Spain). – Mine Water Environ., 40(1):298–307, doi:10.1007/s10230-020-00709-3.
• Reyes-Salas, E. O., Dosal-Gomez, M. A., Barcelo-Quintal, M. H. & Manzanilla-Cano, J. A. (2002): Simultaneous determination of nickel, cobalt, antimony, and arsenic in an aqueous sample by differential pulse polarography. – Anal. Lett., 35(1):123–133.
• Reynolds, B., Hornung, M. & Hughes, S. (1989): Chemistry of streams draining grassland and forest catchments at Plynlimon, mid-Wales. – Hydrol. Sci. J.-J. Sci. Hydrol., 34(6):667–686, 5 Abb., 10 Tab.
• Reynolds, J. S., Machemer, S. D., Wildeman, T. R., Updegraff, D. M. & Cohen, R. R. (1991): Determination of the Rate of Sulfide Production in a Constructed Wetland Receiving Acid Mine Drainage. Paper presented at the National Meeting of the American Society for Surface Mining and Reclamation, Princeton. – p. 175–182, 1 Abb.; 2 Tab.
• Reynolds, K. A. & Petrik, L. (2008): The Use of Fly Ash for the Control and Treatment of Acid Mine Drainage. – Proceedings, 10th International Mine Water Association Congress:321–323.
• Reynolds, S. C. & Kibii, J. M. (2011): Sterkfontein at 75: review of palaeoenvironments, fauna and archaeology from the hominin site of Sterkfontein (Gauteng Province, South Africa). – Palaeont. Afr., 46(12):59–88, 7 Abb., 11 Tab.
• Reynolds, S. C., Vogel, J. C., Clarke, R. J. & Kuman, K. A. (2003): Preliminary results of excavations at Lincoln Cave, Sterkfontein, South Africa. – S. Afr. J. Sci., 99(5-6):286–288 2 Abb., 3 Tab.
• Rezaee, M., Assadi, Y., Hosseini, M.-R. M., Aghaee, E., Ahmadi, F. & Berijani, S. (2006): Determination of organic compounds in water using dispersive liquid–liquid microextraction. – J. Chromatogr. A, 1116:1–9, doi:10.1016/j.chroma.2006.03.007.
• Rezaei, F., Bidari, A., Birjandi, A. P., Milani Hosseini, M. R. & Assadi, Y. (2008): Development of a dispersive liquid–liquid microextraction method for the determination of polychlorinated biphenyls in water. – Journal of Hazardous Materials, 158(2):621–627, doi:https://doi.org/10.1016/j.jhazmat.2008.02.005.
• Rezaei, Z. & Ataee-pour, M. (2019): Assessment of Mine Water Environmental Impact: A Fuzzy Reliability Approach. – Mine Water Environ., 38(1):30–38, doi:10.1007/s10230-018-00571-4.
• Rezanezhad, F., Couture, R. M., Kovac, R., O’Connell, D. & Van Cappellen, P. (2014): Water table fluctuations and soil biogeochemistry: An experimental approach using an automated soil column system. – J. Hydrol., 509(Supplement C):245–256, doi:10.1016/j.jhydrol.2013.11.036.
• Rezazadeh Baghal, S. & Khodashenas, S. R. (2023): Fuzzy Risk Assessment of a Stormwater Storage System in a Poorly Gauged Mine Site: The Case of the Golgohar Mine Site. – Mine Water Environ., 42(1):134–145, doi:10.1007/s10230-022-00911-5.
• Rezic, Z. (2024): Biebergemünd Bergbaugebiet. – In: Bereich Altlastensanierung – HIM-ASG – (ed) HIM Jahresbericht. – p. 21–23, 4 Abb.; Biebesheim (HIM GmbH).
• Rezun, B. & Dizdarevic, T. (1997): The Influence of Surface Waters and Mine Waters on the Closing Down of the Idrija Mercury Mine. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:85–94, 4 Abb., 1 Tab.
• Režun, B. & Dizdarevič, T. (2003): Recent findings on the influence of pit waters on the shutdown of the Idrija mercury mine. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 129–135, 4 Abb., 3 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Rhino, K., Jacob, J., Lassin, A., Dure, F., Engevin, J., Huron, J. & Guerin, V. (2025): Application of X-ray-tomography and Geochemical Modeling to Optimize AMD Treatment Design Using DAS at a former Tin Mine Site in France. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 476–481; Braga (International Mine Water Association).
• Rhodes, J. P., Gargett, A. & Abbott, M. (2005): Scientifically Speaking – Tips for Preparing and Delivering Scientific Talks and Using Visual Aids. – 24 p., Rockville (The Oceanography Society).
• Riart, O. P. & Sanz, M. A. (2023): Artists in the mines, quarries and saltworks. Land art or earthworks and ecological art. – Boletin Geologico Y Minero, 134(1):147–164, doi:10.21701/bolgeomin/134.1/007.
• Riaz, A., Khan, S., Muhammad, S. & Shah, M. T. (2019): Mercury Contamination in Water and Sediments and the Associated Health Risk: A Case Study of Artisanal Gold-mining. – Mine Water Environ., 38(4):847–854, doi:10.1007/s10230-019-00613-5.
• Ribbert, K.-H., Wrede, V., Oesterreich, B., Baumgarten, H., Gawlik, A., Heuser, H., Piecha, M., Roth, R., Thünker, M., Baales, M., Cichy, E. & Zeiler, M. (2017): Sauer- und Siegerland: Geologie im Rheinischen Schiefergebirge 3. – 243 p., 134 Abb., 14 Tab., 1 Taf.; Krefeld (Geologischer Dienst Nordrhein-Westfalen).
• Ribeiro de Souza, L. & Queiroz Ladeira, A. C. (2017): Mining area disturbed by acid mine drainage – Acid Volatile Sulphur and Sequential Extraction studies. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1272–1280, Lappeenranta (Lappeenranta University of Technology).
• Ribeiro, L., Kretschmer, N., Nascimento, J., Buxo, A., Rötting, T. S., Soto, G., Soto, M., Oyarzún, J., Maturana, H. & Oyarzún, R. (2014): Water Quality Assessment of the Mining-Impacted Elqui River Basin, Chile. – Mine Water Environ., 33(4):165–176, 5 Abb., 4 Tab.; doi:10.1007/s10230-014-0276-6.
• Ribet, I., Ptacek, C. J., Blowes, D. W. & Jambor, J. L. (1995): The Potential for Metal Release by Reductive Dissolution of Weathered Mine Tailings. – J. Contam. Hydrol., 17(3):239–273.
• Ribicic, M., Kocevar, M. & Hoblaj, R. (1991): Hydrofracturing of Rocks as a Method of Evaluation of Water, Mud, and Gas Inrush Hazards in Underground Coal Mining. – Proceedings, 4th International Mine Water Association Congress, 1:291–303, 7 Abb.
• Ricca, V. & Hemmerich, M. (1978): Underground mine drainage quantity and quality generation model. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 863–882; Maracena (Asociación Nacional de lngenieros de Minas).
• Ricca, V. T. & Schultz, R. R. (1979): Acid Mine Drainage Modeling of Surface Mining: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 651–670 p., 7 Abb., 2 Tab.; San Francisco (Freeman).
• Rice, J. K. (1970): The use of inert gas to eliminate acid production by abandoned and active deep mines. – Papers Presented Before the Symposium on Coal Mine Drainage Research, 3:169–179, 1 Tab.
• Rice, R. G. (1985): Safe Drinking Water – The Impact of Chemicals on a Limited Resource. – Boca Raton (CRC Press); doi:10.1201/9780203710449.
• Richard, F. C. & Bourg, A. C. M. (1991): Aqueous geochemistry of chromium: A review. – Water research, 25(7):807–816, doi:10.1016/0043-1354(91)90160-R.
• Richard, N. (2005): Historischer Ausbau oder natürliche Entwicklung? – Die fluviale Morphologie der Vils unter dem Einfluss des historischen Bergbaus: Regensburger Beiträge zur Bodenkunde, Landschaftsökologie und Quartärforschung 6. – 179 p., 25 Abb., 16 Tab., 5 Anh.; Regensburg (Universität Regensburg).
• Richards, L. R. Shaft Engineering. Harrogate, 1989. The Institution of Mining and Metallurgy, 397 S.
• Richardson, J. S. & Perrin, C. J. (1990): The effect of treated acid mine drainage on stream macroinvertebrates and periphytic algae – an in situ mesocosm experiment: 4.7.3a. – 33 p., British Columbia (MEND Acid Mines Drainage Task Force).
• Richardson, K. A., Imhoff, T. T., Grigg, P. & Collins, J. J. (1998): Using electrical noise to enhance the ability of humans to detect subthreshold mechanical cutaneous stimuli. – Chaos, 8(3) 3 Abb.
• Richers, D., Richardson, C., Edington, D., Roemer, G. & Bijold, B. (2012): Pit lake modelling – The total system approach: International Mine Water Association Symposium. – 541–546 p., Bunbury (Edith Cowan University).
• Richers, D., Richardson, C. D. & Hudson, A. (2013): A Rational Approach to Pit Lake Chemistry Modeling. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1105–1110, 4 Abb.; Golden (International Mine Water Association).
• Richter, K. M., Margetts, J. R., Saul, A. J., Guymer, I. & Worrall, P. (2003): Baseline Hydraulic Performance of the Heathrow Constructed Wetlands Subsurface flow System. – Water Sci. Technol., 47(7-8):177–181.
• Richter, R. & Bobok, E. (1978): Complex continuum model for description of the simultaneous solid-fluid movement. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 883–897; Maracena (Asociación Nacional de lngenieros de Minas).
• Richter, S., Borchardt, D., Ewen, C. & Brinckmann, H. (2010): Runder Tisch „Gewässerschutz Werra/Weser und Kaliproduktion“. – Wiss. Mitt. Inst. Geol., 42:115–122, 1 Tab.
• Ricka, A., Kuchovsky, T. & Zeman, J. (2008): Stream Thermometry as an Effective Tool for Revealing Communication Areas between Mine Water and Surface Streams: Uranium Mine Rozna Case Study (Czech Republic). – Proceedings, 10th International Mine Water Association Congress:35–38.
• Rickard, D. & Luther, G. W. (2005): Chemistry of Iron Sulfides. – Chem. Rev., 107(2):514–562, doi:10.1021/cr0503658.
• Rickenmann, D. (1999): Empirical Relationships for Debris Flows. – Natural Hazards, 19(1):47–77, 9 Abb., 9 Tab.; doi:10.1023/a:1008064220727.
• Rico, M., Benito, G., Salgueiro, A. R., Díez-Herrero, A. & Pereira, H. G. (2008): Reported tailings dam failures: A review of the European incidents in the worldwide context. – J. Hazard. Mater., 152(2):846–852, 5 Abb.; doi:10.1016/j.jhazmat.2007.07.050.
• Riddell, J. L. & Vesper, D. J. (2024): Diurnal cycles of dissolved inorganic carbon and dissolved metals at Lambert Run, Harrison County, WV. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 526–528; Morgantown (International Mine Water Association).
• Ridge, J. D. (1991): Northern Europe including examples from the USSR in both Europe and Asia: Annotated bibliographies of mineral deposits in Europe 1, reprint edn. – 778 p., Oxford (Pergamon).
• Ridge, J. D. (1991): Orijärvi–Aijala–Metsämonttu. Northern Europe including examples from the USSR in both Europe and Asia – Annotated bibliographies of mineral deposits in Europe 1, reprint edn. – p. 482–492, Oxford (Pergamon).
• Rieger, A., Steinberger, P., Pelz, W., Haseneder, R. & Härtel, G. (2009): Mine water treatment by membrane filtration processes – Experimental investigations on applicability. – Desalination & Water Treatment, 6(1-3):54–60, 4 Abb., 2 Tab.
• Rieger, A., Steinberger, P., Pelz, W., Haseneder, R. & Härtel, G. (2010): Nanofiltration of acid mine drainage. – Desalination & Water Treatment, 21(1-3):148–161, 6 Abb., 7 Tab.; doi:10.5004/dwt.2010.1316.
• Riekkola-Vanhanen, M. (2013): Talvivaara mining company – From a project to a mine. – Miner. Eng., 48(Supplement C):2–9, 4 Abb., 3 Tab.; doi:10.1016/j.mineng.2013.04.018.
• Riekkola-Vanhanen, M. & Palmu, L. (2016): Talvivaara Nickel Mine — from a project to a mine and beyond. – In: Battle, T., et al. (eds): Ni-Co 2013. – p. 269–278, 4 Abb., 1 Tab.; Cham (Springer International Publishing); doi:10.1007/978-3-319-48147-0_19.
• Riemann, K., van Tonder, G. & Dzanga, P. (2002): Interpretation of single-well tracer tests using fractional-flow dimensions. Part 2: A case study. – Hydrogeol. J., 10(3):357–367, doi:10.1007/s10040-002-0197-5.
• Rieppel, O. (1996): The status of the sauropterygian reptile Partanosaurus zitteli SKUPHOS from the Middle Triassic of the Austrian Alps, with comments on Microleptosaurus schlosseri SKUPHOS. – Paläont. Z., 70(3/4):567–577, 8 Abb.
• Riera, J., Olías, M., Ruiz-Cánovas, C., Macías, F. & Galván, L. (2016): Contamination load in a river affected by AMD discharges: Odiel River (Huelva, Spain). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 439–442, Freiberg (TU Bergakademie Freiberg).
• Rietveld, H. M. (1993): The early days: a retrospective view. – In: Young, R. A. (ed) Monographs on crystallography 5. – p. 39–42, 1 Abb.; Oxford (Oxford University Press).
• Rieutord, M. (2015): Fluid Dynamics – An Introduction: Graduate Texts in Physics. – 508 p., Cham (Springer); doi:10.1007/978-3-319-09351-2.
• Riley, A. L., Onnis, P., Gandy, C. J., Kanu, C. V., Umeobika, C. V., Cameron, J., Burke, I. T., Hudson-Edwards, K. A., Jarvis, A. P. & Mayes, W. M. (2023): The Contribution Of Major Historical Orefields To Coastal Trace Metal(loid) Fluxes In North-East England. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 421–427; (International Mine Water Association).
• Riley, A. L., Onnis, P., Jennings, E., Crane, R. A., Hudson-Edwards, K. A., Comber, S. D. W., Burke, I. T., Byrne, P., Gandy, C. J., Jarvis, A. P. & Mayes, W. M. (2021): A GIS-Based Prioritisation Of Coastal Legacy Mine Spoil Deposits In England And Wales For Effective Future Management. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 458–464; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Riley, J. A., Erikson, D. L., Ralston, D. R. & Williams, R. E. (1984): The Hydrogeology of an Underground Lead-Zinc Mine – Water Flow and Quality Characterisitcs. – Int. J. Mine Water, 3(4):39–53, 9 Abb.
• Riley, J. A., Ralston, D. R. & Williams, R. E. (1988): Interdisciplinary Approach to the Analysis of Acid Mine Drainage at an Underground Lead Zinc Mine. – Proceedings, 3rd International Mine Water Congress, Melbourne:523–532, 4 Abb.
• Rimmer, S. M. (2004): Geochemical paleoredox indicators in Devonian–Mississippian black shales, Central Appalachian Basin (USA). – Chem. Geol., 206(3-4):373–391, doi:10.1016/j.chemgeo.2003.12.029.
• Rinder, T., Bedoya Gonzalez, D. & Hilberg, S. (2021): Tracing The Water–Rock Interaction In The Ibbenbüren Mine – Towards A Reactive Transport Model For Coal Mine Drainage. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 465–470; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Rinder, T., Dietzel, M., Stammeier, J. A., Leis, A., Bedoya-González, D. & Hilberg, S. (2020): Geochemistry of coal mine drainage, groundwater, and brines from the Ibbenbüren mine, Germany – A coupled elemental-isotopic approach. – Appl. Geochem.:104693, doi:10.1016/j.apgeochem.2020.104693.
• Rindl, M. (1936): The medicinal springs of South Africa. – Med. Vet. Sci. S.A., 10(20):695–698.
• Ring, R. (1998): A radical approach to mine reclamation. – High Country News 1998–01–19, 30(1).
• Rinker, M. J., Nicholson, R. V., Lush, D. & Lee, N. H. (2002): Arsenic Rich Waste Rock Disposal under Subaqueous and Anoxic Conditions. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1063–1072, 3 Abb.; 3 Tab.; Heidelberg (Springer).
• Rios, L. M., Moore, C. & Jones, P. R. (2007): Persistent organic pollutants carried by synthetic polymers in the ocean environment. – Mar. Pollut. Bull., 54:1230–1237, doi:10.1016/j.marpolbul.2007.03.022.
• Ríos-Villamizar, E. A., Lopes, A., da Silva, M. d. S. R., dos Santos, N. A. S., Oliveira, R., Calazães, R. M., Piedade, M. T. F., Schöngart, J., Forsberg, B. R., Wittmann, F. & Junk, W. J. (2022): Water chemistry of rivers and streams from the Jaú and Uatumã basins in central Brazilian Amazon. – Sustainable Water Resour. Manage., 8(4):117, 7 Abb., 1 Tab.; doi:10.1007/s40899-022-00696-z.
• Riquier, J. (1969): Contribution à l’étude «des stone-lines» en régions tropicale et équatoriale. – Cah. ORSTOM, Ser. Pedol., 7(1):71–112, 17 Abb., 3 Tab., 4 Fotos.
• Rische, M., Fischer, K. D. & Friederich, W. (2022): FloodRisk – Induced seismicity by mine flooding – Observation, characterisation and relation to mine water rise in the eastern Ruhr area (Germany). – Z. Dt. Ges. Geowiss., 173(4):551–564, doi:10.1127/zdgg/2023/0346.
• Risebrough, R. & Brodine, V. (1970): More Letters in the Wind. – Environ. Sci. Policy Sustain. Dev., 12(1):16–26, 6 Abb., 2 Tab.; doi:10.1080/00139157.1970.9932353.
• Rismal, M. (1996): Karst in Slovenia: Engineering in Karst. – 12 p., 1 Abb., 3 Tab.; Portoroz (Proceedings International Mine Water Association Workshop).
• Risse, M. F. (2016): Ermittlung von Diffusions- und Konvektionsströmungen in einer Säule verursacht durch Wärmeentzug und –zuführung durch eine Testsonde. – 152 p., Ruhr Universität Bochum, 45 Abb., 2 Tab., 11 Anl.; Bochum.
• Ritchie, N. A. & Hooker, R. A. Y. (1997): An Archaeologist’s Guide to Mining Terminology. – Australasian Historical Archaeology, 15:3–29.
• Rittenberg, S. C., Mittwer, T. & Ivler, D. (1958): Coliform Bacteria in Sediments Around Three Mine Sewage Outfalls. – Limnol. Oceanogr., 3(1) 4 Abb., 1 Tab.
• Ritter von Alpenburg, J. N. (1857): Mythen und Sagen Tirols. – Zürich (Meyer und Zeller).
• Ritter von Alpenburg, J. N. (1861): Deutsche Alpensagen. – 384 p., Wien (Braumüller).
• Riveros, P. A. & Wong, E. W. (1995): Metals Removal from Acid Mine Drainage by Ion Exchange: MEND 3.21.1(b). – 54 p., 9 Abb., 34 Tab.; Ottawa (The Mine Environment Neutral Drainage [MEND] Program).
• Roa, A., López, J. & Cortina, J. L. (2025): Towards Sustainable Recovery of Rare Earth Elements from Acidic Mine Waters: A Circular Treatment Approach Integrating Selective Precipitation and Ion Exchange. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 46–51; Braga (International Mine Water Association).
• Roadcap, G. S., Kelly, W. R. & Bethke, C. M. (2005): Geochemistry of extremely alkaline (pH>12) ground water in slag-fill aquifers. – Ground Water, 43(6):806–16, doi:10.1111/j.1745-6584.2005.00060.x.
• Robb, C. (1880): New Campbellton coal mines, Cape Breton, Nova Scotia. – 20 p., 2 Kart.; Halifax (Nova Scotia Printing Company).
• Robb, G. A. & Robinson, J. D. F. (1995): Acid Drainage from Mines. – Geogr. J., 161(1):47–54, 4 Abb., 1 Tab.
• Robb, L. J., Brandl, G., Anhaeusser, C. R. & Poujol, M. (2006): Archaean Granitoid Intrusions. – In: Johnson, M. R., Anhaeusser, C. R. & Thomas, R. J. (eds): Geology of South Africa. – p., 23 Abb., 4 Tab.; Johannesburg, Pretoria (Geological Society of South Africa, Council for Geoscience).
• Robb, L. J. & Meyer, F. M. (1995): The Witwatersrand Basin, South Africa: Geological framework and mineralization processes. – Ore Geol. Rev. , 10(2):67–94, doi:10.1016/0169-1368(95)00011-9.
• Robb, L. J., Robb, V. M. & Walraven, F. (1994): The Albert Silver Mine Revisited: Towards a Model for Polymetallic Mineralization in Granites of the Bushveld Complex, South Africa. – Economic Geology Research Unit Information Circular, 277:25, 13 Abb., 3 Tab.
• Robbins, E. I., Cravotta, C. A., III, Savela, C. E. & Nord, G. L. (1999): Hydrobiogeochemical interactions in ’anoxic’ limestone drains for neutralization of acidic mine drainage. – Fuel, 78(2):259–270, 4 Abb., 2 Tab.
• Robbins, E. I., Maggard, R. R., Kirk, E. J., Belkin, H. E. & Evans Jr, H. T. (1997): Manganese removal by chemical and microbial oxidation and the effect on benthic macroinvertebrates at a coal mine in Wayne County, western West Virginia. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 18:110–124, 6 Abb., 5 Tab.
• Robbins, E. I., Rodgers, T. M., Alpers, C. N. & Nordstrom, D. K. (2000): Ecogeochemistry of the subsurface food web at pH 0–2.5 in Iron Mountain, California, USA. – Hydrobiologia, 433(1-3):15–23, 3 Abb., 2 Tab.
• Robert, H. M. I., Hanemann, D. H., Balch, T. J., Seabold, D. E. & Gerber, S. (2020): Roberts Rules of Order Newly Revised, 12th edn. – 633 p., New York (PublicAffairs).
• Roberts, M., Swain, N. & Barnes, A. (2021): Recovery Of Cobalt And Copper From Tailings Through Enhanced Oxidation And Selective Precipitation. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 471–476; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Roberts, P. J. W., Salas, H. J., Reiff, F. M., Libhaber, M., Labbe, A. & Thomson, J. C. (2010): Marine Wastewater Outfalls and Treatment Systems. – 528 p., London (IWA Publishing).
• Robertson, A., Kawashima, N., Smart, R. & Schumann, R. (2015): Management of Pyrrhotite Tailings at Savannah Nickel Mine – A Decade of Experience and Learning. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Robertson, A. M. (1988): Long Term Prevention of Acid Mine Drainage. Paper presented at the 26th International Conference on Control of Environmental Problems from Metal Mines, Roros. – p. 1–20, 6 Abb., 1 Tab.; (State Pollution Control Authority).
• Robertson, A. M., Devenny, D. & Shaw, S. C. (1998): Post Mining Sustainable use Plans vs Closure Plans: Mine Reclamation and Remediation. – 95–110 p., 4 Abb., 1 Tab.; Penticton (Proceedings 22nd Annual British Columbia Mine Reclamation Symposium).
• Robertson, A. M., Maddocks, G. A., Kelly, B. & Sheppard, I. (2018): Application of a Coal Seam Gas Waste Product as part of the Rehabilitation Program for a Copper Heap Leach Operation. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 231–236; (Tshwane University of Technology).
• Robertson, A. M. & Shaw, S. C. (1997): Options for the Stabilization of Sludges from Acid Mine Drainage Water Treatment Plants. – 1–11 p., 2 Abb., 2 Tab.; Chemnitz (Wismut 97 Workshop).
• Robertson, A. M. & Shaw, S. C. (1999): The Concept of Custodial Transfer of Mined Land. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 765–771, 3 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Robertson, A. R. (1977): The CIE 1976 Color-Difference Formulae. – Color Res. Appl., 2(1):7–11, doi:10.1002/j.1520-6378.1977.tb00104.x.
• Robertson, J. (2012): The importance of having an agreed plan: International Mine Water Association Symposium. – 175–182 p., Bunbury (Edith Cowan University).
• Robertson, J. & Hawker, S. (2012): Keeping the lid on it: International Mine Water Association Symposium. – 335–342 p., Bunbury (Edith Cowan University).
• Robertson, L. A., Durocher, J. L. & Usher, B. (2018): Laboratory Simulated Tailings Drain Seepage Columns: Flooded and Free-Draining Conditions. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 717–722; (Tshwane University of Technology).
• Robertson, L. W. (2020): Tenth International PCB Workshop: 50 years of PCB research, new approaches and discoveries and still so much more to learn. – Environ. Sci. Pollut. Res. Int., 27(9):8823–8825, doi:10.1007/s11356-020-08088-6.
• Robertson, L. W. & Hansen, L. G. (2011): PCBs – Recent Advances in Environmental Toxicology and Health Effects. – 461 p., Lexington (The University Press of Kentucky).
• Robertson, W. D. & Cherry, J. A. (1995): In-situ denitrification of septic-system nitrate using reactive porous-media barriers – field trials. – Ground Water, 33(1):99–111.
• Robillard, L., Nguyen, T. H. & Vasseur, P. (1986): Free Convection in a Two-Dimensional Porous Loop. – J. Heat Transfer, 108(2):277–283, 4 Abb.
• Robins, N. S. (2013): A review of small island hydrogeology: progress (and setbacks) during the recent past. – Q. J. Eng. Geol. Hydrogeol., 46(2):157–165, 3 Abb., 2 Tab.; doi:10.1144/qjegh2012-063.
• Robins, N. S. (2013): The thermal springs of Swaziland – A review. Paper presented at the Groundwater A New Paradigm: Geological Society of South Africa Biennial Conference, Durban, South Africa. – p. 7 [CD ROM], 3 Abb., 2 Tab.; Durban (Geological Society of South Africa).
• Robins, N. S. & Browne, M. A. E. (1987): The Modelling of Groundwater Flow Patterns in the Upper Palaeozoic Coal Basin of the Midland Valley of Scotland: Hydrogeology of Coal Basins. – 477–484 p., 6 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Robins, N. S. & Lawrence, A. R. (2000): Some Hydrogeological Problems Peculiar to Various Types of Small Islands. – Water Environ. J., 14(5):341–346, 2 Abb., 2 Tab.; doi:10.1111/j.1747-6593.2000.tb00271.x.
• Robins, N. S. & Misstear, B. D. R. (2000): Ground water in the Celtic regions. – Spec. Publ. – Geol. Soc. London, 182:5–17.
• Robinson, B. A. & Tester, J. W. (1984): Dispersed fluid flow in fractured reservoirs: An analysis of tracer-determined residence time distributions. – J. Geophys. Res. Solid Earth, 89(B12):10374–10384, doi:10.1029/JB089iB12p10374.
• Robinson, J., Dodd, J., Andrews, I. & Milton Thompson, O. (2022): Successful Construction of a Full Scale Passive Sulfate Treatment System. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 403–409; (International Mine Water Association).
• Robinson, J. & Knocke, W. R. (1992): Use of dilatometric and drying techniques for assessing sludge dewatering characteristics. – Water Environ. Res., 64:60–68, 9 Abb., 9 Tab.
• Robinson, J. D. F., Andrews, I. & Dodd, J. (2021): Successful Passive Treatment of Sulfate Rich Water. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 477–484; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Robinson, K. E. & Toland, G. C. (1979): Case Histories of Differnet Seepage Problems for Nine Tailings Dams: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 781–800 p., 8 Abb.; San Francisco (Freeman).
• Robinson, S. (1989): Of mines and men; a look at art that depicts mining. – Rocks and Minerals, 64(6):476–495.
• Robinson, T. R., Davies, T. R. H., Reznichenko, N. V. & De Pascale, G. P. (2014): The extremely long-runout Komansu rock avalanche in the Trans Alai range, Pamir Mountains, southern Kyrgyzstan. – Landslides, 12(3):523–535, doi:10.1007/s10346-014-0492-y.
• Rock, E. (2004): Geschichte und Geschichten von Werdenfels – Garmisch-Partenkirchen – Mittenwald – Oberammergau und Murnau. – 159 p., Garmisch-Partenkirchen (Adam).
• Rocke, A. J. (2010): Image and reality – Kekulé, Kopp, and the scientific imagination. – 416 p., Chicago (University of Chicago Press).
• Rockwell, L. J., Vesper, D. J., Fredrick, K. C. & Lohr, L. H. (2024): Estimating carbon dioxide flux from coal mining discharge portals in the bituminous coal field region of Pennsylvania. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 529–531; Morgantown (International Mine Water Association).
• Rodebaugh, D. (2012): Shock the mine waste – Pilot project treats toxic metals flowing into Animas River. – The Durango Herald, 24.9.2012.
• Rödel, R. (1999): Space-Time-Modelling of Ascending Salty Sewage Water in the Werra-Potash District (Middle Germany). – In: Scholz-Reiter, B., Stahlmann, H.-D. & Nethe, A. (eds): Process Modelling. – p. 471–479, Berlin (Springer); doi:10.1007/978-3-642-60120-0_32.
• Rodenas Motos, P. (2017): Bioelectrochemical Metal Recovery with Microbial Fuel Cells. – 126 p., Wageningen University; Wageningen.
• Rodenburg, L., Guo, J. & Christie, R. (2015): Polychlorinated biphenyls in pigments: inadvertent production and environmental significance. – Color. Technol., 131(5):353–369, doi:10.1111/cote.12167.
• Rodenburg, L. A., Guo, J., Du, S. & Cavallo, G. J. (2010): Evidence for unique and ubiquitous environmental sources of 3,3’-dichlorobiphenyl (PCB 11). – Environ. Sci. Technol., 44(8):2816–21, doi:10.1021/es901155h.
• Röder, D. (1924): Gewerkschaft Gustav bei Dettingen a.M. – Das Bayerland, 25(15):393–397, 5 Abb.
• Rodgers, P., Soulsby, C., Waldron, S. & Tetzlaff, D. (2005): Using stable isotope tracers to assess hydrological flow paths, residence times and landscape influences in a nested mesoscale catchment. – Hydrol. Earth Syst. Sci., 9(3):139–155, 7 Abb., 4 Tab.; doi:10.5194/hess-9-139-2005.
• Rodhouse, T. & Vanclay, F. (2016): Is free, prior and informed consent a form of corporate social responsibility? – J. Clean. Prod., 131:785–794, doi:10.1016/j.jclepro.2016.04.075.
• Rodolaki, C., Barakos, G. & Hitch, M. (2023): The role of intercultural differences and challenges faced in negotiating active mine sites’ rehabilitation objectives from Africa to Europe. – Extr. Ind. Soc., 16:101362, doi:10.1016/j.exis.2023.101362.
• Rodrigues, G. G. & Scharf, B. W. (2001): Review of Benthic Invertebrate Fauna in Extremely Acidic Environments (pH ≤ 3). – Mine Water Environ., 20(3):114–121, 1 Abb., 2 Tab.
• Rodrigues, L., Valente, T. M., Correia, A., Alves, A., Foing, B. & Davies, G. R. (2012): Contribution of eukaryotic microbial communities to the formation of Fe-rich accretions in an extreme acidic environment. – Geoph. Res. Abstracts, 14(EGU General Assembly):EGU2012–14112.
• Rodriguez, F. J., Schlenger, P. & Garcia-Valverde, M. (2014): A comprehensive structural evaluation of humic substances using several fluorescence techniques before and after ozonation. Part II: evaluation of structural changes following ozonation. – Sci Total Environ, 476-477:731–42, doi:10.1016/j.scitotenv.2013.11.149.
• Rodriguez, J., Stopić, S. & Friedrich, B. (2007): Continuous Electrocoagulation Treatment of Wastewater from Copper Production. – World of Metallurgy – Erzmetall, 60(2):81–87, 14 Abb., 6 Tab.; doi:10.13140/RG.2.2.15988.86407.
• Rodriguez, J., Stopić, S., Krause, G. & Friedrich, B. (2007): Feasibility Assessment of Electrocoagulation Towards a New Sustainable Wastewater Treatment. – Environ. Sci. Pollut. Res., 14(7):477–482, 11 Abb., 3 Tab.; doi:10.1065/espr2007.05.424.
• Rodríguez, J. C., Santamaría, J. & Monzón, A. (1997): Hydrogenation of 1,3-butadiene on Pd/SiO₂ in the presence of H₂S deactivation and reactivation of the catalyst. – Appl. Catal. A, 165(1):147–157, doi:10.1016/S0926-860X(98)80012-4.
• Rodríguez Pacheco, R. L., Candela, L., Fabregat, S., Cortés, A. & Queralt, I. (1999): Environmental Impact of Nickel Industries in Cuba. A Case of Study from MOA Mining District. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 389–394, 8 Abb., 8 Tab.; Sevilla (International Mine Water Association).
• Rodríguez, R. & Díaz, M. B. (2009): Analysis of the utilization of mine galleries as geothermal heat exchangers by means a semi-empirical prediction method. – Renewable Energy, 34(7):1716–1725, 9 Abb., 3 Tab.; doi:10.1016/j.renene.2008.12.036.
• Rodríguez, R., García, E., Fernández, B. & Ayala, J. (2025): Use of industrial by-products to prevent/reduce water contamination with As and Hg. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 801–806; Braga (International Mine Water Association).
• Rodriguez, R., Munoz-Moreno, A., Caparros, A. V., Garcia-Garcia, C., Brime-Barrios, A., Arranz-Gonzalez, J. C., Rodriguez-Gomez, V., Fernandez-Naranjo, F. J. & Alcolea, A. (2021): How to Prevent Flow Failures in Tailings Dams. – Mine Water Environ., 40(1):83–112, doi:10.1007/s10230-021-00752-8.
• Rodríguez-Maroto, J. M., García-Herruzo, F., García-Rubio, A., Gómez-Lahoz, C. & Vereda-Alonso, C. (2009): Kinetics of the chemical reduction of nitrate by zero-valent iron. – Chemosphere, 74:804–809, doi:10.1016/j.chemosphere.2008.10.020.
• Rodriguez-Prado, A. (2020): Continuous electrocoagulation system for mining wastewater treatment. – CIM Journal, 11(3):182–187, 4 Abb., 3 Tab.; doi:10.1080/19236026.2020.1757985.
• Roebert, M., Mntungwa, N., Msitsini, M. & Morton, K. L. (2025): Advances in mine dewatering design and monitoring at Tharisa chrome mine Rustenburg South Africa. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 279–282; Braga (International Mine Water Association).
• Roehl, K. E. (2004): Passive in situ Remediation of Contaminated Groundwater: Permeable Reactive Barriers – PRBS. – In: Prokop, G., Younger, P. L. & Roehl, K. E. (eds): Conference Papers 35. – p. 57–70, 4 Abb.; Wien (Umweltbundesamt).
• Roelofse, F., de Bruiyn, H., Cornell, D. & Kristofferson, M. (2020): Lithostratigraphy of the Palaeoproterozoic Verena Granite. – S. Afr. J. Geol., 123(1):117–128, 14 Abb., 4 Tab.; doi:10.25131/sajg.123.0007.
• Roemer, G., Burgers, C. & Cadle, S. (2015): Variable-Density Transport Modeling in Hypersaline Pit Lakes. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Roemer, G., Gabora, M., Hudson, A. L., Williamson, M., Levy, D., O’Brien, G. & Krizek, D. (2012): Hydrogeologic and Geochemical Prediction of Rosemont Pit Lake Using Three Different Modeling Programs. – 1–13 [USB flash drive] p., 2 Abb., 5 Tab.; Ottawa (Proceedings 9th International Conference on Acid Rock Drainage (ICARD)).
• Roenicke, H., Schultze, M., Neumann, V., Nitsche, C. & Tittel, J. (2010): Changes of the plankton community composition during chemical neutralisation of the Bockwitz pit lake. – Limnologica, 40(2):191–198, 6 Abb., 1 Tab.; doi:10.1016/j.limno.2009.11.005.
• Roesch, A., Reddy, E. P. & Smirniotis, P. G. (2005): Parametric study of Cs/CaO sorbents with respect to simulated flue gas at high temperatures. – Ind. Eng. Chem. Res., 44(16):6485–6490.
• Roesel, L. K. & Zak, D. H. (2022): Treating acid mine drainage with decomposed organic soil: Implications for peatland rewetting. – J. Environ. Manage., 311:114808, doi:10.1016/j.jenvman.2022.114808.
• Roesler, A. J., Gammons, C. H., Druschel, G. K., Oduro, H. & Poulson, S. R. (2007): Geochemistry of Flooded Underground Mine Workings Influenced by Bacterial Sulfate Reduction. – Aquat. Chem., 13(3):211–235, doi:10.1007/s10498-007-9017-9.
• Roetting, T. S., Dent, J. & Reyes, R. (2018): Life-of-mine Water Management And Treatment Strategies. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 442–446; (Tshwane University of Technology).
• Roetting, T. S., Digges La Touche, G., Hall, I., Siddorn, L., Stanley, P. C., Nieto, J. M., Macías Suárez, F., Gómez Arias, A. & Castillo, J. (2021): Passive Mine Water Treatment Trials of Dispersed Alkaline Substrate at Two Emblematic Mine Sites in Wales. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 485–489; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Roetting, T. S., Hall, I., Digges La Touche, G., Siddorn, L. & Stanley, P. (2023): Field Trials of Dispersed Alkaline Substrate to Passively Treat Highly Polluted Acid Mine Drainage at two Emblematic Abandoned Mines in Wales. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 428–433; (International Mine Water Association).
• Roff, A., Phillips, W. S. & Brown, D. W. (1996): Joint structures determined by clustering microearthquakes using waveform amplitude ratios. – Int. J. Rock. Mech. Min. Sci. Geomech. Abstr., 33(6):627–639.
• Rogers, K. M. & Savard, M. M. (1999): Detection of petroleum contamination in river sediments from Quebec City region using GC-IRMS. – Org. Geochem., 30:1559–1569, doi:10.1016/S0146-6380(99)00132-1.
• Rogers, S. L., Giles, S., Dowey, N., Greene, S. E., Bhatia, R., Van Landeghem, K. & King, C. (2024): “you just look at rocks, and have beards” Perceptions of Geology From the United Kingdom: A Qualitative Analysis From an Online Survey. – Earth Sci. Syst. Soc., 4 doi:10.3389/esss.2024.10078.
• Rogerson, C. M. & Rogerson, J. M. (2024): The Evolution of Small Town Spa Resorts in the Global South – The Historical Pathway of Montagu, South Africa. – Mod. Geogr., 19(3):99–116, 3 Abb.; doi:10.15170/mg.2024.19.03.08.
• Rogowski, A. S., Pionke, H. B. & Broyan, J. G. (1977): Modeling the Impact of Strip Mining and Reclamation Processes on Quality and Quantity of Water in Mined Areas: A Review. – J. Environ. Qual., 6(3):237–244, doi:10.2134/jeq1977.00472425000600030001x.
• Rogoz, M. (1978): Water capacity of abandoned works in underground coal mines. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1291–1301; Maracena (Asociación Nacional de lngenieros de Minas).
• Rogoż, M. (1985): Seepage Power as a Factor determining the Piping and Silting up the loose water-bearing Soils. – Proceedings, 2nd International Mine Water Association Congress, 1:221–229, 3 Abb.
• Rogoż, M. (1988): Water Inrush Prevention in Polish Coal Mines. – Proceedings, 3rd International Mine Water Congress, Melbourne:469–477, 3 Tab.
• Rogoż, M. (1994): Computer Simulation of the Process of Flooding up a Group of Mines. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:369–377, 3 Abb., 1 Tab.
• Rogoż, M. (1997): Hydrogeological Problems Conneceted with Closure of Underground Coal Mines. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:105–112.
• Rogoż, M. & Posylek, E. (1982): Prediction of water inflow to mines using modified trend methods. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:258–276, 4 Abb.
• Rogoż, M. & Posylek, E. (1999): Injection of the saline Mine Waters into Ground. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 113–118, 1 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Rogoż, M. & Posylek, E. (2000): Hydrogeological problems connected with closure of mines on the Upper Silesian Coal Basin. – Proceedings, 7th International Mine Water Association Congress:319–330, 2 Abb., 2 Tab.
• Rogoż, M., Rózkowski, A. & Wilk, Z. (1987): Hydrogeological Problems in the Upper Silesian Coal Basin: Hydrogeology of Coal Basins. – 365–382 p., 4 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Rogoż, M., Staszewski, B. & Wilk, Z. (1987): Impact of Mining Activities upon the aquatic Environment within the Upper Silesian Coal Basin: Hydrogeology of Coal Basins. – 553–566 p., 1 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Rogoż, M. & Zarebski, K. (1987): Forecasted Changes in hydrogeologic Conditions at the Lublin Coal Basin: Hydrogeology of Coal Basins. – 567–574 p., 3 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Roh, Y., Zhang, C. L., Vali, H., Lauf, R. J., Zhou, J. & Phelps, T. J. (2003): Biogeochemical and environmental factors in Fe biomineralization – magnetite and siderite formation. – Clays Clay Miner., 51(1):83–95, 7 Abb., 3 Tab.
• Roháč, J., Scaringi, G., Boháč, J., Kycl, P. & Najser, J. (2020): Revisiting strength concepts and correlations with soil index properties: insights from the Dobkovicky landslide in Czech Republic. – Landslides, 17(3):597–614, doi:10.1007/s10346-019-01306-4.
• Rohatzsch, R. H. (1848): Mittheilungen an den Geheimenrath v. Leonhard gerichtet [Verhalten der alpinischen Kohlen-Formation]. – N. Jb. Min. Geogn. Geol. Petr.,(2):183–186.
• Rohlack, M. (2001): Kriegsgesellschaften (1914–1918) – Arten, Rechtsformen und Funktionen in der Kriegswirtschaft des Ersten Weltkrieges. – 256 p., (Lang).
• Röhling, H.-G., Wellmer, F.-W. & Kaemmel, T. (2019): Die 13 Gründungsväter – eine „pluripotente Gruppe“ – Zur Bildung der Deutschen Geologischen Gesellschaft im Revolutionsjahr 1848. – Z. Dt. Ges. Geowiss., 170(1):1–25, doi:10.1127/zdgg/2019/0188.
• Röhling, H.-G., Zellmer, H., Knolle, F. & Stedingk, K. (2018): Historischer Steinkohlebergbau hat im Harz seine Spuren hinterlassen. – Der Harz,(2):18–20, 7 Abb.
• Rohr, T. & Uhlmann, W. (2010): CO₂-Applikation am Redlitzer See, aktuelle Forschungsergebnisse zur Wasserbehandlung saurer Tagebauseen, verfahrenstechnische Methoden zur Pufferung sowie innovativen Eintragstechnologien. – Wiss. Mitt. Inst. Geol., 42:175–181, 7 Abb., 1 Tab.
• Rohrmann, B. (1985): Vanadium in South Africa. – J. S. Afr. Inst. Min. Metall., 85(5):141–150, 9 Abb., 2 Tab.
• Rohwerder, T., Gehrke, T., Kinzler, K. & Sand, W. (2003): Bioleaching review part A – Progress in bioleaching – fundamentals and mechanisms of bacterial metal sulfide oxidation. – Appl. Microbiol. Biotechnol., 63:239–248, 4 Abb.; doi:10.1007/s00253-003-1448-7.
• Roisenberg, C., Loubet, M., Formoso, M. L., Berger, G., Munoz, M. & Dani, N. (2016): Tracing the Origin and Evolution of Geochemical Characteristics of Waters from the Candiota Coal Mine Area (Southern Brazil): Part I. – Mine Water Environ., 35(1):29–43, doi:10.1007/s10230-015-0330-z.
• Rolland, W., Wagner, H., Chmielewski, R. & Grünewald, U. (2001): Evaluation of the long term Groundwater Pollution by the open cast Lignite mine Jänschwalde (Germany). – J. Geochem. Explor., 73(2):97–111, 12 Abb., 2 Tab.
• Roman, R. G., Ribeiro, G. S. & Arribere, M. A. (1995): Rare earth geochemistry in sediments of the upper Manso River basin, Rio Negro, Argentina. – Earth Planet. Sci. Lett., 133(1-2):47–57, Refs: 29; illus. incl. 2 tables, sketch map.
• Romaní, A. M., Guasch, H. & Balaguer, M. D. (2016): Aquatic Biofilms – Ecology, Water Quality and Wastewater Treatment. – 229 p., Norfolk (Caister Academic Press).
• Romano, C. G., Ulrich Mayer, K., Jones, D. R., Ellerbroek, D. A. & Blowes, D. W. (2003): Effectiveness of various cover scenarios on the rate of sulfide oxidation of mine tailings. – J. Hydrol., 271(1-4):171–187.
• Romano Neto, R., Gomes Baldoni, C. J., Meis Amboni, T., Amaral, J. E., Jornada Krebs, A. S. & Santos, L. (2005): The abandoned mine openings mapping on Santa Catarina-Brazil coal mining reclamation program. Paper presented at the Mine Water 2005 – Mine Closure, Oviedo. – p. 101–106, 3 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Romano Neto, R., Salvador Crocetta, M., Ronconi de Souza, M. G., Rocha, E., Zanuz, M. & Baldoni Gomes, C. J. (2010): Combined Treatment of Acid Mine Drainage and Sewage in the State of Santa Catarina – Brazil. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 183–187, Sydney, NS (Cape Breton University Press).
• Romero, D., Barcala, E., Maria-Dolores, E. & Munoz, P. (2020): European eels and heavy metals from the Mar Menor lagoon (SE Spain). – Mar. Pollut. Bull., 158:111368: 1–9, doi:10.1016/j.marpolbul.2020.111368.
• Romero Matos, J., Ruiz Cánovas, C., Macías Suáres, F., León Cortegano, R. & Millán Becerro, R. (2022): Wildfire Effects On A Watercourse Affected By Acid Mine Drainage (Odiel River, SW Spain). Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 411–415; (International Mine Water Association).
• Romero-Matos, J., R. Cánovas, C., Macías, F., León, R., Millán-Becerro, R. & Nieto, J. M. (2023): Wildfire Effects On A Watercourse Affected By Acid Mine Drainage (Odiel River, SW Spain). Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 434–438; (International Mine Water Association).
• Rommel, K. (2004): Oxygen Measurement: Optically or Electrochemically? – Asian Environ. Technol., 8(4):32–33, 2 Abb.
• Ronchi, B., Frippiat, C., Drevet, J.-P., Veschkens, M. & Pacyna, D. (2016): Assessing post-mining risks in the long term: ten years of hydrological monitoring in Liège (Belgium). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 736–739, Freiberg (TU Bergakademie Freiberg).
• Ronchi, B., Stassen, F., Drevet, J. P., Frippiat, C. C., Berger, J. L., Dingelstadt, C. & Veschkens, M. (2018): Long-Term Time-Series Analysis to Understand Groundwater Flow in Abandoned Subsurface Mines with Application to a Coalfield in Liège, Belgium. – Mine Water Environ., 37(3):470–481, doi:10.1007/s10230-018-0528-y.
• Rong, H. K., Yuqing, C. & Bin, Y. (1987): Hydrochemical Model in Karst Water and the Evaluation of the Corrosion Feature for the Mid-Ordovician Limestone in Feng-Feng Coalfield: Hydrogeology of Coal Basins. – 69–88 p., 4 Abb., 1 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Rongxiu, Z. (1985): Estimating water outflow rate of the bedrock section in mine shafts using hydrogeological analysis method. – Proceedings, 2nd International Mine Water Association Congress, 1:531–539.
• Ronkanen, A.-K., Palmer, K., Kaikkonen, I., Khan, U., Heiderscheidt, E. & Postila, H. (2017): Nitrogen Removal Efficiency and Wintertime Hydraulics in Mine Peatlands. Paper presented at the IMWA 2017 – Mine Water & Circular Economy, Lappeenranta. – p. 1397–1399; (Lappeenranta University of Technology).
• Ronquest-Ross, L.-C., Vink, N. & Sigge, G. O. (2015): Food consumption changes in South Africa since 1994. – S. Afr. J. Sci., 111(9/10):12, doi:10.17159/sajs.2015/20140354.
• Roode-Gutzmer, Q. & Paul, M. (2024): Assessing Mining Impacts on Water Resources using Full Cost Accounting: A Comparative Case Study between two Deep-Level Gold and Uranium Mining Sites in South Africa and Germany. Paper presented at the Mintek@90 Conference – Gearing the Industry for a Sustainable Mineral Future, Sandon, 11–12 November 2024. – p. 37–50, 2 Abb., 1 Tab., 2 Anl.; Rosebank (The Southern African Institute of Mining and Metallurgy).
• Rooijen, P. v. & Verreussel, J. M. (1982): Mine Water in Dutch Coal Mines in the Post-Mining State. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, C:102–114, 5 Abb., 1 Tab.
• Roos, C., Pieters, R., Genthe, B. & Bouwman, H. (2011): Persistent organic pollutants (POPs) in the Water Environment. – (Report Nr. WRC 1561/1/11). – 215 p., Pretoria (Water Research Commission).
• Rooyen, J. A. v. (2009): Strategic Planning for Water Resources in South Africa. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 1, Pretoria (Document Transformation Technologies).
• Röpke, A. (2006): Der Wandel von der Natur- zur Kulturlandschaft im Hochtal von St. Antönien (Schweiz) – Ein Methodenverbund aus Palynologie, Bodenkunde und Dendroökologie. – 226 p., 74 Abb., 9 Tab., 9 Kart., 3 Anh.; Frankfurt (unveröff. Diss.).
• Röpke, A. (2012): Past Land-Use and Fire Management in the Montafon Valley (Northern Alps) – An Integrated Palaeoenvironmental Approac. – eTopoi – J. Ancient Studies, Special Volume 3:271–278, 1 Abb., 1 Tab.
• Roqueñí, N., Ugarte, L. C., Martínez, G. M. & Alvarez, J. V. (2005): Fluoride contamination of water stream in Moscona Mine area, Asturias: Mine Water 2005 – Mine Closure. – 507–511 p., 2 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Roques-Latrille, C. F., Hubert, J., Lévi, Y., Bourre, J. M., Ardaillou, R., Buffet, C., Géraut, C., Hascoët, J. M., Roux, C., Lecomte, D., Bontoux, D., Queneau, P., Charpentier, B. & Falissard, B. (2022): Rapport sur les mentions d’étiquetage des eaux conditionnées (Saisine Direction générale de la santé – DGS – du 16 juin 2021). – Bull. Acad. Natl. Med., 206(5):579–590, doi:10.1016/j.banm.2022.03.003.
• Rosas, C. C., Farfán, N. & Soto, C. (2015): Applicability of a New and More Efficient Approach to the ABCC Test. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Rosas, J., Lopez, O., Missimer, T. M., Coulibaly, K. M., Dehwah, A. H. A., Sesler, K., Lujan, L. R. & Mantilla, D. (2014): Determination of Hydraulic Conductivity from Grain-Size Distribution for Different Depositional Environments. – Groundwater, 52(3):399–413, doi:10.1111/gwat.12078.
• Rosborg, I. & Kožíšek, F. (2019): Drinking Water Minerals and Mineral Balance. – 175 p., Cham (Springer); doi:10.1007/978-3-030-18034-8.
• Rosborg, I., Kožíšek, F. & Ferrante, M. (2019): Health Effects of De-mineralization of Drinking Water. – In: Rosborg, I. & Kožíšek, F. (eds): Drinking Water Minerals and Mineral Balance – Importance, Health Significance, Safety Precautions. – p. 149–160, Cham (Springer); doi:10.1007/978-3-030-18034-8_7.
• Rosborg, I., Nihlgård, B., Gerhardsson, L., Gernersson, M. L., Ohlin, R. & Olsson, T. (2005): Concentrations of inorganic elements in bottled waters on the Swedish market. – Environ Geochem Health, 27(3):217–227, doi:10.1007/s10653-004-1612-8.
• Rosca, V., Duca, M., de Groot, M. T. & Koper, M. T. M. (2009): Nitrogen Cycle Electrocatalysis. – Chem. Rev., 109(6):2209–2244, 29 Abb., 1 Tab.; doi:10.1021/cr8003696.
• Rosche, H. (1901): Die Viadukt- und Tunnelbauten in der Strecke Niemes–Reichenberg der Nordböhmischen Transversalbahn. – Z. Österr. Ing. - Archit.-Ver., 53(9):133–141.
• Roscher, M. (2021): Die Projekte der Saxore Bergbau GmbH – Smart and Green Mining – Bergbautradition und bekannte Erzlagerstätten neu gedacht. – bergbau,(9):412–414, 2 Abb., 3 Tab.
• Rose, A. (2022): Asbestos – The Last Modernist Object. – 256 p., Edinburgh (Edinburgh University Press).
• Rose, A. W. (2004): Vertical Flow Systems – Effects of Time and Acidity Relations. Paper presented at the 21st Annual National Meeting – American Society for Surface Mining and Reclamation, Morgantown, 18–24 April 2004. – p. 1595–1616, 6 Abb., 5 Tab.
• Rose, A. W., Bisko, D., Daniel, A., Bower, M. A. & Heckman, S. (2004): An “Autopsy” of the Failed Tangaskootack #1 Vertical Flow Pond, Clinton CO., Pennsylvania. Paper presented at the 21st Annual National Meeting – American Society for Surface Mining and Reclamation, Morgantown, 18–24 April 2004. – p. 1580–1594, 7 Abb., 4 Tab.
• Rose, A. W. & Cravotta, C. A., III (1998): Coal mine drainage prediction. – In: The Pennsylvanian Department of Environmental Protection (ed) Coal mine drainage prediction and pollution prevention in Pennsylvania. – p. 1–1–1–22, 68 Abb., 193 Tab.; Harrisburg (Pennsylvanian Bureau of Mining and Reclamation).
• Rose, A. W. & Dietz, J. M. (2002): Case Studies of Passive Treatment Systems – Vertical Flow Systems. – 776–797 p., 7 Abb., 4 Tab.; Lexington (Proceedings 19th Annual National Meeting – American Society for Surface Mining and Reclamation); doi:10.21000/JASMR02010776.
• Rose, C. B. (2014): The archaeology of Greek and Roman Troy. – 406 p., Cambridge (Cambridge University Press).
• Rose, J., Meng, X. & Watson, C. (1999): Palaeoclimate and palaeoenvironmental responses in the western Mediterranean over the last 140 ka; evidence from Mallorca, Spain. – J. Geol. Soc. London, 156(2):435–448, 7 Abb., 3 Tab.
• Rose, L. J., Genth, T., Jasnowski-Peters, H. & Melchers, Ch. (2022): First Petrophysical Data Compilation on the Effectiveness of an Extensive Hydraulic Barrier During Mine Water Rebound in the Ruhr District – the Upper Cretaceous Emscher Formation. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 417–420; (International Mine Water Association).
• Rose, P. (2005): Meeting the sustainability challenge – Trends and Developments in Biological Treatment of mine drainage in South Africa: Mine Water 2005 – Mine Closure. – 669 p., Oviedo (University of Oviedo).
• Rose, P. (2013): Review: Long-term sustainability in the management of acid mine drainage wastewaters – development of the Rhodes BioSURE Process. – Water SA, 39(5):582, doi:10.4314/wsa.v39i5.1.
• Rose, P., Corbett, C., Neba, A. & Whittington-Jones, K. (2004): Sewage Sludge as an electron donor in biological Mine Wastewater Treatment: Development of the Rhodes BioSURE Process®. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 111–118, 9 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Rose, P. E. (2000): Tracing Fluid Flow in Geothermal Reservoirs: Federal Geothermal Research Program Update – Fiscal Year 1999 DOE/ID-10743. – 3_113–3_118 p., 2 Abb., 1 Tab.; Washington (U.S. Dep. Energy).
• Rose, S. & Fullagar, P. D. (2005): Strontium Isotope Systematics of base flow in Piedmont Province Watersheds, Georgia (USA). – Appl. Geochem., 20(8):1571–1586.
• Rose, S. A., Matthews, Z. N., Morgan, G., Bullen, C. & Stanley, P. C. (2019): Sono-electrochemistry (Electrolysis with assisted Power Ultrasound) Treatment Trials of discharges from Cwm Rheidol – Ystumtuen mines, Ceredigion, Mid Wales, UK. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 262–268; Perm, Russia (Perm State University).
• Rosehart, R. G. (1973): Mine Water-Purification by Reverse-Osmosis. – Can. J. Chem. Eng., 51(6):788–789, 1 Abb., 2 Tab.; doi:10.1002/cjce.5450510629.
• Rosell-Melé, A., Eglinton, G., Pflaumann, U. & Sarnthein, M. (1995): Atlantic core-top calibration of the Uk-37 index as a sea-surface paleotemperature indicator. – Geochim. Cosmochim. Acta, 59(15):3099–3107.
• Rosell-Melé, A., Maslin, M. A., Maxwell, J. R. & Schaeffer, P. (1997): Biomarker evidence for “Heinrich” events. – Geochim. Cosmochim. Acta, 61(8):1671–1678, 4 Abb.; doi:10.1016/S0016-7037(97)00046-X.
• Rosen, O. M. & Abbyasov, A. A. (2003): The Quantitative Mineral Composition of Sedimentary Rocks: Calculation from Chemical Analyses and Assessment of Adequacy (MINLITH Computer Program). – Lithol. Min. Resour., 38(3):252–264, 10 Abb., 5 Tab.
• Rosen, O. M., Abbyasov, A. A. & Tipper, J. C. (2004): MINLITH—an experience-based algorithm for estimating the likely mineralogical compositions of sedimentary rocks from bulk chemical analyses. – Comput. Geosci., 30(6):647–661, doi:10.1016/j.cageo.2004.03.011.
• Rosenblum, C. (1940): Isotopes as indicators. – J. Chem. Educ., 17(12):567, doi:10.1021/ed017p567.
• Roseneck, R. (1993): Der Harz als historische Kulturlandschaft. – ICOMOS – Hefte des Deutschen Nationalkomitees, 11:54–61, 12 Abb.; doi:10.11588/ih.1993.0.22592.
• Rosenthal-Basel, L. (1918): Deutsche Kupfererzlagerstätten. – Kohle und Erz, 15(1/2):1–4.
• Roshal, A. & Kuznetsov, D. (2005): Simulation of propagation of leachate after the ISL mining closure. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 217–224, Heidelberg (Springer).
• Rosner, P. (2011): Der Grubenwasseranstieg im Aachener und Südlimburger Steinkohlenrevier – Eine hydrogeologisch-bergbauliche Analyse der Wirkungszusammenhänge. – 194 p., RWTH Aachen, 66 Abb., 7 Tab., 7 Anl., 4 Anh.; Aachen.
• Rosner, P. (2011): Wechselwirkungen zwischen Grundgebirge und Deckgebirge im Rahmen des Grubenwasseranstieges im Aachener und Südlimburger Steinkohlerevier. – Mitt. Ing.- und Hydrogeologie, 102:61–76, 9 Abb.
• Rosner, P. & Demollin-Schneider, E. H. T. (2008): Gewinnung von Erdwärme aus gefluteten Steinkohlenbergwerken des Aachener und Südlimburger Reviers. – Geothermische Energie, 17(2):14–17, 4 Abb.
• Rosner, P., Eßers, M., Heitfeld, M. & Hofmann, T. (2009): CAP und GrEEN – Nutzung von Erdwärme aus stillgelegten Bergwerken des Aachener Reviers im Rahmen der EuRegionale 2008. Paper presented at the Der Geothermiekongress 2009, Bochum. – p. 1–11, 7 Abb.
• Rosner, P., Eßers, M., Heitfeld, M., Richter, H. & Strauch, P. (2010): Technische Rahmenbedingungen und Fördermöglichkeiten zur Realisierung einer Erdwärmenutzung durch Kommunen in stillgelegten Bergwerken des Aachener Reviers: Geothermie – Risikobeherrschung und Stand der Technik, Perspektiven und Fördermöglichkeiten 123. – 79–92 p., 5 Abb.; Aachen (Schriftenreihe der GDMB).
• Rosner, P., Gibis, G., Heitfeld, M., Schulz, H. R. & Thal, B. (2010): Bergbaulich-geotechnische Untersuchungen zur Entwicklung eines Nutzungs und Sicherungskonzeptes im Bereich der Dogger-Erzgrube Kahlenberg. Paper presented at the 10. Altbergbau-Kolloquium, Freiberg. – p. 94–107, 9 Abb.
• Rosner, P., Heitfeld, M., Maasewerd, P., Mathews, T. & Richter, H. (2019): Erdwärmegewinnung aus einem Bergbau-Schacht des Aachener Steinkohlenreviers - Ergebnisse eines Pilotprojektes. – Markscheidewesen, 126(1):46–54.
• Rosner, P., Heitfeld, M., Pabsch, T. & Denneborg, M. (2012): Abgrenzung signifikanter Belastungsquellen des Erzbergbaus in Nordrhein-Westfalen im Rahmen der EG-Wasserrahmenrichtlinie – Methodik und Ergebnisse. 12. Altbergbau-Kolloquium. – p. 289–304, 4 Abb., 5 Tab.; Goslar (Glückauf).
• Rosner, P., Heitfeld, M., Schetelig, K. & Sahl, H. (2006): Monitoring des Grubenwasseranstiegs im Aachener Steinkohlerevier. – Schriftenreihe der GDMB, 108:23–36, 6 Abb.
• Rosner, P., Heitfeld, M., Spreckels, V. & Vosen, P. (2014): Auswirkungen von Geländehebungen im Zuge des Grubenwasseranstiegs im Ruhrrevier. Paper presented at the RuhrGeo Tag 2014, Bochum. – p. 153–177.
• Rosner, P., Sahl, H. & Schetelig, K. (2006): Erdwärme aus gefluteten Steinkohlenbergwerken – Perspektiven einer Nachnutzung. Paper presented at the 6. Altbergbau-Kolloquium, Aachen. – p. 26–38, 5 Abb.
• Rösner, T. (1999): The environmental impact of seepage from gold mine tailings dams near Johannesburg, South Africa. – 184 p., University of Pretoria, 31 Abb., 55 Tab., 5 Anl.; Pretoria.
• Rösner, T. & van Schalkwyk, A. (2000): The environmental impact of gold mine tailings footprints in the Johannesburg region, South Africa. – Bull Eng Geol Env, 59(2):137–148, 6 Abb., 7 Tab.; doi:10.1007/s100640000037.
• Rösner, U. (1998): Effects of historical mining activities on surface water and groundwater – An example from northwest Arizona. – Environ. Geol., 33(4):224–230, 1 Abb., 2 Tab.; doi:10.1007/s002540050241.
• Ross, C. & Verburg, R. (2015): Lessons Learned in the Interpretation of Mine Waste Static Testing Results. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Ross, C. S., Thompson, J. & Jakubowski, R. (2025): Carbonate Reactions that Dictate Drainage Chemistry and Carbonate Consumption Under Variable System Conditions. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1088–1091; Braga (International Mine Water Association).
• Ross, G. (2004): The public health implications of polychlorinated biphenyls (PCBs) in the environment. – Ecotoxicology and Environmental Safety, 59(3):275–291, doi:10.1016/j.ecoenv.2004.06.003.
• Ross, J.-H. & Dudel, E. G. (2008): Uranium Loads and Accumulation in a Mine Water Contaminated Wetland. – Proceedings, 10th International Mine Water Association Congress:225–228.
• Ross, J.-H. & Göttelmann + Ross Beratende Geowissenschaftler GbR (2008): Probennahme an Stollen – Repräsentative Entnahmepunkte und Schwebstoffverhalten – Endbericht. – 20 p., 6 Abb., 1 Tab, 4 Anh.; Halle (Landesbetrieb für Hochwasserschutz und Wasserwirtschaft Sachsen-Anhalt (LHW)).
• Ross, J. R. & George, D. R. (1971): Recovery of Uranium From Natural Mine Waters by Countercurrent Ion Exchange. – Bur. Mines Rep. Invest., 7471:17, 11 Abb., 1 Tab.
• Ross, M. (1981): The Geologic Occurrences and Health Hazards of Amphibole and Serpentine Asbestos. – In: Veblen, D. R. & Ribbe, P. H. (eds): Amphiboles and other Hydrous Pyriboles. – p. 279–324, Berlin (De Gruyter); doi:10.1515/9781501508219-010.
• Ross, M. (1999): The Health Effects of Mineral Dusts. – In: Plumlee, G. S. & Logsdon, M. J. (eds): The Environmental Geochemistry of Mineral Deposits 6A. – p. 339–356, 9 Tab.; Littleton (Society of Economic Geologists); doi:10.5382/Rev.06.16.
• Ross, R. (1993): Development and application of geothermal minewater energy from the abandoned coal mines in the Springhill coal fields, Springhill, Nova Scotia, Canada. – Proceedings, The Canadian Conference on GIS:400–415, 7 Abb., 3 Tab.
• Ross, R. J. (1969): Heinrich Ritter von Srbik and “Gesamtdeutsch” History. – The Review of Politics, 31(1):88–107.
• Rossi, L. (2016): A Review of Cryptozoology: Towards a Scientific Approach to the Study of “Hidden Animals”. – In: Angelici, M. F. (ed) Problematic Wildlife: A Cross-Disciplinary Approach. – p. 573–588, Cham (Springer International Publishing); doi:10.1007/978-3-319-22246-2_26.
• Rossouw, J. N., Harding, W. R. & Fatoki, O. S. (2008): A Guide to Catchment-Scale Eutrophication Assessments for Rivers, Reservoirs and Lacustrine Wetlands. – (Report Nr. WRC Report No. TT 352/08). – 44 p., 6 Abb., 2 Tab.; Pretoria (Water Research Commission).
• Rossouw, S. L., Sheridan, C. & van Hille, R. (2019): An Evaluation of Sugarcane Bagasse as a Feedstock in a Biological Treatment System for Mine Affected Waters. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 134–139; Perm, Russia (Perm State University).
• Rossum, J. R. (1975): Checking the accuracy of water analyses through the use of conductivity. – J. Am. Water Works Assoc., 67(4):204–205, 2 Tab.
• Rostek, F., Ruhland, G., Bassinot, F. C., Müller, P. J., Labeyrie, L. D., Lancelot, Y. & Bard, E. (1993): Reconstructing sea surface temperature and salinity using δ18O and alkenone records. – Nature, 364:319–321, 4 Abb.
• Rothenhöfer, P., Sahin, H. & Peiffer, S. (2000): Verringerung der Schwermetall- und Sulfatbelastung in sauren bergbaubelasteten Gewässern durch Aluminiumpräzipitate? [Attenuation of heavy metals and sulfate by aluminium precipitates in acid mine drainage?]. – Acta Hydrochim. Hydrobiol., 28(3):136–144, 8 Abb., 2 Tab.; doi:10/bb7gvj.
• Rothery, D. (2015): Geology – A Complete Introduction: Teach Yourself. – 389 p., London (John Murray Learning).
• Rothkegel, J. (1989): Eisenbahnprojekte über den Tiroler Fernpaß. – Jahrbuch für Eisenbahngeschichte, 21:15–26, 9 Abb.
• Rotky, O. (1928): Die Bergbaue Österreichs. – In: Bimmelbauer, A., Koeehlin, R., Marchet, A., Michel, H., Rotky, O. & Hibsch, J. E. (eds): Mineralogisches Taschenbuch der Wiener Mineralogischen Gesellschaft, 2nd edn. – p. 147–165, Wien (Springer); doi:10.1007/978-3-7091-9795-0_4.
• Rötting, T., Amezaga, J., Younger, P., Jimenez, P., Talavera, C., Quintanilla, J., Oyarzún, R. & Soto, G. (2008): Case Studies in Peru, Bolivia and Chile on Catchment Management and Mining Impacts in Arid and Semi-Arid South America – Results from the CAMINAR Project. – Proceedings, 10th International Mine Water Association Congress:541–544.
• Rötting, T., Ayora, C. & Carrera, J. (2005): Passive treatment of Acid Mine Drainage with high metal concentrations – Results from experimental treatment tanks in the Iberian Pyrite Belt (SW Spain). – In: Loredo, J. & Pendás, F. (eds): Mine Water 2005 – Mine Closure. – p. 641–647, 7 Abb.; Oviedo (University of Oviedo).
• Rötting, T., Cama, J., Ayora, C., Cortina, J.-L. & De Pablo, J. (2005): The Use of Caustic Magnesia to Remove Cadmium from Water: Mine Water 2005 – Mine Closure. – 635–639 p., 4 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Rötting, T. S., Ayora, C. & Carrera, J. (2007): Chemical and hydraulic Performance of “Dispersed Alkaline Substrate” (DAS) for passive Treatment of Acid Mine Drainage with high Metal Concentrations: Water in Mining Environments. – 255–259 p., 4 Abb.; Cagliari (Mako Edizioni).
• Rottleuthner, W. (1985): Alte lokale und nichtmetrische Gewichte und Maße und ihre Größen nach metrischem System – Ein Beitrag in Übersichten und Tabellen. – 195 p., Innsbruck (Wagner).
• Rouleau, A., Archambauld, G., Tremblay, D. & Gaudreault, M. (1994): The Distribution of Hydraulic Head and Conductivity Around Mine Drifts. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:163–169, 4 Abb.
• Roure, F., Howell, D. G., Mueller, C. & Moretti, I. (1990): Late Cenozoic subduction complex of Sicily. – J. Struct. Geol., 12(2):259–266, 7 Abb.
• Rouse, J. V. (1979): Evaluation and Control of Ground-Water Quality in the Rocky Mountain Area: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 154–160 p., San Francisco (Freeman).
• Rousseau, P. D. S. (2012): A critical review of static geochemical test methods applied to mining wastes, including their applicability to field conditions: International Mine Water Association Symposium. – 499–504 p., Bunbury (Edith Cowan University).
• Rousseau, P. D. S., Green, R., Usher, B. & Strachotta, C. (2012): An Automated Method for Assessment of Pit Lake Water Quality Risk using the Pit Quality Risk Assessment Protocol (PQRAP). – 1–13 [USB flash drive] p., 4 Abb., 3 Tab.; Ottawa (Proceedings 9th International Conference on Acid Rock Drainage (ICARD)).
• Roussel, C., Néel, C. & Bril, H. (2000): Minerals controlling arsenic and lead solubility in an abandoned gold mine tailings. – Sci. Total Environ., 263:209–219, 6 Abb., 3 Tab.
• Routledge, W. (1886): The Sydney Coal-Field, Cape Breton, N. S. – 542–560 p., 2 Tab.; New York (Transactions of the American Institute of Mining Engineers).
• Rowe, J. (2012): The future of water in the mining industry: International Mine Water Association Symposium. – 425–430 p., Bunbury (Edith Cowan University).
• Rowe, J. (2013): Innovative Systems for Mine Closure at the Haile Gold Mine. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1111–1116, 7 Abb.; Golden (International Mine Water Association).
• Rowe, O. F. & Johnson, D. B. (2009): Enhanced rates of iron oxidation in mine waters by the novel acidophilic bacterium “Ferrovum myxofaciens” immobilized in packed-bed bioreactors. Skellefteå. – p. 1–4 [electronic document], 1 Abb., 2 Tab.; (Proceedings Securing the Future 2009 & 8th ICARD).
• Roy, A. & Bhattacharya, J. (2010): Synthesis of Ca(OH)2 nanoparticles for rapid treatment of mine waste water. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 85–89, Sydney, NS (Cape Breton University Press).
• Roy, A., Das, B. K. & Bhattacharya, J. (2011): Development and Validation of a Spectrophotometric Method to Measure Sulfate Concentrations in Mine Water without Interference. – Mine Water Environ., 30(3):169–174, 3 Abb., 4 Tab.; doi:10.1007/s10230-011-0140-x.
• Roy, S. (2002): Pyrite oxidation in coal bearing strata – controls on in-situ oxidation as a precursor of acid mine drainage formation. – 292 p., 118 Abb., 48 Tab.; Durham (unpubl. PhD-Thesis Durham University).
• Roy, S. & Worral, F. (1999): Pyrite Oxidation in Coal-Bearing Strata – The Use of P-Blocking Techniques. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 547–550, 1 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Roy, T., Plante, B., Benzaazoua, M., Demers, I. & Petit, I. (2020): Geochemical and Mineralogical Study of Lithologies and Tailings From the Whabouchi Lithium Mine Site, Québec, Canada. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 77–82; (International Mine Water Association).
• Roy, V., Demers, I., Plante, B. & Theriault, M. (2020): Kinetic Testing for Oxidation Acceleration and Passivation of Sulfides in Waste Rock Piles to Reduce Contaminated Neutral Drainage Generation Potential. – Mine Water Environ., 39(2):242–255, doi:10.1007/s10230-020-00680-z.
• Roychoudhury, A. N. & Starke, M. F. (2006): Partitioning and mobility of trace metals in the Blesbokspruit: Impact assessment of dewatering of mine waters in the East Rand, South Africa. – Appl. Geochem., 21(6):1044–1063, 4 Abb., 6 Tab.; doi:10.1016/j.apgeochem.2006.02.024.
• RoyChowdhury, A., Sarkar, D. & Datta, R. (2015): Remediation of Acid Mine Drainage-Impacted Water. – Curr. Pollut. Rep., 1(3):131–141, doi:10.1007/s40726-015-0011-3.
• RoyChowdhury, A., Sarkar, D., Deng, Y. & Datta, R. (2017): Assessment of Soil and Water Contamination at the Tab-Simco Coal Mine: A Case Study. – Mine Water Environ., 36(2):248–254, doi:10.1007/s10230-016-0401-9.
• Royer, R. A. & Unz, R. F. (1999): Manganese Oxide Reduction in Laboritory Microcosms. – Mine Water Environ., 18(1):15–28, 6 Abb., 1 Tab.
• Royle, M. (2007): Giant Mine: Identification of Inflow Water Types and Preliminary Geochemical Monitoring during Reflooding. – Mine Water Environ., 26(2):102–109, 3 Abb., 4 Tab.
• Røyset, O., Bjerkeng, B., Iversen, E. & Aanes, K. J. (2009): Water Quality and Metal Transport in Water-Covered Mine Tailings Deposits at Sulphide Ore Mines – In Situ Measurements and Modelling by DGT Samplers. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 574–579, 7 Abb; Pretoria (Document Transformation Technologies).
• Rozakis, L. (2007): Schaum’s Quick Guide to Writing Great Research Papers, 2 edn. – 193 p., New York (McGraw-Hill).
• Rozanski, K. & Dulinski, M. (1988): A reconnaissance isotope study of waters in the karst of the western Tatra mountains. – Catena, 15:289–301, doi:10.1016/0341-8162(88)90052-5.
• Rózkowski, A. (1985): The influence of mining on the groundwater mineralization in the Upper Silesian Coal Basin. – Proceedings, 2nd International Mine Water Association Congress, 2:1015–1025, 6 Abb.
• Rózkowski, A. (1997): Impact of Coal Mining on Quality and Quantity of Fresh Groundwater in the Upper Silesian Coal Basin (Poland). – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:95–103, 2 Abb.
• Rózkowski, A. (1998): Origin of Mine Waters based on the isotopic Composition (Upper Silesian Coal Basin, Poland): Mine Water and Environmental Impacts 1. – 53–67 p., 7 Abb., 1 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Rózkowski, A. (1999): Origin of Mine Waters based on the isotopic and chemical Composition (Upper Silesian Coal Basin, Poland). – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 99–105, 7 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Różkowski, A. (2000): Coal mine water chemistry (Upper Silesian Coal Basin, Poland). – Proceedings, 7th International Mine Water Association Congress:634–644, 3 Abb.
• Rózkowski, A., Chmura, A., Gajowiec, B. & Wagner, J. (1993): Impact of Mining on the Groundwater Chemistry on the Upper Silesian Coal Basin (Poland). – Mine Water Environ., 12(1-4):95–105, 4 Abb., 1 Tab.
• Rózkowski, A. & Przewlocki, K. (1987): The Origin of Groundwaters in the Upper Silesian Coal Basin (Poland): Hydrogeology of Coal Basins. – 155–170 p., 4 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Rózkowski, A. & Rózkowski, J. (1994): Impact of Mine Waters on River Water Quality in the Upper Silesian Coal Basin. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:811–821, 4 Abb., 2 Tab.
• Różkowski, A. & Rudzińska–Zapaśnik, T. (1983): Pochodzenie wód podziemnych w Górnoślaskim i Lubelskim Zagłębiu Węglowym [On the origin of groundwaters in the Upper Silesian and Lublin Coal Basin]. – Przegl. Geol., 31(6):370–377.
• Rózkowski, A. & Wilk, Z. (1987): Hydrogeology of the Lublin Coal Basin (Poland): Hydrogeology of Coal Basins. – 383–401 p., 4 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Rózkowski, A. & Witkowski, A. (1988): Hydrogeology of Deep Blendevale Prospect Coal Deposits within the Upper Silesian Coal Basin (Poland). – Proceedings, 3rd International Mine Water Congress, Melbourne:309–318, 4 Abb., 2 Tab.
• Ruan, Z. E., Li, C. P., Wu, A. X. & Wang, Y. (2019): A New Risk Assessment Model for Underground Mine Water Inrush Based on AHP and D-S Evidence Theory. – Mine Water Environ., 38(3):488–496, doi:10.1007/s10230-018-00575-0.
• Rubenfeld, L. A. & Siegmann, W. L. (1977): Nonlinear Dynamic Theory for a Double-Diffusive Convection Model. – SIAM J. Appl. Math., 32(4):871–894, 4 Abb.; doi:10.1137/0132074.
• Rubey, W. W. (1938): The Force Required to Move Particles on a Stream Bed. – U.S. Geol. Surv. Prof. Pap., 189-E:121–141.
• Rubin, H. & Atkinson, J. F. (2001): Environmental fluid mechanics. – 728 p., New York (Marcel Dekker).
• Rubinos, D., Díaz-Fierros, F. & Barral, M. T. (2011): Neutralization and Decontamination of Acid Leachates using Bauxite Red Mud: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 441–446 p., Aachen (RWTH Aachen University).
• Rubinstein, Y. B., Perelyaev, Y. N. & Badenikov, V. J. (1994): Multisectional Technology of Waste Waters Purification. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:673–677.
• Rubio, J., Carissimi, E. & Rosa, J. J. (2007): Flotation in water and wastewater treatment and reuse: recent trends in Brazil. – Int. J. Environ. Pollut., 30(2):197–212, doi:10.1504/Ijep.2007.014700.
• Rubio, R. F. & Kleinmann, B. (2021): Introduction to this Special Issue on Tailings Storage: Challenges and Technologies. – Mine Water Environ., 40(1):1–5, doi:10.1007/s10230-021-00757-3.
• Ruckart, P. Z. & Burgess, P. A. (2007): Human error and time of occurrence in hazardous material events in mining and manufacturing. – J. Hazard. Mater., 142(3):747–53, doi:10.1016/j.jhazmat.2006.06.117.
• Rucker, D. F., Glaser, D. R., Osborne, T. & Maehl, W. C. (2009): Electrical Resistivity Characterization of a Reclaimed Gold Mine to Delineate Acid Rock Drainage Pathways. – Mine Water Environ., 28(2):146–157, 8 Abb.; doi:10.1007/s10230-009-0072-x.
• Rudakov, D. & Inkin, O. (2022): Evaluation of heat supply with maintaining a safe mine water level during operation of open geothermal systems in post-coalmining areas. – Mining of Mineral Deposits, 16(1):24–31, doi:10.33271/mining16.01.024.
• Rudakov, D. & Inkin, O. (2024): Geothermal Energy Exploitation from Abandoned Mines. – In: Rahimpour, M. R. (ed) Encyclopedia of Renewable Energy, Sustainability and the Environment (First Edition). – p. 117–126, Oxford (Elsevier); doi:10.1016/B978-0-323-93940-9.00198-5.
• Rudakov, D. V., Coldewey, W. G. & Goerke-Mallet, P. (2014): Modeling the Inflow and Discharge from Underground Structures within the Abandoned Hardcoal Mining Area of West Field (Ibbenbüren). – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 699–705, Xuzhou (International Mine Water Association).
• Rudakov, D. V. & Inkin, O. V. (2023): An Approach for Ranking Abandoned Mines by the Efficient Use of Their Geothermal Potential. – Scientific Bulletin of National Mining University,(2):11–18, doi:10.33271/nvngu/2023-2/011.
• Rudakov, D. V. & Sadovenko, I. O. (2006): Прогнозування Гідродинамічного Режиму При Відпрацьовуванні Й Затопленні Шахтного Поля [Forecasting of the hydrodynamic regime during working out and flooding a minefield]. – Journal of Zhytomyr State Technological University: Engineering [Вісник Житомирського державного технологічного університету: Технічні науки], 36(1):151–158.
• Ruddick, B. & Gargett, A. E. (2003): Oceanic double-diffusion – introduction. – Prog. Oceanogr., 56(3):381–393, doi:10.1016/S0079-6611(03)00024-7.
• Rüde, T. (2004): Natures acid drainage laboratory: lessons from the Rötlbach (Zillertaler Alps/Austria). – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 219–224, 3 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Rüde, T. R., Banning, A., Klauder, W., Roger, S. & Vinzelberg, G. (2010): Improving the effectiveness of wells for lignite mine dewatering. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 89–93, Sydney, NS (Cape Breton University Press).
• Rüde, T. R., Becker, J., Sahle, D., Chmielarczyk, F.-J., Heitfeld, M., Rosner, P., Hoffmann, E.-W. & Demmel, T. (2024): Assessment of AMD Potential and Prediction of a long-term Sulfate Plume of a Tailing Storage Facility Decades after its Decommissioning. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 532–538; Morgantown (International Mine Water Association).
• Rüde, T. R., Hanauer, T., Rietzler, J. & Wohnlich, S. (2003): Hydrogeologische Kriterien zur Beurteilung natürlicher Reinigungsvorgänge im Untergrund ein Kupfer-Arsen-Schadensfall im Landkreis Kitzingen: Symposium zum Bayerischen Forschungsverbundvorhaben „Nachhaltige Altlastenbewältigung unter Einbeziehung des natürlichen Reinigungsvermögens“. – 1–5 p., Augsburg (Landesamt für Umweltschutz).
• Rüde, T. R. & Reich, M. (2016): Optimized dewatering wells for open pit mining to prevent well loss from ochre formation. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 454, Freiberg (TU Bergakademie Freiberg).
• Rüde, T. R., Wohnlich, S. & Vogelsang, A. (1997): Formation of Secondary Iron Minerals and their Influence on the Mobility of Arsenic During the Flooding of Open-Cast Lignite Mines. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:317–324, 4 Abb., 1 Tab.
• Rudisell, M. T., Stuart, B. J., Novak, G., Payne, H. & Togni, C. S. (2001): Use of flue gas desulfurization by-product for mine sealing and abatement of acid mine drainage. – Fuel, 80(6):837–843, 6 Abb., 1 Tab.
• Rudolf, E. (1934): Die Mundart im Außfern. – Teuthonista, 10(4):193–238, 14 Abb.
• Rudolph, T. & Coldewey, W. G. (2008): Implications of Earthquakes on the Stability of Tailings Dams. – Proceedings, 10th International Mine Water Association Congress:399–401.
• Rudolph, T., Melchers, Ch. & Coldewey, W. G. (2009): Long-Term Water Management in the German Mining District through the understanding of the Subsurface Permeabilites. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 66–69, 4 Abb; Pretoria (Document Transformation Technologies).
• Rudolph, T., Melchers, Ch., Goerke-Mallet, P. & Engel, D. (2021): Monitoring of Water-Bearing Adits – Current Results and Perspectives. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 490–495; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Rudolph, T., Yin, X. & Goerke-Mallet, P. (2023): Advanced definition of the geo- and environmental monitoring from the post-mining experience in the Ruhr region. – Z. Dt. Ges. Geowiss., 173(4):513–531, doi:10.1127/zdgg/2022/0335.
• Rue, G., Crouch, C. & McKnight, D. M. (2013): Increasing ARD and rare earth metal concentrations in an alpine watershed. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 447–450, 5 Abb.; Golden (International Mine Water Association).
• Rueda, F. J. & Vidal, J. (2009): Currents in the Upper Mixed Layer and in Unstratified Water Bodies. – In: Likens, G. E. (ed) Encyclopedia of Inland Waters. – p. 568–582, Oxford (Academic Press); doi:10.1016/B978-012370626-3.00083-1.
• Rufaut, C., Craw, D., Weightman, E., Pillai, D. & Lee, G. (2022): The Macraes Gold Mine Irrigation Project, New Zealand. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 421–426; (International Mine Water Association).
• Rufaut, C. G., Craw, D. & Foley, A. (2015): Mitigation of Acid Mine Drainage via a Revegetation Programme in a Closed Coal Mine in Southern New Zealand. – Mine Water Environ., 34(4):464–477, doi:10.1007/s10230-014-0295-3.
• Rüffer, T. & Bechstädt, T. (1995): Interpretation des Deckenbaus in den westlichen Nördlichen Kalkalpen: Widerspruch zwischen tektonischen sedimentologischen Daten. – Jb. Geol. B.-A., 138:701–713, 9 Abb., 1 Tab.
• Rügner, H., Finkel, M., Kaschl, A. & Bittens, M. (2006): Application of monitored natural attenuation in contaminated land management—A review and recommended approach for Europe. – Environ. Sci. Policy, 9(6):568–576, 1 Abb., 3 Tab.; doi:10.1016/j.envsci.2006.06.001.
• Rühaak, W., Gorling, L. & Schulz, R. (2006): Integration geophysikalischer Daten in ein dreidimensionales geometrisches Untergrundmodell. – Wiss. Mitt. Inst. Geol., 31:311–316, 7 Abb.
• Rühaak, W., Luo, J. & Diersch, H. J. G. (2009): 3D Modelling of Brine Flow – A Case Study for a Flooded Salt Mine. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 688–694, 6 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Rühaak, W., Schätzl, P., Renz, A. & Diersch, H.-J. G. (2008): Numerical modeling of Geothermal Processes: Issues and Examples. – Proceedings, 10th International Mine Water Association Congress:105–108.
• Ruhland, G. (2018): What Art Can Tell About Modified Environmental Systems. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1117–1123; (Tshwane University of Technology).
• Ruhland, G. (2019): FOLGELANDSCHAFT. Eine Untersuchung der Auswirkungen des Uranbergbaus auf die Landschaft um Gera/Ronneburg [POST-MINING LANDSCAPES. Investigating the effects of uranium mining on the landscape around Gera/Ronneburg, Germany]. – 357 p., PhD Thesis, Bauhaus Universität Weimar, 38 Abb.; Weimar.
• Ruhland, G. (2021): 3,000 Years of Apocalypse – Ambivalent Relations Between Mining and Culture with Particular Regard to Uranium. – p. 21–28.
• Ruhland, G. & Wolkersdorfer, Ch. (2016): Waters of Deep Ground – Mine Water and Emotions. Paper presented at the IMWA 2016 – Mining Meets Water – Conflicts and Solutions, Leipzig/Germany. – p. 84–87, 1 Abb.; Freiberg (TU Bergakademie Freiberg).
• Ruhrkohle AG (2014): Konzept zur langfristigen Optimierung der Grubenwasserhaltung der RAG Aktiengesellschaft für das Saarland. – 17 p., 8 Abb.; Herne (Ruhrkohle AG).
• Ruiz Cánovas, C. (2022): Towards a Sustainable Restorarion of a Watershed Strongly Polluted by Acid Mine Drainage (AMD): the Case of the Odiel River (SW Spain). Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 427–431; (International Mine Water Association).
• Ruiz Cánovas, C., Basallote, M. D., Macías, F., Olías, M., Pérez-López, R. & Nieto, J. M. (2019): Metal fluxes from the Tinto River (SW Spain) to the Atlantic Ocean: importance of flood events. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 451–456; Perm, Russia (Perm State University).
• Ruiz Cánovas, C., Macias, F., Olías, M. & Pérez López, R. (2017): Restoration measures of an AMD polluted watershed based on mixing and geochemical models. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 588–594, Lappeenranta (Lappeenranta University of Technology).
• Ruiz, E., Huamani, L., Paucar, J., Larota, J., Jimenez, C. & Gallo, Y. (2021): Planning the Dewatering of a Tailings Storage Facility. – Mine Water Environ., 40(1):270–284, doi:10.1007/s10230-020-00745-z.
• Ruiz, E., Iraola, A., Huamani, L., Pool, M., Sanchez, A., Irribarren, M., Llanos, B., Cairo, M., Nardi, A., Vilanova, E. & Lozada, L. (2024): Applicability of machine learning in agile decision making in open pit dewatering: A case study at Antamina mine (Peru). Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 539–545; Morgantown (International Mine Water Association).
• Ruiz, F. (2025): A Novel approach to hydrogeochemical risk assessment based on short-term tests. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 813–818; Braga (International Mine Water Association).
• Rukin, N. (2003): Whittle mine water treatment system: in-river attenuation of manganese. – Land Contam. Reclam., 11(2):137–144, doi:10.2462/09670513.807.
• Rülein von Calw, U. (1518): Ein wohlgeordnet und nützlich Büchlein, wie man Bergwerk suchen und finden soll, von allerlei Metall mit seinen Figuren nach Gelegenheit des Gebirgs artlich angezeigt mit anhangenden Bergnamen, den anfahrenden Bergleuten fast dienstlich. – Worms (Schöfern).
• Rummel, W. (1957): Gewinnung von Eisen-III-Oxydhydrat aus den Grubenabwässern der Lausitz. – Wasserwirtschaft-Wassertechnik, 7(9):344–348, 4 Abb., 4 Tab.
• Rumpf, K. (1989): Der mittelalterliche Kupferbergbau in Südtirol. – Bergbau (Hattingen), 40(2):74–77, 10 Abb.
• Runkel, R. L. (1998): One-Dimensional Transport with Inflow and Storage (OTIS): A Solute Transport Model for Streams and Rivers. – Water Resour. Investig. Rep., 98-4018:1–73, 31 Abb., 28 Tab.; doi:10.3133/wri984018.
• Runkel, R. L., Bencala, K. E. & Kimball, B. A. (1999): Modeling Solute Transport and Geochemistry in Streams and Rivers Using OTIS and OTEQ. – Water Resour. Investig. Rep., WRI 99-4018A(1):109–118.
• Runkel, R. L., Bencala, K. E., Kimball, B. A., Walton-Day, K. & Verplanck, P. L. (2009): A comparison of pre- and post-remediation water quality, Mineral Creek, Colorado. – Hydrol. Process., 23(23):3319–3333, doi:10.1002/hyp.7427.
• Runkel, R. L., Walton-Day, K., Kimball, B. A., Verplanck, P. L. & Nimick, D. A. (2013): Estimating instream constituent loads using replicate synoptic sampling, Peru Creek, Colorado. – J. Hydrol., 489:26–41, doi:10.1016/j.jhydrol.2013.02.031.
• Runnells, D. D. & Rampe, J. J. (1989): Natural clean-up of a stream contaminated by mine and mill wastes; a reaction analogous to liming in water treatment. – Proceedings, International Symposium on Water-Rock Interaction, 6:597–600, 3 Abb., 1 Tab.
• Runnells, D. D., Shepherd, T. A. & Angino, E. E. (1992): Metals in water – Determining natural background concentrations in mineralized areas. – Environ. Sci. Technol., 26(12):2316–2323, doi:10.1021/es00036a001.
• Runtti, H., Tolonen, E.-T., Tuomikoski, S., Luukkonen, T. & Lassi, U. (2018): How to tackle the stringent sulfate removal requirements in mine water treatment—A review of potential methods. – Environ. Res., 167:207–222, doi:10.1016/j.envres.2018.07.018.
• Runtti, H., Tuomikoski, S., Pesonen, J., Tolonen, E.-T., Luukkonen, T., Näppä, J., Tanskanen, P. & Lassi, U. (2017): Utilization Of By-products From Mine Industry As Sorbents In Water Treatment. Paper presented at the IMWA 2017 – Mine Water & Circular Economy, Lappeenranta. – p. 1334–1340; (Lappeenranta University of Technology).
• Runtti, H., Tynjälä, P., Tuomikoski, S., Kangas, T., Hu, T., Rämö, J. & Lassi, U. (2017): Utilisation of barium-modified analcime in sulphate removal: Isotherms, kinetics and thermodynamics studies. – J. Water Process Eng., 16:319–328, doi:10.1016/j.jwpe.2016.11.004.
• Rupp, J., Beale, G., Howerton, K. & Allen, P. M. (2021): Integration of Regional and Site Scale Models for an Open-Pit Mine. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 496–501; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Ruppen-Greeff, N. K., Weber, D. M., Gobet, R. & Landolt, M. A. (2015): What is a Good Looking Penis? How Women Rate the Penile Appearance of Men with Surgically Corrected Hypospadias. – J. Sex. Med., 12(8):1737–1745, doi:10.1111/jsm.12942.
• Rusdinar, Y., Edraki, M., Baumgartl, T., Mulligan, D. & Miller, S. (2013): Long Term Performance of Hydrogeochemical Riverine Mine Tailings Deposition at Freeport Indonesia. – Mine Water Environ., 32(1):56–70, 13 Abb., 1 Tab.; doi:10.1007/s10230-012-0212-6.
• Russell, A. D. & Thompson, G. M. (1983): Mechanisms Leading to Enrichment of the Atmospheric Fluorocarbons CCl3F and CCl2F2 in Groundwater. – Water Resour. Res., 19(1):57–60, 4 Abb., 3 Tab.
• Russell, B. M., Muir, L. E., Weinstein, P. & Kay, B. H. (1996): Surveillance of the mosquito Aedes aegypti and its biocontrol with the copepod Mesocyclops aspericornis in Australian wells and gold mines. – Med. Vet. Entomol., 10(2):155–60, 2 Abb., 2 Tab.; doi:10.1111/j.1365-2915.1996.tb00722.x.
• Russo, S. L., Gnavi, L., Peila, D. & Suozzi, E. (2013): Rough evaluation of the water-inflow discharge in abandoned mining tunnels using a simplified water balance model: the case of the Cogne iron mine (Aosta Valley, NW Italy)12507. – Environ. Earth Sci., 70:2753–2765, 10 Abb., 5 Tab.; doi:10.1007/s12665-013-2335-x.
• Rüterkamp, P. (2001): Bildung von Dichte-Schichtungen in Grubenwässern. – Glückauf Forsch.-H., 62(2):40–44, 4 Abb.
• Rüterkamp, P., Kories, H., Rübel, H.-J. & Sippel, M. (2004): Erstellung numerischer Modelle zur Berechnung von Dichte-Schichtungen bei einem Grubenwasseranstieg. – Unpubl. Report for Bezirksregierung Arnsberg Abteilung 8 Bergbau und Energie in NRW (Report Nr. DMT-FPI-Nr.: 2685). – 173 p., Essen (Deutsche Montan Technologie GmbH).
• Rüterkamp, P. & Meßer, J. (2000): Untersuchungen zur hydraulischen und hydrochemischen Situation in den drei Teilrevieren der gefluteten Flussspatgrube Straßberg [Investigations on the hydraulic and hydrochemical situation in the three sub-areas of the flooded Straßberg fluorspar pit]. – Unpubl. Report for GmbH, B. S. T. M. & Co, K. G. N. (Report Nr. 1710-99-285). – 46 p., 14 Anh., 3 Anl.; Essen (Deutsche Montan Technologie GmbH).
• Rutherford, J. (1875): Report on the Reid Areas in the Glace Bay District of the Sydney Coal Field. – 12 p., 2 Kart.; Halifax (Fowler & Patrick).
• Rutkowski, T., Hanson, R. & Conroy, K. (2013): Mine water treatment options for meeting stringent selenium regulatory limits. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 711–716, 2 Abb., 1 Tab.; Golden (International Mine Water Association).
• Rutkowski, T., Rhodes, M., Smith, J., Conroy, K. & Bratty, M. (2013): Treatment of high total dissolved solids and acidity in Cerro de Pasco mining wastewater, Peru. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 717–722, 4 Abb., 4 Tab.; Golden (International Mine Water Association).
• Ryan, T. P. (2013): Sample size determination and power. – 374 p., Hoboken (Wiley).
• Ryanta, A., Saputra, M. N. W., Senduk, M., Anggoro, D. & Husodo, I. (2022): Successful Installation of Indonesia’s First Dual ESP System for Dewatering Applications. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 433–438; (International Mine Water Association).
• Rybnikov, P. & Rybnikova, L. (2017): Waste Disposal In The Open Pits: The Hydrogeological Aspects And The Influence On the Environment (The South Urals, Russia). – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 489–494, Lappeenranta (Lappeenranta University of Technology).
• Rybnikova, L. & Rybnikov, P. (2017): Water Quality Of The Abandoned Sulfide Mines Of The Middle Urals (Russia). – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 753–760, Lappeenranta (Lappeenranta University of Technology).
• Rybnikova, L. & Rybnikov, P. (2019): Groundwater Quality Formation at Drinking Water Intakes Near Flooded Pits (Middle Urals, Russia). Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 491–495; Perm, Russia (Perm State University).
• Rybnikova, L. S. & Rybnikov, P. A. (2020): Pit Lake and Drinking Water Intake: Example of Coexistence (Middle Urals, Russia). – Mine Water Environ., 39(3):464–472, doi:10.1007/s10230-020-00691-w.
• Rybnikova, L. S., Rybnikov, P. A. & Navolokina, V. Y. (2022): Reducing Negative Impacts of Dormant Pyrite Copper Ore Mine on the Geosphere in the Urals. – J. Min. Sci., 58(3):519–525, doi:10.1134/S1062739122030188.
• Rybnikova, L. S., Rybnikov, P. A. & Navolokina, V. Y. (2024): Assessment of the efficiency of acid mine drainage purification (using the example of copper-pyrite mines in the Middle Urals). – J. Min. Inst., 267:388–401.
• Rybnikova, L. S., Rybnikov, P. A. & Navolokina, V. Y. (2024): Chemical elements migration in ground waters of mining territory. – Bull. Tomsk Polytech., 335(9):137–147, doi:10.18799/24131830/2024/9/4465.
• Rybnikova, L. S., Rybnikov, P. A. & Navolokina, V. Y. (2025): Environmental implications of the acid mine drainage in the Middle Urals, Russia. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 162–168; Braga (International Mine Water Association).
• Rybnikova, L. S., Rybnikov, P. A. & Smirnov, A. Y. (2023): Flooding of Open Pit and Underground Mines in the Chelyabinsk Coal Field: Consequences, Problems and Solutions. – J Min Sci+, 59(3):497–504, doi:10.1134/S1062739123030171.
• Rybnikova, L. S., Rybnikov, P. A. & Smirnov, A. Y. (2023): Post-mining of Chelyabinsk Coal Basin (Russia): The Effects of Mine Flooding. – Mine Water Environ., 42(3):472–488, doi:10.1007/s10230-023-00947-1.
• Rybnikova, L. S., Rybnikov, P. A. & Smirnov, A. Y. (2025): Рost-closure water management of Chelyabinsk Coal Basin (Russia). Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 64–69; Braga (International Mine Water Association).
• Rychkov, V. N., Kirillov, E. V., Kirillov, S. V., Bunkov, G. M., Mashkovtsev, M. A., Botalov, M. S., Semenishchev, V. S. & Volkovich, V. A. (2016): Selective ion exchange recovery of rare earth elements from uranium mining solutions. – AIP Conference Proceedings, 1767(1):020017, doi:10.1063/1.4962601.
• Ryumin, A. N. (1994): Calculation of the Deformation of Surface Mine Slopes Composed of Steeply Dipping Strata. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:479–495, 6 Abb., 5 Tab.
• Ryumin, A. N. (1997): Evaluation Hydrogeological Parameters of Rock Mass Composed of Steeply Dipping Strata. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:249–259, 3 Abb., 6 Tab.
• Ryumin, A. N. (1997): A New Approach to Evaluation of Clayey Slopes Deformation. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:325–340, 6 Abb., 6 Tab.
• Ryumin, A. N. (1998): Research of Underground Water Heads Influence on the Landslide of the Angren Open-Pit Slope: Mine Water and Environmental Impacts 2. – 235–247 p., 7 Abb., 4 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Rzhetsky, A. & Nei, M. (1992): A Simple Method for Estimating and Testing Minimum-Evolution Trees. – Molecular Biology and Evolution, 9(5):945–945, doi:10.1093/oxfordjournals.molbev.a040771.
• S. R. I. Consulting Business Intelligence (2008): Disruptive Civil Technologies – Six Technologies with Potential Impacts on US Interests out to 2025: CR 2008-07. – 34 p., 1 Abb., 6 Tab., 6 Anh.; Washington (National Intelligence Council).
• Sa, d. & Paulo (2005): Mineral Policy – A World Bank Perspective: International and Comparative Mineral Law and Policy: Trends and Prospects. – 493–504 p., The Hague (Kluwer Law International).
• Saad, D., Ndlovu, M., Ramaremisa, G. & Tutu, H. (2022): Microplastics in freshwater environment: the first evaluation in sediment of the Vaal River, South Africa. – Heliyon, 8(10) doi:10.1016/j.heliyon.2022.e11118.
• Saad, D. M. G., Cukrowska, E. M. & Tutu, H. (2014): Engineered Materials for the Containment of Uranium and Other Toxic Elements in Mine-polluted Water. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 654–657, Xuzhou (International Mine Water Association).
• Saavedra, F. N. (1999): La Protección Ambiental de Actividades Mineras en la Provincia de San Juan – República Argentina. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 713–717, 7 Abb.; Sevilla (International Mine Water Association).
• Sabatini, D. A. & Austin, T. A. (1991): Characteristics of Rhodamine WT and Fluorescein as Adsorbing Ground-Water Tracers. – Ground Water, 29(3):341–349, 8 Abb., 6 Tab.
• Sabelli, C., Orlandi, P. & Vezzalini, G. (1992): Coquandite, Sb6O8(SO₄).H₂O, a new Mineral from Pereta, Tuscany, Italy, and 2 other localities. – Mineral. Mag., 56(385):599–603.
• Sabherwal, R. K., Rajagopalan, S. P. & Lakshminarayana, V. (1978): Aquifer parameter identification by using digital simulation models. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 899–910; Maracena (Asociación Nacional de lngenieros de Minas).
• Sabir, I. H., Haldorsen, S., Torgersen, J., Alestrom, P., Gaut, S., Colleuille, H., Pedersen, T. S. & Kitterod, N.-O. (2000): Synthetic DNA tracers – examples of their application in water related studies. – IAHS-AISH Publication, 262:159–165, 3 Abb., 1 Tab.
• Sabir, I. H., Torgersen, J., Haldorsen, S. & Alestrom, P. (1999): DNA tracers with information capacity and high detection sensitivity tested in groundwater studies. – Hydrogeol. J., 7(3):264–272, 6 Abb., 1 Tab.
• Sabri, R., Merkel, B. J. & Tichomirowa, M. (2015): Has the water supply network of Sebestia been connected to that of Nablus? – Freiberg Online Geoscience, 41:46–64, 7 Abb., 3 Tab., 11 Anl.
• Saby, M., Larocque, M., Pinti, D. L., Barbecot, F., Sano, Y. & Castro, M. C. (2016): Linking groundwater quality to residence times and regional geology in the St. Lawrence Lowlands, southern Quebec, Canada. – Appl. Geochem., 65:1–13, 10 Abb., 3 Tab.; doi:10.1016/j.apgeochem.2015.10.011.
• Sacchi, E., Bergamini, M., Lazzari, E., Musacchio, A., Mor, J. R. & Pugliaro, E. (2021): Natural Background Levels of Potentially Toxic Elements in Groundwater from a Former Asbestos Mine in Serpentinite (Balangero, North Italy). – Water, 13(5):735, doi:10.3390/w13050735.
• Sachs, S., Geipel, G., Mibus, J. & Bernhard, G. (2005): Impact of humic acid on the uranium migration in the environment. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 107–116, Heidelberg (Springer).
• Sachsenhofer, R. F. (1990): Geodynamic Controls on Deposition and Maturation of Coal in the Eastern Alps. – Mitt. Österr. Geol. Ges., 92:185–194, 6 Abb.
• Sächsisches Landesamt für Umwelt‚ Landwirtschaft und Geologie (2003): Handbuch Grundwasserbeobachtung – Grundwasserprobenahme. – Materialien zur Wasserwirtschaft, 5:68, 7 Abb., 3 Tab., 7 Anl.
• Sächsisches Oberbergamt (2002): Der Bergbau in Sachsen. – 59 p., 19 Abb., 20 Tab., 4 Anl.; Freiberg (Sächsisches Oberbergamt).
• Sächsisches Oberbergamt (2004): Der Bergbau in Sachsen. – NN, 19 Abb., 20 Tab.
• Sackey, M. A., Kuma, J. S. Y., Anornu, G. & Kortatsi, B. K. (2013): Attenuation Potential of Clay Liner Carbon-in-Leach Tailings Storage Facilities: A Case Study at Gold Fields Ghana Limited, Tarkwa Mine (GFGL). – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 451–456, 1 Abb., 5 Tab.; Golden (International Mine Water Association).
• Sackey, M. A., Kuma, J. S. Y., Anornu, G. & Kortatsi, B. K. (2013): Cyanide Decay and Metal Speciation in Decant Ponds of Carbon-in-Leach Tailings Storage Facilities: A Case Study at Gold Fields Ghana Limited, Tarkwa Mine (GFGL). – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 457–461, 3 Abb., 3 Tab.; Golden (International Mine Water Association).
• Sädbom, S., Sartz, L., Björklund, J.-E., Svenlöv, M., Bergqvist, M. & Bäckström, M. (2020): The Use of Systematic Sampling and XRF-XRT Based Scanning to Determine Potential Recovery of Metals from Waste Rock. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 146–151; (International Mine Water Association).
• Sadeghalvad, B., Armaghan, M. & Azadmehr, A. (2014): Using Iranian Bentonite (Birjand Area) to Remove Cadmium from Aqueous Solutions. – Mine Water Environ., 33(1):79–88, 5 Abb., 4 Tab.; doi:10.1007/s10230-013-0253-5.
• Sadeghi Amirshahidi, M. H., Eslam kish, T., Doulati Ardejani, F. & Soleimani, E. (2011): Investigating the Pyrite oxidation and mineralogical characteristics of a coal washing waste dump, Albourz Sharghi, Shahrood, Iran: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 447–452 p., Aachen (RWTH Aachen University).
• Sadeghiamirshahidi, M., Kish, T. E. & Ardejani, F. D. (2013): Application of Image Processing for Modelling Pyrite Oxidation in a Coal Washing Waste Pile. – Environ. Model. Assess., 18:365–376, 9 Abb., 1 Tab.; doi:10.1007/s10666-012-9350-2.
• Sadler, P. J. K. (1999): Predicting Groundwater Recovery after Mine Closure. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 437–444, 2 Abb.; Sevilla (International Mine Water Association).
• Sadler, P. J. K. & Rees, A. (1998): Use of probabalistic Methods for Sizing a Wetland to treat Mine Water discharging from the former Polkemmet Colliery, West Lothian, Scotland: Mine Water and Environmental Impacts 2. – 401–411 p., 8 Abb., 2 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Sadovenko, I., Tymoshchuk, V., Zahrytsenko, A., Rodríguez, F., Sherstiuk, Y., Vlasov, V. & Chushkina, I. (2024): Hydrotechnical and ecological principles of water resources management for a mined-out mine field. – IOP Conference Series: Earth & Environmental Science, 1348(1):1–10, 7 Abb., 2 Tab.; doi:10.1088/1755-1315/1348/1/012069.
• Sadovenko, I. O. & Rudakov, D. V. (2005): Analysis of overflows while flooding adjacent mines [Анализ Динамики Перетоков При Затоплении Смежныхшахт]. – Dnipropetrovsk Geotechnical Mechanics [Геотехническая механика], 61:93–100, 3 Abb.
• Sadovenko, I. O., Rudakov, D. V. & Podvigina, O. (2011): Analysis of hydrogeodynamics in a mining region during exploitation till closure of coal mines. – In: Bondarenko, V., Kovalevs’ka, I. & Dychkovs’kyy, R. (eds): New Techniques and Technologies in Mining. – p. 61–69, 8 Abb.; Boca Raton (CRC Press).
• Saenz, C. (2018): The Context in Mining Projects Influences the Corporate Social Responsibility Strategy to Earn a Social Licence to Operate: A Case Study in Peru. – Corp. Soc. Responsib. Environ. Manag., 25(4):554–564, doi:10.1002/csr.1478.
• Sager, D. (2003): Untersuchung zur Entfernung von Metallen aus Grubenwässern mit Hilfe von Kreidekalk. – 112 p., Paris–Lodron–Universität Salzburg, 74 Abb., 58 Tab.; Salzburg.
• Sager, D., Hosner, F., Riepe, W. & Ney, P. (2003): Treatment of acid mine water (abstract). – Mitt. Österr. Miner. Ges., 148:274–275, 1 Abb., 1 Tab.
• Sager, M. (1997): Possible trace metalload from fertilizers. – Die Bodenkultur, 48(4) 7 Abb.
• Saha, S., Sarkar, S. & Sinha, A. (2019): Use of Basic Oxygen Furnace (BOF) Steel Slag for Acid Mine Drainage Treatment: A Laboratory Study. – Mine Water Environ., 38(3):517–527, doi:10.1007/s10230-019-00615-3.
• Saharan, M. R., Gupta, K. K., Jamal, A. & Sheoran, A. S. (1995): Management of Acidic Effluents from Tailing Dams in Metalliferous Mines. – Mine Water Environ., 14(1-4):85–93, 2 Abb., 1 Tab.
• Sahina, H., Peiffer, S. & Durner, W. (1999): Markierungsversuche zur Abflußkomponentenseparierung in einer Abraumhalde des Schieferbergbaus. – Unpubl. Report for Umweltbundesamt 24 p., 9 Abb., 6 Tab.; Bayreuth (Limnologische Forschungsstation).
• Şahinkaya, E., Gunes, F. M., Ucar, D. & Kaksonen, A. H. (2011): Sulfidogenic fluidized bed treatment of real acid mine drainage water. – Bioresour. Technol., 102(2):683–689, doi:10.1016/j.biortech.2010.08.042.
• Şahinkaya, E., Yurtsever, A., İşler, E., Coban, I. & Aktaş, Ö. (2018): Sulfate reduction and filtration performances of an anaerobic membrane bioreactor (AnMBR). – Chem. Eng. J., 2:47–55, doi:10.1016/j.cej.2018.05.001.
• Sahoo, P. K., Tripathy, S., Panigrahi, M. K. & Equeenuddin, S. M. (2012): Mineralogy of Fe-Precipitates and Their Role in Metal Retention from an Acid Mine Drainage Site in India. – Mine Water Environ., 31(4):344–352, 6 Abb., 3 Tab.; doi:10.1007/s10230-012-0203-7.
• Sahraei Parizi, H. & Samani, N. (2014): Environmental Isotope Investigation of Groundwater in the Sarcheshmeh Copper Mine Area, Iran. – Mine Water Environ., 33(2):97–109, 11 Abb., 6 Tab.; doi:10.1007/s10230-014-0277-5.
• Sahu, P., López, D. L. & Stoertz, M. W. (2009): Using Time Series Analysis of Coal Mine Hydrographs to Estimate Mine Storage, Retention Time, and Minepool Interconnection. – Mine Water Environ., 28(3):194–205, 10 Abb., 2 Tab.; doi:10.1007/s10230-009-0076-6.
• Saiers, J. E., Hornberger, G. M. & Harvey, C. (1994): Colloidal silica transport through structured, heterogeneous porous media. – J. Hydrol., 163(3):271–288, doi:10.1016/0022-1694(94)90144-9.
• Sailer, R. & Kerschner, H. (1999): Equilibrium-line altitudes and rock glaciers during the Younger Dryas cooling event, Ferwall Group, western Tyrol, Austria. – Annals of Glaciology, 28:141–145, doi:10.3189/172756499781821698.
• Sainz, A. & Loredo, J. (2005): Tinto River pollution – remediation versus conservation. – In: Loredo, J. & Pendás, F. (eds): Mine Water 2005 – Mine Closure. – p. 563–568, 1 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Saito, H. (2003): Heritages of Modernization at Sado Gold and Silver Mine in the Early Meiji Era. – 1–4 p., 5 Tab.; Akabira (Proceedings 6th International Mining History Congress).
• Saitou, N. & Nei, M. (1987): The neighbor-joining method: a new method for reconstructing phylogenetic trees. – Mol. Biol. Evol., 4(4):406–425, 7 Abb., 6 Tab.; doi:10.1093/oxfordjournals.molbev.a040454.
• Saitta, E. K. H., Gittings, M. J., Clausen, C., Quinn, J. & Yestrebsky, C. L. (2014): Laboratory evaluation of a prospective remediation method for PCB-contaminated paint. – J. Environ. Health Sci. Eng., 12(1):57, doi:10.1186/2052-336X-12-57.
• Sakala, E. (2017): Development of Rapid Assessment Tools for Groundwater Vulnerability Mapping Using Integrated Geoscientific Datasets and Artificial Intelligence Algorithms: Case Study from Witbank and Ermelo Coalfields, South Africa. – 284 p., unpublished PhD thesis, University of the Free State, 200 Abb., 27 Tab.; Bloemfontain.
• Sakala, E., Fourie, F., Gomo, M. & Coetzee, H. (2017): Hydrogeological investigation of Witbank, Ermelo and Highveld Coalfields: Implications for acid mine drainage subsurface transport and attenuation. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 564–571, Lappeenranta (Lappeenranta University of Technology).
• Sakala, E., Fourie, F., Gomo, M. & Coetzee, H. (2017): Mapping of surface acid mine drainage pollutant sources using remote sensing: Case study of Witbank, Ermelo and Highveld Coalfields. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1250–1257, Lappeenranta (Lappeenranta University of Technology).
• Sakala, E., Fourie, F. D., Gomo, M. & Coetzee, H. (2018): GIS-based groundwater vulnerability modelling: A case study of the Witbank, Ermelo and Highveld Coalfields in South Africa. – J. Afr. Earth Sci., 137:46–60, doi:10.1016/j.jafrearsci.2017.09.012.
• Sakala, E., Novhe, O. & Vadapalli, V. R. K. (2019): Application Of Artificial Intelligence (AI) to Predict Mine Water Quality, A Case Study in South Africa. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 140–145; Perm, Russia (Perm State University).
• Sakala, E., Yibas, B. & Fourie, F. D. (2014): The Use of Artificial Neural Networks in Classification of Acid Mine Drainage Pollution Sources Found in Beosmanspruit Dam, Carolina, South Africa. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 400, Xuzhou (International Mine Water Association).
• Sakinç, M., Yaltirak, C. & Oktay, F. Y. (2000): Westward propagation of the North Anatolian Fault into the northern Aegean: Timing and Kinematics: Comment. – Geology, 28(2):187–189, 2 Abb.
• Sakınç, M., Yaltırak, C. & Oktay, F. Y. (1999): Palaeogeographical evolution of the Thrace Neogene Basin and the Tethys–Paratethys relations at northwestern Turkey (Thrace). – Palaeogeogr. Palaeoclimatol. Palaeoecol., 153(1-4):17–40, 10 Abb., 3 Tab.; doi:10.1016/S0031-0182(99)00071-1.
• Sakr, S. A., Warner, J. & Hotchkiss, W. R. (1995): Salt Water Intrusion in Aquifers: Development and Application of a Vertically lntegrated Two-Dimensional Finite-Element Model: Water resources at risk. – SL180–191 p., 7 Abb.; Minneapolis (American Institute of Hydrology).
• Saksa, P. & Sorsa, J. (2016): Geophysical Electromagnetic Measurements for Mine Site Groundwater Monitoring. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 388–390, Freiberg (TU Bergakademie Freiberg).
• Saktrakulkla, P., Li, X., Martinez, A., Lehmler, H.-J. & Hornbuckle, K. C. (2022): Hydroxylated Polychlorinated Biphenyls Are Emerging Legacy Pollutants in Contaminated Sediments. – Environ. Sci. Technol., 56(4):2269–2278, doi:10.1021/acs.est.1c04780.
• Sakurai, T., Weber, R., Ueno, S., Nishino, J. & Tanaka, M. (2003): Relevance of coplanar PCBs for TEQ emission of fluidized bed incineration and impact of emission control devices. – Chemosphere, 53(6):619–625, doi:10.1016/s0045-6535(03)00536-8.
• Sala-Comorera, L., Blanch, A. R., Casanovas-Massana, A., Monleon-Getino, A. & Garcia-Aljaro, C. (2019): Traceability of different brands of bottled mineral water during shelf life, using PCR-DGGE and next generation sequencing techniques. – Food Microbiol., 82:1–10, doi:10.1016/j.fm.2019.01.006.
• Salam, P. A., Shrestha, S., Pandey, V. P. & Anal, A. K. (2017): Water-Energy-Food Nexus – Principles and Practices: Geophysical monograph. – 252 p., Hoboken (Wiley).
• Salamander Mining (2020): The Kobolondo Project – Unlocking Resource Value for Eswatini. – (Report Nr. July 2020). – 7 p., 6 Abb., 3 Tab.; Mauritius (Salamander Mining).
• Salas-Mercado, D., Belizario-Quispe, G. & Horna-Munoz, D. (2023): Heavy Metal Pollution Assessment in Lake Rinconada in the Southern Andes, Peru. – Pollution, 9(2):477–493, doi:10.22059/poll.2022.346689.1558.
• Salcher, B. & Goetzl, G. (2007): Deep Heat Mining in the Austrian Alps – A Prelimenary Look on Possibilities and Limitations: SGP-TR-183. – 1–7 p., 5 Abb.; Stanford (Proceedings 32nd Workshop on Geothermal Reservoir Engineering).
• Saleh, M. A., Ewane, E., Jones, J. & Wilson, B. L. (2001): Chemical evaluation of commercial bottled drinking water from Egypt. – J. Food Compos. Anal., 14(2):127–152, 5 Abb., 3 Tab.; doi:10.1006/jfca.2000.0858.
• Salifu, M., Alakangas, L., Martinsson, O., Billström, K., Ingri, J. & Dold, B. (2018): Sr/Ca and 87Sr/86Sr: A Tracer For Geochemical Process In Mine Wastes. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 723–728; (Tshwane University of Technology).
• Salinas, R. O., Bermudez, B. S., Tolentino, R. G., Gonzalez, G. D. & y Leon, S. V. (2010): Presence of polychlorinated biphenyls (PCBs) in bottled drinking water in Mexico City. – Bull. Environ. Contam. Toxicol., 85(4):372–6, doi:10.1007/s00128-010-0105-y.
• Salkield, L. U. (1987): A technical history of the Rio Tinto mines – some notes on exploitation from pre-Phoenician times to the 1950s. – 114 p., 22 Abb., 12 Anl.; London (Institution of Mining and Metallurgy); doi:10.1007/978-94-009-3377-4.
• Salminen, R. & Sipilä, P. (1996): The environmental impact of sulphide mines measured with organogenic sampling media. – Appl. Geochem., 11(1-2):277–283, 3 Abb., 4 Tab.
• Salmon, C. T. & Nichols, J. S. (1983): The Next-Birthday Method of Respondent Selection. – Public Opin. Q., 47:270–276, doi:10.1086/268785.
• Salmon, D. A. (2003): Water management at a large opencast strip coal mine in South Africa. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 235–248, 4 Abb., 2 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Salmon, D. A. (2006): Valuing mine water – A South African perspective. Paper presented at the 2nd AusIMM Water in Mining Conference, Brisbane, 14–16 November 2006. – p. 3–12.
• Salmon, D. A. (2018): Managing Uncertainty In Planning Opencast Coal Mine Final Void Closure And Relinquishment. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 64–69; (Tshwane University of Technology).
• Salmon, L. G., Cass, G. R., Kozlowski, R., Hejda, A., Spiker, E. C. & Bates, A. L. (1996): Air pollutant intrusion into the Wieliczka salt mine. – Environ. Sci. Technol., 30:872–880.
• Salmon, R. & Degas, M. (2003): Mine shafts in Nord and Pas-de-Calais coalfield, France: risk assessment and treatment technique. – Mining Technology, 112(1):1–8, doi:10.1179/037178403225011088.
• Salmon, S. U., Hipsey, M. R., Wake, G. W., Ivey, G. N. & Oldham, C. E. (2017): Quantifying Lake Water Quality Evolution: Coupled Geochemistry, Hydrodynamics, and Aquatic Ecology in an Acidic Pit Lake. – Environ. Sci. Technol., 51(17):9864–9875, doi:10.1021/acs.est.7b01432.
• Salmon, S. U. & Malmström, M. E. (2002): MiMi – Steady state, geochemical box model of a tailings impoundment – Application to Impoundment 1. Kristineberg, Sweden, and prediction of effect of remediation: MiMi 2002:2. – 88 p., 32 Abb., 23 Tab.; Luleå (MiMi Print).
• Salmon, U., Marton, R. & O’Kane, M. (2018): Evolving Kinetic Testing Methods to Incorporate Key Dynamic Waste Rock Dump Parameters. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 447–451; (Tshwane University of Technology).
• Salo, M., Bomberg, M., Grewar, T., Seepei, L., Gericke, M. & Arnold, M. (2017): Compositions of the Microbial Consortia Present in Biological Sulphate Reduction Processes During Mine Effluent Treatment. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 14–21, Lappeenranta (Lappeenranta University of Technology).
• Salomon, A. & Regulska-Ilow, B. (2013): Polskie butelkowane wody mineralne i lecznicze – charakterystyka i zastosowanie [Polish bottled mineral and medicinal waters – characteristics and uses]. – Bromatol. Chem. Toksykol., 46(1):53–65.
• Salomons, W. & Förstner, U. (1988): Environmental management of solid waste – Dredged materials and mine tailings. – 396 p., 118 Abb.; Berlin (Springer).
• Salonen, V.-P., Tuovinen, N. & Valpola, S. (2006): History of Mine Drainage Impact on Lake Orijärvi Algal Communities, SW Finland. – J. Paleolimnol., 35(2):289–303, doi:10.1007/s10933-005-0483-z.
• Salvador, C., Lu, D. Y., Anthony, E. J. & Abanades, J. C. (2003): Enhancement of CaO for CO₂ capture in an FBC environment. – Chemical Engineering Journal, 96(1):187–195, 8 Abb., 4 Tab.
• Salve, R., Liu, H. H., Cook, P., Czarnomski, A., Hu, Q. H. & Hudson, D. (2004): Unsaturated flow and Transport Through a Fault Embedded in Fractured Welded Tuff. – Water Resour. Res., 40(4).
• Samani, S., Geistlinger, H. & Pohlert, M. E. F. I. H. S. (2010): In-situ measurement of gas distribution generated by continous and pulsed direct gas injection. – Wiss. Mitt. Inst. Geol., 42:95–106.
• Samborska, K., Sitek, S., Bottrell, S. H. & Sracek, O. (2013): Modified Multi-phase Stability Diagrams: An AMD Case Study at a Site in Northumberland, UK. – Mine Water Environ., 32(3):185–194, 5 Abb., 1 Tab.; doi:10.1007/s10230-013-0223-y.
• Sami, K. (1999): Impact of Mining Activity at Yacimientos Carboníferos Fiscales on the Water Resources of the Río Turbio System, Santa Cruz Province, Argentina. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 381–388, 3 Abb., 4 Tab.; Sevilla (International Mine Water Association).
• Sammarco, G. & Sammarco, O. (2002): Gases released by water: impact on underground mines and on the surface. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 989–1000, 6 Abb.; 2Tab.; Heidelberg (Springer).
• Sammarco, O. (1982): Flood detection in mines using gas concentration anomalies in the air ventilation system. – Int. J. Mine Water, 1(2):15–18, 2 Abb.
• Sammarco, O. (1986): Spontaneous Inrushes of Water in Underground Mines. – Int. J. Mine Water, 5(2):29–41, 6 Abb.
• Sammarco, O. (1988): Inrush Prevention in an Underground Mine. – Int. J. Mine Water, 7(4):43–52, 3 Abb., 3 Tab.
• Sammarco, O. (1990): Abandoning Mines: Hydrodynamic Evolution Controlled in Order to avoid Surface Damage. – Int. J. Mine Water, 9(1-4):277–289, 4 Abb.
• Sammarco, O. (1991): Mine Water Inrushes Foreseeable with Specific Humidity Control of the Vetilation Air. – Proceedings, 4th International Mine Water Association Congress, 1:305–311, 4 Abb., 2 Tab.
• Sammarco, O. (1993): Karst and Thermal Water in an Underground Mine During and After Exploitation. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 671–682, 2 Abb.; Chililabombwe (Konkola Division).
• Sammarco, O. (1994): Irregularities in Mine Drainage: Causes and Consequences. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:171–181, 3 Abb.
• Sammarco, O. (1995): Storage of Water in the Void of abandoned Mines and in fractured Rocks. – Mine Water Environ., 14(1-4):57–70, 4 Abb., 1 Tab.
• Sammarco, O. (1995): Storage of Water in the Voids of Abandoned Mines and Fractured Rocks: Water resources at risk. – IMWA.102–114 p., 4 Abb., 1 Tab.; Minneapolis (American Institute of Hydrology).
• Sammarco, O. (1997): Submersible Pumps in Mines During Emergency Situation. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:511–528, 6 Abb.
• Sammarco, O. (1998): Water Inflows into Tailing Ponds: Mine Water and Environmental Impacts 2. – 291–310 p., 9 Abb., 1 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Sammarco, O. (1999): Impacts of Tailings Flow Slides. – Mine Water Environ., 18(1):75–80, 2 Abb., 1 Tab.
• Sammarco, O. (1999): Water Storage in Mining Cavities: Results obtained during regulated Flooding of the Gavorrano Mine. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 149–156, 5 Abb.; Sevilla (International Mine Water Association).
• Sammarco, O. (2000): Water and Gas Emissions: Dynamics and Mutual Influences. – Proceedings, 7th International Mine Water Association Congress:645–659, 3 Abb., 1 Tab.
• Sammarco, O. (2004): A Tragic Disaster Caused by the Failure of Tailings Dams Leads to the Formation of the Stava 1985 Foundation. – Mine Water Environ., 23(2):91–95, 5 Abb.
• Sammarco, O., Ovi, M. & Costabile, M. (2003): Forecast of emergency situations owing to excessive water inflows into tailings ponds. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 109–127, 8 Abb., 4 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Samper, J., Moreira, S., Alvares, D., Montenegro, L., Lu, C., López, C., Bonilla, M., Ma, H., Li, Y., Pisani, B., Arechaga, F., Gil, A., Menéndez, J.-A., Lucas, T. & Valle-García, R. (2008): Coupled Hydrological and Chemical Model of Coal Mine Dumps at As Pontes, A Coruña (Spain). – Proceedings, 10th International Mine Water Association Congress:403–406.
• Samper, J., Moreira, S., Alvares, D., Montenegro, L., Lu, C., López, C., Bonilla, M., Ma, H., Li, Y., Pisani, B., Arechaga, F., Gil, A., Menéndez, J.-A., Lucas, T. & Valle-García, R. (2008): Model Predictions of Water Chemistry for the Future Pit Lake in As Pontes, A Coruña (Spain). – Proceedings, 10th International Mine Water Association Congress:607–610.
• Sampson, C. J. & Brezonik, P. L. (2003): Ion budgets and sediment – Water interactions during the experimental acidification and recovery of Little Rock Lake, Wisconsin. – Environ. Sci. Technol., 37(24):5625–5635, 7 Abb., 6 Tab.; doi:10.1021/es034684x.
• Sams, J. I., III & Veloski, G. A. (2003): Evaluation of Airborne Thermal Infrared Imagery for Locating Mine Drainage Sites in the Lower Kettle Creek and Cooks Run Basins, Pennsylvania, USA. – Mine Water Environ., 22(2):85–93, 7 Abb., 2 Tab.
• Sams, J. I., III, Veloski, G. A. & Ackman, T. E. (2003): Evaluation of Airborne Thermal Infrared Imagery for Locating Mine Drainage Sites in the Lower Youghiogheny River Basin, Pennsylvania, USA. – Mine Water Environ., 22(2):94–103, 10 Abb., 2 Tab.
• Sanchez, A. A., Haas, K., Jackisch, C., Hedrich, S. & Lau, M. P. (2024): Enrichment of dissolved metal(loid)s and microbial organic matter during transit of a historic mine drainage system. – Water research, 266:122336, doi:https://doi.org/10.1016/j.watres.2024.122336.
• Sanchez, A. A. L., Maximilian P. Adam, Sean Hedrich, Sabrina Jackisch, Conrad (2026): Hotspots and hot moments of metal mobilization: dynamic connectivity in legacy mine waters. – Hydrol. Earth Syst. Sci., 30(4):945–963, doi:10.5194/hess-30-945-2026.
• Sánchez España, J., López Pamo, E., Santofimia Pastor, E., Reyes Andrés, J. & Martín Rubí, J. A. (2005): A geochemical and mineralogical study on the impact of acid mine drainage on the water quality of the Odiel River (Huelva, SW Spain): Mine Water 2005 – Mine Closure. – 81–87 p., 4 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Sánchez Sánchez, M., Fernández Martínez, C., Fernández García, M., Ballesteros Barranco, O., Ruiz, F. & Sánchez Moreno, L. (1999): Contribution of Ciemat in the Control of chemical Treatment and Flushing of toxic Water retained in Entremuros from the Aznalcóllar Mine Accident. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 265–269, 3 Abb., 4 Tab.; Sevilla (International Mine Water Association).
• Sánchez-España, J. (2007): The Behavior of Iron and Aluminum in Acid Mine Drainage: Speciation, Mineralogy, and Environmental Significance. – In: Letcher, T. M. (ed) Thermodynamics, Solubility and Environmental Issues. – p. 137–150, Amsterdam (Elsevier); doi:10.1016/B978-044452707-3/50009-4.
• Sánchez-España, J., López-Pamo, E., Diez, M. & Santofimia, E. (2008): Monimolimnetic gradients in meromictic pit lakes of the Iberian Pyrite Belt (SW Spain): physico-chemical descriptio. – Proceedings, 10th International Mine Water Association Congress:567–570.
• Sánchez-España, J., López-Pamo, E., Diez, M. & Santofimia, E. (2009): Physico-chemical gradients and meromictic stratification in Cueva de la Mora and other acidic pit lakes of the Iberian Pyrite Belt. – Mine Water Environ., 28(1):15–29, 12 Abb., 1 Tab.; doi:10.1007/s10230-008-0059-z.
• Sánchez-España, J., López-Pamo, E., Santofimia, E., Aduvire, O., Reyes, J. & Barettino, D. (2004): Geochemistry and Mineralogy of AMD in the Iberian Pyrite Belt (Spain). – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 179–184, 7 Abb.; Newcastle upon Tyne (University of Newcastle).
• Sánchez-España, J., Pamo, E. L., Pastor, E. S., Andres, J. R. & Rubi, J. A. M. (2005): The natural attenuation of two acidic effluents in Tharsis and La Zarza-Perrunal mines (Iberian Pyrite Belt, Huelva, Spain). – Environ. Geol., 49(2):253–266, doi:10.1007/s00254-005-0083-2.
• Sánchez-España, J., Santofimia-Pastor, E., González-Toril, E., Martín-Úriz, P. S., López-Pamo, E. & Amils, R. (2007): Physicochemical and microbiological Stratification of a meromictic, acidic Mine Pit Lake (San Telmo, Iberian Pyrite Belt): Water in Mining Environments. – 447–451 p., 3 Abb., 3 Tab.; Cagliari (Mako Edizioni).
• Sanchez-Espana, J., Yusta, I. & Boehrer, B. (2020): Degassing Pit Lakes: Technical Issues and Lessons Learnt from the HERCO2 Project in the Guadiana Open Pit (Herrerias Mine, SW Spain). – Mine Water Environ., 39(3):517–534, doi:10.1007/s10230-020-00654-1.
• Sánchez-España, J., Yusta, I., Ilin, A., van der Graaf, C. & Sánchez-Andrea, I. (2020): Microbial Geochemistry of the Acidic Saline Pit Lake of Brunita Mine (La Union, SE Spain). – Mine Water Environ., 39(3):535–555, doi:10.1007/s10230-020-00655-0.
• Sanchez-Palencia, F. J., Perez, L. C. & Orejas, A. (2000): Geomorphology and archaeology in the Las Medulas Archaeological Zone (ZAM) (Leon, Spain): Evaluation of the wastes and gold production. – In: Vermeulen, F. & DeDapper, M. (eds): Geoarchaeology of the Landscapes of Classical Antiquity. – p. 167–177.
• Sancho, J. P., Fernández, B. & Bellón, F. (2005): Developments of an alternative technology to remove cyanide from mining wastewater: Mine Water 2005 – Mine Closure. – 413–417 p., 2 Abb., 5 Tab.; Oviedo (University of Oviedo).
• Sand, W. & Gehrke, T. (2006): Extracellular polymeric substances mediate bioleaching/biocorrosion via interfacial processes involving iron(III) ions and acidophilic bacteria. – Research in Microbiology, 157:49–56, 4 Abb., 1 Tab.; doi:10.1016/j.resmic.2005.07.012.
• Sand, W., Gehrke, T., Jozsa, P.-G. & Schippers, A. (2001): (Bio)chemistry of bacterial leaching—direct vs. indirect bioleaching. – Hydrometallurgy, 59(2–3):159–175, doi:10.1016/S0304-386X(00)00180-8.
• Sand, W., Jozsa, P.-G., Kovacs, Z.-M., Sãsãran, N. & Schippers, A. (2007): Long-term evaluation of acid rock drainage mitigation measures in large lysimeters. – J. Geochem. Explor., 92(2-3):205–211, 7 Abb., 2 Tab.; doi:10.1016/j.gexplo.2006.08.006.
• Sandén, P., Karlsson, S., Duker, A., Ledin, A. & Lundman, L. (1997): Variations in hydrochemistry, trace metal concentration and transport during a rain storm event in a small catchment. – J. Geochem. Explor., 58(2-3):145–155, 4 Abb., 2 Tab.
• Sander, W. & Herbert, H.-J. (1985): NaCl crystallization at the MgCl2/NaCl solution boundary; a possible natural barrier to the transport of radionuclides. – Mineral. Mag., 49(2):265–270, 11 Abb.
• Sanders & Thomas Inc. (1975): Mahanoy Creek Mine Drainage Pollution Abatement Project – Operation Scarlift. – (Report Nr. SL 197). – 125 p., 19 Abb., 13 Tab.; Pottstown (Commonwealth of Pennsylvania).
• Sanders, D. & Brandner, R. (1989): Bildungsmodell und Geschichte der Pb/Zn-Lagerstätten der westlichen Nördlichen Kalkalpen, Tirol. – Geol. Paläont. Mitt. Innsbruck, 16:90–95, 9 Abb.
• Sanders, D. & Brandner, R. (1989): Genetic model for Mississippi Valley Type Deposits. – Terra Abstracts, 1(1):125.
• Sanders, D., Ostermann, M., Brandner, R. & Prager, C. (2010): Meteoric lithification of catastrophic rockslide deposits: Diagenesis and significance. – Sediment. Geol., 223(1–2):150–161, 9 Abb., 3 Tab.; doi:10.1016/j.sedgeo.2009.11.007.
• Sanders, D., Ostermann, M. & Kramers, J. (2009): Quaternary carbonate-rocky talus slope successions (Eastern Alps, Austria) – sedimentary facies and facies architecture. – Facies, 55:345–373, 16 Abb., 4 Tab.; doi:10.1007/s10347-008-0175-z.
• Sanders, D., Prager, C., Ostermann, M., Kramers, J. & Haas, U. (2007): Localized Cementation of Carbonate-Lithic Rockslide Deposits: Prerequisite to 234U/230Th Proxy-Dating the Mass-Wasting Event. – Geo.Alp, 4:32.
• Sanders, L., Moore, L. R. & Durand, J. R. (2013): Selenium Removal from Effluents in Industrial Mineral Processes. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 723–727, 6 Abb., 1 Tab.; Golden (International Mine Water Association).
• Sandford, S. A. (1995): Apples and Oranges – A Comparison. – Ann. Improbable Res., 1(3) 2 Abb.
• Sandlin, W. R., Langman, J. B., Waynant, K. V., Mukhopadhyay, M., Thuneman, T. & Moberly, J. G. (2020): Comparison of APTES-Functionalized Silica Fiber and Clinoptilolite for Reducing Iron Concentrations in an Acidic Iron(II) Sulfate Solution: Potential Passive Treatment Substrates. – Mine Water Environ., 39(4):797–807, doi:10.1007/s10230-020-00721-7.
• Sandström, Å. & Mattsson, E. (2001): Bacterial ferrous iron oxidation of acid mine drainage as pre-treatment for subsequent metal recovery. – Int. J. Miner. Process., 62(1-4):309–320, 6 Abb., 2 Tab.; doi:10.1016/S0301-7516(00)00062-4.
• Sandström, J. (2021): Geological 3D modelling of Aijala-Metsämonttu Cu-Zn-Au-Ag-Pb deposits. – 88 p., MSc, Helsinki University, 33 Abb., 7 Tab.; Helsinki.
• Sanford, W. (2002): Recharge and groundwater models: an overview. – Hydrogeol. J., 10(1):110–120, 9 Abb.; doi:10.1007/s10040-001-0173-5.
• Sanford, W. E., Cook, P. G., Robinson, N. I. & Weatherill, D. (2006): Tracer Mass Recovery in Fractured Aquifers Estimated from Multiple Well Tests. – Ground Water, 44(4):564–573, doi:10.1111/j.1745-6584.2006.00161.x.
• Sanford, W. E., Steenhuis, T. S., Surface, J. M. & Peverly, J. H. (1995): Flow Characteristics of Rock-reed Filters for Treatment of Landfill Leachate. – Ecol. Eng., 5(1):37–50, 6 Abb., 1 Tab.
• Sanin, F. D. & Vesilind, P. A. (1994): Effect of Centrifugation on the Removal of Extracellular Polymers and physical-properties of activated-sludge. – Water Sci. Technol., 30(8):117–127, doi:10.2166/wst.1994.0394.
• Sanner, B. (1993): Verwendung aufgelassener Kohlegruben zur Nutzung geothermischer Energie in Springhill, N.S., Kanada. – Geothermische Energie, 2(6):3–5, 2 Abb.
• Santaguida, F., Luolavirta, K., Lappalainen, M., Ylinen, J., Voipio, T. & Jones, S. (2015): Chapter 3.6 – The Kevitsa Ni-Cu-PGE Deposit in the Central Lapland Greenstone Belt in Finland. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 195–210, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00008-X.
• Santana-Casiano, J. M., González-Dávila, M. & Millero, F. J. (2006): The role of Fe(II) species on the oxidation of Fe(II) in natural waters in the presence of O₂ and H₂O₂. – Marine Chemistry, 99:70–82, 11 Abb., 3 Tab.; doi:10.1016/j.marchem.2005.03.010.
• Santella, N., Schlosser, P., Smethie, W. M., Ho, D. T. & Stute, M. (2006): Seasonal Variability and Long Term Trends of Chlorofluorocarbon Mixing Ratios in the Unsaturated Zone. – Environ. Sci. Technol., 40(14):4414–4420, doi:10.1021/es052376o.
• Santisteban, J. I., Mediavilla, R., López-Pamo, E., Dabrio, C. J., Zapata, M. B. R., García, M. J. G., Castaño, S. & Martínez-Alfaro, P. E. (2004): Loss on ignition: a qualitative or quantitative method for organic matter and carbonate mineral content in sediments? – J. Paleolimnol., 32(3):287–299, doi:10.1023/B:JOPL.0000042999.30131.5b.
• Santisteban, M., Grande, J. A., de la Torre, M. L., Valente, T. M., Perez-Ostalé, E., Cerón, J. C. & Aroba, J. (2015): Fuzzy Intelligence Approach for Modeling the Migration of Contaminants in a Reservoir Affected by AMD Pollution. – Mine Water Environ., 34(3):352–360, doi:10.1007/s10230-014-0321-5.
• Santofimia, E. & López-Pamo, E. (2010): Influence of runoff and ground water inflow in the stratification developed in the Concepción pit lake (Iberian Pyrite Belt, Spain). – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 507–511, Sydney, NS (Cape Breton University Press).
• Santofimia, E. & López-Pamo, E. (2013): The role of surface water and mine groundwater in the chemical stratification of an acidic pit lake (Iberian Pyrite Belt, Spain). – J. Hydrol., 490(1):21–31.
• Santofimia, E., Pamo, L.-E., Sánchez-España, J., Schultze, M. & Friese, K. (2007): Hydrogeochemical Evolution of the Aznalcóllar Pit Lake during the Spill of a pyritic Waste Pile: Water in Mining Environments. – 453–457 p., 4 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Santos, I., Depriest, N., Hoffman, D., Glascock, C., Spirnak, R., Fillhart, J., King, M., Quaranta, J. & Ziemkiewicz, P. (2024): Generating Rare Earth Element and Critical Mineral hydraulic pre-concentrate from acid mine drainage at remote sites: a case study at Fola Job 5, Clay County, WV. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 546–551; Morgantown (International Mine Water Association).
• Santos, J., Castro, A., Cervantes, A., Neri, Á., Goslinga, J. & Isidro, G. (2015): Acid Drainage Treatment using Phyllite Rock in an Underground Mine. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Santos, K. B. d., Almeida, V. O. d., Weiler, J., Menezes, J. C. S. d. S. & Schneider, I. A. H. (2019): Ecotoxicity With Allium Cepa To Determine The Efficiency Of Conventional ARD Treatment By Neutralization/Precipitation From a Brazilian Coal Mine. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 269–274; Perm, Russia (Perm State University).
• Santos, R., Ribeiro, L. & Carvalho Dill, A. l. (2005): The use of multivariate statistical analysis to evaluate spatial and temporal water contamination in Germunde coal mine (Portugal): Mine Water 2005 – Mine Closure. – 439–450 p., 7 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Santos, R., Vila, M. C., Fernandes, A., Guimarães, S., Ferreira, D. & Fiúza, A. (2018): Contribution of Data Analysis for the Environmental Study of Post-closure Coal Ash Landfill. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 452–457; (Tshwane University of Technology).
• Santos, R. V. & Clayton, R. N. (1995): Variations of oxygen and carbon isotopes in carbonatites: A study of Brazilian alkaline complexes. – Geochim. Cosmochim. Acta, 59(7):1339–1352.
• Santos, S., Machado, R., Joana Neiva Correia, M. & Carvalho, J. R. (2004): Treatment of acid mining waters. – Miner. Eng., 17(2):225–232, doi:10.1016/j.mineng.2003.09.015.
• Santoso, R. K., Rahmawati, S. D., Gadesa, A. & Wahyuningrum, D. (2017): Scale Build-Up Prediction of FeS and FeCO₃ in Gas Production Pipes. – J. Phys. Conf. Ser., 877:012029 (1–10), 7 Abb., 2 Tab.; doi:10.1088/1742-6596/877/1/012029.
• Santoyo, E., García, A., Espinosa, G., González-Partida, E. & Viggiano, J. C. (2000): Thermal Evolution Study of the LV-3 Well in the Tres Virgenes Geothermal Field, Mexico: Sustaining geothermal energy into the 21st century – Proceedings, World Geothermal Congress 2000. – 2177–2182 p., 8 Abb., 1 Tab.; Kyushu - Tohoku (World Geothermal Congress).
• Sanz-Ramos, M. & Bladé, E. (2025): Iber as a flood nowcasting and forecasting software suite for mine managers. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 34–39; Braga (International Mine Water Association).
• Sanz-Ramos, M., Vales-Bravo, J. J., Bladé, E. & Sánchez-Juny, M. (2024): Reconstructing the Spill Propagation of the Aznalcollar Mine Disaster. – Mine Water Environ., 43(3):491–510, doi:10.1007/s10230-024-01000-5.
• Sapsford, D., Barnes, A., Dey, M., Williams, K., Jarvis, A. & Younger, P. (2007): Low Footprint Mine Water Treatment: Field Demonstration and Application: Water in Mining Environments. – 261–265 p., 2 Abb., 2 Tab.; Cagliari (Mako Edizioni).
• Sapsford, D., Bowell, R., Dey, M., Williams, C. & Williams, K. (2008): A Comparison of Kinetic NAG tests with Static and Humidity Cell Tests for the Prediction of ARD. – Proceedings, 10th International Mine Water Association Congress:325–328.
• Sapsford, D., Brabham, P., Crane, R., Evans, D., Stratford, A. & Wright, A. (2017): Mine Waste Resource Assessment and Recovery Via Mine Water. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 956–963, Lappeenranta (Lappeenranta University of Technology).
• Sapsford, D. J. (2013): New perspectives on the passive treatment of ferruginous circumneutral mine waters in the UK. – Environ. Sci. Pollut. Res., 20(11):7827–7836, 5 Abb., 2 Tab.; doi:10.1007/s11356-013-1737-3.
• Sapsford, D. J., Barnes, A., Dey, M., Liang, L. & Williams, K. P. (2005): A novel method for passive treatment of mine water using a vertical flow accretion system. – In: Loredo, J. & Pendás, F. (eds): Mine Water 2005 – Mine Closure. – p. 389–394, 3 Abb., 3 Tab.; Oviedo (University of Oviedo).
• Sapsford, D. J., Barnes, A., Dey, M., Williams, K., Jarvis, A. & Younger, P. (2007): Low Footprint Passive Mine Water Treatment: Field Demonstration and Application. – Mine Water Environ., 26(4):243–250, 4 Abb., 3 Tab.; doi:10.1007/s10230-007-0012-6.
• Sapsford, D. J., Barnes, A., Dey, M., Williams, K. P., Jarvis, A., Younger, P. & Liang, L. (2006): Iron and Manganese Removal in a Vertical Flow Reactor for Passive Treatment of Mine Water. Paper presented at the ICARD 2006, St. Louis. – p. 1831–1843 [CD–ROM]; (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)).
• Sapsford, D. J., Florence, K., Pope, J. & Trumm, D. (2015): Passive Removal of Iron from AMD Using VFRs. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Sapsford, D. J., Leeuw, L. d., Phillips, J. & Brabham, P. (2015): The Feasibility of Treatment of Acid Mine Drainage with Seawater. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–8 [electronic document], Santiago/Chile (Gecamin).
• Sapsford, D. J., Tufvesson, S., Coulton, R., Penny, T. & Williams, K. (2015): The Effect of Aluminium Source and Sludge Recycling on the Properties of Ettringite formed During Water Treatment. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Sapsford, D. J., Watson, I. & Williams, K. P. (2009): Chemical and Hydraulic Characterisation of Passive Mine Water Treatment Systems in S.Wales, UK. Paper presented at the Proceedings Securing the Future 2009 & 8th ICARD, Skellefteå. – p. 1–10 [electronic document], 4 Abb.
• Sapsford, D. J. & Williams, K. P. (2005): Predominant chemical kinetics in laboratory prediction of ARD: Mine Water 2005 – Mine Closure. – 57–65 p., 5 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Sapsford, D. J. & Williams, K. P. (2009): Sizing criteria for a low footprint passive mine water treatment system. – Water Res., 43(2):423–432, doi:10.1016/j.watres.2008.10.043.
• Sarak, A. K. & Choudhury, P. R. (1998): Integrated remote sensing and GIS for groundwater exploration and identification of artificial recharge sites. – International Journal of Remote Sensing, 19(10):1825–1841.
• Sarala, P. (2015): Chapter 10.1 – Surficial Geochemical Exploration Methods. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 711–731, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00027-3.
• Sarala, P., Räisänen, J., Johansson, P. & Eskola, K. O. (2015): Aerial LiDAR analysis in geomorphological mapping and geochronological determination of surficial deposits in the Sodankyla region, northern Finland. – Gff, 137(4):293–303, doi:10.1080/11035897.2015.1100213.
• Sarapää, O., Kärkkäinen, N., Ahtola, T. & Al-Ani, T. (2015): Chapter 9.2 – High-Tech Metals in Finland. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 613–632, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00023-6.
• Saravanan, M., Sambhamurthy, N. P. & Sivarajan, M. (2010): Treatment of Acid Blue 113 Dye Solution Using Iron Electrocoagulation. – Acta Hydrochim. Hydrobiol., 38(5):565–572.
• Sardinha, M., Müller, T., Schmeisky, H. & Joergensen, R. G. (2003): Microbial performance in soils along a salinity gradient under acidic conditions. – Applied Soil Ecology, 23(3):237–244, 5 Tab.
• Sares, M. A., Hauff, P. L., Peters, D. C., Coulter, D. W., Bird, D. A., Iii, F. B. H. & Prosh, E. C. (2004): Characterizing Sources of Acid Rock Drainage and Resulting Water Quality Impacts Using Hyperspectral Remote Sensing – Examples from the Upper Arkansas River Basin, Colorado. – Proceedings, 2004 Advanced Integration of Geospatial Technologies in mining and Reclamation:1–20, 10 Abb., 1 Tab.
• Sarin, A. & Tomasic, M. (1991): Hydrogeological Review of the Rasa Coal Mine in the Coastal Karst of Croatia. – Proceedings, 4th International Mine Water Association Congress, 1:125–131, 4 Abb.
• Sariola, V., Jaaskelainen, M. & Zhou, Q. A. (2010): Hybrid Microassembly Combining Robotics and Water Droplet Self-Alignment. – IEEE Trans. Robot. Autom., 26(6):965–977, doi:10.1109/tro.2010.2066830.
• Saripalli, P., Amonette, J., Rutz, F. & Gupta, N. (2006): Design of sensor networks for long term monitoring of geological sequestration. – Energy Convers. Manage., 47:1968–1974, 3 Abb., 1 Tab.
• Sarmiento, A., Nieto, J. M., Olías, M. & Cánovas, C. (2005): Environmental impact of mining activities in the Odiel river basin (SW Spain): Mine Water 2005 – Mine Closure. – 89–94 p., 4 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Sarmiento, A., Sánchez-Rodas, D., Oliveira, V., Nieto, J. M. & Gómez-Ariza, J. L. (2005): Field methodology for the stabilization of arsenic species in AMD: Mine Water 2005 – Mine Closure. – 569–573 p., 2 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Sarmiento, A. M., Grande, J. A., Luís, A. T., Davila, J. M., Fortes, J. C., Santisteban, M., Curiel, J., de la Torre, M. L. & da Silva, E. F. (2018): Negative pH values in an open-air radical environment affected by acid mine drainage. Characterization and proposal of a hydrogeochemical model. – Sci. Total Environ., 644:1244–1253, doi:10.1016/j.scitotenv.2018.06.381.
• Sarnavka, R. (1978): Temperature regime in the Sava R. alluvion near Zagreb. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1331–1349; Maracena (Asociación Nacional de lngenieros de Minas).
• Sarnthein, R. v. (1940): Moor- und Seeablagerungen aus den Tiroler Alpen in ihrer waldgeschichtlichen Bedeutung. II. Teil: Seen der Nordtiroler Kalkalpen. – Beih. Botan. Cbl., B. 60(3):437–492, 18 Abb.
• Sarnthein, R. v. (1948): Moor- und Seeablagerungen aus den Tiroler Alpen in ihrer waldgeschichtlichen Bedeutung. III. Teil: Kitzbüheler Alpen und unteres lnntal. – Österr. Bot. Z., 95(1):1–85, 23 Abb., 1 Tab.
• Sarquís, P. E., Ramírez, M., Carrascosa, H., Salinas, L., Attala, L., García, R., Pastrán, G. & Ortiz, S. (1999): Preliminary Studies of Castano River Basin environmental Base Line, San Juan, Argentina. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 375–380, 3 Abb.; Sevilla (International Mine Water Association).
• Sartz, L. & Bäckström, M. (2012): Treatment of acidic and neutral metal-laden mine waters with bone meal filters: International Mine Water Association Symposium. – 643–650 p., Bunbury (Edith Cowan University).
• Sartz, L. & Bäckström, M. (2013): Impact of temperature on weathering rates – a long-term kinetic study on waste rock from Bergslagen, Sweden. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 463–468, 5 Abb., 3 Tab.; Golden (International Mine Water Association).
• Sartz, L. & Bäckström, M. (2013): Treatment of Acidic and Neutral Metal-Laden Mine Waters with Bone Meal Filters. – Mine Water Environ., 32(4):293–301, 5 Abb., 6 Tab.; doi:10.1007/s10230-013-0248-2.
• Sartz, L. & Bäckström, M. (2016): Development of a low-tech treatment for neutral mine water – a case study. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 913–918, Freiberg (TU Bergakademie Freiberg).
• Sartz, L. & Bäckström, M. (2022): Mesocosm Experiments Performed in 1975, 1993 and 2017 to Determine Changes in Release Rates of Zinc from Sediments Affected by an Old Mining Operation. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 439–444; (International Mine Water Association).
• Sartz, L., Bäckström, M. & Allard, B. (2010): On the neutralisation of ARD and acid-generating waste rock by different alkalinity sources – carbonate an/or hydroxide. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 263–267, Sydney, NS (Cape Breton University Press).
• Sartz, L., Bäckström, M., Karlsson, S. & Allard, B. (2010): Strategy for instant neutralisation and metal immobilisation in ARD. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 267–271, Sydney, NS (Cape Breton University Press).
• Sartz, L., Bäckström, M., Karlsson, S. & Allard, B. (2016): Mixing of Acid Rock Drainage with Alkaline Ash Leachates: Formation of Solid Precipitates and pH-Buffering. – Mine Water Environ., 35(1):64–76, doi:10.1007/s10230-015-0347-3.
• Sartz, L., Bäckström, M., Karlsson, S. & Sjöberg, V. (2010): ARD treatment in sequential filter sections – efficiency of different alkaline waste materials. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 271–275, Sydney, NS (Cape Breton University Press).
• Sartz, L., Hamilton, I., Mácsik, J., Maurice, C., Sädbom, S., Westin, G. & Bäckström, M. (2017): Green Liquor Dregs from Pulp and Paper Industry used in Mine Waste Management: a Symbiosis Project (GLAD) between two Swedish Base Industries. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 862–868, Lappeenranta (Lappeenranta University of Technology).
• Sartz, L., Larsson, E., Sädbom, S. & Bäckström, M. (2011): Weathering of waste rock in different climatic conditions – a kinetic freeze/thaw and humidity cell experiment: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 453–456 p., Aachen (RWTH Aachen University).
• Sartz, L., Sädbom, S. & Bäckström, M. (2018): Remediation of Historic Waste Rock by Injection of Green Liquor Dregs – Results From a Field Scale Trial, Gladhammar, Southern Sweden. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1124–1129; (Tshwane University of Technology).
• Sárváry, I. (1969): Tracer Method for Determining the Velocity of Flow in a Confined Karstic Aquifer. – International Association of Scientific Hydrology. Bulletin, 14(1):121–127, doi:10.1080/02626666909493706.
• Sassa, K., Fukuoka, H., Wang, F. & Wang, G. (2007): Progress in Landslide Science. – 379 p., Berlin (Springer); doi:10.1007/978-3-540-70965-7.
• Sasson, M. B., Calmano, W. & Adin, A. (2009): Iron-oxidation processes in an electroflocculation (electrocoagulation) cell. – J. Hazard. Mater., 171:704–709, 6 Abb., 1 Tab.; doi:10.1016/j.jhazmat.2009.06.057.
• Sato, Y., Hamai, T., Hori, T., Habe, H., Kobayashi, M. & Sakata, T. (2018): Year-Round Performance of a Passive Sulfate-Reducing Bioreactor that Uses Rice Bran as an Organic Carbon Source to Treat Acid Mine Drainage. – Mine Water Environ., 37(3):586–594, doi:10.1007/s10230-017-0489-6.
• Satterley, C. J., Chamberlain, S. & Broughton, P. (2017): Integration of Heat Recovery and Renewables Within a Mine Water Treatment Scheme: A UK Case Study. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 907–914, Lappeenranta (Lappeenranta University of Technology).
• Satterley, C. J. & Moorhouse-Parry, A. M. L. (2023): Beyond Piramid: The Coal Authority’s Approach to Design of Passive and Semi-Passive Treatment Schemes for Ferruginous Mine Waters in the UK. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 439–444; (International Mine Water Association).
• Satterley, C. J., Thorn, P., Davies, S. & Cox, N. (2018): Potential for Co-treatment of Mine Water and Waste Water in Waste Water Treatment Works. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 288–294; (Tshwane University of Technology).
• Sauer, J. (2017): Praxishandbuch Korrespondenz – Professionell, positiv und kundenorientiert formulieren, 5th edn. – Wiesbaden (Springer Gabler); doi:10.1007/978-3-658-16641-0.
• Saul, H. (1936–37): Outcrop Water in the South Yorkshire Coalfield. – Trans. Inst. Min. Eng., 43:64–86.
• Saul, H. (1948): Mine Water. – Trans. Inst. Min. Eng., 107:294–310, 7 Abb., 6 Tab.
• Saul, H. (1948–49): Mines Drainage. – Trans. Inst. Min. Metall. Sect. E, 108:359–370, 6 Abb.
• Saul, H. (1970): Current mine-drainage problems. – Trans. Inst. Min. Metall. Sect. A, 79:A63–A80, 6 Abb., 1 Tab.
• Saunders, P. M. (1964): Sea smoke and steam fog. – Q. J. Roy. Meteor. Soc., 90(384):156–165, doi:10.1002/qj.49709038405.
• Sauter, M., Helmig, R. & Klünker, J. (2012): Risiken im Geologischen System bei der Fracking-Technologie – Abschätzung der Auswirkungen auf Grundwasservorkommen. – Wasser und Abfall, 14(6):16–20, 3 Abb., 1 Tab.; doi:10.1365/s35152-012-0188-3.
• Savage, K. S., Bird, D. K. & Ashley, R. P. (2000): Legacy of the California gold rush – Environmental geochemistry of arsenic in the southern Mother Lode gold district. – Int. Geol. Rev., 42(5):385–415.
• Savage, N. & Diallo, M. S. (2005): Nanomaterials and Water Purification: Opportunities and Challenges. – J. Nanopart. Res., 7(4-5):331–342, doi:10.1007/s11051-005-7523-5.
• Savage, R. J., Chmielarski, M., Barnes, A., Pearce, S., Roberts, M., Renforth, P., Mueller, S. & Sapsford, D. (2021): Carbonation Of Magnesium Silicate Minerals In Mine Waste: Practical Laboratory Testing Methods To Assess The Dual Opportunity For Carbon Capture And AMD Mitigation. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 502–507; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Savenije, H. H. G. (2002): Why water is not an ordinary economic good, or why the girl is special. – Phys. Chem. Earth, 27(11):741–744, doi:10.1016/S1474-7065(02)00060-8.
• Savic, D. A. & Walters, G. A. (1999): Hydroinformatics, data mining and maintenance of UK water networks. – Anti-Corros. Methods Mater., 46(6):415–425, 3 Abb., 1 Tab.
• Savolainen, J., Pedretti, D. & Collan, M. (2019): Incorporating Hydrologic Uncertainty in Industrial Economic Models: Implications of Extreme Rainfall Variability on Metal Mining Investments. – Mine Water Environ., 38(2):447–462, doi:10.1007/s10230-019-00600-w.
• Sawada, A., Uchida, M., Shimo, M., Yamamoto, H., Takahara, H. & Doe, T. W. (2000): Non-sorbing tracer migration experiments in fractured rock at the Kamaishi Mine, Northeast Japan. – Eng. Geol., 56(1-2):75–96, 16 Abb., 2 Tab.
• Sawatsky, L. F., Beckstead, G. & Long, D. (1998): Integrated mine water management planning for environmental protection and mine profitability. – Int. J. Min. Reclam. Environ., 12(1):37–39, doi:10.1080/09208119808944019.
• Sawkins, F. J. (1984): Metal Deposits in Relation to Plate Tectonics. – 325 p., 173 Abb.; Berlin (Springer).
• Sawyer, D. T., Sobkowiak, A. & Roberts Jr., J. L. (1995): Electrochemistry for Chemists, 2nd edn. – 505 p., New York (Wiley).
• Saxby, T. (2017): Mine Water – valued resource or missed opportunity? – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 469–477, Lappeenranta (Lappeenranta University of Technology).
• Saxby, T. & Buckley, S. (2022): Central Region Water Resilience Project – Sustaining production in a changing climate. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 445–451; (International Mine Water Association).
• Saxby, T. J., Gosling, S. & McCafferty, F. (2011): Managing climatic variability risks for mining operations: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 53–58 p., Aachen (RWTH Aachen University).
• Sayer, C. (1991): Mikrobiologischer Uraninabbau. – Jh. geol. L.-A. Baden-Württemberg, 33:263–286, 4 Abb., 7 Tab.
• Sayers, R. R., Yant, W. P. & Leitch, R. D. (1930): General Review of United States Bureau of Mines Streampollution Investigation. – Trans. Am. Inst. Min. Met. Eng., 94:137–150, 4 Abb.
• Scalia, S. & Simeoni, S. (2001): Assay of xanthene dyes in lipsticks by inverse supercritical fluid extraction and HPLC. – Chromatographia, 53(9-10):490–494.
• Scandiaconsult Natura A. B. & The Regional Environmental Center for Central Eastern Europe (2000): Strategic Environmental Analysis of Albania, Bosnia & Herzegovina, Kosovo and Macedonia. – 37 p., 1 Abb., 2 Tab.; Stockholm (Swedish International Development Cooperation Agency – Sida).
• Scanlon, B. R., Healy, R. W. & Cook, P. G. (2002): Choosing appropriate techniques for quantifying groundwater recharge. – Hydrogeol. J., 10(1):18–39, doi:10.1007/s10040-001-0176-2.
• Schabronath, C. A. (2018): A novel sampling technique using a sediment collector (SECO) to collect particles from suspended matter in mine water with regard to long term monitoring. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 193–198; (Tshwane University of Technology).
• Schabronath, C. A., Klinger, C. & Loechte, J. (2021): Planning And Implementation Of Environment-friendly Phasing Out Of German Hard Coal Mining Under Consideration Of Water-hazardous Organic Substances. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 508–513; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Schade-Lindig, S. & Steinbring, B. (2018): Bodendenkmäler unter Wald im LiDAR-Scan – Digitale Handreichung für Forstbedienstete. – hessenarchäologie, 6:1–49, doi:10.23787/9783898227063.
• Schaeben, H. & Lindner, S. (2000): Mathematische Geologie II – Statistik regionalisierter Variablen – Geostatistik. – Nn.
• Schaefer, W. (2016): Bodenbewegungen infolge Grundwasserwiederanstieg in ehemaligen Braunkohleabbaugebieten. – Veröff. Dt. Bergbau-Mus. Bochum, 217:30–37.
• Schäfer, T. & Schwarz, M. A. (2019): The Meaningfulness of Effect Sizes in Psychological Research: Differences Between Sub-Disciplines and the Impact of Potential Biases. – Front. Psychol., 10:813, doi:10.3389/fpsyg.2019.00813.
• Schafer, W. (2016): Geochemical Evaluation of Cemented Paste Tailings in a Flooded Underground Mine. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 714–724, Freiberg (TU Bergakademie Freiberg).
• Schäfer, W., Alte, M., Bauer, M., Söll, T. & Peiffer, S. (2016): Quantification of Acidity Deposition in the Sediment of a former lignite mining lake in the Wackersdorf Mining District (Eastern Bavaria). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 236–243, Freiberg (TU Bergakademie Freiberg).
• Schafer, W., Barber, J., Contreras, M. & Tellez, J. (2016): Integrating Surface Water Load Modelling into Mine Closure Performance Evaluation. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 174–181, Freiberg (TU Bergakademie Freiberg).
• Schafer, W. M., Croall, J. & Schmidt, J. (2020): Predicting Water Quality Trends in Lone Tree Pit Lake, Nevada (USA). – Mine Water Environ., 39(3):618–629, doi:10.1007/s10230-020-00698-3.
• Schaffer, C. R., Cravotta, C. A., Capo, R. C., Hedin, B. C., Vesper, D. J. & Stewart, B. W. (2024): Multi-decadal geochemical evolution of drainage from underground coal mines in the Appalachian basin, USA. – Science of The Total Environment, 947:174681, doi:10.1016/j.scitotenv.2024.174681.
• Schaffer, C. R., Cravotta III, C. A., Capo, R. C., Stewart, B. W., Hedin, B. C. & Vesper, D. J. (2024): Coal mine drainage contaminant trend prediction in an Appalachian basin, USA. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 555–561; Morgantown (International Mine Water Association).
• Schaffer, C. R., Stuckman, M. Y., Lopano, C. L., Capo, R. C., Stewart, B. W. & Bhandari, G. (2024): Characterizing cobalt sequestration in manganese-rich coal mine drainage treatment solids. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 552–554; Morgantown (International Mine Water Association).
• Schafhäutl, K. E. v. (1846): Beiträge zur nähern Kenntniss der Bayerischen Voralpen. – N. Jb. Min. Geogn. Geol. Petr., 1846:641–695, 2 Taf., 5 Holzschnitte.
• Schafhäutl, K. E. v. (1848): Über die tertiären Kohlen-Ablagerungen in Bayern. – N. Jb. Min. Geogn. Geol. Petr., 1848:641–657.
• Schafmeister, M.-T. (1999): Geostatistik für die hydrogeologische Praxis. – 172 p., 81 Abb., 17 Tab.; Berlin (Springer); doi:10.1007/978-3-642-58567-8.
• Schainberg, H. (1997): Die belgische Beeinflussung der Frühindustrialisierung im Aachener Raum, ca. 1820-1860. – 324 p., 81 Tab.; Trier (unveröff. Dissertation Uni Trier).
• Schaller, J., Headley, T., Prigent, S. & Breuer, R. (2014): Potential mining of lithium, beryllium and strontium from oilfield wastewater after enrichment in constructed wetlands and ponds. – Sci. Total Environ., 493:910–913, 1 Abb., 2 Tab.; doi:10.1016/j.scitotenv.2014.06.097.
• Schantz, S. L. & Widholm, J. J. (2001): Cognitive effects of endocrine-disrupting chemicals in animals. – Environ. Health Perspect., 109(12):1197–1206, doi:10.1289/ehp.011091197.
• Schapira, J. S., Bolhar, R., Master, S. & Wilson, A. H. (2023): Mineralogical, Petrological and Geochemical Characterisation of Chrysotile, Amosite and Crocidolite Asbestos Mine Waste from Southern Africa in Context of Risk Assessment and Rehabilitation. – Minerals, 13(10) doi:10.3390/min13101352.
• Schätzl, P., Clausnitzer, V. & Diersch, H.-J. (2008): Groundwater Modeling for Mining and Underground Construction – Challenges and Solutions. – Proceedings, 10th International Mine Water Association Congress:473–476.
• Schaubach, A. (1845): Die Deutschen Alpen – Ein Handbuch für Reisende durch Tyrol, Oesterreich, Steyermark, Illyrien, Oberbayern und die anstoßenden Gebiete. Flußgebiete: Inn, Rhein, Iller, Lech, Ammer, Isar, Mangfall – Nordtyrol, Vorarlberg, Oberbayern –: 2. – 284 p., Jena (Fromann).
• Schauenstein, A. & k. k. Ackerbauministerium (1873): Denkbuch des österreichischen Berg- und Hüttenwesens aus Anlass der Wiener Weltausstellung. – 370 p., Wien (k. k. Ackerbauministerium).
• Schedl, A. (2003): Lagerstätten und Vorkommen mineralischer Rohstoffe (Erze, Industrieminerale, Energierohstoffe) auf Blatt 148 Brenner. – Geologische Bundesanstalt – Arbeitstagung 2003: Blatt 148 Brenner:129–139, 1 Abb.
• Schedl, A., Mauracher, J., Atzenhofer, B., Neinavaie, H., Hellerschmidt-Alber, J., Rabeder, J. & Kurka, M. (1997): Systematische Erhebung von Bergbauhalden mineralischer Rohstoffe im Bundesgebiet – Jahresendbericht. – (Report Nr. Ü-LG-040/96). – 171 p., 105 Abb., 19 Tab., 1 Anl., 37 Beil., 1 Anh.; Wien (Geologische Bundesanstalt – Fachabteilung Rohstoffgeologie).
• Scheffers, A. M., May, S. M. & Kelletat, D. H. (2015): Mass Movements: Landforms Shaped Under the Force of Gravity. – In: Scheffers, A. M., May, S. M. & Kelletat, D. H. (eds): Landforms of the World with Google Earth. – p. 163–182, 14 Abb.; Dordrecht (Springer); doi:10.1007/978-94-017-9713-9_8.
• Scheffler, K., Buehmann, D. & Schwark, L. (2006): Analysis of late Palaeozoic glacial to postglacial sedimentary successions in South Africa by geochemical proxies – Response to climate evolution and sedimentary environment. – Palaeogeogr. Palaeoclimatol. Palaeoecol., 240(1):184–203, doi:10.1016/j.palaeo.2006.03.059.
• Scheibenstock, E. (1974): Der Bergbau im Silbertal. – Walserheimat in Vorarlberg,(14):148–152, 2 Abb.
• Scheibenstock, E. (1994): 500-Jahr-Jubiläum der Dreifaltigkeits-Bruderschaft auf Kristberg. – Bludenzer Geschichtsblätter, 16:10–13, 2 Abb.
• Scheibenstock, E. (2004): St. Agatha Bergknappenkirche – Das Bruderhäuslein und die Klause von Joss Erhart. – 32 p., 21 Abb.; Silbertal (Eigenverlag Gemeinde Silbertal und Panoramagasthof Kristber).
• Scheiber, L., Ayora, C. & Vázquez-Suñé, E. (2018): Quantification of proportions of different water sources in a mining operation. – Sci. Total Environ., 619-620:587–599, doi:10.1016/j.scitotenv.2017.11.172.
• Scheiber, L., Ayora, C., Vázquez-Suñé, E., Cendón, D. I., Soler, A. & Baquero, J. C. (2016): Origin of high ammonium, arsenic and boron concentrations in the proximity of a mine: Natural vs. anthropogenic processes. – Sci. Total Environ., 541:655–666, doi:10.1016/j.scitotenv.2015.09.098.
• Scheiber, L., Ayora, C., Vázquez-Suñé, E., Cendón, D. I., Soler, A. I. G., Custodio, E. & Baquero, J. C. (2015): Recent and old groundwater in the Niebla-Posadas regional aquifer (southern Spain): Implications for its management. – J. Hydrol., 523:624–635, doi:10.1016/j.jhydrol.2015.01.076.
• Scheidegger, A. E. (1973): On the prediction of the reach and velocity of catastrophic landslides. – Rock Mechanics, 5(4):231–236, doi:10.1007/BF01301796.
• Scheidleder, A., Grath, J., Winkler, G., Stärk, U., Koreimann, C., Gmeiner, C., Nixon, S., Casillas, J., Gravesen, P., Leonard, J. & Elvira, M. (1999): Groundwater quality and quantity in Europe. – 123 p., 30 Abb., 29 Tab.; Luxembourg (Office for Official Publications of the European Communitie).
• Scheihing, K. W. (2019): Klimawandel in Niedersachsen und mögliche Folgen für die Grundwasserbewirtschaftung: ein Review. – Hydrol. Wasserbewirtsch., 63(2):85–97, 2 Abb., 2 Tab.; doi:10.5675/HyWa_2019.2_2.
• Scheinost, A. C., Hennig, C., Somogyi, A., Martinez-Criado, G. & Knappik, R. (2005): Uranium speciation in two Freital mine tailing samples: EXAFS, m-XRD, and m- XRF results. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 117–126, Heidelberg (Springer).
• Scheinost, A. C. & Schwertmann, U. (1999): Color Identification of Iron Oxides and Hydroxysulfates – Use and Limitation. – Soil Sci. Soc. Am. J., 63(5):1463–1471, doi:10.2136/sssaj1999.6351463x.
• Schelkes, K. (1981): Bewegung des Grundwassers [Groundwater movement]. – Entsorgung, 1:344–357, 5 Abb., 1 Tab.
• Schellin, M. & Popp, P. (2003): Membrane-assisted solvent extraction of polychlorinated biphenyls in river water and other matrices combined with large volume injection–gas chromatography–mass spectrometric detection. – J. Chromatogr. A, 1020:153–160, doi:10.1016/j.chroma.2003.08.036.
• Schemel, L. E., Kimball, B. A. & Bencala, K. E. (2000): Colloid formation and metal transport through two mixing zones affected by acid mine drainage near Silverton, Colorado. – Appl. Geochem., 15(7):1003–1018, doi:10.1016/S0883-2927(99)00104-3.
• Schendel, A. & Kroner, U. (2005): Konzeption eines Geoinformationssystems für das Appallachen-Varisziden-Uraliden-Orogen. – Wiss. Mitt. Inst. Geol., 28:155, 2 Abb.
• Scherer-Windisch, M. (2017): Die Anwendung der Feuersetztechnik in den Bergbaurevieren des Unterinntales – Dokumentation und Analyse. – 143 p., Master Thesis, Leopold-Franzens-Universität Innsbruck; Innsbruck.
• Schermann, O. (1980): Erztypen und ihre Genese im Uran vorkommen von Forstau (Vorläufiger Bericht). – Verh. Geol. B.-A., 1979(3):373–376.
• Schetelig, K., Heitfeld, M., Mainz, M., Hofmann, T. & Eßers, M. (2008): Geothermie aus Grubenwasser – regenerative Energie aus stillgelegten Steinkohlenbergwerken. – 1–21 p., 8 Abb., 1 Tab.; Aachen (Proceedings 38. Internationales Wasserbau-Symposium).
• Schetelig, K. & Richter, H. (2013): Nutzung stillgelegter Bergwerke oder tiefliegender Grundwasservorkommen zur Wärme-/Kältegewinnung und -speicherung: Wasser als Energieträger. – 36–50 p., 7 Abb.; Aachen (Proceedings 43. Internationales Wasserbau-Symposium).
• Schettgen, T., Alt, A., Schikowsky, C., Esser, A. & Kraus, T. (2018): Human biomonitoring of polychlorinated biphenyls (PCBs) in plasma of former underground miners in Germany – A case-control study. – Int. J. Hyg. Environ. Health, 221(7):1007–1011, doi:10.1016/j.ijheh.2018.06.006.
• Scheuchenstuel, K. v. (1856): Idioticon der österreichischen Berg- und Hüttensprache – Zum besseren Verständnisse des österr. Berg-Gesetzes und dessen Motive für Nicht-Montanisten. – 270 p., Wien (Braumüller).
• Scheuer, G. & Tóthné, I. N. (1982): Effect of the Building Industrial Mines on the Subsurface Waters. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, D:49–61, 3 Abb.
• Scheutz, M. (2009): Eine fast vollständige Tilgung des Protestantismus und ein handfester Neubeginn – (Geheim-)Protestantismus in Niederösterreich im 17. und 18. Jahrhundert. – In: Leeb, R., Scheutz, M. & Weikl, D. (eds): Geheimprotestantismus und evangelische Kirchen in der Habsburgermonarchie und im Erzstift Salzburg (17./18. Jahrhundert), 51 edn. – p. 187–207, Wien (Böhlau).
• Schicht, T., Dünnbier, K., Thiemann, K. & Börne, F. (2016): Vulnerability analysis on potash mining dumps using tomographic measurements, modeling and petrophysical investigations. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1114, Freiberg (TU Bergakademie Freiberg).
• Schicht, T., Gessert, A., Thoma, H., Lucke, B., Schleußner, H.-P. & Duschka, B. (2016): Seismologic long-time monitoring of the inner burden dump in Schlabendorf-South – Investigations of hazards of soil liquefaction that cause deformations of the terrain surface. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1115–1116, Freiberg (TU Bergakademie Freiberg).
• Schiechtl, H. M., Stern, R. & Meisel, K. (1987): Karte der aktuellen Vegetation von Tirol 1/100000 – XI. Teil: Blatt 2, Lechtaler Alpen – Wetterstein. – Documents de Cartographie Ecologique, 30:25–48.
• Schiele, O. H. & Kuntz, H. (1979): High Voltage Submersible Mine Dewatering Pumps for Extremely High Lifts: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 594–616 p., 9 Abb.; San Francisco (Freeman).
• Schimmel, C., Frazer, D. & Glenny, R. W. (2001): Extending fluorescent microsphere methods for regional organ blood flow to 13 simultaneous colors. – Am. J. Physiol. Heart Circ. Physiol., 280(6):H2496–H2506, doi:10.1152/ajpheart.2001.280.6.H2496.
• Schimmel, C., Frazer, D., Huckins, S. R. & Glenny, R. W. (2000): Validation of automated spectrofluroimetry for measurement of regional organ perfusion using fluorescent microspheres. – Elsevier.
• Schindler, C. & Pfister, M. (1997): Active Tectonics of Northwestern Anatolia – the MARMARA Poly-Project, a Multidisciplinary Approach by Space-Geodesy, Geology, Hydrogeology, Geothermics and Seismology. – 570 p., zahlr. Abb., zahlr. Tab.; Zürich (vdf Hochschulverl. an der ETH Zürich).
• Schindler, D. W. (1986): The significance of in-lake production of alkalinity. – Water Air Soil Pollut., 30(3-4):931–944, 5 Tab.; doi:10.1007/BF00303358.
• Schindler, I., Kutschera, U. & Wiesenberger, H. (2004): Medienübergreifende Umweltkontrolle in ausgewählten Gebieten – Brixlegg: Monographien des Umweltbundesamtes Wien 168. – 81–118 p., 14 Abb., 15 Tab.; Wien (Umweltbundesamt).
• Schindler, S. (2003): Hydrogeochemische Untersuchung des Grubenwassers im Hagenbachtal bei Gernrode/Harz. – 146 p., 77 Abb., 11 Tab., 29 Anl.; Freiberg (Unveröff. Dipl.-Arb. TU Bergakademie Freiberg).
• Schindler, W., Gerlach, F. & Kaden, H. (1995): pH-Sensor für Präzisionsmessungen in Tiefenwässern. – Sensor Magazin, 1995(3):6–9, 6 Abb.
• Schipek, M. (2011): Treatment of acid mine lakes – Lab and field studies. – Freiberg Online Geology, 29:381, 143 Abb., 81 Tab.
• Schipek, M., Graupner, B., Merkel, B. J., Wolkersdorfer, Ch. & Werner, F. (2006): Neutralisationspotential von Flugaschen – Restseesanierung Burghammer. – Wiss. Mitt. Inst. Geol., 31:125–132, 6 Abb., 3 Tab.
• Schipek, M. & Merkel, B. J. (2010): Betrachtung der Carbonatlösungskinetik und möglichen Inhibitoren bei der Anwendung von Inlake-Verfahren – Erste Ergebnisse. – Wiss. Mitt. Inst. Geol., 42:61–70.
• Schipek, M. & Merkel, B. J. (2012): Liming of acid surface waters: Effect of water constituents and material impurities on calcite dissolution kinetics: International Mine Water Association Symposium. – 275–286 p., 5 Abb., 1 Tab.; Bunbury (Edith Cowan University).
• Schipek, M., Merkel, B. J., Scholz, G., Rabe, W., Clauß, D. & Lilja, G. (2011): Recent results of the research project OILL (Optimizing In-Lake Liming): Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 457–461 p., Aachen (RWTH Aachen University).
• Schipek, M., Unger, Y. & Merkel, B. J. (2007): Alkalitätsverbessernde Maßnahmen in Tagebaufolgeseen: Nutzung von CO₂ und anderen industriellen „Abfall“produkten. – Wiss. Mitt. Inst. Geol., 35:125–131, 2 Abb., 4 Tab.
• Schiperski, F., Oertwich, M., Scheytt, T. & Licha, T. (2019): Solubility of TINOPAL CBS-X fluorescent dye at different EDTA concentrations and pH values: Implications regarding its applicability in field tracer tests. – J. Hydrol., 578:124025, doi:10.1016/j.jhydrol.2019.124025.
• Schippers, A. & Jørgensen, B. B. (2001): Oxidation of pyrite and iron sulfide by manganese dioxide in marine sediments. – Geochim. Cosmochim. Acta, 65(6):915–922, doi:10.1016/S0016-7037(00)00589-5.
• Schladow, S. G. & Clark, J. F. (2008): Use of Tracers to Quantify Subsurface Flow through a Mining Pit. – Ecol. Appl., 18(8):A55–A71, 21 Abb., 2 Tab.
• Schlaeger, F. & Köngeter, J. (2001): A long-term water quality management model for a lignite mining affected river catchment area. – Water Sci. Technol., 44(6):147–154, 6 Abb.
• Schlagintweit, A. (1854): On the Geological Structure of part of the Bavarian Alps; with Remarks on the Erratic Phænomena. – Q. J. Geol. Soc. London, 10(1-2):346–359, doi:10.1144/gsl.jgs.1854.010.01-02.36.
• Schlagintweit, F. (1993): Kretazische Grünalgen aus Flachwassergesteinen der Nördlichen Kalkalpen; ein Überblick. – Zitteliana, 20:123–132, Refs: 45; illus. incl. 2 plates, 2 tables, geol. sketch map.
• Schlagintweit, O. (1912): Die Mieminger-Wetterstein Überschiebung. – Geol. Rundsch., 3(2):73–92, 2 Abb., 2 Taf.
• Schlegel, A., Dennis, R. & Simms, J. (2005): Altes Eisen Schluckt Arsen. – Wiss. Mitt. Inst. Geol., 28:69–73, 2 Abb.
• Schlehen, J. G. v. R. (1616): Hystorische Relation, oder Eygendtliche Beschreibung der Landtschafft underhalb St. Lucis Stayg und de[m] Schallberg beyderseits Rheins biß an den Bodensee, so under die Rhetiam gezehlt, unnd die under Rhetia mag genennt werden – In welcher nicht allein die fürnembsten Stätt unnd Oehrter der gantzen gegne daselbst herumben, sonder auch derselben Herrschafften und Innwohner mancherley Sitten, Art, Gebrauch, Herkommen unnd Wappen, sampt einem fleissigen Register, gantz trewlich unnd ausführlich beschriben werden. – 74 p., Marckt Embs (Bartholome Schnell).
• Schleich, N. (2009): Tiefenverteilung von Radionukliden in Fichtenwald und Hochmoorböden. – 215 p., 74 Abb., 27 Tab.; Freiberg (unveröff. Diss. TU Bergakademie Freiberg).
• Schleicher, H., Kramm, U., Pernicka, E., Schidlowski, M., Schmidt, F., Subramanian, V., Todt, W. & Viladkar, S. G. (1998): Enriched subcontinental upper mantle beneath Southern India; evidence from Pb, Nd, Sr, and C-O isotopic studies on Tamil Nadu Carbonatites. – J. Petrol., 39(10):1765–1785, Refs: 57; illus. incl. 3 tables, geol. sketch maps.
• Schleier, M. T. (2016): Rock-slope failures in Innerdalen and Innfjorddalen, western Norway – rock-slope instabilities and rock avalanches in a changing landscape following the melt down of the Scandinavian ice sheet. – 176 p., Friedrich-Alexander-Universität Erlangen-Nürnberg, 48 Abb., 23 Tab.; Erlangen.
• Schleier, M. T., Hermanns, R. L. & Rohn, J. (2013): Spatial Distribution of Rockslide Deposits and their Morphological Features Suggest Timing and Palaeo-Environmental Conditions for Rock Slope Failures in Innerdalen and Innfjorddalen, Møre Og Romsdal County, Western Norway. – Italian Journal of Engineering Geology and Environment – Book Series, 6:493–508, 8 Abb., 2 Tab.; doi:10.4408/IJEGE.2013-06.B-47.
• Schlenker, S. (2002): Radionuklidverteilung in Waldbodenprofilen Sachsens. – Wiss. Mitt. Inst. Geol., 19:71–80, 3 Abb., 3 Tab.
• Schlier, K. (1907): Einiges über den Bergbau auf Blei- und Zinkerze an der Silberleithen und am Wampeter Schroffen in Tirol. – Der Erzbergbau:468–470.
• Schlier, K. (1911): Über ein Molybdänbleierz-Vorkommen in Oberbayern. – Österr. Z. f. Berg- u. Hüttenwesen, 59:475–478.
• Schlittenhardt, J., Spies, T., Kopera, J. & Morales, W. (2014): A simple model for probabilistic seismic hazard analysis of induced seismicity associated with deep geothermal systems. General Assembly of the EGU Division on Energy, Resources and the Environment (ERE), Vienna, AUSTRIA, Apr 27–May 02 2014. Energy Procedia, vol 59. 105–112 S.
• Schlösser, D., Baacke, D., Beuge, P. & Kraatz, K. L. (1998): Elemental composition of sediments from a former silver mine in Freiberg/East Germany. – Appl. Radiat. Isot., 50:609–614, doi:10.1016/S0969-8043(98)00093-1.
• Schlottmann, R., Mansel, H. & Luckner, L. (2016): Investigation of the effects of groundwater resurgence and subsequent exfiltration of ferrous groundwater from the dump site of the Witznitz former lignite mine into the Pleisse and Wyhra rivers. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 684–692, Freiberg (TU Bergakademie Freiberg).
• Schlüter, T. & Schumann, A. (2018): Geosites as a Potential for the Development of Tourism – Overview of Relevant Sites in Eswatini (Formerly Swaziland). – GeoJ. Tour. Geosites, 22(1):535–547, doi:10.30892/gtg.22222-309.
• Schmassmann, H. (1990): Hydrochemische Synthese Nordschweiz: Tertiär- und Malm-Aquifere. – Technischer Bericht – NAGRA, 88-07:1–244, 56 Abb., 15 Tab.
• Schmeide, K., Bernhard, G., Keil, D., Buschmann, H.-J. & Praschak, D. (2004): Separation of Uranium(VI) from Aqueous Solution by Textile Bound Calix[6]Arenes. – Wiss. Mitt. Inst. Geol., 25:133–139, 5 Abb., 3 Tab.
• Schmelzer, J. B. (1952): Die Lebensbeschreibung als Bergmann in Penzberg 1894 – 1935. – 1–21 p., 12 Abb.; Penzberg (Eigenverlag Kapfhammer).
• Schmid, B. M., Hengl, M. A. & Stephan, U. (2004): Density effects on salt tracer breakthrough curves from constructed wetland ponds. – Nord. Hydrol., 35(3):237–250, 4 Abb., 3 Tab.
• Schmid, B. M., Hengl, M. A. & Stephan, U. (2004): Salt Tracer Experiments in Constructed Wetland Ponds with Emergent Vegetation: Laboratory Study on the Formation of Density Layers and its Influence on Breakthrough Curve Analysis. – Water Res., 38(8):2095–2102, 8 Abb., 2 Tab.; doi:10.1016/j.watres.2004.01.038.
• Schmid, H. & Weinelt, W. (1978): Lagerstätten in Bayern. – Geol. Bavarica, 77:160, 1 Beil.
• Schmid, M., Lorke, A., Dinkel, C., Tanyileke, G. & Wüest, A. (2004): Double-diffusive convection in Lake Nyos Cameroon. – Deep-Sea Res. Pt. I, 51(8):1097–1111, doi:10.1016/j.dsr.2004.02.010.
• Schmid, S. & Wiegand, J. (2003): Radionuclide Contamination of Surface Waters, Sediments, and Soil Caused by Coal Mining Activities in the Ruhr District (Germany). – Mine Water Environ., 22(3):130–140, 10 Abb., 5 Tab.
• Schmid, S. M., Fügenschuh, B., Kissling, E. & Schuster, R. (2004): Tectonic map and overall architecture of the Alpine orogen. – Eclogae geol. Helv., 97:93–117, 3 Abb., 1 Taf.; doi:10.1007/S00015-004-1113-X.
• Schmidegg, O. (1945): Das Quecksilberfahlerzvorkommen bei Gand am Arlberg (Tirol). – Unpubl. Report for Innsbruck, B. 1–2 p., Innsbruck (Geologische Staatsanstalt).
• Schmidegg, O. (1953): Die Erzlagerstätten am Reiter Kopf und am Reiter Kogel. – Schlern-Schr., 101:17–25, 3 Abb.
• Schmidl, A., Kofler, W., Oeggl-Wahlmüller, N. & Oeggl, K. (2005): Land use in the eastern Alps during the Bronze Age – An archaeobotanical case study of a hilltop settlement in the Montafon (Western Austria). – Archaeometry, 47:455–470, 5 Abb., 4 Tab.
• Schmidt, A.-C., Lauckner, S. & Lindner, K. (2012): CZE of Sulfur-Containing Amino Acids and Peptides and Its Application to the Quantitative Study of Heavy Metal-Caused Thiol Oxidations. – Chromatographia, 75(11-12):661–670, doi:10.1007/s10337-012-2240-6.
• Schmidt, A.-C. & Mickein, K. (2011): Optimization of peptide and protein separation with a monolithic reversed-phase column and application to arsenic-binding studies. – Journal of Chromatography A, 1218(2):280–285, doi:10.1016/j.chroma.2010.11.031.
• Schmidt, A.-C. & Mickein, K. (2012): Qualitative and quantitative characterization of the arsenic-binding behaviour of sulfur-containing peptides and proteins by the coupling of reversed phase liquid chromatography to electrospray ionization mass spectrometry. – Journal of mass spectrometry : JMS, 47(8):949–61, doi:10.1002/jms.3025.
• Schmidt, A. R. (1867): Geognostisch-bergmännische Skizzen über die Erzlagerstätten Tyrols. – Berg- u. Hüttenm. Z., 26(31, 32, 47, 49):267–269; 273–274; 400–402; 415–417, 3 Abb.
• Schmidt, A. R. (1870): Über das Vorkommen der Blei- und Zinkerze im Oberinnthale in Tyrol. – Berg- u. Hüttenm. Z., 29(35):297–298, 313–315, 2 Abb.
• Schmidt, A. R. (1873): Skizze vom Montan-Werke Auronzo in Venetien. – Berg- u. Hüttenm. Z., 32(28):233–235, 1 Taf.
• Schmidt, A. R. (1874): Ueber die Beschaffenheit und den bisherigen Aufschluss der Salzlagerstätte zu Hall in Tirol. – Z. Berg- u. Hüttenmann. Verein.
• Schmidt, A. R. (1879): Bergbaue, Erz- und Kohlenfunde und besonders nutzbare Gesteinsarten in Vorarlberg. – Österr. Z. f. Berg- u. Hüttenwesen, 27(29-31):349–351; 361–363; 376–378.
• Schmidt, A. R. (1881): Beiträge zur neueren Geschichte des tirolischen Eisenwesens. – Österr. Z. f. Berg- u. Hüttenwesen, 29(30,31):385–393,400–403.
• Schmidt, A. R. (1887): Das Vorkommen von Quecksilber in Vorarlberg. – Bote für Tirol und Vorarlberg – Extrabeilage, 19.2.1887,(40):330f.
• Schmidt, A. R. (1887): Vom alten Bergbaue am Christberge in Vorarlberg. – Bote für Tirol und Vorarlberg – Extrabeilage, 18.6.1887,(136):1120f.
• Schmidt, G. & Frühauf, M. (1997): Untersuchungen zur Bedeutung der Schwermetallemission aus den Halden des Mansfelder Kupferschieferbergbaus als Ursache von Boden und Fließgewässerbelastungen. – Hercynia N.F., 30(2):177–193, 10 Abb., 1 Tab.
• Schmidt, H. & Schultz, G. (1881): Ueber Benzidin (α-Diamidodiphenyl). – Justus Liebigs Ann. Chem., 207(3):320–347, doi:10.1002/jlac.18812070306.
• Schmidt, K., Senger, D., Schwark, D., Dalaly, H. & Elgin International Inc. (1969): Sul-BiSul Ion Exchange Process: Field Evaluation on Brackish Waters. – Research and Development Progress Report, 446:139, 30 Abb., 19 Tab.
• Schmidt, N., Eulenberger, S. & Jenk, U. (2022): Final Flooding of the Königstein Uranium Mine – Supporting Activities and Implications for Monitoring. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 453–458; (International Mine Water Association).
• Schmidt, P. & Lindner, T. (2005): Development of water-borne radioactive discharges at WISMUT and resulting radiation exposures. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 639–646, Heidelberg (Springer).
• Schmidt, R. (2023): Life-Cycle Water Balance Modelling as a Tool for Water Management Risk Assessment to Minimise Legacy Effects. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 445–449; (International Mine Water Association).
• Schmidt, R., Kamenik, C., Tessadri, R. & Koinig, K. A. (2006): Climatic Changes from 12,000 to 4,000 Years Ago in the Austrian Central Alps Tracked by Sedimentological and Biological Proxies of a Lake Sediment Core. – J. Paleolimnol., 35(3):491–505, doi:10.1007/s10933-005-2351-2.
• Schmidt, T. C., Zwank, L., Elsner, M., Berg, M., Meckenstock, R. U. & Haderlein, S. B. (2004): Compound-specific stable isotope analysis of organic contaminants in natural environments: a critical review of the state of the art, prospects, and future challenges. – Anal. Bioanal. Chem., 378(2):283–300, doi:10.1007/s00216-003-2350-y.
• Schmidt, T. W. (2024): Upper He Creek water balance hydraulic and hydrogeologic solutions in east central Tennessee. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 562–563; Morgantown (International Mine Water Association).
• Schmidt-Wygasch, C., Schamuhn, S., Meurers-Balke, J., Lehmkuhl, F. & Gerlach, R. (2010): Indirect Dating of Historical Land Use Through Mining: Linking Heavy Metal Analyses of Fluvial Deposits to Archaeobotanical Data and Written Accounts. – Geoarchaeology, 25(6):837–856, doi:10.1002/gea.20334.
• Schmieder, A. (1982): The effect and utilization of protection layers in mine water control. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, ABCD Supplementary volume:175–200, 5 Abb.
• Schmieder, A. (1982): Some special problems of mine water control. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, ABCD Supplementary volume:215–240, 10 Abb.
• Schmieder, A., Kesserü, Z., Szilágyi, G., Gerber, P., Harsányi, A. & Jáki, R. (1987): The Methodology of Forecasting the karstic Water Inbrushes from the Roof under special Conditions: Hydrogeology of Coal Basins. – 485–499 p., 6 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Schmieder, A., Zöldföldi, J., Wolkersdorfer, Ch., Kleinmann, R. L. P. & Balázs, K. (2002): Dr. Zsolt Kesserû (1934–2001). – Mine Water Environ., 21(1):52–53, 1 Abb.
• Schmiermund, R. L. & Drozd, M. A. (1997): Acid Mine Drainage and other Mining-Influenced Waters (MIW). – In: Marcus, J. J. (ed) Mining Environmental Handbook – Effects of Mining on the Environment and American Environmental Controls on Mining. – p. 599–617, 3 Abb., 1 Tab.; London (Imperial College Press).
• Schmit, J. D., Whitelam, S. & Dill, K. (2011): Electrostatics and aggregation: how charge can turn a crystal into a gel. – J. Chem. Phys., 135(8):085103, doi:10.1063/1.3626803.
• Schmitt, G. A. (1858): Die bergbaulichen Zustände im Landgerichte Miesbach. – Abendblatt zur Neuen Münchener Zeitung, 6.1.1858:17.
• Schmitt, H. (2001): Mobilisation von Schwermetallen im Bereich Rheinhessisches Hügelland als Folge anthropogen bedingten Nitrateintrages – Folgen für den Grundwasserschutz? – 155 p., 50 Abb., 27 Tab.; Mainz (Unveröff. Diss. Johannes-Gutenberg-Universität Mainz).
• Schmitt, R. T. (2001): Zur Petrographie, Geochemie und Buntmetallmineralisation des Zechstein 1 (Werra-Folge) im Gebiet Huckelheim – Großkahl (Nordwestlicher Spessart). – Mitt. naturwiss. Mus. Aschaffenburg, 20:1–100, 42 Abb., 23 Tab.
• Schmitt, R. W. (1995): The Ocean’s Salt Fingers – A small-scale oddity in the way seawater mixes can have large-scale consequences for the structure of the ocean. – Sci. Amer., 272(5):70–75, doi:10.1038/scientificamerican0595-70.
• Schmitt, R. W., Polzin, K. L. & Toole, J. M. (1989): Shear and Salt Fingers. Paper presented at the Parameterization of Small-Scale Processes, Manoa, January 17–20, 1989. – p. 127–144; Honolulu (Hawaii Institute of Geophysics).
• Schmitz, C. (1840): Beiträge zur Geschichte des Bergbaues auf Braun- und Steinkohlen im Königreich Bayern. – Kunst- und Gewerbeblatt, 26:4–23; 79–97; 164–176; 236–268.
• Schmitz, N. (1974): Die Blei-Zinkerzlagerstätten des Pflerschtals – Zur Genese eines metamorphen schichtgebundenen Erzvorkommens aus den Ostalpen. – Geol. Rundsch., 63(1):148–165, 13 Abbildung; doi:10.1007/BF01820981.
• Schmitz, N. (2018): Galmei und Schalenblende aus dem Altenberger Grubenfeld bei Kelmis/La Calamine – Zur Montangeschichte im Aachener Dreiländereck. – 147 p., 77 Abb.; Aachen (Shaker Verlag).
• Schmolke, C. & Drennan, S. (2003): Mine water capture. – Land Contam. Reclam., 11(2):267–271, doi:10.2462/09670513.824.
• Schnegg, P.-A. & Flynn, R. M. (2002): Online Field Fluorometers for Hydrogeological Tracer Tests. – Wiss. Mitt. Inst. Geol., 19:29–36, 10 Abb., 1 Anh.
• Schneider, D., Voigt, R. & Wharton, P. (1988): Technical and Environmental Problems Related to Dewatering the Proposed Ohinewai Opencast Lignite Mine, New Zealand. – Proceedings, 3rd International Mine Water Congress, Melbourne:289–297, 3 Abb., 2 Tab.
• Schneider, G. (1867): Ueber Zinkblendeverhüttung in Oberschlesien. – Z. Ver. Dtsch. Ing., 11(1):93–95.
• Schneider, H.-J. (1954): Die sedimentäre Bildung von Flußspat im Oberen Wettersteinkalk der nördlichen Kalkalpen. – Bayer. Akad. Wiss., Math.-nat. Kl., Abh., 66:1–37.
• Schneider, H.-J. (1972): The Problem of the Ore-Mobilization and -Transport in the Lead-Zinc-Ore Deposits of the Ost-Alpine Middle Triassic Beds. – Geologija, 15:217–219.
• Schneider, H.-J. (1982): Problems of the Determination of in-situ Permeability in fissured Rock. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:277–294, 9 Abb.
• Schneider, H.-J. (1988): Geotechnical Requirements of Subsurface Repositories in Mines, Rock and Salt Caverns for interim or final Disposal of hazardous Wastes. – Bull. Int. Ass. Engineering Geology, 37:71–76, 4 Abb.; doi:10.1007/BF02590372.
• Schneider, H.-J. & Wolf, H. (1969): Descloisit in den Pb-Zn-Lagerstätten der Bayerisch-Nordtiroler Kalkalpen. – N. Jb. Min. Mh., 11:481–499, 5 Abb., 2 Tab.
• Schneider, I. A. H., Freitas, A. P. P. & Schwarzbold, A. (2010): Algae in the Acid Mine Drainage on Santa Catarina Coalfield, Brazil. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 395–399, Sydney, NS (Cape Breton University Press).
• Schneider, J. & Herrmann, A. G. (1980): Saltworks; natural laboratories for microbiological and geochemical investigations during the evaporation of seawater. – Symposium on Salt, 5(2):371–381, 8 Abb.
• Schneider, P. (1949): Der älteste Fundbericht über die Tischhoferhöhle. – Veröff. Mus. Ferdinandeum, 26-29:225–227.
• Schneider, P. (2016): 1000 Years of Mining: What Means Geogenic Background of Metals in the Rivers of the Harz Mountains? – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 45–53, Freiberg (TU Bergakademie Freiberg).
• Schneider, P., Boeck, H.-J. & Lange, T. (2005): Radionuclide Data for Geothermal Prospection – A Contribution to the Geothermal Resources Map of Saxony. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 647–654, Heidelberg (Springer).
• Schneider, P., Löser, R., Meyer, J., Kreyßig, E. & Schramm, A. (2005): Concept of a Surface Water Monitoring at the Former Uranium Mining Site Schlema-Alberoda. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 779–788, Heidelberg (Springer).
• Schneider, P., Neitzel, P., Merkel, B. J., Meinrath, G. & Pearson, J. (1998): Alternative Methoden zur Behandlung von Flutungswässern. – Unpubl. Report for Sächsisches Staatsministerium für Umwelt und, L. (Report Nr. 13.8802.3528/44). – 112 p., 15 Abb., 18 Tab., 2 Anl.; Chemnitz (Hydroisotop-Piewak GmbH).
• Schneider, P., Neitzel, P. L. & Hurst, S. (2000): In-situ Treatment of Mining Waste Waters Using Fe(0) and Fe/Mn-Compounds (abstract). – J. Conf. Abs., 5(2):892, 1 Abb.
• Schneider, P., Neitzel, P. L., Osenbrück, K. & Hurst, S. (2000): Methoden zur Behandlung von Flutungswässern im Bergbau. – Wasser und Abfall, 2(12):20–24, 3 Abb., 4 Tab.
• Schneider, P., Neitzel, P. L., Osenbrück, K., Noubacteb, C., Merkel, B. J. & Hurst, S. (2001): In-situ treatment of radioactive mine water using reactive materials – Results of laboratory and field experiments in uranium ore mines in Germany. – Acta Hydrochim. Hydrobiol., 29(2-3):129–138, 9 Abb., 2 Tab.; doi:10/ff64fb.
• Schneider, P., Neitzel, P. L., Schaffrath, M. & Schlumprecht, H. (2003): Leitbildorientierte physikalisch-chemische Gewässerbewertung – Referenzbedingungen und Qualitätsziele. – Texte, 15/03:35, 56 Abb., 13 Tab., 2 Anl.
• Schneider, P., Nilius, U., Gottschalk, N., Süß, A., Schaffrath, M., Löser, R. & Lange, T. (2017): Determination of the Geogenic Metal Background in Surface Water: Benchmarking Methodology for the Rivers of Saxony-Anhalt, Germany. – Water, 9(2):75, doi:10.3390/w9020075.
• Schneider, P., Osenbrück, K., Neitzel, P. L. & Nindel, K. (2002): In-Situ Mitigation of Effluents from Acid Waste Rock Dumps Using Reactive Surface Barriers – a Feasibility Study. – Mine Water Environ., 21(1):36–44, 4 Abb., 3 Tab.
• Schneider, P., Osenbrück, K., Nindel, K., Voerkelius, S., Forster, M. & Schreyer, J. (1999): Current and future impact of an uranium mine waste disposal site on groundwater: IAEA-SM-361/20. – 20.1–20.10 p., 8 Abb.; Wien (Proceedings Isotope Techniques in Water Ressources Management).
• Schneider, P. & Reincke, H. (2005): Contaminated Sediments in the Elbe Basin and its Tributary Mulde. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 655–662, Heidelberg (Springer).
• Schneider, P., Schaffrath, M. & Nindel, K. (2002): Hydrology of Engineered Covers of Waste Rock Dumps towards Heavy Rainfall Phenomena: A Case Study in Uranium Mill Tailings Mitigation. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 169–176, 4 Abb., 3 Tab.; Heidelberg (Springer).
• Schneider, P., Schaffrath, M., Schlumprecht, H. & Sonntag, H. (2006): Hydrologische und ökologische Untersuchungen im Zusammenhang mit der Umsetzung der EU-WRRL unter Berücksichtigung des Braunkohlenbergbau-Rehabilitationsgebietes im sächsischen Einzugsgebiet der Lausitzer Neiße. – Wiss. Mitt. Inst. Geol., 31:203–211, 1 Abb., 3 Tab.
• Schneider, P., Voerkelius, S., Nindel, K., Forster, M. & Schreyer, J. (2001): Release of Contaminants from Uranium Mine Waste – Laboratory and Field Experiments. – Mine Water Environ., 20(1):30–38, 5 Abb., 4 Tab.; doi:10.1007/s10230-001-8077-0.
• Schneider, P., Voerkelius, S., Osenbrück, K. & Meyer, J. (2003): Anwendung von isotopenhydrologischen Methoden bei Einzugsgebietsuntersuchungen. – Wiss. Mitt. Inst. Geol., 24:73–82, 7 Abb., 1 Tab.
• Schneider, P. & Wolkersdorfer, Ch. (2021): Dimensions of water management in the extractive industries. – In: Davis, C. & Rosenblum, E. (eds): Sustainable Industrial Water Use: Perspectives, Incentives, and Tools. – p. 73–87, 13 Abb.; London (IWA Publishing); doi:10.2166/9781789060676_0073.
• Schneider, T. & Bauer, S. (1993): Das Radon-Problem in der Drachenhöhle Syrau – Eine Herausforderung für Strahlen- und Höhlenschutz. – Höhlenforschung in Thüringen, 7:14–18, 2 Tab.
• Schnitzler, J. G., Thomé, J. P., Lepage, M. & Das, K. (2011): Organochlorine pesticides, polychlorinated biphenyls and trace elements in wild European sea bass (Dicentrarchus labrax) off European estuaries. – Sci. Total Environ., 409(19):3680–3686, doi:10.1016/j.scitotenv.2011.06.018.
• Schnorrer, G., Schneider, J., Pfeiffer, F. & Hiller, V. (2000): Die Minerale der Grube Wildermann bei Müsen im Siegerland – Erstnachweis eines primären, sowie zweier sekundärer Uran-Minerale im Rheinischen Schiefergebirge. – Der Aufschluss, 51(2):71–123, 102 Abb.
• Schnug, E., Steckel, H. & Haneklaus, S. (2005): Contribution of uranium in drinking waters to the daily uranium intake of humans – a case study from Northern Germany. – Landbauforschung Volkenrode, 55(4):227–236.
• Schoderer, M., Dell’Angelo, J. & Huitema, D. (2020): Water policy and mining: Mainstreaming in international guidelines and certification schemes. – Environ. Sci. Policy, 111:42–54, doi:10.1016/j.envsci.2020.04.011.
• Schoell, M. & Hartmann, M. (1978): Changing hydrothermal activity in the Atlantis II Deep geothermal system. – Nature, 274:784–785, doi:10.1038/274784a0.
• Schoell, M., Tietze, K. & Schoberth, S. M. (1988): Origin of Methane in Lake Kivu (East-Central Africa). – Chemical Geology, 71(1-3):257–265, doi:10.1016/0009-2541(88)90119-2.
• Schoeller, H. (1956): Géochimie des eaux souterraines – Application aux eaux de gisements de pétrole. – Rev. Inst. Francais Pétrole, 10/1955:181–213, 219–246, 507–552, 671–719, 823–874, 48 Abb.
• Schoeman, J. J. (1986): Evaluation of a South-African Clinoptilolite for Ammonia-Nitrogen Removal from an Underground Mine Water. – Water SA, 12(2):73–82.
• Schoeman, J. J. & Steyn, A. (2001): Investigation into alternative water treatment technologies for the treatment of underground mine water discharged by Grootvlei Proprietary Mines Ltd into the Blesbokspruit in South Africa. – Desalination, 133(1):13–30, 5 Abb., 14 Tab.; doi:10.1016/S0011-9164(01)00079-0.
• Schoeman, Y. & Oberholster, P. J. (2025): Can Ecological Engineering Redefine Wetland Recovery in Mining? Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 963–968; Braga (International Mine Water Association).
• Schoenbacher, J. (2013): Managing Water Permits with GIS at Questa Mine. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 63–68, 7 Abb.; Golden (International Mine Water Association).
• Schoenichen, F. (1868): Zur Kenntniss der Erzgänge des Anhaltischen Harzes, mit einem Blick auf die Zechsteinformation seiner Umgebung. – Zeitschrift für die Gesammten Naturwissenschaften, 31(2):81–126.
• Schofield, C. L. & Keleher, C. (1996): Comparison of brook trout reproductive success and recruitment in an acidic Adirondack lake following whole lake liming and watershed liming. – Biogeochemistry, 32(3):323–337, 5 Abb., 3 Tab.
• Scholtz, N., Scholtz, O. F. & Potgieter, G. P. (2005): Potential environmental impact resulting from inadequate remediation of uranium mining in the Karoo Uranium Province, South Africa. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 789–800, Heidelberg (Springer).
• Scholtz, O. (2020): Anglo American – Mototolo Mine – Hydrogeological study for Borwa and Lebowa Shafts. – Unpubl. Report for Anglo American – Mototolo Mine (Report Nr. AS-ANG-MOT-19-11-06). – 108 p., Pretoria (Shangoni AquiScience).
• Scholtz, O. F. (2006): Citric Acid Induced Phytoextraction of Heavy Metals from Uranium Contaminated Soils. – 122 p., University of the Free State, 15 Abb., 11 Tab.; Bloemfontein.
• Scholz, G. (2005): Inlake-Technik – ein effizientes Verfahren zur Alkalinisierung und Sulfatreduzierung schwefelsaurer Tagebaurestseen. – Wiss. Mitt. Inst. Geol., 28:75–80, 9 Abb., 2 Tab.
• Schönaich-Carolath in Tarnowitz, A. B. H. P. v. (1860): Beschreibung des Verfahrens zur Entsäuerung der für die Speisung der Dampfkessel auf der Königshütte in Oberschlesien bestimmten Grubenwasser. – Z. Berg-, Hütten- und Salinen-Wesen, 8:28–31, 3 Abb.
• Schöner, A. (2006): Hydrogeochemische Prozesse der Uranfixierung in natürlichen Wetlands und deren Anwendbarkeit in der „passiven“ Wasserbehandlung. – 375 p., Friedrich-Schiller-Universität Jena; Jena.
• Schöner, A., Noubactep, C., Büchel, G. & Sauter, M. (2009): Geochemistry of natural wetlands in former uranium milling sites (eastern Germany) and implications for uranium retention. – Geochemistry, 69:91–107, doi:10.1016/j.chemer.2007.12.003.
• Schöner, A., Noubactep, C. & Sauter, M. (2004): Assessment of Uranium Retention in Wetlands: Characterisation of Bonding Strength, Considerations regarding reductive Precipitation. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 19–24, Newcastle upon Tyne (University of Newcastle).
• Schöner, A., Sauter, M. & Büchel, G. (2004): Untersuchungen zur Rückhaltung von Uran in Wetlands. – Wiss. Mitt. Inst. Geol., 25:141–146.
• Schöner, A., Sauter, M. & Büchel, G. (2005): Uranium in natural wetlands: a hydrogeochemical approach to reveal immobilization processes. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 389–398, Heidelberg (Springer).
• Schöner, A., Sauter, M. & Büchel, G. (2006): Biogeochemische Mechanismen der Uranfestlegung in Wetlands. – Wiss. Mitt. Inst. Geol., 31:71–78.
• Schöner, R. (2000): Mineralogische und geochemische Untersuchungen an historischen Eisenverhüttungsschlacken aus dem Füssener Raum und dem Außerfern (Ostallgäu und Tirol). – 95 p., 28 Abb., 1 Tab., 15 Taf., 11 Anl.; München (unveröff. Diplomarbeit TU München).
• Schöner, R., Scholz, H. & Krumm, H. (2003): Die mittelalterliche Eisengewinnung im Füssener Land (Ostallgäu und Außerfern) – Neue Ergebnisse zum Abbau und zur Verhüttung der Eisenerze aus dem Wettersteinkalk. – Arch. f. Lagerst.forsch. Geol. B.-A., 24:193–218, 21 Abb., 3 Tab.
• Schönhardt, M., Witt, K. J. & Wudtke, R.-B. (2006): Strategien zur optimalen Baugrunderkundung auf der Grundlage unsicherer geologischer Baugrundmodelle. – Wiss. Mitt. Inst. Geol., 31:277–286, 12 Abb.
• Schönherr, D. (1872): Über Marx Treytz-Saurwein, Geheimschreiber K. Maximilians I., dessen Heimath und Familie. – Archiv für Österreichische Geschichte, 48(2):355–374.
• Schönlaub, H. P. (1980): Die Grauwackenzone. – In: Oberhauser, R. (ed) Der geologische Aufbau Österreichs. – p. 265–289, Wien (Springer); doi:10.1007/978-3-7091-3744-4_16.
• Schönwiese, D., Brasser, T. & Noseck, U. (2005): Site characterisation of the potential Natural Analogue Site Heselbach in Bavaria/Germany. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 127–136, Heidelberg (Springer).
• Schöpel, M. (2019): Erbstollen des Altbergbaus auf Steinkohle und deren Auswirkungen auf die Wasserqualität der unteren Ruhr unter Berücksichtigung der Grubenwassereinleitungen der Ruhrkohle AG. –:37, http://www.bergbauhistorie.ruhr/wp-content/uploads/Fachbeitrag-Schoepel-Erbstollen-2019.pdf.
• Schöpf, R. (2005): Ludwig Ganghofer – Seine Jahre in Ehrwald. – zahlr. Abb., zahlr. Tab.
• Schöpke, R. (1999): Erarbeitung einer Methodik zur Beschreibung hydrochemischer Prozesse in Kippengrundwasserleitern: Schriftenreihe Siedlungswasserwirtschaft und Umwelt 2. – 136 p., 6 Anl.; Cottbus (Eigenverlag Lehrstuhl Wassertechnik und Siedlungswasserbau).
• Schöpke, R. (2004): Gefährdungsminderung durch Untergrundbehandlung. – Wiss. Mitt. Inst. Geol., 25:147–151, 3 Abb., 1 Tab.
• Schöpke, R. (2005): Anforderungen an Substrate zur Behandlung von AMD durch Sulfatreduktion – Eignung und Genehmigungsfähigkeit. – Wiss. Mitt. Inst. Geol., 28:81–86, 4 Tab.
• Schöpke, R. (2007): Probleme bei der Quantifizierung der Acidität und damit verbundene Bewertung von AMD und Sanierungsverfahren. – In: Drebenstedt, C. & Struzina, M. (eds): Management bergbaubedingten Säurepotenzials. – p., Freiberg (TU Bergakademie Freiberg).
• Schöpke, R. (2007): Vielkomponentensysteme in der Wasserbehandlung – Erfassung und Anwendung bei der Bemessung von Aufbereitungsanlagen: Schriftenreihe Siedlungswasserwirtschaft und Umwelt 14. – 224 p., 9 Anh.; Cottbus (Eigenverlag Lehrstuhl Wassertechnik und Siedlungswasserbau).
• Schöpke, R. (2008): Experimental Development and Testing of an in Situ Technology to Reduce the Acidity of AMD-laden Groundwater in the Aquifer. – Proceedings, 10th International Mine Water Association Congress:337–340.
• Schöpke, R. (2024): Hydrochemische Aspekte der Erkundung und Behandlung von bergbaubürtigen Sauerwässern (AMD) – Ergebnisse von 25 Jahren Forschung und Entwicklung: Schriftenreihe Siedlungswasserwirtschaft und Umwelt 32. – 363 p., 241 Abb., 110 Tab., 3 Anl.; Cottbus (Eigenverlag Lehrstuhl Wassertechnik und Siedlungswasserbau).
• Schöpke, R., Gast, M., Koch, R., Walko, M. & Regel, R. (2010): Sanierung von Kippengrundwasser durch Untergrundsulfatreduktion. – Wiss. Mitt. Inst. Geol., 42:21–26.
• Schöpke, R., Gast, M., Walko, M., Regel, R., Koch, R. & Thürmer, K. (2011): Wissenschaftliche Auswertung von Sanierungsversuchen zur Untergrundsulfatreduktion im ehemaligen Lausitzer Bergbaurevier: Schriftenreihe Siedlungswasserwirtschaft und Umwelt 21. – 194 p., 185 Abb., 77 Tab.; Cottbus (Eigenverlag Lehrstuhl Wassertechnik und Siedlungswasserbau).
• Schöpke, R., Koch, R., Mangold, S., Regel, R. & Striemann, A. (2007): Herstellung passiver reaktiver Wände (PRW) aus Braunkohlefilterasche mittels Rütteldruckverfahren im Skadodamm: Schriftenreihe Siedlungswasserwirtschaft und Umwelt 15. – 107 p., 121 Abb., 55 Tab.; Cottbus (Eigenverlag Lehrstuhl Wassertechnik und Siedlungswasserbau).
• Schöpke, R., Koch, R., Ouerfelli, I., Striemann, A., Preuß, V. & Regel, R. (2001): Anwendung des Neutralisationspotenzials bei der Bilanzierung von Säure-Base-Reaktionen im Umfeld des Braunkohlebergbaues. – Grundwasser, 6(1):23–29, 3 Abb., 1 Tab.; doi:10.1007/PL00010387.
• Schöpke, R. & Preuß, V. (2012): Bewertung der Acidität von bergbauversauerten Wässern und Anwendung auf die Sanierung. – Grundwasser, 17(3):147–156, 3 Abb., 3 Tab.; doi:10.1007/s00767-012-0189-x.
• Schöpke, R., Preuß, V., Koch, R. & Bahl, T. (2006): Einsatzmöglichkeiten passiver reaktiver Wände zur Entsäuerung potenziell saurer Kippengrundwasserströme und deren Nutzung in aktiven Untergrundbehandlungsverfahren. – Wiss. Mitt. Inst. Geol., 31:165–172, 4 Abb., 3 Tab.
• Schöpke, R., Preuß, V., Zahn, L. & Thürmer, K. (2016): Modelling the changes in water quality of AMD along the flow path. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1195–1201, Freiberg (TU Bergakademie Freiberg).
• Schöpke, R., Volker, P., Thürmer, K., Lena, Z., Manja, W. & Oliver, T. (2017): Control of the remediation of anoxic AMD groundwater by sulphate reduction in a subsoil reactor. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 502–509, Lappeenranta (Lappeenranta University of Technology).
• Schöpke, R., Walko, M. & Thürmer, K. (2021): Process For The Subsoil Treatment Of Acidified Groundwater Through Microbial Sulfate Reduction. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 514–518; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Schöppe, W. (1911): Der Holzappeler Gangzug. – Archiv für Lagerstättenforschung,(3-4):1–96, 10 Abb., 7 Taf.
• Schoppel, J. (1982): Experience of the Construction and Application of Water Control Gates. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:194–203, 3 Abb.
• Schorer, M. & Eisele, M. (1997): Accumulation of inorganic and organic pollutants by biofilms in the aquatic environment. – Water Air Soil Pollut., 99(1-4):651–659, doi:10.1007/bf02406904.
• Schorr, M. (2011): Desalination, Trends and Technologies. – 334 p., Rijeka (InTech).
• Schott, A., Brand, R. A., Kaiser, J. & Schmidt, D. (2005): Depleted Uranium (DU) – Chemo- and Radiotoxicity. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 165–174, Heidelberg (Springer).
• Schouten, S., Schoell, M., Rijpstra, W. I. C., Damste, J. S. S. & De Leeuw, J. W. (1997): A molecular stable carbon isotope study of organic matter in immature Miocene Monterey sediments, Pismo basin. – Geochim. Cosmochim. Acta, 61(10):2065–2082.
• Schouwstra, B. R. P., Kinloch, E. D. & Lee, C. A. (2000): A Short Geological Review of the Bushveld Complex. – Platinum Metals Rev., 44(1):33–39, 5 Abb., 3 Tab.
• Schrader, A. & Winde, F. (2015): Unearthing a hidden treasure: 60 years of karst research in the Far West Rand, South Africa. – S. Afr. J. Sci., 111(5/6) 2 Abb.; doi:10.17159/sajs.2015/20140144.
• Schrag, D. P., DePaolo, D. J. & Richter, F. M. (1995): Reconstructing past sea surface temperatures: Correcting for diagenesis of bulk marine carbonate. – Geochim. Cosmochim. Acta, 59(11):2265–2278.
• Schramm, A., Meyer, J., Metschies, T. & Jenk, U. (2023): Challenges of Water Management at the Uranium Mining Site Schlema-Alberoda of Wismut (Germany). Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 450–455; (International Mine Water Association).
• Schramm, G. (1998): Einführung in Rheologie und Rheometrie, 2 edn. – 387 p., 177 Abb.; Karlsruhe (Haake).
• Schrammel, M. (1996): Der Goldbergbau an der Eder. – Beiträge zur Stadtgeschichte – Geschichtsverein Fritzlar, 11:1–32, 23 Abb.
• Schrattenthaler, H. (2016): Silber, Blei und weißes Gold – Zur Geschichte des Bergbaus im Karwendel. – BergWelten:32–39, 12 Abb.
• Schreck, M., Nishigaki, M., Gläser, H. R., Christoph, G., Großwig, S., Hurtig, E., Kasch, M. & Kühn, K. (1998): Determination of Heat Production Zones at Open-Cast Mine Dump. – J. Environ. Engineering, 124(7):646–651, 6 Abb., 1 Tab.; doi:10.1061/(ASCE)0733-9372(1998)124:7(646).
• Schreck, P. (1999): Flue Dust from Copper Shale Smelting in Central Germany: environmental Pollution and its Prevention. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 163–167, 3 Abb., 2 Tab.; Sevilla (International Mine Water Association).
• Schreck, P. & Glässer, W. (1998): Regional Geology of the Lignite Mining Districts in Eastern Germany. – In: Geller, W., Klapper, H. & Salomoms, W. (eds): Acidic mining lakes: acid mine drainage, limnology and reclamation. – p. 15–21, 2 Abb.; Heidelberg (Springer).
• Schreck, P., Schubert, M., Freyer, K., Treutler, H.-C. & Weiss, H. (2005): Multi-metal Contaminated Stream Sediment in the Mansfeld Mining District: Metal Provenance and Source Detection. – Geochem.-Explor. Environ. Anal., 5:51–57, doi:10.1144/1467-7873/03-054.
• Schreder, E. (2003): Zwangsarbeit im Reichsgau Tirol und Vorarlberg im Zweiten Weltkrieg. – GR/SR, 12(1):72–106.
• Schreiber, G. (1962): Der Bergbau in Geschichte, Ethos und Sakralkultur: Wissenschaftliche Abhandlungen der Arbeitsgemeinschaft für Forschung des Landes Nordrhein-Westfalen 21. – 757 p., Berlin (Springer); doi:10.1007/978-3-663-02155-1.
• Schreiber, H., Stanley, J. & Chambers, M. (2024): Using state point analysis and settling flux theory to design and operate mine water treatment clarifiers. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 564–570; Morgantown (International Mine Water Association).
• Schreiber, O. (2005): Der frühneuhochdeutsche bergmännische Wortschatz Studien zu Georgius Agricolas „Vom Bergkwerck XII Bücher“. – 224 p., Dresden (unveröff. Diss. TU Dresden).
• Schreiber, U. C. (2019): Das Geheimnis um die erste Zelle – Dem Ursprung des Lebens auf der Spur. – 248 p., 45 Abb.; Berlin (Springer); doi:10.1007/978-3-662-59183-3.
• Schreitmüller, J., Vigneron, M., Bacher, R. & Ballschmiter, K. (1994): Pattern Analysis of Polychlorinated Biphenyls (PCB) in Marine Air of the Atlantic Ocean. – Int. J. Environ. Anal. Chem., 57(1):33–52, doi:10.1080/03067319408033100.
• Schrenner, E. (2012): Kontaminationen von Flusslandschaften durch mittelalterlichen Bergbau: Beispiele aus Bayern. – 25 p., 3 Abb., 1 Tab.; München (Grin).
• Schreuder, H., Lourens, P. J. H., Vermeulen, P. D. & Lubbe, R. (2023): Cost Effective Method to Depressurise Perched Aquifers to Prevent Slope Failures in Open-Pit Mines, South Africa. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 456–463; (International Mine Water Association).
• Schreyer, J. (1996): Sanierung von Bergwerken durch gesteuerte Flutung – Entwicklung und Einsatz eines neuartigen Verfahrens am Beispiel der Grube Königstein. – Geowissenschaften, 14(11):452–457.
• Schreyer, J., Zimmermann, U. & Jenk, U. (2002): Flooding of the Königstein mine up to 80 m above sea level – Prediction and Reality. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 763–770, 5 Abb.; Heidelberg (Springer).
• Schroetter, S., Rivas, M., Lamas, M., Fleckenstein, J. & Schnug, E. (2005): Factors affecting the plant availability of uranium in soils. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 885–894, Heidelberg (Springer).
• Schroll, E. (1950): Wulfenite von Nassereith/Dirstentritt (Tirol) und Bleiberg (Kärnten). – Tschermaks Min. Petr. Mitt., 1(4):325–341, doi:10.1007/BF01145388.
• Schroll, E. (1955): Über das Vorkommen einiger Spurenmetalle in Blei-Zink-Erzen der ostalpinen Metallprovinz. – Tschermaks Min. Petr. Mitt., 5(3):183–208, 10 Abb.; doi:10.1007/BF01191063.
• Schroll, E. (1985): Blei-Zink-Lagerstätten in Sedimenten. – Arch. f. Lagerst.forsch. Geol. B.-A., 6:157–165, 5 Abb., 2 Tab.
• Schroll, E. (2006): Neues zur Genese der Blei-Zink Lagerstätte Bleiberg. – Carinthia II, 196/116:483–500, 14 Abb.
• Schroll, E. & Ibrahim, N. A. (1959): Beitrag zur Kenntnis ostalpiner Fahlerze. – Tschermaks Min. Petr. Mitt., 7(1-2):70–105, 18 Tab.; doi:10.1007/BF01127568.
• Schroll, E., Schulz, O. & Pak, E. (1983): Sulphur isotope distribution in the Pb-Zn-deposit Bleiberg (Carinthia, Austria). – Miner. Deposita, 18:17–25, doi:10.1007/BF00206692.
• Schroth, G. (1997): Zur Eisenerzgewinnung im Nürnberger Land. – Die Fränkische Alb – Zeitschrift des Fränkischen Albvereins, 77(1/97):15–17.
• Schrott, B. (2006): Das Bergbau-Informationssystem (BIS) der Bergbehörden des Landes NRW. – Wiss. Mitt. Inst. Geol., 31:233–240, 4 Abb., 2 Tab.
• Schubert, G. H. v. (1848): Wanderbüchlein eines reisenden Gelehrten nach Salzburg, Tirol und der Lombardei, 3 edn. – 334 p., Erlangen (Palm & Enke).
• Schubert, J. P. (1978): Reducing water leakage into underground coal mines by aquifer dewatering. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 911–931; Maracena (Asociación Nacional de lngenieros de Minas).
• Schubert, J. P. (1979): Groundwater Contamination Problems Resulting from Coal Refuse Disposal: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 757–780 p., 3 Abb., 4 Tab.; San Francisco (Freeman).
• Schubert, J. P. & McDaniel, M. J. (1982): Using Mine Waters for Heating and Cooling. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, D:63–82, 8 Abb., 1 Tab.
• Schubert, M., Buerkin, W., Peña, P., Lopez, A. E. & Balcázar, M. (2006): On-site determination of the radon concentration in water samples: Methodical background and results from laboratory studies and a field-scale test. – Radiation Measurements, 41(4):492–497, doi:10.1016/j.radmeas.2005.10.010.
• Schubert, M., Morgenstern, P., Wennrich, R., Freyer, K. & Weiss, H. (2003): The Weathering Behavior of Heavy Metals in Ore Processing Residues (Mansfeld Region, Germany). – Mine Water Environ., 22(1):2–6, 3 Abb., 4 Tab.
• Schuch, M. F. (1981): Bericht über die Ergebnisse der Hydrogeologischen Untersuchungen im Bereiche des Weißen‑, Mitter- u. Finstersees. – 14 p., 1 Abb., 8 Beil.; Innsbruck (Michael F. Schuch).
• Schuldt, J. P., Konrath, S. H. & Schwarz, N. (2011): “Global warming” or “climate change”? – Whether the planet is warming depends on question wording. – Public Opin. Q., 75(1):115–124, doi:10.1093/poq/nfq073.
• Schulte, E. & Malisch, R. (1983): Berechnung der wahren PCB-Gehalte in Umweltproben – I. Ermittlung der Zusammensetzung zweier technischer PCB-Gemische. – Fresenius Z. Anal. Chem., 314(6):545–551, doi:10.1007/BF00474844.
• Schulte, E. & Malisch, R. (1984): Calculation of the real PCB content in environmental samples – II. Gas Chromatographic Determination of the PCB Concentration in Human Milk and Butter. – Fresenius Z. Anal. Chem., 319(1):54–59, doi:10.1007/BF00476229.
• Schultz, A. C., Perelle, S., Di Pasquale, S., Kovac, K., De Medici, D., Fach, P., Sommer, H. M. & Hoorfar, J. (2011): Collaborative validation of a rapid method for efficient virus concentration in bottled water. – Int. J. Food Microbiol., 145 Suppl 1:S158–66, doi:10.1016/j.ijfoodmicro.2010.07.030.
• Schultz, H., Wells, A. W. & Mima, M. J. (1985): Solid and gaseous fuels. – Anal. Chem., 57(5):268R–278R, doi:10.1021/ac00282a016.
• Schultz, L., Park, B., Stanford, L., Pfeifer, K., Montero. Ph.D., I., Moore. Ph.D., T., Wing, A. & Riese. Ph.D., S. (2024): A toolbox for characterizing organic media in passive biotreatment cells. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 571–572; Morgantown (International Mine Water Association).
• Schultze, M. (2012): Maximising use of waters produced by mining: International Mine Water Association Symposium. – 11–24 p., Bunbury (Edith Cowan University).
• Schultze, M. (2016): Book Review: Environmental Sampling and Modelling for the Prediction of Long-Term Water Quality of Mine Pit Lakes. – Mine Water Environ., 35(2):261–262, doi:10.1007/s10230-015-0366-0.
• Schultze, M. & Boehrer, B. (2008): Development of Two Meromictic Pit Lakes – a Case Study from the Former Lignite Mine Merseburg-Ost, Germany. – Proceedings, 10th International Mine Water Association Congress:611–614.
• Schultze, M., Boehrer, B., Duffek, A., Herzsprung, P. & Geller, W. (2005): Introduction of river water as a tool to manage water quality in pit lakes: Mine Water 2005 – Mine Closure. – 273–279 p., 5 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Schultze, M., Boehrer, B., Friese, K., Koschorreck, M., Stasik, S. & Wendt-Potthoff, K. (2011): Disposal of waste materials at the bottom of pit lakes: Mine Closure 2011 1. – 555–564 p., 1 Abb.; Lake Louise (CSIRO; Curtin University; University of WA).
• Schultze, M., Castendyk, D., Wendt-Potthoff, K., Sánchez-España, J. & Boehrer, B. (2016): On the relevance of meromixis in pit lakes – an update. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 227–235, Freiberg (TU Bergakademie Freiberg).
• Schultze, M., Friese, K., Sánchez, J. & López, E. (2006): The Aznalcóllar Pit Lake – Water Quality and Options of Control: ICARD 2006 7. – 1927–1935 [CD–ROM] p., 1 Abb., 1 Tab.; St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06021927.
• Schultze, M., Pokrandt, K.-H., Scholz, E. & Jolas, P. (2011): Use of mine water for filling and remediation of pit lakes: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 545–550 p., Aachen (RWTH Aachen University).
• Schultze, M., Vandenberg, J., McCullough, C. D. & Castendyk, D. (2022): The future direction of pit lakes: part 1, Research needs. – Mine Water Environ., 41(2):533–543, doi:10.1007/s10230-022-00850-1.
• Schulz, C.-J. (2016): How does Salinisation of Running Waters Affect Aquatic Communities? Answers from a Case Study. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 144–150, Freiberg (TU Bergakademie Freiberg).
• Schulz, D. E., Petrick, G. & Duinker, J. C. (1989): Complete characterization of polychlorinated biphenyl congeners in commercial Aroclor and Clophen mixtures by multidimensional gas chromatography-electron capture detection. – Environ. Sci. Technol., 23(7):852–859, 4 Abb., 2 Tab.; doi:10.1021/es00065a015.
• Schulz, O. (1972): Neuergebnisse über die Entstehung paläozoischer Erzlagerstätten am Beispiel der Nordtiroler Grauwackenzone. – Geologija, 15:125–140, 5 Abb.
• Schulz, O. (1979): Beiträge zur Metallogenese in den Ostalpen. – Verh. Geol. B.-A., 1979(2):237–264.
• Schulz, O. (1981): Die Pb-Zn-Erzlagerstätte Lafatsch-Vomperloch (Karwendelgebirge, Tirol). – Veröff. Tiroler Landes-Mus. Ferdinandeum, 61:55–103, Refs: 84; illus. incl. 148 anal., 4 tables, 24 plates, sect., sketch map.
• Schulz, O. (1983): 30 Jahre Pb-Zn-Forschung in den triadischen Karbonatgesteinen der Ostalpen. – Sitzungsber. Akad. Wiss. Wien, 192:239–266.
• Schulz, O. & Lukas, W. (1970): Eine Uranerzlagerstätte in permotriadischen Sedimenten Tirols. – Tschermaks Min. Petr. Mitt., 14(3):213–231, 7 Abb.
• Schumann, R., Robertson, A., Gerson, A., Fan, R., Kawashima, N., Li, J. & Smart, R. (2015): Iron Sulfides Ain’t Iron Sulfides – A Comparison of Acidity Generated During Oxidation of Pyrite and Pyrrhotite in Waste Rock and Tailing Materials. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Schumann, S. (2002): Fast estimation of pesticide risk potential on groundwater through the use of a dye tracing technique. – Landschaftsökologie und Umweltforschung, 38:178–189, 7 Abb., 1 Tab.
• Schumm, S. A. (1972): Fluvial Paleochannels. – In: Rigby, J. K. & Hamblin, W. K. (eds): Recognition of Ancient Sedimentary Environments Special Publication No. 16. – p. 98–107, Tulsa (Society of Economic Paleontologists and Mineralogists); doi:10.2110/pec.72.02.0098.
• Schuppan, W., Hiller, A. & Krejny, I. (2012): Die Komplexlagerstätten Tellerhäuser und Hämmerlein – Uranbergbau und Zinnerkundung in der Grube Pöhla der SDAG Wismut: Bergbau in Sachsen 17, 1. edn. – Freiberg (Sächsisches Landesamt für Umwelt, Landwirtschaft und Geologie (LfULG)).
• Schüring, J., Schulz, H. D., Fischer, W. R., Böttcher, J. & Duijnisveld, W. H. M. (2000): Redox: Fundamentals, Processes and Applications. – 251 p., 110 Abb., 21 Tab.; Berlin Heidelberg (Springer); doi:10.1007/978-3-662-04080-5.
• Schürr, D. (2022): Zur rätischen Inschrift des Schildchens vom Fernpass. – Beitr. Namenforsch., 57(4):431–436.
• Schuster, H. & Hanneberg, A. (2011): Auf der Suche nach dem Schatz der Alten – Die Wiedereröffnung der Alten Zeche und ihre letzte Betriebsperiode. –:193–218, 10 Abb., 7 Tab.
• Schuster, H., Poeverlein, R., Hanneberg, A., Salomon, J., Hochleitner, R. & Grundmann, G. (2005): Gediegen Silber aus Schwaz: Die Alte Zeche mit der Bertagrube und ihre Mineralien. – Lapis, 30(2):20–30, 21 Abb., 1 Tab.
• Schuster, J. K., Gioia, R., Breivik, K., Steinnes, E., Scheringer, M. & Jones, K. C. (2010): Trends in European background air reflect reductions in primary emissions of PCBs and PBDEs. – Environ. Sci. Technol., 44(17):6760–6, doi:10.1021/es101009x.
• Schuster, R., Bertle, R. & Frank, W. (2001): Indications for a Permo-Triassic metamorphic imprint in the Austroalpine Silvretta Nappe (Eastern Alps). – Geol. Paläont. Mitt. Innsbruck, 25:195–196.
• Schütz, H. & Konietzky, H. (2016): Evaluation of Flooding Induced Seismicity from the Mining Area Schlema/Alberoda (Germany). – Rock Mechanics and Rock Engineering, 49(10):4125–4135, doi:10.1007/s00603-016-1032-y.
• Schwaderer, G. (2003): Proposal for an Effective Protection Concept for the Troad – A Strategy for the Preservation of an Important Ecological Building Block in the International System of Bird Migration. – In: Pernicka, E. & Uerpmann, H. P. (eds): Troia and the Troad – Scientific Approaches. – p. 285–291, Heidelberg (Springer).
• Schwager, A. (1893): Hydrochemische Untersuchungen im Bereich des unteren bayerischen Donaugebietes. – Geogn. Jh., 6:67–105, 6 Tab.
• Schwager, A. (1897): Hydrochemische Untersuchungen oberbayerischer Seen. – Geogn. Jh., 10:50–80, 1 Tab.
• Schwager, A. (1906): Geologisches Gutachten zur Wasserversorgung der Stadt Nürnberg aus dem Quellgebiet bei Ranna. – Geogn. Jh., 19:191–202.
• Schwager, F. (1908): Hydrogeologische Beobachtungen zur Feststellung des Quellbereichs der Wasserversorgung für die Stadt Lichtenfels – Eine gutachterliche Äußerung, namentlich im Hinblick auf eine eventuell durch den Bergbau den Quellen drohende Schädigung. – Geogn. Jh., 21:213–217, 1 Kart.
• Schwank, S. (2016): Cut-off Wall Technologies in Mining. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 468–477, Freiberg (TU Bergakademie Freiberg).
• Schwartz, D. & Lanfranchi, R. (1993): Les cadres paléoenvironnementaux de l’évolution humaine en Afrique centrale atlantique –Anthropologie, 97(1):17–49.
• Schwartz, M. O. & Plöthner, D. (1999): From Mine Water to Drinking Water: Heavy-Metal Removal by Carbonate Precipitation in the Grootfontein-Omatako Canal, Namibia. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 487–493, 6 Abb., 2 Tab.; Sevilla (International Mine Water Association).
• Schwartz, M. O. & Plöthner, D. (2000): Removal of heavy metals from mine water by carbonate precipitation in the Grootfontein-Omatako canal, Namibia. – Environ. Geol., 39(10):1117–1126, 6 Abb., 4 Tab.
• Schwarz (1975): Hasenclever, Friedrich Wilhelm: Deutsche Apotheker-Biographie I. – 251–252 p., Stuttgart (Wissenschaftl. Verl. Ges.).
• Schwarz, A. & Pérez, N. (2015): Sulfidogenic Diffusive Exchange System for the Treatment of Acid Mine Drainage. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–8 [electronic document], Santiago/Chile (Gecamin).
• Schwarz, C. (2016): The Effectivity of Field Research Methods: Microbiological Monitoring of Acid Mine Drainage in Gauteng and Mpumalanga, South Africa. –, Technische Hochschule Nürnberg, 37 Abb., 20 Tab.; Nürnberg.
• Schwarz, L., Reichl, I., Kirschner, H. & Robl, K. (2006): Risks and hazards caused by groundwater during tunnelling: geotechnical solutions used as demonstrated by recent examples from Tyrol, Austria. – Environmental Geology, 49(6):858–864, 6 Abb.; doi:10.1007/s00254-006-0181-9.
• Schwarz, M., Friedmann, L., Schmederer, J. & Zahn, M. T. (2002): Hinweise für die Durchführung und die Begutachtung von Markierungsversuchen in Gewässern [Instructions for conducting and evaluating aquatic tracer tests] – Merkblatt Nr. 3.1/1 vom 6.6.2002. – 16 p., 2 Tab., 3 Anl.; München (Bayerisches Landesamt für Wasserwirtschaft).
• Schwarz, P. (1992): Das Molybdänbergwerk Höllental 1907 – 1925 – Ringen um einen seltenen Rohstoff: Abhandlungen und Berichte N.F. 9. – 238 p., 104 Abb., 12 Tab.; München (Oldenbourg).
• Schwarz, R., Gerth, A., Morgenstern, S. & Hebner, A. (2009): Strategies for Managing Environmental Problems and Water Treatment in Mining. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 557–566, 7 Abb.; Pretoria (Document Transformation Technologies).
• Schwarz, R., Johann, J. & Zörner, A. (1951): Die Bestimmung von Eisensiliciden, Siliciumcarbid und Siliciumdioxyd nebeneinander. – Z. Anal. Chem., 135:161–179, 1 Abb., 16 Tab.
• Schwarz, R., Pusch, E., Gerth, A. & Krüger, K. (2010): Management von Bergbauwässern in Chile und Südafrika – Diskussion von Fallbeispielen. – Wiss. Mitt. Inst. Geol., 42:107–114.
• Schwarzbauer, J. & Denneborg, M. (2018): Risikoanalyse PCB und weitere organische (sic!) Stoffe – Gutachten zur Prüfung möglicher Umweltauswirkungen des Einsatzes von Abfall- und Reststoffen zur Bruch-Hohlraumverfüllung in Steinkohlenbergwerken in Nordrhein-Westfalen Teil 2 – (Report Nr. Detailbericht 6). – 65 p., Aachen (Ministerium für Klimaschutz, Umwelt, Landwirtschaft, Natur- und Verbraucherschutz des Landes Nordrhein-Westfalen & Ministerium für Wirtschaft, Energie, Industrie, Mittelstand und Handwerk des Landes Nordrhein-Westfalen).
• Schwarze-Rodrian, M. (2016): Regionalplanung Ruhr – Strategien zur Folgenutzung. – Veröff. Dt. Bergbau-Mus. Bochum, 217:74–77.
• Schweinehage, R. (2000): Metamorphite der Silvrettadecke/Ostalpen: Thermobarometrische und geochemische Untersuchungen zur präalpidischen Entwicklung. – 347 p., 202 Abb., 61 Tab., 4 Anh.; Stuttgart (Unveröff. Diss. Universität Stuttgart).
• Schweizer, V. (2012): Wörterbuch der Geologie – Dictionary of Geology. – 669 p., Heidelberg (Springer Spektrum); doi:10.1007/978-3-8274-2262-0.
• Schweizerische Geotechnische Kommission SGTK (1997): Die mineralischen Rohstoffe der Schweiz. – 522 p., Zürich (Schweizerische Geotechnische Kommission).
• Schwertmann, U. (1985): The Effect of Pedogenic Environments on Iron Oxide Minerals: Advances in Soil Science 1. – 171–200 p., 14 Abb., 3 Tab.; Heidelberg (Springer); doi:10.1007/978-1-4612-5046-3_5.
• Schwertmann, U., Bigham, J. M. & Murad, E. (1995): The first occurrence of schwertmannite in a natural stream environment. – Eur. J. Mineral., 7(3):547–552, 6 Abb., 1 Tab.; doi:10.1127/ejm/7/3/0547.
• Schwertmann, U. & Cornell, R. M. (2000): Iron Oxides in the Laboratory 2edn. – 188 p., (Wiley-VCH).
• Schwinner, R. (1929): Der Dawennastock bei Bludenz. – Heimat – volkstüml. Beitr. zur Kultur u. Naturkunde Vorarlbergs, 10:77–81, 2 Abb.
• Schymanski, D., Goldbeck, C., Humpf, H. U. & Furst, P. (2018): Analysis of microplastics in water by micro-Raman spectroscopy: Release of plastic particles from different packaging into mineral water. – Water Res., 129:154–162, doi:10.1016/j.watres.2017.11.011.
• Science Applications International Corporation (2001): Performing Quality Flow Measurements at Mine Sites. – (Report Nr. EPA 68-C-98-006). – 78 p., 9 Abb., 8 Tab.; Cincinnati (National Risk Management Research Laboratory).
• Scofield, C. S. & Wilcox, L. V. (1931): Boron in irrigation waters. – U.S.D.A. Tech. Bull., 264:1–65, 5 Abb., 27 Tab.
• Scott, D. T., McKnight, D. M., Voelker, B. M. & Hrncir, D. C. (2002): Redox processes controlling manganese fate and transport in a mountain stream. – Environ. Sci. Technol., 36(3):453–459.
• Scott, P. (1950): Mineral Development in Swaziland. – Econ. Geogr., 26(3):196–213, 13 Abb.; doi:10.2307/141709.
• Scott, P., Taylor, I., Weber, P., Pearce, S., Dobchuk, B. & Kemp, A. (2015): Building Better Waste Landforms for Reactive Waste – A New Level of Waste Assessment and Construction. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Scott, R. (1995): Flooding of Central and East Rand gold mines: An investigation into controls over the inflow rate water quality and the predicted impacts of flooded mines. – Unpubl. Report for Water Research Commission (Report Nr. 486/1/95). – 238 p., Johannesburg (Institute for Groundwater Studies).
• Scott, R. L. & Hays, R. M. (1975): Inactive and abandoned Underground Mines – Water Pollution Prevention and Control: EPA-440/9-75-007. – 338 p., 54 Abb., 14 Tab.; Washington (U.S. Environmental Protection Agency).
• Scott-Fordsmand, J. J., Stevens, D. & McLaughlin, M. (2004): Do Earthworms Mobilize Fixed Zinc from Ingested Soil? – Environ. Sci. Technol., 38(11):3036–3039, doi:10.1021/es030702z.
• Seal II, R. R. & Kirk Nordstrom, D. (2015): Applied Geochemistry Special Issue on Environmental geochemistry of modern mining. – Appl. Geochem., 57:1–2, doi:10.1016/j.apgeochem.2015.04.019.
• Seal, R., Lapakko, K. A., Piatak, N. & Woodruff, L. (2015): Reaction Modeling of Drainage Quality in the Duluth Complex, Northern Minnesota, USA. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Seal, R. F. (1834): The Geognosy of the Island of St. Helena illustrated in a Series of Views, Plans and Sections accompanied with explanatory Remarks and Observations. – 25 p., 8 Abb., 10 Plat.; London (Ackermann).
• Seal, R. R., II (2003): Stable-Isotope Geochemistry of Mine Waters and Related Solids. – In: Jambor, J. L., Blowes, D. W. & Ritchie, A. I. M. (eds): Environmental Aspects of Mine Wastes 31. – p. 303–334, 20 Abb., 1 Tab.; Waterloo, Ontario (Mineralogical Association of Canada).
• Seal, R. R., II, Jones, P. M., Piatak, N. M. & Woodruff, L. G. (2013): Implications of high dissolved organic carbon concentrations on potential copper toxicity in surface waters in the vicinity of Cu-Ni-PGM deposits of the Duluth Complex, northeastern Minnesota. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1117–1117, Golden (International Mine Water Association).
• Seal, R. R. & Piatak, N. M. (2017): Environmental Attributes and Resource Potential of Mill Tailings from Diverse Mineral Deposit Types. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 603–609, Lappeenranta (Lappeenranta University of Technology).
• Seal, R. R. I., Piatak, N. M., Levitan, D. M., Hageman, P. L. & Hammarstrom, J. M. (2009): Comparison of geochemical characteristics of modern-style mine wastes from a variety of mineral deposit types for insights into environmental challenges associated with future mining. Paper presented at the Securing the Future 2009 & 8th ICARD, Skellefteå. – p. 1–10 [electronic document], 3 Abb.
• Sears, D. O. & Funk, C. L. (1991): The Role of Self-Interest in Social and Political Attitudes. – Adv. Exp. Soc. Psychol., 24:1–91, 8 Tab.; doi:10.1016/S0065-2601(08)60327-5.
• Sebastian, U. (2013): Die Geologie des Erzgebirges. – 268 p., Heidelberg (Springer); doi:10.1007/978-3-8274-2977-3.
• Secka, A. K. (2010): Investigation of a potential Mine Water Stratification in the 1B Mine Pool. Chemical Engineering Department. Dalhousie University, Halifax, vi + 15.
• Seed, L. P., Yetman, D. D., Pargaru, Y. & Shelp, G. S. (2006): The DesEL System – Capacitive Deionization for the Removal of Ions from Water. – Proceedings Water Environment Federation, WEFTEC 2006:7172–7180, 5 Abb., 2 Tab.; doi:10.2175/193864706783761671.
• Seedsman, R. (2019): Interpretations of Mine Water Pump-Out Data and Revisions to Caving and Fracturing Models for Longwalls. – Mine Water Environ., 38(3):676–685, doi:10.1007/s10230-019-00627-z.
• Seegal, R. F., Okoniewski, R. J., Brosch, K. O. & Bemis, J. C. (2002): Polychlorinated biphenyls alter extraneuronal but not tissue dopamine concentrations in adult rat striatum: an in vivo microdialysis study. – Environ. Health Perspect., 110(11):1113–1117, doi:10.1289/ehp.021101113.
• Seegmiller, B. L. (1979): Horizontal Drains – Their Use in Open Pit Mine Dewatering: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 258–274 p., 13 Abb.; San Francisco (Freeman).
• Seewoo, S., Van Hille, R. & Lewis, A. (2004): Aspects of gypsum precipitation in scaling waters. – Hydrometallurgy, 75(1-4):135–146, 10 Abb., 5 Tab.; doi:10.1016/j.hydromet.2004.07.003.
• Seglen, P. O. (1997): Why the impact factor of journals should not be used for evaluating research. – Br. Med. J., 314(7079):498–502.
• Segschneider, J. & Sündermann, J. (1998): Simulating large scale transport of suspended matter. – J. Marine Syst., 14(1-2):81–97.
• Sehrig, M. (2008): Bei den Demantoid-Wäschern von Poldnevaja im Ural. – Lapis,(11):32–35, 8 Abb.
• Sehrig, M. (2008): Lipovka German Vein oder Vein for Germans – Eine Reisereportage über eine Exkursion im Geologischen Park von Lipovka im Mittleren Ural. – Lapis,(4):29–34, 11 Abb.
• Sehrig, M. (2012): Krokoit aus dem Ural nicht nur aus Beresovka. – Lapis,(12):30–31.
• Sehrig, M. & Dietel, J. (2011): Silber, Uran, Arsen und Heilquellen – Auf Mineraliensuche in Jáchimov, einem der ältesten Bergwerke der Welt. – Lapis,(7-8):67–71, 12 Abb.
• Seibert, J., van Meerveld, H. J. I., Etter, S., Strobl, B., Assendelft, R. & Hummer, P. (2019): Wasserdaten sammeln mit dem Smartphone – Wie können Menschen messen, was hydrologische Modelle brauchen? – Hydrol. Wasserbewirtsch., 63(2):74–84, 7 Abb., 2 Tab.; doi:10.5675/HyWa_2019.2_1.
• Seidel, F. (1976): Ergebnisbericht Hydrogeologie Nordquerschlag 5. Sohle Fluorschacht (Querschlag zum Brachmannsberg). – 39 p., Halle (VEB Geolgische Forschung und Erkundung).
• Seidel, K. (1953): Pflanzungen zwischen Gewässern und Land. – Mitteilungen Max-Planck Gesellschaft zur Förderung der Wissenschaften, 8:17–21.
• Seidel, K. (1966): Reinigung von Gewässern durch höhere Pflanzen. – Naturwissenschaften, 53(12):289–297, 8 Abb., 9 Tab.; doi:10.1007/BF00712211.
• Seidel, M. (2002): Sorption von Metallen und Halbmetallen im bergbaulich beeinflussten Feuchtgebiet Lengenfeld/Vogtland. – 103 p., 49 Abb., 22 Tab., 23 Anl.; Freiberg (Unveröff. Dipl.-Arb. und Dipl.-Kart. TU Bergakademie Freiberg).
• Seidel, T. & König, C. (2010): Density-dependent calculation of matrix fracture flow. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 661–665, Sydney, NS (Cape Breton University Press).
• Seidel, T., König, T., Hahn, F., Klein, S. & Nehler, M. (2024): WINZER: Multi-scale modelling concept for numerical modelling of seasonal thermal energy storage in groundwater-filled underground coal mines. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 573–576; Morgantown (International Mine Water Association).
• Seidl, K. & Voss, R. (1930): Die Blei-Zinkerzvorkommen des Fernpassgebietes unter Mitberücksichtigung der Nachbargebiete der Nördlichen Kalkalpen von Bludenz bis Kufstein. – 111 p.
• Seifert, A., Brause, H. & Rascher, J. (1993): Geology of the Niederlausitz Lignite District, Germany. – Int. J. Coal Geol., 23(1-4):263–289, doi:10.1016/0166-5162(93)90052-C.
• Seifi, A., Hosseinjanizadeh, M., Ranjbar, H. & Honarmand, M. (2019): Identification of Acid Mine Drainage Potential Using Sentinel 2a Imagery and Field Data. – Mine Water Environ., 38(4):707–717, doi:10.1007/s10230-019-00632-2.
• Seilacher, A., Marshall, C., Skinner, H. C. W. & Tsuihiji, T. (2001): A fresh look at sideritic “coprolites”. – Paleobiology, 27(1):7–13, doi:10.1666/0094-8373(2001)027<0007:AFLASC>2.0.CO;2.
• Seiler, K.-P. (1979): Glazial übertiefte Talabschnitte in den Bayerischen Alpen – Ergebnisse glazialgeologischer, hydrologischer und geophysikalischer Untersuchungen. – Eiszeitalter u. Gegenwart, 29:35–48, 6 Abb., 3 Tab.
• Seiler, K.-P., von Loewenstern, S. & Schneider, S. (2002): Matrix and bypass-flow in quaternary and tertiary sediments of agricultural areas in south Germany. – Geoderma, 105(3):299–306, 4 Abb.; doi:10.1016/S0016-7061(01)00109-4.
• Seipel, K. S., Sheumaker, D. L. & Kirk, L. B. (2017): Kinetic Tests of Non-Amended and Cemented Paste Tailings Weathering in Subaqueous and Subaerial Settings. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 830–835, Lappeenranta (Lappeenranta University of Technology).
• Selent, K. D. & Grupe, A. (2018): Die Probenahme von Wasser – Ein Handbuch für die Praxis. – 488 p., München (Deutscher Industrieverlag).
• Selignow, A.-M. (2006): DTP professionell – Grundlagen, Standards, Perspektiven: WikiPress 9. – 67 Abb.; Berlin (Zenodot).
• Selikoff, I. J. & Greenberg, M. (1991): A Landmark Case in Asbestosis. – JAMA, 265(7):898–901, doi:10.1001/jama.1991.03460070080047.
• Selley, R. C. (2000): Applied Sedimentology, 2nd edn. – 523 p., zahlr. Abb., zahlr. Tab.; San Diego (Academic Press).
• Sellgren, A. (1985): Mine water – a resource for transportation of ores from underground mines. – Proceedings, 2nd International Mine Water Association Congress, 2:1027–1037, 9 Abb.
• Seltenerden Storkwitz A.G. (2013): Seltenerden Storkwitz AG – Gutachten bestätigt Schätzungen der einzigen bekannten Seltenerden-Lagerstätte Mitteleuropa. – Pressemitteilung, 2013–01–31:1–4.
• Selvarajan, R., Sibanda, T. & Tekere, M. (2018): Thermophilic bacterial communities inhabiting the microbial mats of “indifferent” and chalybeate (iron-rich) thermal springs – Diversity and biotechnological analysis. – Microbiologyopen, 7(2):e00560, doi:10.1002/mbo3.560.
• Semedo da Silva Costa, M. C., Furtado Martins, M. S., Santos, E. S. S. & Jorge Barros, R. J. l. M. C. (2008): Treatment of Acid Mine Drainage with Sulphate-reducing Bacteria Using a Twostage Bioremediation Process. – Proceedings, 10th International Mine Water Association Congress:297–300.
• Semmler, W. (1937): Untersuchungen, Wassermessungen und Färbungsversuche zur Ermittelung der Herkunft der Wasserzuflüsse im Felde der Grube Victoria, Püttlingen-Saar. – Der Bergbau, 50(6):87–93, 10 Abb., 2 Tab.
• Semmler, W. (1951): Die chemische Beschaffenheit der Grubenwässer im saar-lothringischen Karbon. Paper presented at the C.R. 3e Congr. Et. Strat. Carbonif., Heerlen. – p. 567–570.
• Semmler, W. (1951): Die Mineralquellen des Saarlandes. – Z. dt. geol. Ges., 103:284–296, doi:10.1127/zdgg/103/1952/284.
• Semmler, W. (1953): Färbeversuche zur Ermittlung hydraulischer Zusammenhänge im Bergbau mit Uranin AP. – Glückauf, 89(9/10):214–223, 8 Abb., 3 Tab.
• Semmler, W. (1954): Die geologisch-hydrologischen Grundlagen der Wasserversorgung des Saarlandes. – Z. dt. geol. Ges., 106:131–168, 35 Abb.
• Semmler, W. (1955): Die Grubenwasserzuflüsse im Ruhrbergbau und ihre Abhängigkeit von den Niederschlägen. – Bergbau, 6(8):205–214, 10 Abb.
• Semmler, W. (1955): Hundert Jahre geologisch-mineralogische Sammlung der Bergschule Essen. – Glückauf, 91:1222–1229, 16 Abb.
• Semmler, W. (1956): Die Grubenwasserzuflüsse im Ruhrbergbau und die mit ihrer Bewältigung verbundenen Kosten. – Bergbau-Rundschau, 8:347–351, 405–412, 4 Abb., 3 Tab.
• Semmler, W. (1956): Färbeversuche mit Uranin AP im Bergbau. – Technische Mitteilungen, 49(10):492–497, 5 Abb., 1 Tab.
• Semmler, W. (1958): Die Halden – ein hydrologisches Problem. – Schlägel und Eisen, 9:694–698, 7 Abb.
• Semmler, W. (1960): Die Herkunft der Grubenwasserzuflüsse im Ruhrgebiet. – Glückauf, 96(8):502–511, 8 Abb., 5 Tab.
• Semmler, W. (1962): Sulfat- und Eisengehalte im Grubenwasser der Karbonscholle im Westfeld des Schafberges bei Ibbenbüren. – Forsch.-Ber. L. Nordrhein-Westfalen, 999:17–21.
• Semmler, W. (1964): Hydrogeologie in Bergbaugebieten [Hydrogeology in mining areas]. – Z. dt. geol. Ges., 116(1):38–54, 11 Abb.; doi:10.1127/zdgg/116/1964/38.
• Semmler, W. (s.a.): Walter und seine Geschichte – Kindheit und Jugend, Ausbildungszeit. – 195 p., 11 Abb.; Essen (Selbstverlag).
• Semmler, W. & Schmidt, R. (1958): Die Anwendung des Farbstoffs Uranin AP zur Nachweisung hydraulischer Zusammenhänge unter und über Tage. – Bergfreiheit, 23:81–90, 9 Abb., 6 Tab.
• Semoto, Y., Hamai, T., Masaki, Y., Ikeda, M., Okumura, M., Miyata, N., Yasutaka, T. & Katayama, T. (2025): Performance of pilot-scale passive treatment tests of a contact oxidation method utilizing manganese-oxidizing bacteria for manganese-containing mine water. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 339–344; Braga (International Mine Water Association).
• Semoto, Y., Horiuchi, K., Hamai, T., Ikegami, N., Masaki, Y., Takamoto, K., Takaya, Y. & Tokoro, C. (2023): Multi-Step Passive Treatment Using Limestone and Concrete Waste Material for Zn and Cd Removal. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 464–470; (International Mine Water Association).
• Sen Gupta, R., Sarkar, A. & Kureishey, T. W. (1996): PCBs and organochlorine pesticides in krill, birds and water from Antartica. – Deep Sea Res. Part II, 43(1):119–126, doi:10.1016/0967-0645(95)00086-0.
• Sena, C. & Molinero, J. (2008): Water Resources and Hydrogeological Modelling as a Tool for the Feasibility Assessment of the Closure Plan of an Open Pit (La Respina Mine, Spain). – Proceedings, 10th International Mine Water Association Congress:175–178.
• Sena, C. & Molinero, J. (2009): Water Resources Assessment and Hydrogeological Modelling as a Tool for the Feasibility Study of a Closure Plan for an Open Pit Mine (La Respina Mine, Spain). – Mine Water Environ., 28(2):94–101, 8 Abb., 2 Tab.; doi:10.1007/s10230-009-0067-7.
• Senarclens-Grancy, W. (1956): Zum Spätglazial der mittleren Ferwall-Gruppe – Rezent-frührezente und jüngere spätglaziale Stadien. – Carinthia II, Sonderheft, 20:149–157, 1 Abb., 1 Kart.
• Senarclens-Grancy, W. v. (1938): Stadiale Moränen in der Miemingerkette und im Wetterstein. – Jb. Geol. B.-A., 88(1-2):1–12, 2 Ktn.
• Şencan, A. & Efe, R. (2014): Geomorphological Evolution and Sedimentation Characteristics of Biga Plain (NW Turkey). – Procedia - Social and Behavioral Sciences, 120:423–432, doi:10.1016/j.sbspro.2014.02.120.
• Şener, S., Demirer, T. & Kaleli, Ş. (2002): A Research on Irrigation Water Quality of Çanakkale, Ezine and Lapseki Provinces. Paper presented at the International Conference on Sustainable Land Use and Management – Sharing Experiences for Suistanable Use of Natural Resources, Çanakkale, 10–13 June 2002. – p. 1–7, 2 Tab.; Dışkapı (Tübitak).
• Senes Consultants Limited (1994): Acid Mine Drainage – Status of Chemical Treatment and Sludge Management Practices: MEND Report 3.32.1. – 179 p., Richmond Hill (The Mine Environment Neutral Drainage [MEND] Program).
• Senger, J. v. (1806): Beyträge zur Geschichte des Bergbaues in Tirol. – Der Sammler für Geschichte und Statistik von Tyrol, 1:97–150, 4 Tab.
• Senger, J. v. (1809): Von dem ehemaligen Reichthum und Ansehen des tirolischen Bergbaues. – Sammler, 5:266–275.
• Senger, W. E. v. (1821): Versuch einer Oryctographie der gefürsteten Grafschaft Tiro. – 95 p., Innsbruck (Wagner).
• Sengör, A. M. C. & Yılmaz, Y. (1981): Tethyan Evolution of Turkey – A Plate Tectonic Approach. – Tectonophysics, 75:181–241, 7 Abb.
• Sengupta, M. (2021): Environmental Impacts of Mining – Monitoring, Restoration, and Control, 2nd edn. – 351 p., Boca Raton (CRC Press).
• Senkhane, M. (2017): Formalise the zama-zama? – Inside Min., 10(8):17–17.
• Senko, J. M., Bertel, D., Quick, T. J. & Burgos, W. D. (2011): The Influence of Phototrophic Biomass on Fe and S Redox Cycling in an Acid Mine Drainage-Impacted System. – Mine Water Environ., 30(1):38–46, 6 Abb., 2 Tab.; doi:10.1007/s10230-010-0123-3.
• Sennerfors, B. & Wallman, P. (2016): Decision Making For Sustainable Tailings and Water Management – A Dynamic Modelling Approach Management – A Dynamic Modelling Approach. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1217–1223, Freiberg (TU Bergakademie Freiberg).
• Seok, E. & Gale, J. (2010): Scaling-up Fracture Pore Space Permeability – Approach to Mine Water Inflow Prediction. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 665–669, Sydney, NS (Cape Breton University Press).
• Sephton, M. & Webb, J. (2016): Preliminary results from experiments with Cement slurries to control Acid Mine Drainage in Waste Rocks from Brukunga Mine in South Australia. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 725–731, Freiberg (TU Bergakademie Freiberg).
• Sephton, M. G. & Webb, J. A. (2017): Application of Portland cement to control acid mine drainage generation from waste rocks. – Appl. Geochem., 81:143–154, doi:10.1016/j.apgeochem.2017.03.017.
• Sephton, M. G., Webb, J. A. & McKnight, S. (2019): Applications of Portland cement blended with fly ash and acid mine drainage treatment sludge to control acid mine drainage generation from waste rocks. – Appl. Geochem., 103:1–14, doi:10.1016/j.apgeochem.2019.02.005.
• Seppälä, J., Nikupeteri, L. & Hiljanen, R. (2017): Online Water Flow, Level And Water Quality Monitoring Concept For Mines. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 22–27, Lappeenranta (Lappeenranta University of Technology).
• Šerbula, S., Stanković, V., Živković, D., Kamberović, Ž., Gorgievski, M. & Kalinović, T. (2016): Characteristics of Wastewater Streams Within the Bor Copper Mine and Their Influence on Pollution of the Timok River, Serbia. – Mine Water Environ., 35(4):480–485, doi:10.1007/s10230-016-0392-6.
• Serjani, A., Onuzi, K., Dafa, F., Papuciu, A. & Bedini, E. (2002): Gamma-natural radiation field in Mesozoic rocks and in Uranium-bearing Phosphate Mineralization of the Ionian zone, Albania. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 983–988, 2 Abb.; Heidelberg (Springer).
• Serlo, W. (1929): Bergmannsfamilien. XIV. – Berg- u. Hüttenm. Z.,(65):24.
• Serrano, L. (2007): Synthetic biology: promises and challenges. – Mol. Syst. Biol., 3(158):1–5, doi:10.1038/msb4100202.
• Serrano Pillet, J. R. (1985): Captacion y descontaminacion de las aguas pluviales en una explotacion a cielo abierto de minerales de uranio. – Proceedings, 2nd International Mine Water Association Congress, 1:789–801, 2 Abb., 4 Tab.
• Sersch, W. & Uhl, O. (2006): Vorbereitende Maßnahmen zur Flutung der Grubenbaue im Rahmen der Stilllegung des Standorts Warndt/Luisenthal. – Glückauf, 142(6):254–261.
• Seward, P. (2010): Challenges Facing Environmentally Sustainable Ground Water Use in South Africa. – Ground Water, 48(2):239–245, 4 Abb., 2 Tab.; doi:10.1111/j.1745-6584.2008.00518.x.
• Seweryn, L., Wojtkowiak, B. & Górski, G. (2000): The work of the well barrier around Debina salt diapir for the protection of the water environment in the area of Belchatów lignite mine, effects and methodology of the apprisal of its effectiveness. – Proceedings, 7th International Mine Water Association Congress:157–167, 4 Abb., 1 Tab.
• Seweyn, L. (1982): Large Open-Pit Drainage System and its Effect on Environmen. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, C:115–128, 4 Abb.
• Sexsmith, K., MacGregor, D. & Barnes, A. (2015): Comparison of Actual and Calculated Lag Times in Humidity Cell Tests. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Seyssiecq, I., Ferrasse, J.-H. & Roche, N. (2003): State-of-the-art: rheological characterisation of wastewater treatment sludge. – Biochem. Eng. J., 16:41–56, 4 Abb., 6 Tab.; doi:10.1016/S1369-703X(03)00021-4.
• Shabalala, A. N. (2013): Assessment of locally available reactive materials for use in permeable reactive barriers (PRBs) in remediating acid mine drainage. – Water SA, 39(2):251–256, 7 Abb., 4 Tab.; doi:10.4314/wsa.v39i2.8.
• Shabalala, A. N. (2020): Efficacies of Pervious Concrete and Zero-valent iron as Reactive Media for Treating Acid Mine Drainage. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 83–87; (International Mine Water Association).
• Shabalala, A. N. (2022): Comparative Study Of Leaching of Metals From Pervious Concrete Incorporating Coal Fly Ash And Ground-granulated Blast-furnace Slag. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 459–465; (International Mine Water Association).
• Shabalala, A. N. & Ekolu, S. O. (2019): Assessment of the Suitability of Mine Water Treated with Pervious Concrete for Irrigation Use. – Mine Water Environ., 38(4):798–807, doi:10.1007/s10230-019-00633-1.
• Shabalala, A. N., Ngomane, M. P. & Khanyile, N. (2025): The evaluation of a pilot pervious concrete treatment system for acid mine drainage treatment. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 604–609; Braga (International Mine Water Association).
• Shaban, Y. A., Sayed, M. A. E., Maradny, A. A. E., Farawati, R. K. A., Zobidi, M. I. A. & Khan, S. U. M. (2016): Laboratory and Pilot-Plant Scale Photocatalytic Degradation of Polychlorinated Biphenyls in Seawater Using CM-n-TiO2 Nanoparticles. – Int. J. Photoenergy:Article ID 8471960, doi:10.1155/2016/8471960.
• Shackleton, N. J. (1987): Oxygen isotopes, ice volume and sea level. – Quat. Sci. Rev., 6:183–190, doi:10.1016/0277-3791(87)90003-5.
• Shadish, W. R., Brasil, I. C., Illingworth, D. A., White, K. D., Galindo, R., Nagler, E. D. & Rindskopf, D. M. (2009): Using UnGraph to extract data from image files: verification of reliability and validity. – Behav. Res. Methods, 41(1):177–83, doi:10.3758/BRM.41.1.177.
• Shadrunova, I. V. & Orekhova, N. N. (2015): A Process for Advanced Recycling of Water Originating from Mining Operations, with Metal Recovery. – Mine Water Environ., 34(4):478–484, doi:10.1007/s10230-015-0338-4.
• Shafaei, F., Ardejani, F. D., Bahroudi, A., Yavarzade, M. & Amini, A. (2021): Electrokinetic Studies of Mine Tailings Considering Dewatering and Mass Transport at the Miduk Copper Mine, SE Iran. – Mine Water Environ., 40(4):847–863, doi:10.1007/s10230-021-00806-x.
• Shafaei, F., Ramazi, H., Jodeiri Shokri, B. & Doulati Ardejani, F. (2016): Detecting the Source of Contaminant Zones Down-Gradient of the Alborz Sharghi Coal Washing Plant Using Geo-electrical Methods, Northeastern Iran. – Mine Water Environ., 35(3):381–388, doi:10.1007/s10230-015-0371-3.
• Shafaei, S. Z., Karim, A. R., Ardejani, F. D., Zadeh, M. A. & Kor, M. (2008): Environmental Protection by Paste Production and Storage Mechanism for Cyanide Disposal in Gold Processing- A Case Study, Aq Dareh, Takab, Iran. – Proceedings, 10th International Mine Water Association Congress:407–410.
• Shafaei Tonkaboni, S. Z., Jannesar Malakooti, S., Doulati Ardejani, F., Singh, R., Soleimani, E., Noaparast, M. & Naseh, R. (2011): Pyrite oxidation in the Sarcheshmeh copper mine tailings dam, Kerman, Iran: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 59–64 p., Aachen (RWTH Aachen University).
• Shahack-Gross, R., Ayalon, A., Goldberg, P., Goren, Y., Ofek, B., Rabinovich, R. & Hovers, E. (2008): Formation Processes of Cemented Features in Karstic Cave Sites Revealed Using Stable Oxygen and Carbon Isotopic Analyses: A Case Study at Middle Paleolithic Amud Cave, Israel. – Geoarchaeology, 23(1):43–62, 7 Abb., 2 Tab.; doi:10.1002/gea.20203.
• Shahack-Gross, R., Shemesh, A., Yakir, D. & Weiner, S. (1996): Oxygen isotopic composition of opaline phytoliths: Potential for terrestrial climatic reconstruction. – Geochim. Cosmochim. Acta, 60(20):3949–3953.
• Shahhoseiny, M., Ardejani, F. D., Shafaei, S. Z., Noaparast, M. & Hamidi, D. (2013): Geochemical and Mineralogical Characterization of a Pyritic Waste Pile at the Anjir Tangeh Coal Washing Plant, Zirab, Northern Iran. – Mine Water Environ., 32(2):84–96, 11 Abb., 4 Tab.; doi:10.1007/s10230-013-0219-7.
• Shahhoseiny, M., Doulati Ardejani, F., Shafaei, S. Z., Singh, R. & Jodieri, S. (2011): Geochemical characterization of a pyrite containing coal washing refuse pile produced by the Anjir Tangeh coal washing plant in Zirab, Mazandaran province, Northern Iran: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 463–468 p., Aachen (RWTH Aachen University).
• Shahraki, S. A., Ahmadimoghadam, A., Naseri, F. & Esmailzade, E. (2008): Study of the Possibility of Arsenic Phytoremediation in the Soil of Sarcheshmeh Copper Complex by Native Plants. – Proceedings, 10th International Mine Water Association Congress:333–336.
• Shahraki, S. A., Ahmadimoghadam, A., Naseri, F. & Esmailzade, E. (2008): Study the Accumulation of Strontium in Plant Growing around Sarcheshmeh Copper Mine, Iran. – Proceedings, 10th International Mine Water Association Congress:329–332.
• Shakhane, T., Nkhumeleni, M., Ntokoane, M. & Makara, M. (2022): Evaluating Seepage Through a Homogenous Embankment: Part of Monitoring a Tailings Storage Facility. – Mine Water Environ., 41(1):103–118, doi:10.1007/s10230-021-00824-9.
• Shan, J. & Cheng, L. (2014): Discussion of Development Characteristics and Causes of Karstic Collapse Columns at Liuqiao No.1 Coal Mine. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 562–568, Xuzhou (International Mine Water Association).
• Shang, X., Dong, G., Zhang, H., Zhang, L., Yu, X., Li, J., Wang, X., Yue, B., Zhao, Y. & Wu, Y. (2016): Polybrominated diphenyl ethers (PBDEs) and indicator polychlorinated biphenyls (PCBs) in various marine fish from Zhoushan fishery, China. – Food Control, 67:240–246, doi:10.1016/j.foodcont.2016.03.008.
• Shanks, W. C., III & Lichte, F. E. (1996): Trace element and stable isotope geochemistry of environmental minerals and acid rock drainage; Patagonia Mountains, Arizona. – Abstracts with Programs – Geological Society of America, 28(7):529.
• Shannon, M. A., Bohn, P. W., Elimelech, M., Georgiadis, J. G., Mariñas, B. J. & Mayes, A. M. (2008): Science and technology for water purification in the coming decades. – Nature, 452:301–310, doi:10.1038/nature06599.
• Shao, A., Wang, S., Yang, H. & Liu, Y. (2014): Numerical Simulation and Inflow Prediction by the Outflow Test of Coal Mine. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 31–37, Xuzhou (International Mine Water Association).
• Shao, D., Hu, J., Jiang, Z. & Wang, X. (2011): Removal of 4,4′-dichlorinated biphenyl from aqueous solution using methyl methacrylate grafted multiwalled carbon nanotubes. – Chemosphere, 82:751–758, doi:10.1016/j.chemosphere.2010.10.086.
• Shao, D., Sheng, G., Chen, C., Wang, X. & Nagatsu, M. (2010): Removal of polychlorinated biphenyls from aqueous solutions using β-cyclodextrin grafted multiwalled carbon nanotubes. – Chemosphere, 79:679–685, doi:10.1016/j.chemosphere.2010.03.008.
• Shao, G. Y., Li, C. S., Liu, R., Zhang, P., Zuo, L. & Wang, Y. Q. (2023): Silicified Microorganisms and Microorganism-Like Particles in the Groundwater of an Abandoned Coal Mine. – Mine Water Environ., 42(3):489–499, doi:10.1007/s10230-023-00945-3.
• Shapi, M., Jordaan, M. A., Mbambo, A. T., Davies, T. C., Chirenje, E. & Dube, M. (2021): Determination of Potentially Harmful Element (PHE) Distribution in Water Bodies in Krugersdorp, a Mining City in the West Rand, Gauteng Province, South Africa. – Minerals, 11(10):1133.
• Shapi, M., Jordaan, M. A., Nadasan, D. S., Davies, T. C., Chirenje, E., Dube, M. & Lekoa, M. R. (2020): Analysis of the Distribution of Some Potentially Harmful Elements (PHEs) in the Krugersdorp Game Reserve, Gauteng, South Africa. – Minerals, 10(2) 3 Abb., 4 Tab.; doi:10.3390/min10020151.
• Shapiro, A. M. (2002): Cautions and suggestions for geochemical sampling in fractured rock. – Ground Water Monit. Remediat., 22(3):151–164, 7 Abb., 2 Tab.
• Shapiro, A. M. & Andersson, J. (1984): Simulation of Steady-State Flow in Three-Dimensional Fracture Networks Using the Boundary Element Method. – In: Laible, J. P., Brebbia, C. A., Gray, W. & Pinder, G. F. (eds): Finite Elements in Water Resources. – p. 713–721, 2 Abb.; Berlin (Springer); doi:10.1007/978-3-662-11744-6_60.
• Shapiro, J. P., Schroeder, W. J. & Stansly, P. A. (1998): Bioassay and efficacy of Bacillus thuringiensis and an organosilicone surfactant against the citrus leafminer (Lepidoptera : Phyllocnistidae). – Fla. Entomol., 81(2):201–210, 1 Abb., 5 Tab.
• Sharda, V. N., Kurothe, R. S., Sena, D. R., Pande, V. C. & Tiwari, S. P. (2006): Estimation of groundwater recharge from water storage structures in a semi-arid climate of India. – J. Hydrology, 329(1-2):224–243, 13 Abb., 8 Tab.; doi:10.1016/j.jhydrol.2006.02.015.
• Sharma, A. N., Luo, D. & Walter, M. T. (2012): Hydrological tracers using nanobiotechnology: proof of concept. – Environmental science & technology, 46(16):8928–36, doi:10.1021/es301561q.
• Sharma, D., Cole, S. E. & Straskraba, V. (1991): Mathematical Modelling of the Konkola Mine Dewatering. – Proceedings, 4th International Mine Water Association Congress, 2:149–162, 6 Abb.
• Sharma, D. & Marais, P. (1986): A Comprehensive Mathematical Model to Predict Hydrodynamics and Mass Transport at a Complex Mine Tailings Disposal Facility. – Int. J. Mine Water, 5(1):1–19, 5 Abb.
• Sharma, J. K., Gautam, R. K., Nanekar, S. V., Weber, R., Singh, B. K., Singh, S. K. & Juwarkar, A. A. (2018): Advances and perspective in bioremediation of polychlorinated biphenyl-contaminated soils. – Environ. Sci. Pollut. Res. Int., 25(17):16355–16375, doi:10.1007/s11356-017-8995-4.
• Sharma, M. L. & Hughes, M. W. (1985): Groundwater recharge estimation using chloride, deuterium and oxygen-18 profiles in the deep coastal sands of Western Australia. – J. Hydrol., 81(1–2):93–109, 6 Abb., 3 Tab.; doi:10.1016/0022-1694(85)90169-6.
• Sharma, S., Wander, N. J., Ryan, W. G., Lautzenheiser, M., Cutright, T. J. & Senko, J. M. (2021): Potential for Passive Treatment of Coal Mine-derived Acid Mine Drainage in Abandoned Stream Channels. – Mine Water Environ., 40(4):1016–1024, doi:10.1007/s10230-021-00812-z.
• Sharma, S. K. (2001): Adsorptive Iron Removal from Groundwater. – 202 p., Wageningen University; Delft.
• Sharma, S. K. (2002): Regional Heat Flow: An Aid to Geothermal Exploration in Chattisgarh, India. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 961–966, 2 Abb., 2 Tab.; Heidelberg (Springer).
• Sharma, S. K. (2005): Favourable Factors for Uranium Mineralization in District Surguja, India. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 547–552, Heidelberg (Springer).
• Sharp, J. C. (1979): Drainage Used to Control Movements of a Large Rock Slide in Canada: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 423–436 p., 8 Abb.; San Francisco (Freeman).
• Sharp, J. M. (2014): Fractured Rock Hydrogeology: Selected Papers on Hydrogeology. – 386 p., Boca Raton (CRC Press).
• Sharp, K. V. & Adrian, R. J. (2004): Transition from laminar to turbulent flow in liquid filled microtubes. – Exp. Fluids, 36(5):741–747, 6 Abb.; doi:10.1007/s00348-003-0753-3.
• Sharp, Z. (2017): Principles of Stable Isotope Geochemistry doi:10.25844/h9q1-0p82.
• Shaw, E. M., Beven, K. J., Chappell, N. A. & Lamb, R. (2010): Hydrology in Practice, 4 edn. – 543 p., zahlr. Abb., zahlr. Tab.; Milton Park (Spon Press).
• Shaw, J., Taylor, R. B., Patton, E., Potter, D. P., Parkes, G. S. & Hayward, S. (2006): Sensitivity of the Coasts of the Bras D’Or Lakes to Sea-Level Rise. – Geological Survey of Canada Open File Report, 5397:1–99.
• Shaw, S., Dunlap, S. & Maehl, B. (2004): Evaluating the relative Risks of Pit Reclamation Alternatives at the Golden Sunlight Mine (Montana, USA); a Multiple Accounts Analysis. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 77–84, 2 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Shaw, S. & Robertson, A. (2015): A Risk Assessment of ARD Prediction and Control. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Shayegani, M., Afshar, A., Ghorbani, M. & Rahmaniyan, M. (2008): Mild steel carbon dioxide corrosion modelling in aqueous solutions. – Corrosion Engineering, Science and Technology, 43(4):290–296, 4 Abb., 4 Tab.; doi:10.1179/174327807X234679.
• Shayegani, M., Ghorbani, M., Afshar, A. & Rahmaniyan, M. (2009): Modelling of carbon dioxide corrosion of steel with iron carbonate precipitation. – Corrosion Engineering, Science and Technology, 44(2):128–136, 16 Abb.; doi:10.1179/174327808X286338.
• She, J., Holden, A., Adelsbach, T. L., Tanner, M., Schwarzbach, S. E., Yee, J. L. & Hooper, K. (2008): Concentrations and time trends of polybrominated diphenyl ethers (PBDEs) and polychlorinated biphenyls (PCBs) in aquatic bird eggs from San Francisco Bay, CA 2000–2003. – Chemosphere, 73(1, Supplement):S201–S209, doi:10.1016/j.chemosphere.2007.04.092.
• Shea, J. (2008): Innovative Mine Water Management Techniques for Submarine Coal Mines of the Sydney Coalfield, Nova Scotia. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 29:1–20 [CD–ROM], 20 Abb., 3 Tab.
• Shea, J. (2009): Mine Water Management of Flooded Coal Mines in the Sydney Coal Field, Nova Scotia, Canada. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 289–297, 5 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Shea, J. (2010): Innovative Management Techniques to deal with Mine Water Issues in the Sydney Coal Field, Nova Scotia, Canada. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 633–637, Sydney, NS (Cape Breton University Press).
• Shea, T. & de Vries, B. V. (2008): Structural analysis and analogue modeling of the kinematics and dynamics of rockslide avalanches. – Geosphere, 4(4):657–686, doi:10.1130/Ges00131.1.
• Sheibach, R. B., Williams, R. E. & Genes, B. R. (1982): Controlling Acid Mine Drainage from the Picher Mining District, Oklahoma, United States. – Int. J. Mine Water, 1(1):45–52, 3 Abb.
• Sheldon, C. G., Strongman, J. E., Weber-Fahr, M., Mekharat, N. & Tall, M. (2002): Mining and Development – It’s Not Over When It’s Over: Mine Closure Around the World: Global Mining. – 28 p., 1 Tab., 3 Anh.; Washington (The World Bank Group’s Mining Department).
• Shelef, E., Haviv, I. & Goren, L. (2018): A Potential Link Between Waterfall Recession Rate and Bedrock Channel Concavity. – J. Geophys. Res. Earth Surf., 123(5):905–923, doi:10.1002/2016jf004138.
• Shelley, D. & Craig, W. M. (2010): Attributions and Coping Styles in Reducing Victimization. – Canadian Journal of School Psychology, 25(1):84–100, 1 Abb., 6 Tab.; doi:10.1177/0829573509357067.
• Shelp, G., Chesworth, W., Spiers, G. & Liu, L. (1994): A Demonstration of the Feasibility of Treating Acid Mine Drainage by an in situ Electrochemical Method. – Proceedings, Third International Conference on the Abatement of Acidic Drainage:348–355, 5 Abb., 1 Tab.
• Shelp, G., Chesworth, W., Spiers, G. & Liu, L. (1995): Cathodic Protection of a weathering Ore Body. Paper presented at the Sudbury ’95 – Mining and the Environment, Sudbury. – p. 1035–1042, 5 Abb.; Ottawa (Canmet).
• Shelp, G. S., Chesworth, W. & Spiers, G. (1996): The amelioration of acid mine drainage by an in situ electrochemical method; part 2: employing aluminium and zinc as sacrificial anodes. – Appl. Geochem., 11(3):425–432, 15 Abb., 1 Tab.
• Shelp, G. S., Chesworth, W. & Spiers, G. (1996): The amelioration of acid mine drainage by an in situ electrochemical method—I. Employing scrap iron as the sacrificial anode. – Appl. Geochem., 10(6):705–713, doi:10.1016/0883-2927(95)00055-0.
• Shelp, M. L., Upton, B., Zhan, G. & Sibilski, U. (2009): Mine Water Management in Modern African Mining Operations. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 262–266, 6 Abb; Pretoria (Document Transformation Technologies).
• Shelp, M. L., Zhan, G. & Sibilski, U. (2009): Real-time and Stochastic Estimation of Mine Site Water Balance. – 1–10 [electronic document] p., 4 Abb., 2 Fot.; Skellefteå (Proceedings Securing the Future 2009 & 8th ICARD).
• Shelp, M. L., Zhan, G. & Upton, B. (2011): The Applications of Satellite Based Remote Sensing Techniques in the Hydrological Assessment of Mine Water Supply and Management Systems. – Mine Water Environ., 30(4):242–251, 10 Abb.; doi:10.1007/s10230-011-0153-5.
• Shelton, J. L., Engle, M. A., Buccianti, A. & Blondes, M. S. (2018): The isometric log-ratio (ilr)-ion plot – A proposed alternative to the Piper diagram. – J. Geochem. Explor., 190:130–141, 6 Abb., 4 Tab.; doi:10.1016/j.gexplo.2018.03.003.
• Shen, E. (1982): The Comprehensive Development, Utilization and Managmenet of Coal Mine Groundwater in China. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, D:83–88.
• Shen, H., Li, W., Graham, S. E. & Starr, J. M. (2019): The role of soil and house dust physicochemical properties in determining the post ingestion bioaccessibility of sorbed polychlorinated biphenyls. – Chemosphere, 217:1–8, doi:10.1016/j.chemosphere.2018.10.195.
• Shen, J. (1981): Discharge Characteristics of Triangular Thin-Plate Weirs – Studies of Flow to Water over Weirs and Dams. – U.S. Geol. Surv. Water Supply Pap., 1617-B:45, 20 Abb., 3 Tab.
• Shen, Y., Nagaraj, D. R., Farinato, R. & Somasundaran, P. (2016): Study of xanthate decomposition in aqueous solutions. – Miner. Eng., 93:10–15, doi:10.1016/j.mineng.2016.04.004.
• Sheng, Y., Bibby, K., Grettenberger, C., Kaley, B., Macalady, J. L., Wang, G. & Burgos, W. D. (2016): Geochemical and Temporal Influences on the Enrichment of Acidophilic Iron-Oxidizing Bacterial Communities. – Applied and Environmental Microbiology, 82(12):3611–3621, doi:10.1128/aem.00917-16.
• Sheoran, A. S. (2005): Performance of a Natural Wetland Treating Acid Mine Drainage in Arid Conditions. – Mine Water Environ., 24(3):150–154, 2 Abb., 5 Tab.
• Sheoran, A. S. (2006): Performance of Three Aquatic Plant Species in Bench-scale Acid Mine Drainage Wetland Test Cells. – Mine Water Environ., 25(1):23–36, 12 Abb., 4 Tab.
• Sheoran, A. S. & Bhandari, S. (2005): Treatment of Mine Water by a Microbial Mat: Bench-scale Experiments. – Mine Water Environ., 24(1):38–42, 6 Tab.
• Shepherd, N. L., Denholm, C. F., Dunn, M. H., Neely, C. A., Danehy, T. P. & Nairn, R. W. (2020): Biogeochemical Analysis of Spent Media from a 15-Year Old Passive Treatment System Vertical Flow Bioreactor. – Mine Water Environ., 39(1):68–74, doi:10.1007/s10230-020-00652-3.
• Shepherd, N. L. & Nairn, R. W. (2018): The Effects of Castor canadensis (North American Beaver) Colonization on a Mine Drainage Impacted Stream. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 849–855; (Tshwane University of Technology).
• Sheppard, M. I., Stephenson, M., Thomas, D. A., Keith Reid, J. A., Thibault, D. H., Lacroix, M. & Ford, S. (1995): Aquatic-terrestrial partitioning of deep groundwater discharge using measured helium fluxes. – Environ. Sci. Technol., 29(7):1713–1721.
• Sheridan, C., Bonner, R., Bruyns, L., Burgess, J., Drake, D., Harding, K., Janet, J. P., Rumbold, K. & Saber, N. (2015): Conceptual Project on Eliminating Acid Mine Drainage (AMD) by Directed Pumping. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Sheridan, C. M., Akcil, A., Kappelmeyer, U. & Moodley, I. (2018): A Review on the Use of Constructed Wetlands for the Treatment of Acid Mine Drainage. – In: Stefanakis, A. (ed) Constructed Wetlands for Industrial Wastewater Treatment. – p. 249–262, doi:10.1002/9781119268376.ch12.
• Sheridan, G., Harding, K., Koller, E. & De Pretto, A. (2013): A comparison of charcoal- and slag-based constructed wetlands for acid mine drainage remediation. – Water SA, 39(3):369–374, 4 Abb., 1 Tab.; doi:10.4314/wsa.v39i3.4.
• Sheridan, J. P., Hendrix, J. L. & Nelson, J. H. (1988): The Effect of Ore Type, Depth, and Leach Time on Cyanide Species in Column Tests Using NaCN Leach Solution. – Proceedings, 3rd International Mine Water Congress, Melbourne:121–130, 2 Abb., 2 Tab.
• Sherman, B. S., Drury, C., Miller, G., Gallant, J., Douglas, G. B., Trefry, M. G., Rees, G. N., Perryman, S., Iles, M. & Davey, P. (2022): Hydraulic, Chemical, and Vegetation Characteristics of the Corridor Creek Wetland Filter: Implications for Biopolishing Efficiency. – Mine Water Environ., 41(4):1027–1039, doi:10.1007/s10230-022-00901-7.
• Sherman, B. S., Trefry, M. G. & Davey, P. (2009): Hydraulic Characterisation of a Constructed Wetland used for Nitrogen Removal via a Dual-Tracer Test. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 548–556, 6 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Sherman, W. E. B. (2021): Qur’anic imaginations in the making: New religious movements in Mughal-era Islam. – Relig. Compass, 15(1):10, doi:10.1111/rec3.12384.
• Sherwood, J. M. & Younger, P. L. (1994): Modelling Groundwater Rebound after Coalfield Closure: An Example from County Durham, UK. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:769–777, 4 Abb.
• Shevenell, L. (1996): Analysis of well hydrographs in a karst aquifer: estimates of specific yields and continuum transmissivities. – J. Hydrol., 174:331–355, doi:10.1016/0022-1694(95)02761-0.
• Shevenell, L. A., Henry, C. D. & Christensen, L. G. (1997): A ranking scheme developed to assess the relative potential of abandoned mine sites to result in surface water and groundwater degradation. – Open File Report (NBMG – Nevada Bureau of Mines and Geology), OF 97-3:49, 14 Abb., 10 Tab.
• Shi, H., Bencze, K. Z., Stemmler, T. L. & Philpott, C. C. (2008): A Cytosolic Iron Chaperone That Delivers Iron to Ferritin. – Science, 320(5880):1207–1210, doi:10.1126/science.1157643.
• Shi, J., Wang, L., Yang, Y. & Huang, T. (2022): A case study of thermal and chemical stratification in a drinking water reservoir. – Sci. Total Environ., 848:157787, 10 Abb., 1 Tab.; doi:10.1016/j.scitotenv.2022.157787.
• Shi, L., Gao, W., Han, J. & Tan, X. (2017): A Nonlinear Risk Evaluation Method for Water Inrush Through the Seam Floor. – Mine Water Environ., 36(4):597–605, doi:10.1007/s10230-017-0449-1.
• Shi, L., Li, Y., Yang, X. & Han, J. (2024): Water Richness Evaluation of Coal Roof Aquifers Based on the Game Theory Combination Weighting Method and the TOPSIS Model. – Mine Water Environ., 43(4):691–706, doi:10.1007/s10230-024-01018-9.
• Shi, L. & Singh, R. N. (2001): Study of Mine Water Inrush from Floor Strata through Faults. – Mine Water Environ., 20(3):140–147, 8 Abb.; doi:10.1007/s10230-001-8095-y.
• Shi, L., Zkang, X., Miao, C. & Dong, H. (2002): The research and development of the mine water flow monitoring and forecasting system [Abstract]. – Proceedings, Control and Automation:102.
• Shi, W. H., Yang, T. H., Yu, Q. L., Li, Y., Liu, H. L. & Zhao, Y. C. (2017): A Study of Water-Inrush Mechanisms Based on Geo-Mechanical Analysis and an In-situ Groundwater Investigation in the Zhongguan Iron Mine, China. – Mine Water Environ., 36(3):409–417, doi:10.1007/s10230-017-0429-5.
• Shigematsu, T., Omori, T., Aoki, T. & Matsui, M. (1976): Coprecipitation Behavior of Zinc in the Oxygenation Process of Ferrous Iron. – Bulletin of the Institute for Chemical Research, 53(5):435–443, 8 Abb., 3 Tab.
• Shiimi, R. T., Savage, R. J., Pearce, S., Barnes, A., Roberts, M., Schoen, D. & Sapsford, D. (2023): The Development Of A Multi Parameter Respirometric Laboratory Testing Method To Estimate Site-Specific Net Carbon Dioxide Flux From Metalliferous Mine Waste. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 471–476; (International Mine Water Association).
• Shijie, C. (1987): The hydrogeological Division and Classification of Coal Mines in China: Hydrogeology of Coal Basins. – 215–224 p., 1 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Shiller, A. M. (2003): Syringe Filtration Methods for Examining Dissolved and Colloidal Trace Element Distributions in Remote Field Locations. – Environ. Sci. Technol., 37(17):3953–3957, 5 Abb., 1 Tab.; doi:10.1021/es0341182.
• Shilova, A. V., Maksimov, A. Y. & Maksimova, Y. G. (2019): Phylogenetic Diversity Of Sediments, Water And Coastal Surface Technogenic Formations Microbiota Of Soda Sludge Storage (Berezniki, Perm Region, Russia). Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 706–710; Perm, Russia (Perm State University).
• Shiskin, J., Young, A. H. & Musgrave, J. C. (1967): The X-11 Variant of the Census Method II – Seasonal Adjustment Program. – Bureau of the Census – Technical Paper, 15:66.
• Shofner, G. A., Mills, H. H. & Duke, J. E. (2001): A simple Map Index of Karstification and its Relationship to Sinkhole and Cave Distribution in Tennessee. – J. Cave Karst Stud., 63(2):67–75, 5 Abb., 2 Tab.
• Shogo, S., Shota, F. & Tomomi, U. (2015): Study of the Jet-Induced Mixing of Two-Layer Density-Stratified Fluid in a Rectangular Tank. – J. Energy Power Eng., 9(2):117–127, 12 Abb., 1 Tab.; doi:10.17265/1934-8975/2015.02.001.
• Shokri, B. J., Ramazi, H. & Ardejani, F. D. (2014): Prediction of Pyrite Oxidation in a Coal Washing Waste Pile Applying Artificial Neural Networks (ANNs) and Adaptive Neuro-fuzzy Inference Systems (ANFIS). – Mine Water Environ., 33(2):146–156, 6 Abb., 2 Tab.; doi:10.1007/s10230-013-0247-3.
• Sholkovitz, E. R. (1978): The Flocculation of Dissolved Fe, Mn, Al, Cu, Ni, Co and Cd during Estuarine Mixing. – Earth Planet. Sci. Lett., 41:77–86, 8 Abb., 2 Tab.
• Sholl, S., Wheston, S. & Beale, G. (2021): Recharge-driven Underground Dewatering And Post-closure Groundwater Recovery. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 519–524; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Shone, R. D. C. (1987): The freeze desalination of mine waters. – J. S. Afr. Inst. Min. Metall., 87(4):107–112, 5 Abb., 1 Tab.
• Shook, G. M. (2000): Optimizing Injection using Tracers: Federal Geothermal Research Program Update – Fiscal Year 1999 DOE/ID-10743. – 3_73–3_76 p., Washington (U.S. Dep. Energy).
• Shook, G. M. (2003): A Simple, Fast Method of Estimating Fractured Reservoir Geometry from Tracer Tests. – Transactions - Geothermal Resources Council, 27:407–411 5 Abb., 3 Tab.
• Shook, G. M. (2005): A Systematic Method – An Alternative Tracer Test Analysis Using Beowawe Data. – Geothermal Resources Council (GRC) Bulletin, 34(1):31–35, 3 Abb., 2 Tab.
• Shook, G. M. (2005): A Systematic Method for Tracer Test Analysis: An Example using Beowawe Tracer Data. Paper presented at the 13th Workshop on Geothermal Reservoir Engineering, Stanford. – p. 1–6; Stanford.
• Shook, G. M., Ansley, S. L. & Wylie, A. (2004): Tracers and Tracer Testing: Design, Implementation, and Interpretation Methods: INEEL/EXT-03-01466. – 30 p., Idaho Falls (Idaho National Engineering and Environmental Laboratory).
• Shook, G. M. & Forsmann, J. H. (2005): Tracer Interpretation Using Temporal Moments on a Spreadsheet – (Report Nr. INL/EXT-05-00400). – 16 p., 7 Abb.; Idaho Falls (Idaho National Laboratory).
• Shotyk, W. & Krachler, M. (2007): Contamination of Bottled Waters with Antimony Leaching from Polyethylene Terephthalate (PET) Increases upon Storage. – Environ. Sci. Technol., 41(5):1560–1563, 7 Abb.; doi:10.1021/es061511.
• Shotyk, W., Krachler, M. & Chen, B. (2006): Contamination of Canadian and European bottled waters with antimony from PET containers. – J. Environ. Monit., 8(2):288–292, 2 Abb., 1 Tab.; doi:10.1039/B517844B.
• Showleh, T. (2007): Water management in the Bronze Age: Greece and Anatolia. – Water Sci. Tech. Water Supply, 7(1):77–84, doi:10.2166/ws.2007.009.
• Shrivastava, A. & Gupta, V. (2011): Methods for the determination of limit of detection and limit of quantitation of the analytical methods. – Chronicles of Young Scientists, 2(1):21, doi:10.4103/2229-5186.79345.
• Shubin, I., Imrie, S. & Rex, T. (2023): Assessment of Hydrogeological Hazards in Operational Mines using Objective-Focussed Modelling and Hazard Mapping Tools. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 477–483; (International Mine Water Association).
• Shuler, P. J. & Tang, Y. (2002): Atmospheric CO₂ Monitoring Systems – A Critical Review of Available Techniques and Technology Gaps (Report for SMV Group; CO₂ Capture Project). – 17 p., 5 Abb., 1 Tab., 2 Anh.; Rowland Heights (Tang Associates).
• Shultz, B., Beam, R., Baker, D., Rummel, R. & Fisanick III, S. (2024): The Barnes & Tucker #20 Mine Drainage Treatment Facility: optimization case study in consideration of variable flow and water chemistry. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 577–581; Morgantown (International Mine Water Association).
• Shum, M. & Lavkulich, L. (1999): Speciation and solubility relationships of Al, Cu and Fe in solutions associated with sulfuric acid leached mine waste rock. – Environ. Geol., 38(1):59–68, 6 Abb., 4 Tab.
• Shumate, K. S., Smith, E. E. & Brant, R. A. (1969): A Model for Pyritic Systems. – Am. Chem. Soc., Div. Fuel Chem., Prepr., 13(2):50–58, 2 Abb.
• Shumway, R. H. & Stoffer, D. S. (2017): Time Series Analysis and its Applications: With R Examples, 4 edn. – Cham (Springer); doi:10.1007/978-3-319-52452-8.
• Shuqing, L. (1988): Improving Efficiency of Sealing Off Water by Pregrouting. – Proceedings, 3rd International Mine Water Congress, Melbourne:667–676, 4 Abb., 2 Tab.
• Shuxun, H., Ling, W. & Qinshu, C. (1986): Application of Grouting Techique to Restore submerged Shafts in China. – Int. J. Mine Water, 5(2):57–66, 1 Abb., 2 Tab.
• Sibanda, L. K. & Broadhurst, J. (2018): Exploring An Alternative Approach To Mine Waste Management In The South African Gold Sector. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1130–1135; (Tshwane University of Technology).
• Sibanda, T., Selvarajan, R. & Tekere, M. (2015): Urban effluent discharges as causes of public and environmental health concerns in South Africa’s aquatic milieu. – Environ. Sci. Pollut. Res., 22(23):18301–18317, doi:10.1007/s11356-015-5416-4.
• Sibbenga, H. (1993): Dewatering Scenario at Nchanga Mine. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 206–219, 5 Abb.; Chililabombwe (Konkola Division).
• Sibbick, S. J. & MacGillivray, R. (2006): Snip Mine: Seven Years After Closure. Paper presented at the Case Studies of Reclamation and Environmental Protection – British Columbia Mine Reclamation Symposium, Smithers. – 5 Abb., 3 Tab.
• Sichardt, W. (1928): Das Fassungsvermögen von Rohrbrunnen und seine Bedeutung für die Grundwasserabsenkung, insbesondere für größere Absenkungstiefen. – 89 p., 40 Abb., 19 Tab.; Berlin (Springer); doi:10.1007/978-3-642-92262-6.
• Siddharth, S., Jamal, A., Dhar, B. B. & Shukla, R. (2002): Acid-Base Accounting: A Geochemical Tool for Management of Acid Drainage in Coal Mines. – Mine Water Environ., 21(3):106–110, 1 Abb., 5 Tab.; doi:10.1007/s102300200030.
• Siddiqui, S. H. & Parizek, R. R. (1972): Application of Nonparametric Statistical Tests in Hydrogeology. – Ground Water, 10(2):26–30, 2 Tab., 1 Anl.; doi:10.1111/j.1745-6584.1972.tb02911.x.
• Siddle, H. J., Jones, D. B. & Warren, C. D. (1986): The use of tracer techniques to assess groundwater flows in site investigations. – Eng. Geol. – Spec. Publ., 2:375–384, 8 Abb., 3 Tab.
• Sidenko, N. V. (2018): Nitrogen Leaching From Explosives Into Mine Water Of An Underground Mine. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 729–732; (Tshwane University of Technology).
• Sidenko, N. V., Mathers, K. H. & McKernan, J. M. (2010): Delineation of metal sources in runoff from East Tailings Management Area (ETMA), Lynn Lake, Manitoba, Canada as a means to optimize remediation efforts. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 595–599, Sydney, NS (Cape Breton University Press).
• Sides, W. L. (1988): Practical Mine Dewatering by Means of Surface Drilled Wells. – Proceedings, 3rd International Mine Water Congress, Melbourne:457–467.
• Sidiropoulos, L. (1980): Blei-Zink-Vererzungen in Breccienzonen der Nordtiroler Kalkalpen (zwischen Telfs-Biberwier-Nassereith und Imst). – 169 p., 49 Abb., 3 Taf., 1 Karte; Innsbruck (Unveröff. Diss.).
• Sidiropoulos, L. (1983): Zn-Pb-Vererzungen in Breccienzonen triadischer Karbonatgesteine der Nordtiroler Kalkalpen (zwischen Telfs, Biberwier, Nassereith und Imst). – Veröff. Tiroler Landes-Mus. Ferdinandeum, 63:115–133, 7 Abb., 3 Taf.
• Sidorchuk, A., Märker, M., Moretti, S. & Rodolfi, G. (2003): Gully erosion modelling and landscape response in the Mbuluzi River catchment of Swaziland. – Catena, 50(2–4):507–525, doi:10.1016/S0341-8162(02)00123-6.
• Siebler, M. (2009): Troia – Mythos und Wirklichkeit. – 199 p., 17 Abb.; Stuttgart (Reclam).
• Siefert, M. & Reichl, C. (2000): Ursachenforschung im Bergbau mit Hilfe eines interaktiven 3D – Bergbaudatenmodells. – 1–11 p., 12 Abb.; Kirchbichl (Proceedings Jahrestagung 2000 der Sicherheitsbeauftragten des Österreichischen Bergbaus).
• Siegel, F. R. (2002): Environmental Geochemistry of Potentially Toxic Metals. – 218 p., 40 Abb., 33 Tab.; Heidelberg (Springer); doi:10.1007/978-3-662-04739-2.
• Siegl, W. (1947): Zur Wulfenitbildung in manchen Blei-Zinklagerstätten. – Berg- u. Hüttenm. Mh., 92(1/3):49–51.
• Siegmann, W. L. & Rubenfeld, L. A. (1975): A nonlinear model for double diffusive convection. – SIAM J. Appl. Math., 29(3):540–557, 5 Abb.
• Sieland, R., Metschies, T. & Jahn, S. (2016): Reactive Transport Modelling of the contaminant release from Uranium Tailings using PhreeqC/Excel-coupling. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1234–1241, Freiberg (TU Bergakademie Freiberg).
• Siemes, H., Zilles, D., Cox, S. F., Merz, P., Schäfer, W., Will, G., Schaeben, H. & Kunze, K. (1993): Preferred Orientation of experimentally deformed Pyrite measured by means of Neutron Diffraction. – Mineral. Mag., 57(1(386)):29–43, 8 Abb., 3 Tab.
• Sienkiewicz, E. & Gasiorowski, M. (2015): Influence of Acid Mine Drainage (AMD) on recent phyto- and zooplankton in “the Anthropogenic Lake District” in south-west Poland. – Geoph. Res. Abstracts, 17.
• Sierig, J. (2003): GIS-Modellierung pedogener CO₂-Vorkommen als Ansatz zur Salzexploration am Beispiel des Mittleren Muschelkalkes. – 113 p., 33 Abb., 9 Tab., 5 Anl.; Tübingen (Diss Universität Tübingen).
• Sierra, C., Saiz, J. R. Á. & Gallego, J. L. R. (2013): Nanofiltration of Acid Mine Drainage in an Abandoned Mercury Mining Area. – Water Air Soil Pollut., 224:Article number 1734, 7 Abb., 5 Tab.; doi:10.1007/s11270-013-1734-7.
• Sierra Florez, D. C. & Gaona, L. S. (2021): Prospective Analysis of Artisanal Mining in the Santa Rita Village: Municipality of Andes, Antioquia. – Mine Water Environ., 40(3):783–792, doi:10.1007/s10230-021-00778-y.
• Sierra, M. M., Giovanela, M., Parlanti, E. & Soriano-Sierra, E. J. (2005): Fluorescence fingerprint of fulvic and humic acids from varied origins as viewed by single-scan and excitation/emission matrix techniques. – Chemosphere, 58(6):715–33, doi:10.1016/j.chemosphere.2004.09.038.
• Sieste, M., Barth, A. & Etzold, S. (2006): Das Informationssystem Einzugsgebietsmanagement: Ein generisches Informationssystem zur Verwaltung komplexer Geodaten mit Funktionen zur wissensbasierten Prognose. – Wiss. Mitt. Inst. Geol., 31:245–251, 3 Abb.
• Sigua, G. C., Holtkamp, M. L. & Coleman, S. W. (2004): Assessing the efficacy of dredged materials from lake Panasoffkee, Florida: Implication to environment and agriculture – Part 1: Soil and environmental quality aspect. – Environ. Sci. Pollut. Res., 11(5):321–326.
• Siivola, J. & Schmid, R. (2007): List of mineral abbreviations. A Systematic Nomenclature for Metamorphic Rocks – Recommendations by the IUGS Subcommission on the Systematics of Metamorphic Rocks (web version 2007). – p., (IUGS Subcommission on the Systematics of Metamorphic Rocks).
• Sikakwe, G. U., Eyong, G. A. & Ojo, S. A. (2024): Geochemical modeling and hydrochemical analysis for water quality determination around mine drainage areas. – Water Environ. Res., 96(1):e10937, doi:10.1002/wer.10937.
• Sikes, E. L., Volkman, J. K., Robertson, L. G. & Pichon, J. J. (1997): Alkenones and alkenes in surface waters and sediments of the Southern Ocean: Implications for paleotemperature estimation in polar regions. – Geochim. Cosmochim. Acta, 61(7):1495–1505.
• Sikora, J. & Szyndler, K. (2005): Debiensko, Poland Desalination Plant Treats Drainage for Zero Liquid Discharge (ZLD): Technical Paper TP1039EN 0601. – 1–5 p., 2 Tab.; Trevose (General Electric Company).
• Sikorski, A., Rosner, P., van Herk, Jan M., Hofmann, T. & Heitfeld, M. (2009): Aachener und Südlimburger NL Steinkohlenrevier – Rahmenbedingungen einer grenzüberschreitenden Abwicklung des Grubenwasseranstiegs unter besonderer Berücksichtigung des historischen Altbergbaus [Aachen and South Limburg (NL) hard coal area – framework for a crossborder management of mine water rising considering the special aspects of surface-near historic mining works]. Paper presented at the 9. Altbergbau-Kolloquium, Leoben. – p. 1–13.
• Sill, C. W. & Peterson, H. E. (1949): Iodometric Semimicrodetermination of Thallium in Ores and Flue Dusts. – Anal. Chem., 21(10):1268–1273, doi:10.1021/ac60034a035.
• Sillanpää, M. & Ncibi, C. (2017): A Sustainable Bioeconomy – The Green Industrial Revolution, Oxford edn. – 343 p., 48 Abb.; Heidelberg (Springer); doi:10.1007/978-3-319-55637-6.
• Sillén, L. G. (1967): Master Variables and Activity Scales. Equilibrium Concepts in Natural Water Systems 67. – p. 45–56, (American Chemical Society); doi:10.1021/ba-1967-0067.ch003.
• Silva, A. M. & Leão, V. A. (2016): The Use of Limestone as a Strategy to Remove Sulphate from Mine Waters with Suphate Concentrations Below the Limit Defined by Gypsum Solubility. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 987–993, Freiberg (TU Bergakademie Freiberg).
• Silva, C. M. & Macedo, E. A. (1998): Diffusion coefficients of ethers in supercritical carbon dioxide. – Ind. Eng. Chem. Res., 37(4):1490–1498, 6 Abb., 3 Tab.; doi:10.1021/ie970266n.
• Silva de Lima, M., Pozzer, L. & Queiroz, S. L. (2023): Use of Interrupted Case Studies to Teach Scientific Communication: Examples from the Effects of Mining on Water Resources in Brazil. – Journal of Chemical Education, 100(2):722–731, doi:10.1021/acs.jchemed.2c01146.
• Silva, E. M., da Costa, M. F. & Barletta, M. (2013): Small-scale water quality monitoring networks. – J. Coastal Res.:1218–1223, doi:10.2112/si65-206.1.
• Silva, J., Mello, J. W. V., Gasparon, M., Abrahão, W. A. P. & Jong, T. (2007): Arsenate Adsorption onto Aluminium and Iron (Hydr)Oxides as an Alternative for Water Treatment: Water in Mining Environments. – 459–462 p., Cagliari (Mako Edizioni).
• Silva, R., Cadorin, L. & Rubio, J. (2010): Sulphate ions removal from an aqueous solution: I. Co-precipitation with hydrolysed aluminum-bearing salts. – Min. Eng., 23(15):1220–1226, doi:10.1016/j.mineng.2010.08.016.
• Silva, R. & Rubio, J. (2010): The Neutralization-Flocculation-Lamellar Settling (NF-LS) process in the treatment of Acid Mine Drainage (AMD) from Coal Mines in South Brazil – Comparative processes and new basis for sulphate ions removal. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 187–191, Sydney, NS (Cape Breton University Press).
• Silva, R. A., Castro, C. D., Petter, C. O. & Schneider, I. A. H. (2011): Production of Iron Pigments (Goethite and Haematite) from Acid Mine Drainage: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 469–473 p., 3 Abb., 3 Tab.; Aachen (RWTH Aachen University).
• Silva, R. D., Menezes, J. C. S. D., Lopes, F. A., Kirchheim, A. P. & Schneider, I. A. H. (2017): Synthesis of a Goethite Pigment by Selective Precipitation of Iron from Acidic Coal Mine Drainage. – Mine Water Environ., 36(3):386–392, doi:10.1007/s10230-017-0448-2.
• Silva Rotta, L. H., Alcântara, E., Park, E., Negri, R. G., Lin, Y. N., Bernardo, N., Mendes, T. S. G. & Souza Filho, C. R. (2020): The 2019 Brumadinho tailings dam collapse: Possible cause and impacts of the worst human and environmental disaster in Brazil. – International Journal of Applied Earth Observation and Geoinformation, 90 doi:10.1016/j.jag.2020.102119.
• Silva-Paz, R. J., Prada-Linarez, T. A., Rivera-Ashqui, T. A., Apaza-Humerez, C. R., Eccona-Sota, A. & Verde-Lujan, H. E. (2024): Effect of label elements in bottled water: Impact on consumer preferences, purchase intentions and health perception through affective sensory tests. – Heliyon, 10(15):e35106, doi:10.1016/j.heliyon.2024.e35106.
• Silver, B. J., Raymond, R., Sigman, D. M., Prokopeko, M., Sherwood Lollar, B., Lacrampe-Couloume, G., Fogel, M. L., Pratt, L. M., Lefticariu, L. & Onstott, T. C. (2012): The origin of NO₃^– and N2 in deep subsurface fracture water of South Africa. – Chem. Geol., 294-295:51–62, doi:10.1016/j.chemgeo.2011.11.017.
• Silver, N. (2012): The signal and the noise – why so many predictions fail–but some don’t. – 534 p., New York (Penguin Press).
• Silverton, T. R. & Morton, K. L. (1994): Impact of Groundwater on Mining at Finsch Diamond Mine. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:245–265, 9 Abb.
• Simate, G. S. & Ndlovu, S. (2014): Acid mine drainage: Challenges and opportunities. – J. Environ. Chem. Eng., 2(3):1785–1803, doi:10.1016/j.jece.2014.07.021.
• Simate, G. S. & Ndlovu, S. (2021): Acid mine drainage – From waste to resources. – 319 p., Boca Raton (CRC Press).
• Simcock, R. (2022): Mediating Risk of Acid Generation – The Roles of Vegetation Direct Transfer. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 467–468; (International Mine Water Association).
• Simmersbach, F. M. (1881): Geschichte des Siegerländer Bergbaues. – Glasers Annalen für Gewerbe & Bauwesen, 8(2 u. 4):3–42, 1 Karte.
• Simmons, C. T. (2005): Variable density groundwater flow: From current challenges to future possibilities. – Hydrogeol. J., 13:116–119, doi:10.1007/s10040-004-0408-3.
• Simmons, C. T. (2008): Henry Darcy (1803–1858): Immortalised by his scientific legacy. – Hydrogeol. J., 16(6) doi:10.1007/s10040-008-0304-3.
• Simmons, J., Ziemkiewicz, P. F. & Black, D. C. (2002): Use of Steel Slag Leach Beds for the Treatment of Acid Mine Drainage. – Mine Water Environ., 21(2):91–99, 20 Abb., 4 Tab.
• Simmons, J. A., Andrew, T., Arnold, A., Bee, N., Bennett, J., Grundman, M., Johnson, K. & Shepherd, R. (2006): Small-Scale Chemical Changes Caused by In-stream Limestone Sand Additions to Streams. – Mine Water Environ., 25(4):241–245, 4 Abb., 2 Tab.
• Simmons, J. A., Long, J. M. & Ray, J. W. (2004): What Limits the Productivity of Acid Mine Drainage Treatment Ponds? – Mine Water Environ., 23(1):44–53, 2 Abb., 4 Tab.
• Simms, P. H., Yanful, E. K., St Arnaud, L. & Aubé, B. C. (2000): A laboratory evaluation of metal release and transport in flooded pre-oxidized mine tailings. – Appl. Geochem., 15(9):1245–1263, doi:10.1016/S0883-2927(00)00003-2.
• Simms, P. H., Yanful, E. K., St-Arnaud, L. & Aubé, B. C. (2001): Effectiveness of protective layers in reducing metal fluxes from flooded pre-oxidized mine tailings. – Water Air Soil Pollut., 131(1-4):73–96, doi:10.1023/A:1011991016565.
• Simniškytė-Strimaitienė, A., Selskienė, A., Vaičiūnienė, J., Pakštas, V. & Šmigelskas, R. (2017): Tracing Archaeology through Geochemistry: an Example of a Disturbed Prehistoric Hilltop Settlement Site in South-Eastern Lithuania. – Interdiscip. Archaeol. – Nat. Sci. Archaeol., 8(1):17–33, 12 Abb., 3 Tab.; doi:10.24916/iansa.2017.1.2.
• Simon, A., Hoth, N., Drebenstedt, C. & Jolas, P. (2016): Strategies to avoid AMD in active Lignite Mining. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 535–536, Freiberg (TU Bergakademie Freiberg).
• Simon, A., Rascher, J., Hoth, N. & Drebenstedt, C. (2017): Facial and Paleogeografic Understanding of Tertiary Sediments as Basis to Predict their Specific AMD Release. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 244–250, Lappeenranta (Lappeenranta University of Technology).
• Simon, E., Burghardt, D., Richter, J., Reichel, S. & Janneck, E. (2016): Removal of oxoanions from water: Comparison of a novel Schwertmannite-adsorbent and an iron hydroxide adsorbent. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1004–1007, Freiberg (TU Bergakademie Freiberg).
• Simon, F.-G., Biermann, V. & Csicsák, J. (2003): Uranium removal using elemental iron and hydroxyapatite in permeable reactive barriers. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 43–55, 8 Abb., 5 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Simon, J. (2001): Exkursionsbericht Hydrogeologie Mitteleuropa 2001. – 1–24 p., 17 Abb.; Freiberg (Unveröff. Bericht TU Bergakademie Freiberg).
• Simon, J. (2003): Konzipierung einer passiven Grubenwasserreinigungsanlage im Hagenbachtal bei Gernrode/Harz. – 169 p., 97 Abb., 24 Tab.; Freiberg (Unveröff. Dipl.-Arb. TU Bergakademie Freiberg).
• Simon, K. (1990): Technisches Englisch – Ein Leitfaden für Ingenieure, Techniker und Fachübersetzer. Mit Beispielen und Übungen aus dem Maschinen- und Apparatebau, 2nd edn. – 143 p., 27 Abb.; Berlin (Springer); doi:10.1007/978-3-662-00873-7.
• Simon, P. & Hanneberg, A. (2006): Zur Geschichte des Blei-Zink-Bergbaus bei Nassereith in Tirol. – res montanarum, 39:66–83, 15 Abb., 3 Tab.
• Simon, W. (1975): Bimsstein zwischen Gneistrümmern im Ötztal. – Der Aufschluss, 26(4/5):161–168, 7 Abb.
• Simonetto, E., Raucoules, D. & Carnec, C. (2005): Interferometry of Spatial Radar Images for Post-Mining Surveillance: Experiment Feedback. – 1–10 [CD–ROM] p., Nancy (Proceedings Post-Mining 2005).
• Simonic, M. (2000): The assessment of ambient groundwater quality at a national scale in the Republic of South Africa – an Electronic Atlas. – (Report Nr. WRC project K5/841). – 59 p., 5 Abb., 5 Tab.
• Šimonovičová, A., Kupk, D., Nosal, S., Kraková, L., Drahovská, H., Bártová, Z., Vojtková, H., Boturová, K. & Pangallo, D. (2020): Differences in metabolites production using the Biolog FF Microplate™ system with an emphasis on some organic acids of Aspergillus niger wild type strains. – Biologia, 75(10):1537–1546, doi:10.2478/s11756-020-00521-y.
• Simons, D. B., Li, R. M., Schall, J. D., Peterson, M. R., Anderson, B. A., Summer, R. M. & Fullerton, W. T. (1982): Surface Mining Water Diversion Design Handbook: OSM/TR-82/2. – 485 p., 5 Anh.; Fort Collins (United States Department of the Interior – Office of Surface Mining).
• Simons, H. (1919): Zur Kenntnis der oberhessischen Basalteisensteine. – Z. f. prakt. Geol., 27(9):140–147.
• Simons, H. (1924): Untersuchungen über Auftreten und Aufbau einiger mittelschwedischer Sulfiderzlagerstätten – Ein Beitrag zur Frage der Entstehung ’intrusiver Kieslagerstätten’. – Z. f. prakt. Geol., 32(1/2):1–6.
• Simons, H. S. & Jeffery, J. W. (1960): An X-ray study of pulverised fuel ash. – J. Appl. Chem., 10(8):328–336, doi:10.1002/jctb.5010100804.
• Simpson, C. & Laurie, S. H. (1999): Ion Exchange Studies on Zinc-rich Waste Liquors. – Hydrometallurgy, 51(3):335–344.
• Simpson, G. B., Badenhorst, J., Jewitt, G. P. W., Berchner, M. & Davies, E. (2019): Competition for Land: The Water-Energy-Food Nexus and Coal Mining in Mpumalanga Province, South Africa. – Front. Environ. Sci., 7 doi:10.3389/fenvs.2019.00086.
• Sims, D. B., Hudson, A. C., Keller, J. E., Konstantinos, V. I. & Konstantinos, M. P. (2017): Trace Element Scavenging in Dry Wash Surficial Sediments in an Arid Region of Southern Nevada, USA. – Mine Water Environ., 36(1):124–132, doi:10.1007/s10230-015-0379-8.
• Sims, D. B. & Keller, J. E. (2014): Risk of Metal Mobilization from Redevelopment Activities in Hyperarid Climates: A Laboratory Experiment and Discussion. – Mine Water Environ., 33(4):307–316, doi:10.1007/s10230-014-0297-1.
• Şimşek, Ş. (1993): Karstic hot water aquifers in Turkey. – IAHS-AISH Publication, 207:173–184, 9 Abb., 2 Tab.
• Şimşek, Ş. (1997): Geothermal potential in Northwestern Turkey: Active Tectonics of Northwestern Anatolia – the MARMARA Poly-Project, a Multidisciplinary Approach by Space-Geodesy, Geology, Hydrogeology, Geothermics and Seismology. – 111–124 p., 3 Abb., 3 Tab., 1 Anh.; Zürich (vdf Hochschulverl. an der ETH Zürich).
• Simumba, V. M. (1993): Konkola Groundwater – A Source of Domestic Water Supply to Chililabombwe District, Zambia. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 683–689, 2 Tab.; Chililabombwe (Konkola Division).
• Sincero, A. P. & Sincero, G. A. (2002): Physical-chemical treatment of water and wastewater. – 856 p., 137 Abb.; Boca Raton (CRC Press); doi:10.1201/9781420031904.
• Sinclair, E. & Weber, P. (2022): Managing Legacy AMD to Achive Sucessful Mine Closure. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 469–481; (International Mine Water Association).
• Sinclair, G., Taylor, G. & Brown, P. (2005): The Effects of Weathering and Diagenetic Processes on the Geochemical Stability of Uranium Mill Tailings. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 27–46, Heidelberg (Springer).
• Sinclair, N. A. & Herring, C. M. (1975): Isolation of penicillium corylophium (sic!) Dierckx from acid mine water and its optimal growth on hydrocarbons at acid pH. – Mycopathologia, 57(1):19–22, 4 Tab.; doi:10.1007/BF00431172.
• Sing, J. (2015): Regulating mining resource investments towards sustainable development: The case of Papua New Guinea. – Extr. Ind. Soc., 2(1):124–131, doi:10.1016/j.exis.2014.11.003.
• Singer, A. C., Jury, W., Luepromchai, E., Yahng, C.-S. & Crowley, D. E. (2001): Contribution of earthworms to PCB remediation. – Soil Biol. Biochem., 33:765–776., doi:10.1016/S0038-0717(00)00224-8.
• Singer, P. C. & Stumm, W. (1969): Oxygenation of Ferrous Iron in Mine Drainage Waters. – Am. Chem. Soc., Div. Fuel Chem., Prepr., 13(2):80–87, 4 Abb., 1 Tab.
• Singer, P. C. & Stumm, W. (1970): Acidic Mine Drainage – The Rate-Determining Step. – Science, 167(3921):1121–1123, 2 Abb.; doi:10.1126/science.167.3921.1121.
• Singh, A. K., Mahato, M. K., Neogi, B., Mondal, G. C. & Singh, T. B. (2011): Hydrogeochemistry, Elemental Flux, and Quality Assessment of Mine Water in the Pootkee-Balihari Mining Area, Jharia Coalfield, India. – Mine Water Environ., 30(3):197–207, 6 Abb., 3 Tab.; doi:10.1007/s10230-011-0143-7.
• Singh, A. K., Mahato, M. K., Neogi, B. & Singh, K. K. (2010): Quality Assessment of Mine Water in the Raniganj Coalfield Area, India. – Mine Water Environ., 29(4):248–262, 8 Abb., 6 Tab.; doi:10.1007/s10230-010-0108-2.
• Singh, A. K., Mondal, G. C., Tewary, B. K. & Sinha, A. (2009): Major Ion Chemistry, Solute Acquisition Processes and Quality Assessment of Mine Water in Damodar Valley Coalfields, India. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 267–276, 4 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Singh, A. K., Singh, A. & Me, E. (1997): Some Practical Aspects of Sample Size and Power Computations for Estimating the Mean of Positively Skewed Distributions in Environmental Applications. – Technology Support Center Issue, EPA/600/s-99/006:1–37.
• Singh, A. V., Gupta, S. & Gupta, S. C. (1996): Synthesis of a guaran-sulphonic acid cation-exchanger and its application in metal ion removal from underground mine water of the Rajpura Dariba mines, Udaipur, India. – Desalination, 104(3):235–238.
• Singh, B., Wilson, M. J., McHardy, W. J., Fraser, A. R. & Merrington, G. (1999): Mineralogy and chemistry of ochre sediments from an acid mine drainage near a disused mine in Cornwall, UK. – Clay Minerals, 34(2):301–317, 7 Abb., 3 Tab.
• Singh, D., Tripathi, G. & Jara, A. J. (2014): A Survey of Internet-of-Things: Future Vision, Architecture, Challenges and Services. Paper presented at the 2014 IEEE World Forum on Internet of Things (WF-IoT), Seoul. – p. 287–292, 7 Abb.
• Singh, G. (1986): A Survey of Corrosivity of Underground Mine Waters from Indian Coal Mines. – Int. J. Mine Water, 5(1):21–32, 3 Abb., 3 Tab.
• Singh, G. (1987): Mine Water Quality Deterioration due to Acid Mine Drainage. – Int. J. Mine Water, 6(1):49–61, 1 Abb., 4 Tab.
• Singh, G. (1988): Impact of coal mining on mine water quality. – Int. J. Mine Water, 7(3):49–59, 7 Tab.
• Singh, G. (1994): Augmentation of Underground Pumped Out Water for Potable Purpose from Coal Mines of Jharia Coalfield. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:679–689, 3 Abb., 3 Tab.
• Singh, G. & Bhatnagar, M. (1988): Inhibition of Bacterial Activity in Acid Mine drainage. – Int. J. Mine Water, 7(4):13–25, 10 Abb., 1 Tab.
• Singh, G., Bhatnagar, M. & Sinha, D. K. (1990): Environmental Management of Acid Water Problems in Mining Areas. – Int. J. Mine Water, 9(1-4):113–131, 8 Abb.
• Singh, G., Juggath, N., Pulles, W. & Mudau, S. (2024): Implementing water conservation and water demand management in South Africa’s mining industry. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 582–587; Morgantown (International Mine Water Association).
• Singh, G. & Rawat, N. S. (1985): Removal of Trace Elements from Acid Mine Drainage. – Int. J. Mine Water, 4(1):17–23, 2 Abb., 4 Tab.; doi:10.1007/BF02505377.
• Singh, M. M. (1992): Mine Subsidence. – In: Hartman, H. L. (ed) SME Mining Engineering Handbook, 2 edn. – p. 938–971, Littleton (Society for Mining Metallurgy and Exploration).
• Singh, R. N. (1983): Conference Review – Hydrogeological Aspects of Mining. – Int. J. Mine Water, 2(2):31–32.
• Singh, R. N. (1983): Mine Water Abstracts. – Int. J. Mine Water, 2(2):43–61.
• Singh, R. N. (1986): Mine Inundations. – Int. J. Mine Water, 5(2):1–27, 13 Abb., 3 Tab.; doi:10.1007/BF02498098.
• Singh, R. N. (1989): Origin of mine water from interpretation of water analysis data. – Min. Sci. Technol., 9(2):149–167, 16 Abb., 4 Tab.
• Singh, R. N. (1999): Environmental Catastrophes in the Mining Industry in Australia and the Development of current Management Practices. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 737–742, 1 Abb.; Sevilla (International Mine Water Association).
• Singh, R. N. & Atkins, A. S. (1982): Design Considerations for Mine Workings Under Accumulation of Water. – Int. J. Mine Water, 1(4):35–56, 13 Abb., 1 Tab.
• Singh, R. N. & Atkins, A. S. (1984): Application of Analytical Solution to Simulate some Mine Inflow Problems in Underground Coal Mining. – Int. J. Mine Water, 3(4):1–27, 8 Abb., 15 Tab., 1 Anh.
• Singh, R. N. & Atkins, A. S. (1985): Analytical techniques for the estimation of mine water inflow. – Int. J. Min. Eng., 3(1):65–77, 7 Abb., 1 Tab., 4 Anl.
• Singh, R. N., Crellin, D. & Reed, S. M. (1988): Borehole Instrumentation for Groundwater Investigations in Underground and Surface Coal Mine Environments. – Proceedings, 3rd International Mine Water Congress, Melbourne:241–250, 8 Abb., 4 Tab.
• Singh, R. N., Denby, B. & Reed, S. M. (1985): The Effect of Groundwater re-establishment on the Settlement of Opencast Mine Backfills in the United Kingdom. – Proceedings, 2nd International Mine Water Association Congress, 2:803–816, 8 Abb.
• Singh, R. N. & Doulati Ardejani, F. (2003): Evaluation of factors affecting pyrite oxidation and subsequent pollutant generation in backfilled open cut coal mines. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 173–186, 17 Abb.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Singh, R. N., Hibberd, S. & Fawcett, R. J. (1985): Numerical calculation of groundwater-inflow to longwall coal faces. – Proceedings, 2nd International Mine Water Association Congress, 1:541–552.
• Singh, R. N., Hibberd, S. & Fawcett, R. J. (1986): Studies in the Prediction of Water Inflows to Longwall Mine Workings. – Int. J. Mine Water, 5(3):29–45, 7 Abb., 3 Tab.
• Singh, R. N. & Jakeman, M. (1999): Longwall Mining under the Cataract Reservoir. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 27–34, 5 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Singh, R. N. & Jakeman, M. (2001): Strata Monitoring Investigations Around Longwall Panels Beneath the Cataract Reservoir. – Mine Water Environ., 20(2):55–64, 5 Abb.; doi:10.1007/s10230-001-8083-2.
• Singh, R. N., Ngah, S. A. & Atkins, A. S. (1985): Applicability of current groundwater theories for the prediction of water inflows to surface mining excavations. – Proceedings, 2nd International Mine Water Association Congress, 1:553–569.
• Singh, R. N. & Porter, I. (1998): Insidence of Barium Pollution in Mine Water Discharge in an Underground Coal Mine: Mine Water and Environmental Impacts 2. – 433–447 p., 5 Abb., 4 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Singh, R. N. & Reed, S. M. (1987): Spatial Displacements of Opencast Mine Backfill associated with Groundwater Recovery: Hydrogeology of Coal Basins. – 575–585 p., 5 Abb., 3 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Singh, R. N. & Reed, S. M. (1988): Mathematical Modelling for Estimation of Minewater Inflow to a Surface Mining Operation. – Int. J. Mine Water, 7(3):1–33, 10 Abb., 3 Tab.
• Singh, R. N., Sivakumar, M. & Atkins, A. S. (1995): Application of executive Information System to Mine Site Water Pollution Control. – Mine Water Environ., 14(1-4):95–105, 1 Abb., 1 Tab.
• Singh, R. N., Stace, R., Pathan, A. G., Doulati Ardejani, F. & Atkins, A. S. (2010): Hydrogeological Assessment of the Thar Lignite Prospect. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 441–445, Sydney, NS (Cape Breton University Press).
• Singh, R. P., Varshney, G. & Srivastava, G. (2012): Effect of carbofuran on enzymatic activities and growth of tomato plants in natural, fertilized and vermicompost-amended soils. – Arch Agron Soil Sci, 58(12):1349–1364, doi:10.1080/03650340.2011.587960.
• Singh, T. & Kalra, Y. P. (1975): Specific conductance method for in situ estimation of total dissolved solids. – J. Am. Water Works Assoc., 67(2):99–100, 1 Abb., 4 Tab.
• Singh, T. N. & Singh, B. (1985): Model Simulation Study of Coal Mining Under River Beds in India. – Int. J. Mine Water, 4(3):1–9, 5 Abb., 3 Tab.
• Singh, T. N., Singh, V. K. & Sinha, S. (2006): Prediction of Cadmium Removal Using an Artificial Neural Network and a Neuro-Fuzzy Technique. – Mine Water Environ., 25(4):214–219, 6 Abb., 1 Tab.
• Singh, V. P. (1995): Environmental hydrology: Water Science & Technology Library 15. – 479 p., zahlr. Abb., zahlr. Tab.; Dordrecht (Springer-Science+Business Media); doi:10.1007/978-94-017-1439-6.
• Singhal, B. B. S. & Gupta, R. P. (2010): Applied Hydrogeology of Fractured Rocks. – 408 p., Dordrecht (Springer); doi:10.1007/978-90-481-8799-7.
• Singovszka, E., Balintova, M. & Junakova, N. (2020): The impact of heavy metals in water from abandoned mine on human health. – SN Appl. Sci., 2(5):934, doi:10.1007/s42452-020-2731-2.
• Sinharoy, A., Pakshirajan, K. & Lens, P. N. L. (2020): Biological Sulfate Reduction Using Gaseous Substrates To Treat Acid Mine Drainage. – Curr. Pollut. Rep., 6(4):328–344, doi:10.1007/s40726-020-00160-6.
• Sinreich, S., Goldscheider, N. & Hötzl, N. (2002): Hydrogeologie einer alpinen Bergsturzmasse (Schwarzwassertal, Vorarlberg). – Beitr. Hydrogeol., 53:5–20.
• Sinsoma GmbH (2024): Erfassung von Fisch-, Krebs-, Muschel- und Wasserpflanzenarten in ausgewählten Tiroler Seen mittels Detektion von eDNA in Wasserproben. – Unpubl. Report for Amt der Tiroler Landesregierung – Abteilung Wasserwirtschaft 156 p., Innsbruck.
• Siotka, B. (2008): Hydrogeochemische Untersuchung der Grubenwasseraustritte des ehemaligen bayerischen Pechkohlebergbaus. – 90 p., Bachelor, Ludwig-Maximilians-Universität München, 40 Abb., 8 Tab., 7 Anh.; München.
• Sipilä, P. (1994): Aijalan, Pyhäsalmen Ja Makolan Sulfidimalmi – Kaivosten Rikastamoiden Jatealueiden Ymparistovaikutukset [Aijala, Pyhäsalmi and Makola Sulphide Mine - Environmental Impacts of Mine Refinery Jate Areas], Osa II – Aijala. – 26 p., 3 Abb., 14 Tab., 7 Anl.; Espoo (Geologian tutkimuskeskus).
• Sirca, A., Rajar, R., Harris, R. C. & Horvat, M. (1999): Mercury transport and fate in the Gulf of Trieste (Northern Adriatic) – a two-dimensional modelling approach. – Environ. Modell. Software, 14(6):645–655, 7 Abb.
• Sirén, S., Maurice, C. & Alakangas, L. (2016): Green liquor dregs in mine waste remediation, from laboratory investigations to field application. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 706–713, Freiberg (TU Bergakademie Freiberg).
• Siringi, D. O., Home, P., Chacha, J. S. & Koehn, E. (2012): Is Electrocoagulation (EC) a Solution to the Treatment of Wastewater and Providing Clean Water for Daily Use. – J. Eng. Appl. Sci., 7(2):197–204, 4 Abb.
• Sirkecioglu, A. & Erdem, S. A. (1996): Estimation of the zeolite contents of tuffaceous samples from the Bigadic clinoptilolite deposit, western Turkey. – Clays Clay Miner., 44(5):686–692, Refs: 24; illus. incl. 3 tables.
• Sirviö, J. A., Hasa, T., Leiviskä, T., Liimatainen, H. & Hormi, O. (2015): Bisphosphonate nanocellulose in the removal of vanadium(V) from water. – Cellulose, doi:10.1007/s10570-015-0819-4.
• Sisler, F. D., Senftle, F. E. & Skinner, J. (1977): Electrobiochemical neutralization of acid mine water. – J. Water Pollut. Control Fed., 49(3):369–374, 3 Abb.
• Sistani, K. R., Mays, D. A., Taylor, R. W. & Buford, C. (1995): Evaluation of four Chemical Extractants for Metal Determinations in Wetland Soils. – Commun. Soil sci. Plant anal., 26(13-14):2167–2180, 7 Tab.
• Sitz, P. (1982): Calculation and Design of Underground Dams with Special Reference to their Use in Rock-Salt. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, ABCD Supplementary volume:69–87, 12 Abb.
• Sitz, P. & Weyer, J. (1999): Klimatisierung KKH. – Nn.
• Sivakumar, B. (2017): Chaos in Hydrology – Bridging Determinism and Stochasticity. – Dordrecht (Springer).
• Sivakumar, M., Boroumand-Nasab, S. & Singh, R. N. (1995): Pollutograph Modeling of an Impervous Catchment: Water resources at risk. – IMWA.115–124 p., 4 Abb., 2 Tab.; Denver (American Institute of Hydrology).
• Sivakumar, M., Morton, S. & Singh, R. N. (1994): Case History Analysis of Mine Water Pollution in New South Wales, Australia. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:823–834, 6 Abb., 2 Tab.
• Sivakumar, M., Ramezanianpour, M. & O’Halloran, G. (2013): Mine Water Treatment Using a Vacuum Membrane Distillation System. – APCBEE Procedia, 5:157–162, doi:10.1016/j.apcbee.2013.05.028.
• Sivakumar, M., Singh, R. N. & Morton, S. G. S. (1992): Mine Water Effluent Quality in the Illawarra Region. – Mine Water Environ., 11(2):1–10, 5 Abb., 2 Tab.
• Sivakumar, M., Singh, R. N. & Morton, S. G. S. (1994): Mine Water Management and Controls in an Environmentally Sensitive Region. – Mine Water Environ., 13(1):27–39, 4 Abb., 2 Tab.
• Sjöberg, S., Allard, B., Rattray, J. E., Sjöberg, V. & Karlsson, S. (2016): REE-Enriched Mn-Oxide Precipitates in Water-Bearing Fractures in the Ytterby Mine, Sweden. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 346–352, Freiberg (TU Bergakademie Freiberg).
• Sjöberg, V. & Allard, B. (2025): Release of uranium from a former iron mine, 30 years after flooding. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 676–681; Braga (International Mine Water Association).
• Sjöberg, V., Karlsson, S. & Allard, B. (2012): Removal of vanadium from neutralized acid mine drainage (AMD) by adsorption to saw dust: International Mine Water Association Symposium. – 727–734 p., Bunbury (Edith Cowan University).
• Sjöberg, V., Karlsson, S., Grandin, A. & Allard, B. (2013): Vegetation of historical mine waste from the Ljusnarsberg deposit with Agrostis capillaris – Impact on leaching of copper. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1119–1123, 2 Abb.; Golden (International Mine Water Association).
• Sjöberg, V., Karlsson, S. & Sartz, L. (2010): Release of vanadium from LD-slag by exposure to ARD. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 399–403, Sydney, NS (Cape Breton University Press).
• Sjöberg, V., Todd, K., Sartz, L. & Karlsson, S. (2011): Impact of organic carbon in the release of vanadium from LD-slag: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 481–484 p., Aachen (RWTH Aachen University).
• Sjöblom, Å., Håkansson, K. & Allard, B. (2004): Riverwater metal speciation in a mining region – The influence of wetlands, liming, tributaries, and groundwater. – Water Air Soil Pollut., 152(1-4):173–194.
• Sjöblom, Å., Håkansson, K. & Allard, B. (2010): Particulate matter as scavenger and carrier of trace metals in simulated mine water. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 403–407, Sydney, NS (Cape Breton University Press).
• Skawinski, R. (1994): Some Examples of Non-Compatibility of Saline Water and Rock. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:835–843, 6 Abb.
• Skelly and Loy & Penn Environmental Consultants (1973): Process, Procedures, and Methods to Control Pollution from Mining Activities: EPA-430/9-73-011. – 390 p., Washington (U.S. Environmental Protection Agency).
• Skierszkan, E. K., Mayer, K. U., Beckie, R. & Weis, D. (2015): Tracking the Fate of Metals in Mining Waste Rock Using Metal Stable Isotopes. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Skierszkan, E. K., Mayer, K. U., Weis, D. & Beckie, R. D. (2016): Molybdenum and zinc stable isotope variation in mining waste rock drainage and waste rock at the Antamina mine, Peru. – Sci. Total Environ., 550:103–113, doi:10.1016/j.scitotenv.2016.01.053.
• Skinner, H. C. W., Ross, M. & Frondel, C. (1988): Asbestos and other fibrous materials mineralogy, crystal chemistry, and health effects. – 204 p., Oxford (Oxford Univ. Press).
• Skinner, S. J. W. (2009): Groundwater Clean-Up: Assessing Mining Impacts and Rehabilitation/Management Alternatives. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 713–722, 6 Tab; Pretoria (Document Transformation Technologies).
• Skinner, S. J. W. (2017): Tracking Nitrate Sources at a Platinum Mine – Putting The Puzzle Together. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1006–1013, Lappeenranta (Lappeenranta University of Technology).
• Skinner, S. J. W. (2018): Platinum Tailings Review – A comparison of the water quality in the tailings dam to the surrounding groundwater. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 733–737; (Tshwane University of Technology).
• Skjærstein, A., Stavropoulou, M., Vardoulakis, I. & Tronvoll, J. (1997): Hydrodynamic erosion – A potential mechanism of sand production in weak sandstones. – Int. J. Rock Mech. Min. Sci, 34(3):292.e1–292.e18, doi:10.1016/S1365-1609(97)00190-1.
• Sklash, M. G. & Farvolden, R. N. (1979): The role of groundwater in storm runoff. – J. Hydrol., 43(1-4):45–65, 18 Abb., 1 Tab.; doi:10.1016/0022-1694(79)90164-1.
• Skobelev, D. O., Zaytseva, T. M., Kozlov, A. D., Perepelitsa, V. L. & Makarova, A. S. (2011): Laboratory information management systems in the work of the analytic laboratory. – Meas. Tech., 53(10):1182–1189, doi:10.1007/s11018-011-9638-7.
• Skogsjö, E., Allard, B. & Bäckström, M. (2010): Barrier system for treatment of heavy metal drainage at Ranstad, Sweden. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 275–279, Sydney, NS (Cape Breton University Press).
• Skoog, H. a. C. Fluorescent spoectrophotometer exercise.
• Skordas, K. (2007): The geochemical Distribution of Arsenic and Antimony in the cultivated Soils of the hydrologic Basin of the Amyros River (Larissa, Greece): Water in Mining Environments. – 463–466 p., 2 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Skoronski, E., Ohrt, A. C., de Oliveira Cordella, R., Trevisan, V., Fernandes, M., Miguel, T. F., Menegaro, D. A., Dominguini, L. & Martins, P. R. (2017): Using Acid Mine Drainage to Recover a Coagulant from Water Treatment Residuals. – Mine Water Environ., 36(4):495–501, doi:10.1007/s10230-016-0423-3.
• Skougstad, M. W. & Fishman, M. J. (1963): Water Analysis. – Anal. Chem., 35(5):179–204, doi:10.1021/ac60198a015.
• Skousen, J., Kleinmann, B., Wildeman, T., Hedin, B., Nairn, B. & Gusek, J. (2021): History of Passive Treatment Technology Development in the United States. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 525–525; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Skousen, J. G. (1991): Anoxic limestone drains for acid mine drainage treatment. – Green Lands, 21(4):30–35, 4 Abb., 1 Tab.
• Skousen, J. G. (2016): A Brief Overview of Control and Treatment Technologies for Acid Mine Draiange with Special Emphasis on Passive Systems. Paper presented at the West Virginia Surface Mine Drainage Task Force Symposium. – p. electronic document [1–11].
• Skousen, J. G., Demchak, J. & McDonald, L. (2002): Longevity of Mine Discharges from Above-Drainage Underground Mines: Reclamation 2002 – Partnerships & Project Implementation. – 1–15 p., 2 Abb., 4 Tab.; Park City (Proceedings National Association of Abandoned Mine Land Programs).
• Skousen, J. G. & Foreman, J. W. (2000): Water Management Techniques for Acid Mine Drainage Control. – Green Lands, 4 Abb., 2 Fot.
• Skousen, J. G., Lilly, R. & Hilton, T. (1988): Special Chemicals for treating acid mine drainage. – Green Lands, 18(3):36–40, 3 Abb., 4 Tab.
• Skousen, J. G., Rose, A., Geidel, G., Foreman, J. W., Evans, R. & Hellier, W. (1998): Handbook of Technologies for Avoidance and Remediation of Acid Mine Drainage. – 130 p., 3 Abb.; Morgantown (The National Mine Land Reclamation Center).
• Skousen, J. G., Sexstone, A. & Ziemkiewicz, P. F. (2000): Acid Mine Drainage Control and Treatment. – In: Barnhisel, R. I., Darmody, R. G. & Daniels, W. L. (eds): Reclamation of Drastically Disturbed Lands. – p. 131–168, 1 Abb., 3 Tab.; Madison (American Society of Agronomy).
• Skousen, J. G., Simmons, J., McDonald, L. M. & Ziemkiewicz, P. (2002): Acid-Base Accounting to Predict Post-Mining Drainage Quality on Surface Mines. – J. Environ. Qual., 31(6):2034–2044, 6 Abb., 7 Tab.
• Skousen, J. G. & Ziemkiewicz, P. (2005): Performance of 116 Passive Treatment Systems for Acid Mine Drainage. – p. 1100–1130, 9 Abb., 12 Tab.; Breckenridge (National Meeting of the American Society of Mining and Reclamation); doi:10.21000/JASMR05011100.
• Skousen, J. G., Ziemkiewicz, P. F. & McDonald, L. M. (2019): Acid mine drainage formation, control and treatment: Approaches and strategies. – Extr. Ind. Soc., 6(1):241–249, doi:10.1016/j.exis.2018.09.008.
• Skousen, J. G., Zipper, C. E., Rose, A., Ziemkiewicz, P. F., Nairn, R., McDonald, L. M. & Kleinmann, R. L. (2017): Review of Passive Systems for Acid Mine Drainage Treatment. – Mine Water Environ., 36(1):133–153, doi:10.1007/s10230-016-0417-1.
• Skowronek, F., Fritsche, J. G., Aragon, U. & Rambow, D. (1999): Die Versenkung und Ausbreitung von Salzabwasser im Untergrund des Werra-Kaligebietes. – Geol. Abh. Hessen, 105:1–83, 23 Abb., 12 Tab.
• Skowronek, J., Lipowczan, A. & Dubiñski, J. (2004): NORM IV Conference – Naturally Occurring Radioactive Materials (Abstracts). – Quarterly Research Reports, 1:15–153.
• Skuphos, T. G. (1891): Die stratigraphische Stellung der Partnach- und der sogenannten Unteren Cardita-Schichten in den Nordtiroler und Bayerischen Alpen. – Geogn. Jh., 4:87–142, 12 Abb., 4 Tab.
• Skuphos, T. G. (1893): Ueber Partanosaurus Zitteli Skuphos und Microleptosaurus Schlosseri nov. gen., nov. spec. aus den Vorarlberger Partnachschichten. – Abh. k. k. Geol. Reichsanst., 15(5):1–16, 1 Abb., 5 Tab., 3 Taf.
• Skuphos, T. G. (1893): Vorläufige Mittheilung über Parthanosaurus Zitteli, ein neuen Saurier aus den Trias. – Zoologischer Anzeiger, 16(413):67–69.
• Slábová, M., Broumová, H. & Pecharová, E. (2008): Communities of Small Mammals as Indicators of Biodiversity Changes in Reclaimed Areas after Coal Mining. Proceedings, 10th International Mine Water Association Congress. – p. 179–182.
• Slatter, K. A., Plint, N. D., Cole, M., Dilsook, V., Vaux, D. d., Palm, N. & Oostendorp, B. (2009): Water Management in Anglo Platinum Process Operations: Effects of Water Quality on Process Operations. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 46–55, 7 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Slayback, R. G. (1979): Hydrogeological Investigations for Mine Dewatering: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 105–122 p., 10 Abb.; San Francisco (Freeman).
• Slaymaker, O., Spencer, T. & Embleton-Hamann, C. (2009): Geomorphology and Global Environmental Change. – 434 p., Cambridge (Cambridge University Press); doi:10.1017/CBO9780511627057.
• Šlesárová, A., Zeman, J. & Kušnierová, M. (2007): Geochemical Characteristics of Acid Mine Drainage at the Smolník Deposit (Slovak Republic): Water in Mining Environments. – 467–471 p., 5 Abb., 2 Tab.; Cagliari (Mako Edizioni).
• Slezak, P. R., Olivo, G. R., Oliveira, G. D. & Dardenne, M. A. (2014): Geology, mineralogy, and geochemistry of the Vazante Northern Extension zinc silicate deposit, Minas Gerais, Brazil. – Ore Geol. Rev., 56:234–257, doi:10.1016/j.oregeorev.2013.06.014.
• Sloan, S., Cook, P. G. & Wallis, I. (2023): Managed Aquifer Recharge in Mining: A Review. – Ground Water, 61(3):305–317, doi:10.1111/gwat.13311.
• Slotta, R., Bartels, C., Pollmann, H. & Lochert, M. (1990): Meisterwerke bergbaulicher Kunst vom 13. bis 19. Jahrhundert. – 654 p., zahlr. Abb., zahlr. Tab.; Bochum (Deutsches Bergbaumuseum).
• Slovic, P. (1987): Perception of risk. – Science, 236(4799):280–285, doi:10.1126/science.3563507.
• Slovic, P. (2000): The Perception of Risk, 1st edn. – 473 p., London (Taylor & Francis).
• Slovic, P. (2010): The feeling of risk – New perspectives on risk perception: Earthscan risk in society series The feeling of risk. – 456 p., Boca Raton (Routledge).
• Slovic, P. (2016): Understanding Perceived Risk: 1978–2015. – Environ. Sci. Policy Sustain. Dev., 58(1):25–29, doi:10.1080/00139157.2016.1112169.
• Slovic, P. & Peters, E. (2006): Risk Perception and Affect. – Curr. Dir. Psychol. Sci., 15(6):322–325, doi:10.1111/j.1467-8721.2006.00461.x.
• Smail, I. & Thorn, P. (2016): Performance review of an operational Reducing Alkalinity Producing System (RAPS) treating coal mine waters at Tan-y-Garn, Wales. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 804–811, Freiberg (TU Bergakademie Freiberg).
• Small, N., Sadeghiamirshahidi, M. & Gammons, C. H. (2022): Inorganic Precipitation of Calcite in Mine Tailings Using Trona. – Mine Water Environ., 41(4):970–978, doi:10.1007/s10230-022-00896-1.
• Smart, P. L. (1982): A Review of the Toxicity of 12 fluorescent Dyes used for Water Tracing. – Beitr. Geol. Schweiz – Hydrol., 28(I):101–112, 4 Tab.
• Smart, P. L. (1984): A Review of the Toxicity of Twelve Fluorescent Dyes Used for Water Tracing. – Natl. Speleol. Soc. Bull., 46(2):21–33, 1 Abb., 10 Tab., 8 Taf.
• Smart, P. L., Atkinson, T. C., Laidlaw, I. M. S., Newson, M. D. & Trudgill, S. T. (1986): Comparison of the Results of Quantitative and Non-Quantitative Tracer Tests for Determination of Karst Conduit Networks: An Example from the Traligill Basin, Scotland. – Earth Surface Processes and Landforms, 11:249–261, 5 Abb., 2 Tab.; doi:10.1002/esp.3290110303.
• Smart, P. L. & Laidlaw, I. M. S. (1977): An Evaluation of Some Fluorescent Dyes for Water Tracing. – Water Resour. Res., 13(1):15–33, 19 Abb., 11 Tab.; doi:10.1029/WR013i001p00015.
• Smart, P. L. & Smith, D. I. (1976): Water Tracing in Tropical Regions, the Use of Fluorometric Techniques in Jamaica. – J. Hydrol., 30:179–195, 3 Abb., 5 Tab.; doi:10.1016/0022-1694(76)90097-4.
• Smart, R., Ciccarelli, J., Zeng, S., Fan, R., Li, J., Kawashima, N., Gerson, A. & Schumann, R. (2015): Assessment of Acid Neutralization Rates from Site Rock for AMD Control. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Smedes, F. & Booij, K. (2012): Guidelines for passive sampling of hydrophobic contaminants in water using silicone rubber samplers. – ICES Tech. Mar. Environ. Sci., 52:1–20, doi:10.17895/ices.pub.5077.
• Smedley, P. L., Edmunds, W. M. & Pelig-Ba, K. B. (1996): Mobility of arsenic in groundwater in the Obuasi gold-mining area of Ghana: some implications for human health. – In: Appleton, J. D., Fuge, R. & McCall, G. J. H. (eds): Environ Geochem Health 113. – p. 163–181, 7 Abb., 3 Tab.; doi:10.1144/GSL.SP.1996.113.01.13.
• Smellie, J. A. T., Karlsson, F. & Alexander, W. R. (1997): Natural analogue studies: present status and performance assessment implications. – J. Contam. Hydrol., 26(1):3–17, doi:10.1016/S0169-7722(96)00053-8.
• Smetana, R., Muzák, J. & Novák, J. (2002): Environmental Impact of Uranium ISL in Northern Bohemia. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 703–712, 7 Abb.; Heidelberg (Springer); doi:10.1007/978-3-642-55668-5_82.
• Smit, J. P. (1999): The Treatment of polluted Mine Water. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 467–471, 5 Abb., 5 Tab.; Sevilla (International Mine Water Association).
• Smit, P. (1977): Health-Hazards of South-African Mine Water. – J. S. Afr. Inst. Min. Metall., 77(9):193–197, 3 Abb., 5 Tab.
• Smith, E. E., Svanks, K. & Halko, E. (1969): Aerobic-Anaerobic Oxidation of Pyrite. – Am. Chem. Soc., Div. Fuel Chem., Prepr., 13(2):68–78, 4 Abb., 5 Tab.
• Smith, E. S. & Connell, D. H. (1979): The Role of Water in the Failure of Tailings Dams: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 627–650 p., 13 Abb.; San Francisco (Freeman).
• Smith, F. P. & Carruth, D. (2017): Assessing Flood Hydrology In Data Scarce Tropical Regions: A Congo (ROC) Case Study. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 365–372, Lappeenranta (Lappeenranta University of Technology).
• Smith, G. (2013): Nupela Masta? Local and Expatriate Labour in a Chinese-Run Nickel Mine in Papua New Guinea. – Asian Stud. Rev., 37(2):178–195, 1 Abb.; doi:10.1080/10357823.2013.768598.
• Smith, G. C., Steinman, H. E. & Young Jr, E. F. (1970): Clean Water From Coal Mines. – Min. Eng., 22:118–119, 1 Abb., 3 Tab.
• Smith, G. K. (2016): Calcite straw stalactites growing from concrete structures. – Cave and Karst Science, 43(1):4–10.
• Smith, J., Hardwick, E., Falconer, J., Sheridan, C., Naidu, T. S., Holm, P. E. & van Dyk, L. (2023): The Development of a Sample Preparation Technique for the Analysis of Trace Elements in Mine Impacted Waters containing High Levels of Iron. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 484–490; (International Mine Water Association).
• Smith, J. R., Walsh, F. C. & Clarke, R. L. (1998): Electrodes based on Magnéli phase titanium oxides: the properties and applications of Ebonex® materials. – J. Appl. Electrochem., 28(10):1021–1033, doi:10.1023/A:1003469427858.
• Smith, J. W. & Gould, K. W. (1980): An isotopic study of the role of carbon dioxide in outburts in coal mines. – Geochem. J., 14:27–32, 2 Abb., 2 Tab.
• Smith, K. A., Gains, L. E. & Logan, T. J. (1998): Effect of Calcium Oxide dose on Thermal Reactions, lime Speciation, and Physical Properties of Alkaline Stabilized Biosolids. – Water Environ. Res., 70(2):224–230, doi:10.2175/106143098X127071.
• Smith, K. S. (1999): Metal Sorption on Mineral Surfaces – An Overview with Examples Relating to Mineral Deposits. – In: Plumlee, G. S. & Logsdon, M. J. (eds): The Environmental Geochemistry of Mineral Deposits 6A. – p. 161–182, 8 Abb., 8 Tab.; Littleton (Society of Economic Geologists); doi:10.5382/Rev.06.07.
• Smith, K. S., Balistrieri, L. S. & Todd, A. S. (2015): Using biotic ligand models to predict metal toxicity in mineralized systems. – Appl. Geochem., 57:55–72, doi:10.1016/j.apgeochem.2014.07.005.
• Smith, K. S., Figueroa, L. A. & Plumlee, G. S. (2013): Can treatment and disposal costs be reduced through metal recovery? – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 729–734, 2 Abb.; Golden (International Mine Water Association).
• Smith, K. S. & Huyck, H. L. O. (1999): An Overview of the Abundance, Relative Mobility, Bioavailability, and Human Toxicity of Metals. – In: Plumlee, G. S. & Logsdon, M. J. (eds): The Environmental Geochemistry of Mineral Deposits 6A. – p. 29–70, 17 Abb., 16 Tab.; Littleton (Society of Economic Geologists).
• Smith, L. (1851): On some of the thermal waters of Asia Minor. – Am. J. Sci. Arts, 12(36):366–377.
• Smith, L. & Chapman, D. S. (1983): On the Thermal Effects of Groundwater Flow 1. Regional Scale Systems. – J. Geophys. Res., B 1(88):593–608, 16 Abb., 3 Tab.
• Smith, L. A. & Kotze, J. (2010): Challenges of Open Pit Dewatering for an Intrusive Ore Body. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 59–63, Sydney, NS (Cape Breton University Press).
• Smith, M. L. & Williams, R. E. (1996): Examination of methods for evaluating remining a mine waste site; Part I, Geostatistical characterization methodology. – Eng. Geol., 43(1):11–21, doi:10.1016/0013-7952(96)00029-4.
• Smith, M. W. & Brady, K. B. C. (1998): Alkaline Addition. – In: The Pennsylvanian Department of Environmental, P. (ed) Coal mine drainage prediction and pollution prevention in Pennsylvania. – p. 13.1–13.13, 4 Abb., 1 Tab.; Harrisburg (Pennsylvanian Bureau of Mining and Reclamation); doi:10.5382/Rev.06.07.
• Smith, P. (2002): In-Stream Treatment of Mine Water using Clay. http://www.aquatonics.com/in_stream_treatment.html Accessed 2004-10-09.
• Smith, P. A. (2002): Characterization of an Acid Mine Drainage Site in Southern Illinois. – 6 Abb., 1 Tab.; Lexington (Proceedings 19th Annual National Meeting – American Society for Mining and Reclamation).
• Smith, P. A., Kiser, R. & Peters, S. (2001): Abandoned Mine Land Reclamation Sites in Southern Illinois. – Guidebook for Field Trips – 38th Annual Meeting American Institution of Professional Geologists:113–129, 11 Abb.
• Smith, R. (1978): Water Analysis in South Africa: Interlaboratory Comparisoin Studies. Part II: COD, pH, and Electrical Conductivity Analyses. – Water SA, 4(1):4–9, 2 Abb., 5 Tab.
• Smith, S. H. (1962): Temperature Corrections in Conductivity Measurements. – Limnol. Oceanogr., 7(3):330–334, 1 Abb., 1 Tab.
• Smith, W. C., Ramsey, A. & Mann, R. (2024): Crossville coal passive treatment system – the redesign of a non-functioning iron and manganese treatment system. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 588–593; Morgantown (International Mine Water Association).
• Smith, W. H. (1976): Lead Contamination of the Roadside Ecosystem. – J. Air Pollut. Control Assoc., 26(8):753–766, doi:10.1080/00022470.1976.10470310.
• Smithard, T., Bordy, E. M. & Reid, D. (2015): The effect of dolerite intrusions on the hydrocarbon potential of the lower Permian Whitehill formation (Karoo Supergroup) in South Africa and Southern Namibia: A preliminary study. – S. Afr. J. Geol., 118(4):489–510, doi:10.2113/gssajg.118.4.489.
• Smolensky, J., Hockley, D., Lefebvre, R. & Paul, M. (1999): Oxygen Transport Processes in the Nordhalde of the Ronnenburg Mining District, Germany. Paper presented at the Sudbury ’99 – Mining and the Environment II, Sudbury. – p. 271–280, 11 Abb., 2 Tab.
• Smolyakov, B. S., Ryzhikh, A. P., Bortnikova, S. B., Saeva, O. P. & Chernova, N. Y. (2010): Behavior of metals (Cu, Zn and Cd) in the initial stage of water system contamination: Effect of pH and suspended particles. – Appl. Geochem., 25(8):1153–1161, doi:10.1016/j.apgeochem.2010.05.001.
• Smuda, J., Dold, B. & Spangenberg, J. E. (2006): Mineralogical, Geochemical and Isotopic Study of the Active Tailings Impoundment Carén from the Porphyry Copper Deposit El Teniente, Chile: ICARD 2006 7. – 2078–2083 [CD–ROM] p., 3 Abb.; St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06022078.
• Smyth, V., Gerke, M., Schultz, R., Dent, J., Pearce, S., Gersten, B., Williams, T. & Barnes, A. (2025): Novel Developments in High-Shear Degassing Using Carbon Dioxide-Depleted Air to Precipitate Metal Contaminants: Sustainable Active Treatment Strategies for Circum-neutral Mine Water. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 458–463; Braga (International Mine Water Association).
• Smyth, W. D. & Moum, J. N. (2000): Length Scales of Turbulence in Stably Stratified Mixing Layers. – Phys. Fluids, 12(6):1327–1342, 15 Abb., 1 Tab.; doi:10.1063/1.870385.
• SNC-Lavalin Inc. (2004): Phase I Environmental Site Assessment Cape Breton Development Corporation Properties Cape Breton County, Nova Scotia – GROUP B PROPERTIES. – Unpubl. Report for Public Works & Government Services Canada (Report Nr. 015962). – 235 p., Dartmouth (Snc-Lavalin Inc.).
• Snodgrass, A. A. (1986): Lead in South Africa. – J. S. At,. Inst. Min. Metall., 86(4):97–111.
• Snow, C. P. (1959): Two Cultures. – Science, 130(3373):419–419.
• Snow, C. P. (2012 [1959]): The two Cultures. – 107 p., Cambridge (Cambridge University Press).
• Šnupárek, R. & Soucek, K. (1999): Polyurethane Geocomposites. Mechanical Properties and Deformation. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 657–661, 9 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Snyder, D. (2012): Vertical gradients in geochemistry of flooded mine shafts in Butte, Montana. – 125 p., M.S., Montana Tech of The University of Montana; Ann Arbor.
• Snyder, R., Berry, F. & Lehman, R. (2008): Electrocoagulation – Improving the Efficiency and Reducing the Footprint for Water Recovery Treatment Centers. Paper presented at the WEFTEC – Water Environment Federation, Chicago, IL. – p. 0802/1–12, 6 Abb., 1 Tab.
• Soares, A. B., Possa, M. V., de Souza, V. P., Soares, P. S. M. & de Aguiar, M. F. P. (2022): Dry Covers Applied to Coal Tailings. – Mine Water Environ., 41(3):666–678, doi:10.1007/s10230-022-00883-6.
• Soares, A. B., Possa, M. V., Souza, V. P. d., Soares, P. S. M., Barbosa, M. C., Ubaldo, M. d. O., Bertolino, A. V. F. A. & Borma, L. S. (2010): Design of a Dry Cover Pilot Test for Acid Mine Drainage Abatement in Southern Brazil, Part II: Pilot Unit Construction and Initial Monitoring. – Mine Water Environ., 29(4):277–284, 9 Abb., 2 Tab.; doi:10.1007/s10230-010-0126-0.
• Soares, M. B. (2003): A taphonomic model for the Mesosauridae assemblage of the Irati Formation (Paraná Basin, Brazil). – Geol. Acta, 1(4):349–361, doi:10.1344/105.000001621.
• Sobek, A. A., Rastogi, V. & Benedetti, D. A. (1990): Prevention of Water Pollution Problems in Mining: The Bactericide Technology. – Int. J. Mine Water, 9(1-4):133–148, 9 Abb., 6 Tab.
• Sobek, A. A., Schuller, W. A., Freeman, J. R. & Smith, R. M. (1978): Field and Laboratory Methods Applicable to Overburdens and Minesoils: 600/2-78-054. – 203 p., Washington (U.S. Environmental Protection Agency).
• Sobek, A. A., Shellhorn, M. A. & Rastogi, V. (1985): Use for controlled release bactericides for reclamation and abatement of acid mine drainage. – Proceedings, 2nd International Mine Water Association Congress, 2:817–827.
• Sobolewski, A. (2010): Benefits of using liquid carbon sources for passive treatment systems. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 279–283, Sydney, NS (Cape Breton University Press).
• Sobolewski, A. & Sobolewski, N. (2022): Holistic Design of Wetlands for Mine Water Treatment and Biodiversity: A Case Study. – Mine Water Environ., 41(1):292–299, doi:10.1007/s10230-021-00838-3.
• Sobolewski, A. B., Riese, A. C., Moore, T. J. & Brown, A. R. (2022): Passive Treatment of Circumneutral Mine Drainage from the St. Louis Mine Tunnel, Rico CO: Part 3—Horizontal Wetlands Treatment Train Pilot Study. – Mine Water Environ., 41(4):886–905, doi:10.1007/s10230-022-00856-9.
• Sobotha, E. (1956): Newly drilled mineral source in Frankenber/Eder. – Z. dt. geol. Ges., 108(1):100–104, doi:10.1127/zdgg/108/1956/100.
• Society for Mining Metallurgy and Exploration & Lowrie, R. L. (2002): SME Mining Reference Handbook –448 p., Littleton (Society for Mining Metallurgy & Exploration).
• Södergren, A., Svensson, B. & Ulfstrand, S. (1972): DDT and PCB in south Swedish streams. – Environmental Pollution (1970), 3(1):25–36, doi:10.1016/0013-9327(72)90015-8.
• Soetaert, K. & Herman, P. M. J. (1995): Carbon flows in the Westerschelde estuary (The Netherlands) evaluated by means of an ecosystem model (MOSES). – Hydrobiologia, 311(1):247–266, doi:10.1007/BF00008584.
• Soetaert, K. & Herman, P. M. J. (1995): Estimating estuarine residence times in the Westerschelde (The Netherlands) using a box model with fixed dispersion coefficients. – Hydrobiologia, 311(1):215–224, doi:10.1007/BF00008582.
• Sohrab, A. P., Huang, Y., Hussein, M., Kod, M. & Carter, P. (2016): A UHF RFID Tag With Improved Performance on Liquid Bottles. – IEEE Antennas Wirel. Propag. Lett., 15:1673–1676, doi:10.1109/lawp.2016.2521786.
• Sohrabi, M. (1998): The State-of-the-art on Worldwide Studies in some Environments with Elevated Naturally Occurring Radioactive Materials (NORM). – Appl. Radiat. Isot., 49(3):169–188, 5 Abb., 4 Tab.
• Sokoła-Szewioła, V., Kotyrba, A., Marwan, A., Lurka, A., Möllerherm, S., Schreiber, J., Contrucci, I., Primo Doncel, P., Mutke, G., Dominique, P., Klein, E., Jiránková, E., Konicek, P., Rudolph, T., Niemz, P., Kajzar, V. & Cesca, S. (2023): Methods on Assessment and Monitoring of Seismic Hazards in Coal Post-Mining Areas – Guidelines. – 118 p., Gliwice (Silesian University of Technology Publishing House); doi:10.34918/86577.
• Sokolov, M. & Mashaal, M. (1990): Velocity measurements in slow flow by the conductance-tracer method. – Exp. Fluids, 9(5):252–256, doi:10.1007/BF00233125.
• Sokulina, N. V. (1985): Study of formation of fissure-karst water inflows into mine workings. – Proceedings, 2nd International Mine Water Association Congress, 2:1039–1044.
• Sol, V. M., Peters, S. W. M. & Aiking, H. (1999): Toxic waste storage sites in EU countries – A preliminary risk inventory. – 79 p., 16 Abb., 6 Tab., 4 Anh.; Copenhagen (WWF European Freshwater Programme).
• Soldner, J. (1810): Theorie der Landesvermessung. – Leipzig (Engelmann).
• Solé, C., Medrano, M., Castell, A., Nogués, M., Mehling, H. & Cabeza, L. F. (2008): Energetic and exergetic analysis of a domestic water tank with phase change material. – Int. J. Energy Res., 32(3):204–214, doi:10.1002/er.1341.
• Sole, K., Prinsloo, A. & Hardwick, E. (2016): Recovery of copper from Chilean mine waste waters. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1295–1302, Freiberg (TU Bergakademie Freiberg).
• Solomon, M. (1967): Fossil Gossans (?) at Mt. Lyell, Tasmania. – Econ. Geol., 62(6):757–772, 11 Abb., 3 Tab.
• Solomon, M., Webby, B. D. & Williams, E. (1979): Delamerian unconformities in Tasmania; discussion and reply. – Journal of the Geological Society of Australia, 26(7-8):435–438, Refs: 18.
• Solopanov, A. T., Serdyukov, L. I., Pavlov, V. A. & Kobylkin, N. I. (1998): Ecological Reliability of Burial and Reverse Pumping of Drainage Brines on Open Pits of Almazy Rossii-Sakha Co. Ltd: Mine Water and Environmental Impacts 2. – 271–275 p., 2 Abb.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Solymos, A. (1982): The Realtionship and Comparative Analyses of Mine Water Prevention Systems and Production. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:204–222, 7 Abb.
• Somaratne, N. & Hallas, G. (2015): Review of Risk Status of Groundwater Supply Wells by Tracing the Source of Coliform Contamination. – Water, 7(7):3878–3905, 8 Abb., 5 Tab.; doi:10.3390/w7073878.
• Somerfield, P. J., Gee, J. M. & Warwick, R. M. (1994): Benthic Community Structure in Relation to an Instantaneous Discharge of Waste Water from a Tin Mine. – Mar. Pollut. Bull., 28(6):363–369, 6 Abb., 2 Tab.
• Somogyvári, M., Bayer, P. & Brauchler, R. (2016): Travel-time-based thermal tracer tomography. – Hydrol. Earth Syst. Sci., 20(5):1885–1901, doi:10.5194/hess-20-1885-2016.
• Somosvári, Z. (1982): Surface Subsidence due to Water Level Reduction in the Thorez Opencast Mine. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:376–398, 8 Abb., 1 Kart.
• Sonal, S., Ugale, D. & Mishra, B. K. (2021): Combining Surface Water with Mine Water to Improve the Removal of Natural Organic Matter by Enhanced Coagulation. – Mine Water Environ., 40(3):701–712, doi:10.1007/s10230-020-00737-z.
• Søndergaard, J., Asmund, G., Johansen, P. & Elberling, B. (2010): Pb isotopes as tracers of mining-related Pb in lichens, seaweed and mussels near a former Pb-Zn mine in West Greenland. – Environ. Pollut., 158(5):1319–1326, doi:10.1016/j.envpol.2010.01.006.
• Song, H., Zhou, Y., Li, A. & Mueller, S. (2012): Selective removal of nitrate from water by a macroporous strong basic anion exchange resin. – Desalination, 296:53–60, doi:10.1016/j.desal.2012.04.003.
• Song, X. & Leone, G. (2013): Modeling Application in Evaluating Environmental Impact due to Phosphate Mining Activities. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 469–474, 5 Abb.; Golden (International Mine Water Association).
• Song, Y., Fitch, M., Burken, J., Nass, L., Chilukiri, S., Gale, N. & Ross, C. (2001): Lead and zinc removal by laboratory-scale constructed wetlands. – Water Environ. Res., 73(1):37–44, 9 Abb., 6 Tab.
• Soni, A. K. (2007): Evaluation of Hydrogeological Parameters Associated with Limestone Mining: A Case Study from Chandrapur, India. – Mine Water Environ., 26(2):110–118, 3 Abb., 4 Tab.; doi:10.1007/s10230-007-0157-3.
• Soni, A. K. (2013): Water Management in Policy Perspective for Resource Use Improvement. Paper presented at the National Conference on Challenges in 21st Century Mining – Environment & Allied Issues, Nagpur. – p. 205−212.
• Soni, A. K. (2020): Estimation of Mine Water Quantity: Development of Guidelines for Indian Mines. – Mine Water Environ., 39(2):397–406, doi:10.1007/s10230-020-00685-8.
• Soni, A. K. & Mrunalini, V. K. (2009): Water Resource Management in a Mining Area of Maharashtra Workshop on “Ground Water Resource Management in Maharashtra”. Nagpur, 42–51.
• Soni, A. K. & Wolkersdorfer, Ch. (2016): Mine water: Policy perspective for improving water management in the mining environment with respect to developing economies. – Int. J. Min. Reclam. Environ., 30(2):115–127, doi:10.1080/17480930.2015.1011372.
• Sonne, C., Siebert, U., Gonnsen, K., Desforges, J.-P., Eulaers, I., Persson, S., Roos, A., Bäcklin, B.-M., Kauhala, K., Tange Olsen, M., Harding, K. C., Treu, G., Galatius, A., Andersen-Ranberg, E., Gross, S., Lakemeyer, J., Lehnert, K., Lam, S. S., Peng, W. & Dietz, R. (2020): Health effects from contaminant exposure in Baltic Sea birds and marine mammals: A review. – Environment International, 139:105–725, doi:10.1016/j.envint.2020.105725.
• Sonqishe, T., Balfour, G., Iwouha, E. & Petrik, L. (2009): Treatment of Brines using Commercial Zeolites and Zeolites Synthesized from Fly Ash Derivative. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 695–702, 3 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Sopper, W. E., Seaker, E. M. & Hinesly, T. D. (1984): Use of municipal sewage sludge to reclaim mined land. – CRC Crit. Rev. Environ. Control, 13(3):227–271, 5 Abb., 20 Tab.; doi:10.1080/10643388409381708.
• Sørensen, S. P. L. (1909): Über die Messung und die Bedeutung der Wasserstoffionenkonzentration bei enzymatischen Prozessen [On the measurement and significance of hydrogen ion concentration in enzymatic processes]. – Biochemische Zeitschrift, 21:131–200, 8 Abb., 1 Tab.
• Sorjonen-Ward, P. B., Hartikainen, A., Nurmi, P. A., Rasilainen, K., Schaubs, P., Zhang, Y. & Liikanen, J. (2015): Chapter 5.3 – Exploration Targeting and Geological Context of Gold Mineralization in the Neoarchean Ilomantsi Greenstone Belt in Eastern Finland. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 435–466, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00017-0.
• Soto, J., Álvarez, R., Loredo, J. & García Iglesias, J. (2005): Pollution Associated to artisanal Gold mining in Ayacucho Department, Perú: Mine Water 2005 – Mine Closure. – 587–593 p., 7 Abb., 5 Tab.; Oviedo (University of Oviedo).
• Soudek, P., Valenova, S. & Vanek, T. (2005): Study of radiophytoremediation on heavily polluted area in South Bohemia. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 519–524, Heidelberg (Springer).
• Souissi, R., Souissi, F., Chakroun, H. K. & Bouchardon, J. L. (2013): Mineralogical and Geochemical Characterization of Mine Tailings and Pb, Zn, and Cd Mobility in a Carbonate Setting (Northern Tunisia). – Mine Water Environ., 32(1):16–27, 5 Abb., 6 Tab.; doi:10.1007/s10230-012-0208-2.
• Sousa, T., Chung, A. P., Pereira, A., Piedade, A. P. & Morais, P. V. (2013): Aerobic uranium immobilization by Rhodanobacter A2-61 through formation of intracellular uranium-phosphate complexes. – Metallomics, 5(4):390–397, doi:10.1039/c3mt00052d.
• South African Government (2006): Foodstuffs, Cosmetics and Disinfectants Act, 1972 (Act No. 54 of 1972). In: Department of Health (ed). Regulations Relating to All Bottled Waters South African Government, Pretoria, 11.
• South African Government (2010): Foodstuffs, Cosmetics and Disinfectants Act, 1972 (Act No. 54 of 1972) – Regulations Relating to All Packaged Waters (Amended with Act No. 39 of 2007 and 455 of 2010). In: Department of Health (ed). vol R. 455 2010. Government Gazette, Pretoria.
• South African Government (2023): Foodstuffs, Cosmetics and Disinfectants Act, 1972 (Act No. 54 of 1972) – Regulations Relating to the Labelling and Advertising of Foodstuffs (Regulation No. R. 3337 of 2023). In: Department of Health (ed). vol 48460. Government Gazette, Pretoria, 13–261.
• South African National Standard (2003): Packaged water other than natural mineral water (SANS 1862:2003), 1.1 edn. – 24 p., Pretoria (South African Bureau of Standards).
• South African National Standard (2013): Water – Dissolved solids content (SANS 5213:2013). – 5 p., Pretoria (South African Bureau of Standards).
• South African National Standard (2015): Drinking Water Quality (SANS 241-1:2015, SANS 241-2:2015). – 5 p., Pretoria (South African Bureau of Standards).
• South African National Standard (2022): Bottled water of subterranean origin (SANS 1657:2022), 2.4 edn. – 29 p., Pretoria (South African Bureau of Standards).
• South African National Standard (2024): Drinking Water Quality (SANS 241:2024). – 5 p., Pretoria (South African Bureau of Standards).
• Souther, J. G. & Halstead, E. C. (1973): Mineral and Thermal Waters of Canada: Paper 73-18. – 225–256 p., 7 Abb., 2 Tab.; Ottawa (Department of Energy Mines and Resources).
• Southwood, D. (2012): Research collaboration: When international partnerships go wrong. – Nature, 488:451–453, 3 Abb., 1 Tab.; doi:10.1038/488451a.
• Sowa, A. (1985): Die Geologie der Insel Folegandros (Kykladen, Griechenland). – Erlanger geol. Abh., 112:85–101, Refs: 40; illus. incl. sects., charts, 1 table, geol. sketch maps.
• Soyol-Erdene, T.-O., Huh, Y., Hong, S. & Hur, S. D. (2011): A 50-Year Record of Platinum, Iridium, and Rhodium in Antarctic Snow: Volcanic and Anthropogenic Sources. – Environ. Sci. Technol., 45(14):5929–5935, doi:10.1021/es2005732.
• Soyol-Erdene, T.-O., Valente, T., Tsermaa, K., Tuuguu, E., Davaadorj, M., Goosh, B. & Braga, M. A. S. (2021): Hydrogeochemistry and Mineralogy of a River System in a Mining Region with a Cu-world-class Deposit in Mongolia. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 657–663; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Spalding, R. F. & Kitchen, L. A. (1988): Nitrate in the Intermediate Vadose Zone Beneath Irrigated Cropland. – Groundwater Monitoring & Remediation, 8(2):89–95, 4 Abb.; doi:10.1111/j.1745-6592.1988.tb00994.x.
• Span, R. & Wagner, W. (1996): A New Equation of State for Carbon Dioxide Covering the Fluid Region from the Triple-Point Temperature to 1100 K at Pressures up to 800 MPa. – J. Phys. Chem. Ref. Data, 25(6):1509–1596, 39 Abb., 35 Tab.
• Span, R., Wagner, W., Lemmon, E. W. & Jacobsen, R. T. (2001): Multiparameter equations of state – recent trends and future challenges. – Fluid Phase Equilibria, 183-184:1–20, 9 Abb., 1 Tab.
• Spangenberg, J. E., Dold, B., Vogt, M.-L. & Pfeifer, H.-R. (2007): Stable Hydrogen and Oxygen Isotope Composition of Waters from Mine Tailings in Different Climatic Environments. – Environ. Sci. Technol., 41(6):1870–1876, doi:10.1021/es061654w.
• Spangler, L. E., Byrd, P. E. & Thrailkill, J. (1984): Use of Optical Brightener and Direct Yellow Dyes for Water Tracing in the Inner Bluegrass Karst Region, Kentucky. – Natl. Speleol. Soc. Bull., 46(2):10–16, 6 Abb., 2 Tab.
• Sparks, B. W. (1962): Rates of Operation of Geomorphological Processes. – Geography, 47(2):145–153, 2 Abb.
• Sparrow, B., Man, M. & Zoshi, J. (2012): Novel salt extractor system for salt removal from mine water and calcium sulfate removal on the International Space Station: International Mine Water Association Symposium. – 651–660 p., 5 Abb., 2 Tab.; Bunbury (Edith Cowan University).
• Spata, M. (1999): Transformation von Koordinaten und Höhen in der Landesvermessung – Teil I: Theoretische Grundlagen, 2 edn. – 61 p., 10 Anl.; Bad Godesberg (Landesvermessungsamt Nordrhein-Westfalen).
• Speight, J. G. (2016): Ethics in the University. – 294 p., Beverly (Scrivener Wiley).
• Spelman, M., Davidson, G., Weinelt, B., Joseph, L., Siyam, R., Lichtenstein, J. E., Bartels, R., Davis, C., Popp, W., Shah, A., Keppler, F. & Shroff, S. (2017): Digital Transformation Initiative – Mining and Metals Industry – White Paper. – 35 p., Cologny (World Economic Forum).
• Spence, C. & McPhie, M. (1997): Streamflow measurement using salt dilution in tundra streams, Northwest Territories, Canada. – J. Am. Water Resour. Assoc., 33(2):285–292, 6 Abb., 1 Tab.; doi:10.1111/j.1752-1688.1997.tb03509.x.
• Spence, J. (2020): Miner Artist/Minor Artist? Class, Politics, and the Post-industrial Consumption of Mining Art. – Frontiers in Sociology, 5 doi:10.3389/fsoc.2020.00062.
• Spence, R. D. & Shi, C. (2005): Stabilization and solidification of hazardous, radioactive, and mixed wastes. – 378 p., Boca Raton (CRC Pess).
• Spengler, E. (1953): Versuch einer Rekonstruktion des Ablagerungsraumes der Decken der Nördlichen Kalkalpen. – Jb. Geol. B.-A., 96:1–64, 8 Abb., 2 Kart.
• Sperges, J. v. (1765): Tyrolische Bergwerksgeschichte mit alten Urkunden, und einem Anhange, worinn das Bergwerk zu Schwaz beschrieben wird. – 336 p., Wien (Thomas Edlen).
• Sperling, E. v. & Grandchamp, C. A. P. (2008): Water Quality of a Deep Pit Lake: Case Study of Aguas Claras, Brazil. – Proceedings, 10th International Mine Water Association Congress:615–618.
• Sperling, T., Ken Munro, W. & Freeze, R. A. (1989): Groundwater control at Highland Valley Copper. – Int. J. Surf. Min., 3:167–174, 11 Abb., 2 Tab.; doi:10.1080/09208118908944271.
• Spichack, J. N. (1988): Hydrogeological Testing in Underground Holes during Groutin. – Proceedings, 3rd International Mine Water Congress, Melbourne:649–654, 1 Abb.
• Spichak, J. N. (1985): Consolidation of tectonic ruptures using clay-cement grouts during tunnel driving. – Proceedings, 2nd International Mine Water Association Congress, 1:403–410.
• Spichak, Y. N. (1999): The Protection of Ground Water from Seepage of industrial and radioactive Waste. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 317–320, 2 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Spichak, Y. N. & Grinenko, A. N. (1994): Pregrouting of Rocks During Construction of Underground Railway Tunnels. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:317–322, 1 Abb., 1 Tab.
• Spichak, Y. N., Kipko, E. J. & Polozov, Y. A. (1999): Environmental Protection by Application of the STG Clay-based Grouting Method in Mining and civil Engineering. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 637–642, 5 Abb., 6 Tab.; Sevilla (International Mine Water Association).
• Spiegel, S. J. (2009): Resource policies and small-scale gold mining in Zimbabwe. – Resour. Policy, 34(1-2):39–44, doi:10.1016/j.resourpol.2008.05.004.
• Spiessl, S. M., Prommer, H., Sauter, M. & Zheng, C. (2002): Numerical simulation of uranium transport in flooded underground mines. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 277–286, 4 Abb., 1 Tab.; Heidelberg (Springer).
• Spieth, W. F. (2015): Verantwortung des Bergbaus für Stilllegung und Nachsorge – Neue Anforderungen nach Berg- und Wasserrecht als Herausforderung. – In: Paul, M. (ed) Sanierte Bergbaustandorte im Spannungsfeld zwischen Nachsorge und Nachnutzung – WISSYM 2015. – p. 45–52, 2 Abb.; Chemnitz (Wismut GmbH).
• Spinosa, L., Kempa, E. S., Okuno, N. & Vesilind, P. A. (1994): Global sludge management – A status-report and perspective. – Water Sci. Technol., 30(8):73–80.
• Spinosa, L. & Lotito, V. (2003): A simple method for evaluating sludge yield stress. – Advances in Environmental Research, 7:655–659, 1 Abb., 2 Tab.
• Spinosa, L. & Wichmann, K. (2004): Sludge characterization – the role of physical consistency. – Water Sci. Technol., 49(10):59–65.
• Spirnak, R., Shafer, M., Risch, C., O’Neal, M. & Ziemkiewicz, P. (2025): Evaluation of Watershed-Scale Acid Mine Drainage Treatment in the Muddy Creek Watershed, West Virginia. – Mine Water Environ., doi:10.1007/s10230-025-01052-1.
• Spitzer, S. (1864): Gesammt-Uebersicht über die Produktion, Consumption und Circulation der Mineralkohle, als Erläuterungen zur Kohlenrevier-Karte des Kaiserstaates Oesterreich, nach authentischen Quellen. – 103 p., (Prandel & Ewald).
• Spletozer, A. G., Fernandes Filho, E. I., Martini, A., Bramorski, J., Tonello, K. C. & Dias, H. C. T. (2024): Surface Runoff in Open Cast Mining Areas: Methods, Influential Factors, Quantifications, and Trends. – Mine Water Environ., 43(3):402–417, doi:10.1007/s10230-024-01006-z.
• Spörlein, T., Wagner, B., Schäfer, B., Strobl, C., Mikulla, C., Barth, A. & Sieste, M. (2004): Flächendatenbank für die hydrogeologische Karte von Bayern: Konzept, Fachdatenmodell, Realisierung. – Wiss. Mitt. Inst. Geol., 25:47–52, 2 Abb.
• Sporn, T. A. (2014): The Mineralogy of Asbestos. Pathology of Asbestos-Associated Diseases. – p. 1–10, 9 Abb., 1 Tab.; Heidelberg (Springer); doi:10.1007/978-3-642-41193-9_1.
• Sposito, G. (2016): Physical Properties and Processes: Scaling. Reference Module in Earth Systems and Environmental Sciences. – p., 3 Tab.; Amsterdam (Elsevier); doi:10.1016/B978-0-12-409548-9.09696-2.
• Spötl, C. (1989): Die Salzlagerstätte von Hall in Tirol – Ein Überblick über den Stand der geologischen Erforschung des 700jährigen Bergbaubetriebes. – Veröff. Tiroler Landes-Mus. Ferdinandeum, 69:137–168, illus. incl. sects., strat. col., geol. sketch map.
• Spötl, C., Scholz, D., Rareder, G. & Reimer, P. J. (2019): Cave bear occupation in Schwabenreith Cave, Austria, during the early last glacial: constraints from Th-230/U-dated speleothems. – J. Quat. Sci. , 34(6):424–432, doi:10.1002/jqs.3110.
• Spreafico, M. (1994): Abflussmengenbestimmung mit dem Verdünnungsverfahren. – Beitr. Hydrogeol. Schweiz, 35(4):173–180, 5 Abb.
• Sprenger, M., Leistert, H., Gimbel, K. & Weiler, M. (2016): Illuminating hydrological processes at the soil-vegetation-atmosphere interface with water stable isotopes. – Rev. Geophys., 54(3):674–704, doi:10.1002/2015RG000515.
• Springer, F. (2019): Kupferberg – Der verschwundene Ort. – 335 p., Wien (Zsolnay).
• Spruill, T. B. (1984): Assessment of Water Resources in Lead-Zinc Mined Areas in Cherokee County, Kansas, and Adjacent Areas. – Open-File Rep. US Geol. Surv., OF 84-0439:1–156, 45 refs, illus., 26 tables, sketch maps.
• Spurgeon, D. J., Pohl, H. R., Loureiro, S., Løkke, H. & van Gestel, C. A. M. (2011): Exposure. – In: van Gestel, C. A. M., Jonker, M. J., Kammenga, J. E., Laskowski, R. & Svendsen, C. (eds): Mixture Toxicity – Linking Approaches from Ecological and Human Toxicology. – p. 1–45, 2 Abb., 6 Tab.; Boca Raton (CRC Press); doi:10.1201/b10292-2.
• Spurlin, M. S., Rogoff, E., Cichy, D. M. & Divine, C. E. (2013): Enhanced 3-D Visualization as a Powerful Data Analysis and Stakeholder Communication Tool During Mine Closure. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1125–1130, 5 Abb.; Golden (International Mine Water Association).
• Spychak, Y. N. (2009): Experience with Backfilling Underground Voids and Shafts during Mine Closure. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 843–848, 4 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Spychak, Y. N. (2009): Grouting during the Driving of Drifts and Tunnels. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 308–313, 3 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Spychak, Y. N. (2009): Pregrouting during Deep Shaft Sinking. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 322–329, 6 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Sracek, O., Mihaljevič, M., Kříbek, B., Majer, V. & Veselovský, F. (2010): Geochemistry and mineralogy of Cu and Co in mine tailings at the Copperbelt, Zambia. – J. Afr. Earth Sci., 57(1-2):14–30, 13 Abb., 3 Tab.; doi:10.1016/j.jafrearsci.2009.07.008.
• Srbik, H. H. R. v. (1997): The Messerschmitt Foundation. – ICOMOS - Hefte des Deutschen Nationalkomitees, 26:49–52, 1 Abb.; doi:10.11588/ih.1997.0.21539 .
• Srbik, R. R. v. (1929): Überblick des Bergbaues von Tirol und Vorarlberg in Vergangenheit und Gegenwart. – Ber. Naturw.-med. Ver. Innsbruck, 41:113–279, 20 Abb., 4 Tab.
• Srbik, R. R. v. (1930): Einiges über den Bergbau in Vorarlberg. – Heimat – volkstüml. Beitr. zur Kultur u. Naturkunde Vorarlbergs, 11:25–28, 1 Abb.
• Sreekumar, U., Gildeh, H. K., Mohammadian, A., Rennie, C. & Nistor, I. (2024): Tailings Dam Breach Outflow Modelling: A Review. – Mine Water Environ., 43(4):563–587, doi:10.1007/s10230-024-01015-y.
• St. Louis, R. M. (2013): Assessment of Legacy Contaminant Remediation at the Phoenix Mine, Nevada. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1131–1137, 4 Abb., 1 Tab.; Golden (International Mine Water Association).
• Stäbler, H. (1976): Bergbau im Schams, im Ferreratal und im vorderen Rheinwald. – Jber. Hist.-Antiqu. Ges. Graubünden, 106:1–77; 1–16, 40 Abb.
• Stäbler, H. (1980): Bergbau im Hinterrheingebiet. – Bergknappe, 11:75–79, 5 Abb.
• Stäbler, H. (1981): Bergbau im Schams, im Ferreratal und im vorderen Rheinwald. – Bergknappe:77, 40 Abb., 3 Taf.
• Stacey, J., Naude, A., Hermanus, M. & Frankel, P. (2010): The socio-economic aspects of mine closure and sustainable development – guideline for the socio-economic aspects of closure – Report 2. – J. S. Afr. Inst. Min. Metall., 110(7):395–413.
• Stacey, J., Naude, A., Hermanus, M. & Frankel, P. (2010): The socio-economic aspects of mine closure and sustainable development: literature overview and lessons for the socio-economic aspects of closure – Report 1. – J. S. Afr. Inst. Min. Metall., 110(7):379–394, 4 Tab.
• Stach, E. (1933): Zur Chemie der oberbayerischen Pechkohlen. – Z. dt. geol. Ges., 85:80, doi:10.1127/zdgg/1933/80a.
• Stachurski, A. & Zimka, J. R. (2002): Atmospheric deposition and ionic interactions within a beech canopy in the Karkonosze Mountains. – Environ. Pollut., 118(1):75–87, doi:10.1016/S0269-7491(01)00238-X.
• Staffler, J. J. (1827): Die gefürstete Graffschaft Tirol historisch, statistisch und topographisch beschrieben. – 4 Abb., 2 Kart.; Innsbruck (Wagner).
• Staffler, J. J. (1839): Tirol und Vorarlberg, statistisch, mit geschichtlichen Bemerkungen: I. Theil. – 684 p., Innsbruck (Rauch).
• Staffler, J. J. (1841): Tirol und Vorarlberg, statistisch und topographisch, mit geschichtlichen Bemerkungen; in zwei Theilen: II. Theil / I. Band. – 974 p., Innsbruck (Wagner).
• Stahl, A. D. & Parizek, R. R. (1988): A Quantitative Assessment of the Natural Abatement of Acid Mine Drainage by Interaction with Allegheny Group Lithologies. – Bur. Mines Inf. Circ., 9183:170–179.
• Stahl, J. B. (1979): Black water and 2 peculiar types of stratification in an organically loaded strip-mine lake. – Water Res., 13(5):467–471, doi:10.1016/0043-1354(79)90040-x.
• Stahlschmidt-Allner, P., Delov, V., Batzke, M., von der Gönna, S., Nickel, G., Oerter, T., Schuster, S., Teichmann, K. & Feldmann, M.-A. (2014): Handbuch Altlasten – Ökotoxikologische Verfahren als Bewertungshilfe bei Altlastenverfahren: Band 3, Teil 8. – 78 p., 29 Abb., 18 Tab.; Wiesbaden, (Hessisches Landesamt für Umwelt und Geologie).
• Staicu, L. C., van Hullebusch, E. D. & Lens, P. N. (2015): Production, recovery and reuse of biogenic elemental selenium. – Environ. Chem. Lett., 13(1):89–96, doi:10.1007/s10311-015-0492-8.
• Stairs, D. B. (1993): Flow Characteristics of Constructed Wetlands – Tracer Studies of the Hydraulic Regime. – 72 p., Oregon State University, 19 Abb., 10 Tab.
• Stammberger, V., Jacobs, B. & Krautblatter, M. (2024): Hyperconcentrated flows shape bedrock channels. – Communications Earth & Environment, 5(1) doi:10.1038/s43247-024-01353-3.
• Stander, G. J. (1963): A survey of river pollution in the Witwatersrand catchment area of the Vaal River. – CSIR Special Report, W22:1–83, 21 Abb., 38 Tab., 5 Taf.
• Stander, H.-M., Harrison, S. T. & Broadhurst, J. L. (2018): Re-purposing Acid Generating Fine Coal Waste: An Assessment And Analysis Of Opportunities. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 565–570; (Tshwane University of Technology).
• Ständer, W. (1967): Das Gefrierverfahren im Schacht-, Grund- und Tunnelbau. – In: Baur, H., et al. (eds): Die Anwendung der Kälte in der Verfahrens- und Klimatechnik, Biologie und Medizin: Sicherheitsvorschriften 12. – p. 173–227, 34 Abb., 3 Tab.; Berlin (Springer); doi:10.1007/978-3-662-11478-0_5.
• Stanimirescu, A., Egri, A. & Flavius, S. F. (2020): The Effects of the Mining Industry on the Jiu River in the Opinion of the Citizens Case Study. – Ann. Univ. Petroşani Mech. Eng., 22:43–48.
• Stanley, P. C., James, T., Vaughan, B. & Pearce, S. (2020): Repurposing Mine Sites For The Well-being Of Future Generations: Innovative Examples And Case Study Of Developing Post Mining Remedial Work In Wales. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 218–224; (International Mine Water Association).
• Stanley, P. C., Thorn, P., Williams, T., Siddorn, L. & Cooke, D. (2022): A River System Approach to Mine Water Mitigation and Management. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 483–490; (International Mine Water Association).
• Stant, J., Evans, L., Gadinski, R. & Norris, C. (2007): Impacts on Water Quality from Placement of Coal Combustion Waste in Pennsylvania Coal Mines. – 706 + 1281 p., Boston (Clean Air Task Force).
• Stark, C., Condron, L. M., Stewart, A., Di, H. J. & O’Callaghan, M. (2007): Effects of past and current crop management on soil microbial biomass and activity. – Biol Fert Soils, 43(5):531–540, doi:10.1007/s00374-006-0132-3.
• Stark, L. R., Brooks, R. P., Williams, F. M., Stevens, S. E. & Davis, L. K. (1994): Water-Quality during Storm Events from two constructed Wetlands receiving Mine Drainage. – Water Resour. Bull., 30(4):639–650, doi:10.1111/j.1752-1688.1994.tb03319.x.
• Stark, L. R., Wenerick, W. R., Williams, F. M., Stevens Jr, S. E. & Wuest, P. J. (1994): Restoring the capacity of spent mushroom compost to treat coal mine drainage by reducing the inflow rate: a microcosm experiment. – Water Air Soil Pollut., 75(3-4):405–420, 9 Abb., 1 Tab.
• Stark, L. R. & Williams, F. M. (1995): Assessing the performance indices and design parameters of treatment wetlands for H+, Fe, and Mn retention. – Ecol. Eng., 5(4):433–444.
• Stark, L. R., Williams, F. M., Wenerick, W. R., Wuest, P. J. & Urban, C. (1996): The effects of substrate type, surface water depth, and flow rate on manganese retention in mesocosm wetlands. – J. Environ. Qual., 25(1):97–106, 10 Abb., 3 Tab.
• Stark, L. R., Williams, F. M., Wenerick, W. R., Wuest, P. J. & Urban, C. A. (1995): The effects of carbon supplementation and plant-species on iron retention in mesocosm treatment wetlands. – Wetlands, 15(1):58–67.
• Starke, M. (2004): The partitioning and mobility of metals in the Blesbokspruit. – 60 p., MSc, University of Cape Town; Cape Town.
• Starlinger, F. (1992): Rotföhren- und Spirkenwälder am Fernpaß (Tirol). – Tuexenia, 12:67–92.
• Starr, R. C. & Cherry, J. A. (1994): In Situ Remediation of Contaminated Ground Water: The Funnel-and-Gate System. – Ground Water, 32(3):465–476, doi:10.1111/j.1745-6584.1994.tb00664.x.
• Starý, J., Plšková, M. & Záruba, J. (2016): Dálnice D8 0805A – Doplňující IGP v km 55,500 – 58,280 [D8 0805A motorway – Additional IGP at km 55.500 – 58.280]. – Unpubl. Report for Czech Road and Motorway Directorate 41 p., 48 Abb., 51 Tab., 24 Anl.; Ústí nad Labem, Praha (AZ Consult spol. s. r. o.).
• Stasik, S. & Wendt-Potthoff, K. (2016): Sulfur Cycling in an Oil Sands Tailings Pond. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1042–1049, Freiberg (TU Bergakademie Freiberg).
• Staśko, S. & Wojtkowiak, A. (2004): Występowanie i jakość wód podziemnych w skałach krystalicznych Sudetów na podstawie badań ujęć [The groundwater occurrence and quality within crystalline rocks of Sudety Mts based on water intakes study (SW Poland)]. – Przegl. Geol., 52(1):69–75.
• Statistics South, A. (2005): Natural resource accounts – Water quality accounts for South Africa, 2000. – 43 p., 18 Tab.; Pretoria (Statistics South Africa).
• Staub, W. (1910): Die Tomalandschaften im Rheintal von Reichenau bis Chur. – Jb. Geogr. Ges. Bern, 22 4 Taf., 1 Abb.; doi:10.5169/seals-322528.
• Stauff, P. (1913): Semi-Kürschner oder literarisches Lexikon der Schriftsteller, Dichter, Bankiers, Geldleute, Ärzte, Schauspieler, Künstler, Musiker, Offiziere, Rechtsanwälte, Revolutionäre, Frauenrechtlerinnen, Sozialdemokraten usw., jüdischer Rasse und Versippung, die von 1813 – 1913 in Deutschland tätig oder bekannt waren. – Berlin-Gr. Lichterfelde (Eigenverlag Stauff).
• Stauffer, T. E. & Lovell, H. L. (1969): The Oxygenation of Iron II Solutions – Relationships to Coal Mine Drainage Treatment. – Am. Chem. Soc., Div. Fuel Chem., Prepr., 13(2):88–94, 3 Abb., 3 Tab.
• Stea, R. R., Pullan, S. E. & Feetham, M. (2002): Mesozoic-Cenozoic Stratigraphy of the Lowlands of Southwest Cape Breton Island (NTS 11F/11, 11F/14): Mineral Resources Branch – Report of Activities 2003-1. – 103–126 p., 12 Abb.; Halifax (Nova Scotia Department of Natural Resources).
• Stedingk, K., Rentzsch, J., Knitzschke, G., Schenke, G., Heinrich, K. & Scheffler, H. (2002): Potenziale der Erze und Spate in Sachsen-Anhalt. – Mitteilungen zur Geologie von Sachsen-Anhalt Bh., 5:75–132.
• Stefan, H. G. & Gu, R. (1992): Efficiency of Jet Mixing of Temperature-Stratified Water. – J. Environ. Engineering, 118(3):363–379, 17 Abb., 1 Tab.; doi:10.1061/(ASCE)0733-9372(1992)118:3(363).
• Stefanakis, A. I. (2018): Constructed Wetlands for Industrial Wastewater Treatment: Challenges in Water Management. – 578 p., Hoboken (Wiley).
• Stefaniak, S. & Twardowska, I. (2010): Impact of engineering constructions made of Carboniferous waste rock on groundwater deterioration. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 599–603, Sydney, NS (Cape Breton University Press).
• Stefanko, R. (1969): Subsurface Disposal of Mine Water. – Am. Chem. Soc., Div. Fuel Chem., Prepr., 13(2):95–102, 2 Abb., 1 Tab.
• Steffen Robertson and Kirsten (B.C.) Inc, Norecol Environmental Consultants & Gormely Process Engineering (1989): Draft acid rock drainage technical guide – British Columbia Acid Mine Drainage Task Force report: I. – 274 p., Vancouver (BiTech Publ.).
• Steffen Robertson and Kirsten (B.C.) Inc, Norecol Environmental Consultants & Gormely Process Engineering (1990): Draft acid rock drainage technical guide – British Columbia Acid Mine Drainage Task Force report: II. – 51 p., Vancouver (BiTech Publ.).
• Steiger, C., Abramson, A., Nadeau, P., Chandrakasan, A. P., Langer, R. & Traverso, G. (2019): Ingestible electronics for diagnostics and therapy. – Nature Reviews Materials, 4(2):83–98, doi:10.1038/s41578-018-0070-3.
• Stein, A. (1964): Entwicklung der großräumigen Grundwasserabsenkung im Erftgebiet. – Z. dt. geol. Ges., 116(1):131–140, 8 Abb.; doi:10.1127/zdgg/116/1964/131.
• Stein, E. (1941): Schaffende Frauen in Bergwerksbetrieben. – Der Vierjahresplan, Zeitschrift für Nationalsozialistische Wirtschaftspolitik, 5:859–861, 3 Abb.
• Stein, R. S. & Zeats, R. S. (1989): Erdbeben an verborgenen Störungen. – Spektrum der Wissenschaft:72–81, 9 Abb.
• Stein, V. (1985): Anleitung zur Rekultivierung von Steinbrüchen und Gruben der Steine-und-Erden-Industrie. – 127 p., Dt. Inst.-Verl. (Köln).
• Steinberg, T. H., Lauber, W. M., Berggren, K., Kemper, C., Yue, S. & Patton, W. F. (2000): Fluorescence detection of proteins in sodium dodecyl sulfate-polyacrylamide gels using environmentally benign, nonfixative, saline solution. – Electrophoresis, 21:497–508, 7 Abb., 1 Tab.; doi:10.1002/(SICI)1522-2683(20000201)21:3<497::AID-ELPS497>3.0.CO;2-I.
• Steinberger, P., Siebdrath, N., Rieger, A., Haseneder, R., Härtel, G., Zeng, Y. & Repke, J.-U. (2011): Mine Water Treatment by Membrane Filtration Processes – Upscale Experiments. – GWF Gas- Wasserfach Wasser Abwasser, 13:112–117, 5 Abb., 3 Tab.
• Steinborn, H., Krentz, O. & Felix, M. (2004): Aktueller Stand zur Einführung der 3D-Modellierungssoftware Gocad im LfUG am Beispiel von Zwickau-Schedewitz. – Wiss. Mitt. Inst. Geol., 25:53–59, 3 Abb.
• Steinepreis, M. D., Blowes, D. W., Amos, R. T., Stastna, M. & Wilson, G. W. (2018): Temporal Variability and Gas Transport Rates in Waste Rock. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 458–464; (Tshwane University of Technology).
• Steiner, E. (2008): The Chemistry Maths Book, 2nd edn. – 652 p., Oxford (Oxford University Press).
• Steinhauser, F., Eckel, O. & Lauscher, F. (1958): Klimatographie von Österreich: Denkschriften der Gesamtakademie 3. – 136 p., 26 Abb., 88 Tab.; Wien (Springer); doi:10.1007/978-3-7091-5722-0.
• Stemberk, J. & Rybář, J. (2005): Risk assessment of deep-seated slope failures in the Czech Republic –In: Hung, O., Fel, R., Coutur, R. & Eberhardt, E. (eds): Landslide Risk Management. – p. 497–502, 5 Abb.; London (CRC Press); doi:10.1201/9781439833711.
• Stemke, M., Gökpinar, T. & Wohnlich, S. (2017): Erkundung stillgelegter Erzbergwerkschächte mittels Unterwasserkamera. – Bergbau, 11:511–513, 6 Abb.
• Stemke, M. & Wieber, G. (2022): Closure of German Hard Coal Mines: Effects and Legal Aspects of Mine Flooding. – Mine Water Environ., 41(1):280–291, doi:10.1007/s10230-021-00842-7.
• Stemke, M. M. & Wieber, G. (2019): Pump Tests In Deep Ore Mine Shafts For The Evaluation Of A Possible Geothermal Use. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 375–378; Perm, Russia (Perm State University).
• Stemke, M. M. & Wieber, G. (2021): Utilisation Of Mine Water From Abandoned Mines – Example “Anthracite Mine Ibbenbüren”, Germany. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 526–531; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Stengel-Rutkowski, W. (1985): Karst- und Höhlenbildung in Hessen aus hydrogeologischer Sicht. – Karst u. Höhle, 1984/85:57–69, 9 Abb.
• Stengel-Rutkowski, W. (2002): Trinkwasserversorgung aus Grubengebäuden des ehemaligen Bergbaus im Rheingau-Taunus-Kreis (Rheinisches Schiefergebirge). – Jb. nass. Ver. Naturk., 123:125–138, 3 Abb., 3 Tab.
• Stenson, R. (2005): Regulating Idle Uranium Mines In Canada. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 801–806, Heidelberg (Springer).
• Stephan, U. & Wibmer, K. Bed load management at the river Lech – A physical model. In: Alves, E. C. T. L., Cardoso, A. H., Leal, J. G. A. B. & Ferreira, R. M. L. (eds) Proceedings of the International Conference on Fluvial Hydraulics – River Flow 2006, Lisbon, 2006. vol 2. Taylor & Francis, 1363–1372 S.
• Stephens, F. J. & Ingram, M. (2006): Two cases of fish mortality in low pH, aluminium rich water. – J. Fish Dis., 29(12):765–770, doi:10.1111/j.1365-2761.2006.00772.x.
• Stephenson, D. (1983): Distribution of Water in Gold Mines in South Africa. – Int. J. Mine Water, 2(2):21–30, 2 Abb.
• Šterbenk, E., Pavšek, Z., Petkovšek, S. A. S., Mazej Grudnik, Z., Kugonič Vrbič, N., Poličnik, H., Pokorny, B., Ramšak, R., Rošer Drev, A., Mljač, L., Bole, M., Glinšek, A., Mavec, M., Druks, P., Flis, J., Kotnik, K., Zorko, V., Goltnik, V., Vrhovšek, D., Zupančič, M. & Urana, D. (2011): Šaleška jezera – vodni vir in razvojni izziv – Konèno poroèilo [Šales lake – Water Source and Development Challenge – Final Report]. – 246 p., 31 Abb., 83 Tab., 10 Kart.; Velenje (ERICo Velenje).
• Šterbenk, E. & Ramšak, R. (1999): Pokrajinski Vidiki Rabe Premogovniškega Ugrezninskega Velenjskega Jezera [Regional aspects on the subsidence of Lake Velenje due to the use of coal]: Sonaravni razvoj v slovenskih Alpah in sosedstvu, Dela. – 215–223 p., 2 Abb., 1 Tab.; Laibach (Oddelek za geografijo Filozofske fakultete).
• Sterling, T. D. (1959): Publication Decisions and Their Possible Effects on Inferences Drawn from Tests of Significance – Or Vice Versa. – J. Am. Stat. Assoc., 54(285):30–34, doi:10.2307/2282137.
• Stern, L. A., Chamberlain, C. P., Reynolds, R. C. & Johnson, G. D. (1997): Oxygen isotope evidence of climate change from pedogenic clay minerals in the Himalayan molasse. – Geochim. Cosmochim. Acta, 61(4):731–744.
• Sterner, J. J. & Conahan, H. A. (1968): Ion exchange treatment of acid mine drainage. – Purdue Univ., Eng. Bull., Ext. Ser., 53(2):101–110, 3 Abb., 3 Tab.
• Sterpi, D. (2003): Effects of the erosion and transport of fine particles due to seepage flow. – Int. J. Geomech., 3(1):111–122, 14 Abb., 1 Tab.; doi:10.1061/(ASCE)1532-3641(2003)3:1(111).
• Stettiner Chamottefabrik Aktiengesellschaft (s.a.): Stettiner Chamottefabrik Aktiengesellschaft vormals Didier – 50 Jahre Aktiengesellschaft 1872–1922. – 137 p., Berlin (Eckstein).
• Steudel, K., Horak, G., Willscher, S., Werner, P. & Pompe, W. (2006): Säulenexperimente zur Biosorption von Uran und Schwermetallen aus Modell-Lösungen und realen Grubenwässern. – Wiss. Mitt. Inst. Geol., 31:69–69.
• Stevanović, Z., Dragisic, V. & Filipovic, B. (1991): The Influence of Karst Aquifer on Ore Deposits in East Serbia, Yugoslavia. – Proceedings, 4th International Mine Water Association Congress, 1:119–124, 3 Abb.
• Stevanović, Z., Obradovic, L., Marković, R., Jonović, R., Avramović, L., Bugarin, M. & Stevanović, J. (2013): Mine Waste Water Management in the Bor Municipality in Order to Protect the Bor River Water: Waste Water – Treatment Technologies and Recent Analytical Developments. – 41–62 p., 3 Abb., 12 Tab.; Shanghai (InTech); doi:10.5772/51902.
• Steven, T. A. (1996): Geomorphic evolution and history of pollution in the vicinity of the Summitville District, San Juan Mountains, Colorado. – Colorado Geol. Surv. Open File Rep., 96-4:ado Geological Survey Open–File Report, Refs: 13; sketch maps.
• Stevens, C. L. & Lawrence, G. A. (1997): The effect of sub-aqueous disposal of mine tailings in standing waters. – J. Hydraul. Res., 35(2):147–159, 9 Abb.
• Stevens, C. L. & Lawrence, G. A. (1998): Stability and meromixis in a water-filled mine pit. – Limnol. Oceanogr., 43(5):946–954, 10 Abb.
• Stevenson, P. C. (1988): Inflow Prevention – General Report. – Proceedings, 3rd International Mine Water Congress, Melbourne:595–600.
• Stewart, D. (2013): Water Filtration Innovation to Optimize Recovery and Costs. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 735–740, 7 Abb.; Golden (International Mine Water Association).
• Stewart, I. S. & Hurth, V. (2021): Selling planet Earth: re-purposing geoscience communications. – In: Di Capua, G., Bobrowsky, P. T., Kieffer, S. W. & Palinkas, C. (eds): Geoethics: Status and Future Perspectives 508. – p. 265–283, (Geological Society of London); doi:10.1144/sp508-2020-101.
• Stewart, M., Trompetter, V. & Raaij, R. v. d. (2002): Age and source of Canterbury plains groundwater. – Unpubl. Report for Environment, C. (Report Nr. U02/30). – 46 p., 23 Abb., 2 Tab.; Lower Hutt (Institute of Geological and Nuclear Sciences).
• Steyl, G., Fourie, F. & Marais, L. (2012): The impact of co-disposal of sulphate brines on a fly-ash dam, a study of the physical-chemical influence on drainage patterns: International Mine Water Association Symposium. – 661–678 p., Bunbury (Edith Cowan University).
• Steyl, G. & Marais, L. (2014): Influence of Tracer Composition on Estimated Hydraulic Properties in Fly Ash. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 147–151, 4 Abb., 1 Tab.; Xuzhou (International Mine Water Association).
• Steyl, G. & Mokhahlane, L. (2014): Fly Ash as an Alternative Liner Material in Resolving Groundwater Management Challenges in Coal Ash Dumps. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 195–199, Xuzhou (International Mine Water Association).
• Steyl, G., van Tonder, G. J. & Chironga, L. (2013): Dewatering strategy for a copper mine in the Democratic Republic of Congo. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 887–892, 4 Abb.; Golden (International Mine Water Association).
• Steyl, G., Vermeulen, P. D. & Cruywagen, L.-M. (2012): Predicting the acid production potential of Mpumalanga coal mines: International Mine Water Association Symposium. – 47–54 p., Bunbury (Edith Cowan University).
• Steytler, B., Munnik, C. J. & Craukamp, H. S. (2016): Integrating the acid mine drainage value chain – polluted water abstraction to sustainable environmental conformance. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1328–1335, Freiberg (TU Bergakademie Freiberg).
• Stichler, W. & Herrmann, A. (1982): Environmental Isotopes as Tracers in Water Balance Studies of Mountainous Watersheds. – Hydrological research basins and their use in water resources planning, 4(Sonderheft):357–368, 7 Abb., 1 Tab.
• Stieß, A. (1996): Der Sprachatlas von Oberbayern (SOB). – Schriften zur Literatur und Sprache in Oberösterreich, 5:91–102, 5 Abb.
• Stiglitz, R., Mikhailova, E., Post, C., Schlautman, M. & Sharp, J. (2016): Evaluation of an inexpensive sensor to measure soil color. – Comput. Electron. Agr., 121:141–148, doi:10.1016/j.compag.2015.11.014.
• Stigzelius, H. (1987): Otto Trüstedt and his Impact On the Finnish Mining Industry. – Geol. Surv. Fin. Spec. Pap., 1:5–13, 10 Abb.
• Stillborg, B. (1993): Rockbolt Tensile Loading Across a Joint. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 587–604, 15 Abb.; Chililabombwe (Konkola Division).
• Stingl, V. (1982): Sedimentologie und Vererzung des Alpinen Verrucano im Stanzertal (Tirol). – Geol. Paläont. Mitt. Innsbruck, 12(3):71–80, 1 Abb., 3 Beil.
• Stjernman Forsberg, L., Gustafsson, J.-P., Berggren Kleja, D. & Ledin, S. (2008): Leaching of Metals from Oxidising Sulphide Mine Tailings with and without Sewage Sludge Application. – Water Air Soil Pollut., 194(1):331–341, doi:10.1007/s11270-008-9720-1.
• Stober, I. (2002): Geologie und Geschichte der Mineral- und Thermalquellen im Schwarzwald. – Ber. Naturf. Ges. Freiburg i. Br., 92(2):29–52.
• Stober, I. & Bucher, K. (1999): Origin of salinity of deep groundwater in crystalline rocks. – Terra Nova, 11(4):181–185, 4 Abb.; doi:10.1046/j.1365-3121.1999.00241.x.
• Stoch, E. J., Erasmus, E., Hoffmann, E., Schrader, A. & Winde, F. (2011): Desktop assessment of the risk for basement structures of buildings of Standard Bank and ABSA in Central Johannesburg to be affected by rising mine water levels in the Central Basin, I. – 265 p., 75 Abb., 28 Tab.
• Stochel, B., Czop, M., Krzywañski, Z. & Worsa-Kozak, M. (2013): Hydrogeochemistry of the Mine Water from “Rudna” mine (Lubin Region, South Poland). – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1139–1142, 4 Abb., 1 Tab.; Golden (International Mine Water Association).
• Stockholm Convention (2023): Stockholm Convention on Persistent Organic Pollutants (POPs) – Text and Annexes, revised 2023 edn. – 83 p., Geneva (United Nations).
• Stockholm Convention on Persistent Organic Pollutants (2019): Report on progress towards the elimination of polychlorinated biphenyls. – (Report Nr. UNEP/POPS/COP.9/INF/10). – 47 p., Geneva (Conference of the Parties to the Stockholm Convention on Persistent Organic Pollutants).
• Stockmann, N., Marggraf, G., Taylor, T., Teichmann, L., Heydorn, M. & Hensel, G. (2006): Zusammenstellung und Bewertung der ab 1988 im Grubengebäude der Schachtanlage Asse II aufgetretenen Salzlösungen und Gase. – p., 27 Abb., 18 Tab.; (gsf).
• Stockton, K. A., Moffitt, C. M., Blew, D. L. & Farmer, C. N. (2011): Acute Toxicity of Sodium Fluorescein to Ashy Pebblesnails Fluminicola fuscus. – Unpubl. Report for Hagerman National Fish, H. 21 p., 3 Abb., 9 Tab.; Moscow, Boise (Idaho Cooperative Fish and Wildlife Research Unit; Idaho Power; Idaho Department of Water Resources).
• Stoddard, C. K. (1973): Abatement of Mine Drainage Pollution by Underground Precipitation: EPA-670/2-73-092. – 125 p., 16 Abb., 8 Tab.; Washington (U. S. Environmental Protection Agency).
• Stoddart, P. R., Cadusch, P. J., Pearce, J. B., Vukovic, D., Nagarajah, C. R. & Booth, D. J. (2005): Fibre optic distributed temperature sensor with an integrated background correction function. – Meas. Sci. Technol., 16:1299–1304, 6 Abb., 1 Tab.; doi:10.1088/0957-0233/16/6/009.
• Stoertz, M. W., Bourne, H., Knotts, C. & White, M. M. (2002): The Effects of Isolation and Acid Mine Drainage on Fish and Macroinvertebrate Communities of Monday Creek, Ohio, USA. – Mine Water Environ., 21(2):60–72, 2 Abb., 5 Tab.
• Stoertz, M. W., Hughes, M. L., Wanner, N. S. & Farley, M. E. (2001): Long-term water quality trends at a sealed, partially flooded underground mine. – Environ. Eng. Geosci., 7(1):51–65, 12 Abb.
• Stoica, L. & Dima, G. (2000): Pb(II) removal from aqueous systems by biosorption-flotation on mycelial redisues of Penicillium chrysogeneum. – Proceedings, 7th International Mine Water Association Congress:472–481, 5 Abb., 4 Tab.
• Stoica, L., Dima, G., Constantin, C. & Roman, S. (2004): Removal of Cd(II) and Pb(II) from Aqueous Mining Systems by Flotation Techniques. – Wiss. Mitt. Inst. Geol., 25:159–165, 1 Abb., 5 Tab.
• Stoica, L., Dima, G., Micu, O., Oancea, D. & Oproiu, G. (1999): Heavy Metal Ions Removal by Biosorption-Flotation on Mycelial Wastes. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 481–485, 2 Abb., 6 Tab.; Sevilla (International Mine Water Association).
• Stoica, L., Irimia, A. & Carolina, C. (2004): Removal of As(V) from Mine Waters by Sorptive Flotation. – Wiss. Mitt. Inst. Geol., 25:153–158, 5 Abb., 1 Tab.
• Stojiljkovic, D. & Pavlovic, P. (1999): Thermal Source in the Vrdnik Brown Coal Mine. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 51–54, 2 Abb.; Sevilla (International Mine Water Association).
• Stokes, A. W. K. D. J. H. S. G. (1987): A real-time tracer gas analyzer-an investigational tool for mine ventilation studies. – Min. Sci. Technol., 5(2):187–196, 6 Abb., 1 Tab.; doi:10.1016/S0167-9031(87)90405-1.
• Stollenwerk, K. G. (1994): Geochemical interactions between constituents in acidic groundwater and alluvium in an aquifer near Globe, Arizona. – Appl. Geochem., 9:353–369, 12 Abb., 5 Tab.; doi:10.1016/0883-2927(94)90058-2.
• Stöllner, T. (2018): Verwobenheit der Ressourcenräume in Montanrevieren – die ostalpine Kupferproduktion der Bronze- und Früheisenzeit. – In: Held, M., Jenny, R. D. & Hempel, M. (eds): Metalle auf der Bühne der Menschheit – Von Ötzis Kupferbeil zum Smartphone im All Metals Age. – p. 57–74, 5 Abb.; München (oekom verlag).
• Stöllner, T., Cierny, J., Eibner, C., Boenke, N., Herd, R., Maass, A., Röttger, K., Sormaz, T., Steffens, G. & Thomas, P. (2006): Der bronzezeitliche Bergbau im Südrevier des Mitterberggebietes – Bericht zu den Forschungen der Jahre 2002 bis 2006. – Archaeologia Austriaca, 9:87–138, doi:10.1553/archaeologia90s87.
• Stöllner, T., Fritzsch, D., Gontscharov, A., Kirchner, D., Nicolussi, K., Pichler, T., Pils, R., Prange, M., Thiemeyer, H. & Thomas, P. (2011): Überlegungen zur Funktionsweise des mittelbronzezeitlichen Nassaufbereitungskastens vom Troiboden: Die Geschichte des Bergbaus in Tirol und seinen angrenzenden Gebieten. – 141–155 p., 4 Abb.; Innsbruck (Innsbruck University Press).
• Stolp, W. & Kiefer, R. (2009): Sulfatabtrennung aus schwefelsaurem Grubenwasser durch Elektrolyse: ThyssenKrupp Innovationswettbewerb 2009. – 46–49 p., 2 Abb.; Essen (ThyssenKrupp AG).
• Stoltz, E. & Greger, M. (2002): Accumulation Properties of As, Cd, Cu, Pb and Zn by four Wetland Plant Species growing on submerged Mine Tailings. – Environ. Exp. Bot., 47(3):271–280.
• Stoltz, E. & Greger, M. (2002): Cottongrass Effects on Trace Elements in Submersed Mine Tailings. – J. Environ. Qual., 31(5):1477–1483, 5 Abb., 2 Tab.
• Stolz, O. (1905): Zur tirolischen Ortsnamenkunde. – Veröff. Mus. Ferdinandeum, 3(49):433–436.
• Stolz, O. (1928): Die Anfänge des Bergbaues und Bergrechtes in Tirol. – Savigny – Z. f. Rechtsgeschichte, 48(61):207–263, 11 Anh.
• Stolz, O. (1936): Geschichtskunde der Gewässer Tirols. – Schlern-Schr., 32:510.
• Stolz, O. (1949): Die Erwähnung von Erzen und Gesteinen in alten Tiroler Schriften. – Veröff. Mus. Ferdinandeum, 26-29:329–344.
• Stone, W. J. (1985): Assessing impact of surface mining on recharge. – Proceedings, 2nd International Mine Water Association Congress, 2:829–840.
• Stookey, L. L. (1970): Ferrozine – a new spectrophotometric reagent for iron. – Anal. Chem., 42(7):779–781, 4 Abb., 3 Tab.; doi:10.1021/ac60289a016.
• Storelli, M. M., Barone, G. & Marcotrigiano, G. O. (2007): Polychlorinated biphenyls and other chlorinated organic contaminants in the tissues of Mediterranean loggerhead turtle Caretta caretta. – Sci. Total Environ., 373(2):456–463, doi:10.1016/j.scitotenv.2006.11.040.
• Storelli, M. M. & Marcotrigiano, G. O. (2001): Persistent organochlorine residues and toxic evaluation of polychlorinated biphenyls in sharks from the Mediterranean Sea (Italy). – Mar. Pollut. Bull., 42(12):1323–1329, doi:10.1016/S0025-326X(01)00142-4.
• Stößel, J. C. (1778): Bergmännisches Wörterbuch, darinnen die deutschen Benennungen und Redensarten erkläret und zugleich die in Schriftstellern befindlichen lateinischen und französischen angezeiget werden. – 634 p., Chemitz (Stößel).
• Stothoff, S. A., Or, D., Groeneveld, D. P. & Jones, S. B. (1999): The Effect of Vegetation on Infiltration in Shallow Soils Underlain by Fissured Bedrock. – J. Hydrol., 218(3-4):169–190.
• Stottmeister, U., Mudroch, A., Kennedy, C., Matiova, Z., Sanecki, J. & Svoboda, I. (2002): Reclamation and Regeneration of Landscapes after Brown Coal Opencast Mining in Six Different Countries. – In: Mudroch, A., Stottmeister, U., Kennedy, C. & Klapper, H. (eds): Remediation of Abandoned Surface Coal Mining Sites: A NATO-Project. – p. 4–36, Berlin, Heidelberg (Springer Berlin Heidelberg); doi:10.1007/978-3-662-04734-7_2.
• Stoyer, N. J., Landrum, J. H., Wilk, P. A., Moody, K. J., Kenneally, J. M., Shaughnessy, D. A., Stoyer, M. A., Wild, J. F., Lougheed, R. W., Dmitriev, S. N., Oganessian, Y. T., Shishkin, S. V., Aksenov, N. V., Tereshatov, E. E., Bozhikov, G. A., Vostokin, G. K., Utyonkov, V. K. & Yeremin, A. A. (2007): Chemical Identification of a Long-Lived Isotope of Dubnium, a Descendant of Element 115. – Nuclear Physics A, 787(1-4):388–395, 4 Abb., 1 Tab.; doi:10.1016/j.nuclphysa.2006.12.060.
• Strabo & Groskurd, C. G. (1931): Geographica – Erdbeschreibung in Siebzehn Büchern: 1-3. – Hildesheim (Olms).
• Strachan, R. (2011): Manifesting Dreams. – 240 p., Bloomington (iUniverse).
• Stracke, A., Hofmann, A. W. & Hart, S. R. (2005): FOZO, HIMU, and the rest of the mantle zoo. – Geochem. Geophys. Geosyst., 6:20, doi:10.1029/2004gc000824.
• Straczek, A., Dams, J. & Vandenhove, H. (2005): Localisation of uranium in roots by chemical extractions and by a short term uptake study. Influence of phosphate. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 525–530, Heidelberg (Springer).
• Strager, M., Kinder, P., Kinder, L. & Gutta, B. (2024): UAVs for analyzing legacy issues and development opportunities on former mine lands. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 594–599; Morgantown (International Mine Water Association).
• Strain, P. M. & Tan, F. C. (1979): Carbon and oxygen isotope ratios in the Saguenay Fjord and the St. Lawrence Estuary and their implications for paleoenvironmental studies. – Estuarine Coastal Mar. Sci., 8:119–126, doi:10.1016/0302-3524(79)90067-7.
• Straker, J., O’Kane, M., Carey, S., Charest, D. & Barbour, L. (2015): Mine Water Management for Closure – Mine Reclamation and Surface Water Balances. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Strand, R. A., Parker, M., Grobler, J. & Moon, N. (2020): Tailings Facility Management: Modelling Tools for Life of Mine. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 88–93; (International Mine Water Association).
• Strang, E. J. & Fernando, H. J. S. (2001): Vertical Mixing and Transports through a Stratified Shear Layer. – Journal of Physical Oceanography, 31(8):2026–2048, doi:10.1175/1520-0485(2001)031<2026:VMATTA>2.0.CO;2.
• Straskraba, V. (1979): Some Technical Aspects of Open Pit Mine Dewatering: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 481–491 p., 5 Abb.; San Francisco (Freeman).
• Straskraba, V. (1984): Ground Water as a Nuisance. – Int. J. Mine Water, 3(1):25–40, 7 Abb.
• Straskraba, V. (1986): Ground Water Recovery Problems Associated with Open Pit reclamation on the Western U.S.A. – Int. J. Mine Water, 5(4):49–56.
• Straskraba, V. (1987): Hydrologic Studies for permitting Coal mines in the Western United States: Hydrogeology of Coal Basins. – 171–181 p., 3 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Straskraba, V. & Abel, J. F., Jr. (1994): The Differences in Underground Mines Dewatering with the Application of Caving or Backfilling Mining Methods. – Mine Water Environ., 13(2):1–19, 3 Abb., 3 Tab.
• Straskraba, V. & Abel Jr, J. F. (1993): The Differences in Underground Mines Dewatering with the Application of Caving or Backfilling Mining Methods. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 190–205, 2 Abb., 3 Tab.; Chililabombwe (Konkola Division).
• Straskraba, V. & Effner, S. A. (1998): Water Control in Underground Mines – Grouting or Drainage?: Mine Water and Environmental Impacts 1. – 195–212 p., 8 Abb., 1 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Straskraba, V., Frank, J., Bosworth, W. C. & Swinehard, T. W. (1994): Study of the Impact of a Longwall Coal Mining Operation on Surface and Ground Water Resources at the Windsor Mine, West Virginia, USA. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:125–139, 4 Abb., 2 Tab.
• Straskraba, V. & Moran, R. E. (1990): Environmental Occurence and Impacts of Arsenic at Gold Mining Sites in the Western United States. – Int. J. Mine Water, 9(1-4):181–191, 2 Abb., 1 Tab.
• Straskraba, V., Placet, J. & Holubec, M. (1985): Application of computer modeling for the design of open pit mine dewatering. – Proceedings, 2nd International Mine Water Association Congress, 1:579–597.
• Straskraba, V., Placet, J. & Holubec, M. (1985): Hydrogeology and Drainage of Copper-Cobalt Mines in the Kolwezi Area of Shaba, Republic of Zaire. – Proceedings, 2nd International Mine Water Association Congress, 1:125–139, 7 Abb., 4 Tab.
• Straskraba, V., Shangraw, J., Silva, A. J., House, A. & Pyrih, R. (1988): A Study of the Potential for Surface and Ground Water Contamination by Arsenic at the Sunbeam Gold Mine. – Proceedings, 3rd International Mine Water Congress, Melbourne:231–240, 4 Abb.
• Straskraba, V., Sharma, D. & Naish, E. J. H. (1991): Konkola Mine Dewatering Study. – Proceedings, 4th International Mine Water Association Congress, 2:163–174, 4 Abb., 2 Tab.
• Stratford, D. (2015): The Sterkfontein Caves: Geomorphology and Hominin-Bearing Deposits. – In: Grab, S. & Knight, J. (eds): Landscapes and Landforms of South Africa. – p. 147–153, Cham (Springer); doi:10.1007/978-3-319-03560-4_17.
• Stratford, D. (2017): A Review of the Geomorphological Context and Stratigraphy of the Sterkfontein Caves, South Africa. – In: Klimchouk, A., N. Palmer, A., De Waele, J., S. Auler, A. & Audra, P. (eds): Hypogene Karst Regions and Caves of the World. – p. 879–891, Cham (Springer); doi:10.1007/978-3-319-53348-3_60.
• Stratford, D., Merlo, S. & Brown, S. (2016): The development of a new geospatial framework for the palaeoanthropological site of the Sterkfontein Caves, Cradle of Humankind, Gauteng, South Africa. – Journal of Field Archaeology, 41(2):211–221, doi:10.1080/00934690.2016.1157679.
• Stratford, D. J. (2018): The Sterkfontein Caves after Eighty Years of Paleoanthropological Research: The Journey Continues. – Am. Anthropol., 120(1):39–54, 6 Abb., 1 Tab.; doi:10.1111/aman.12982.
• Strathmann, H. (2012): Membranes and Membrane Separation Processes, 1. Principles: Ullmann’s Encyclopedia of Industrial Chemistry. – 413–456 p., 17 Abb., 1 Tab.; Weinheim (Wiley-VCH); doi:10.1002/14356007.a16_187.pub3.
• Strathmann, H. (2012): Membranes and Membrane Separation Processes, 2. Design and Operation: Ullmann’s Encyclopedia of Industrial Chemistry. – 457–481 p., 22 Abb.; Weinheim (Wiley-VCH).
• Strathmann, H. (2012): Membranes and Membrane Separation Processes, 4. Concentration Polarization and Membrane Fouling. – 513–525 p., 9 Abb., 1 Tab.; Weinheim (Wiley-VCH).
• Strätz, H.-W. (1976): Bergmännisches Arbeitsrecht im 15. und 16. Jahrhundert – Insbesondere nach Tiroler Quellen. – Der Anschnitt, 28:86–94, 114–122, 8 Abb.
• Streb, C. (2012): Hydrochemische und hydraulische Untersuchungen eines gefluteten Bergwerkes – Thermohydraulische Modellierung zur geothermischen Nutzung des Grubenwasserpotentials. – 257 p., Johannes-Gutenberg-Universität Mainz, 70 Abb., 30 Tab., 1 Anl.; Mainz.
• Streb, C. & Wieber, G. (2011): Geothermal energy from a flooded mine: a hydraulic model: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 189–193 p., Aachen (RWTH Aachen University).
• Street, R. A., Kulkarni, M. G., Stirk, W. A., Southway, C., Abdillahi, H. S., Chinsamy, M. & Van Staden, J. (2009): Effect of cadmium uptake and accumulation on growth and antibacterial activity of Merwilla plumbea — An extensively used medicinal plant in South Africa. – S. Afr. J. Bot., 75(3):611–616, doi:10.1016/j.sajb.2009.05.004.
• Streetly, H. R., Hamilton, A. C. L., Betts, C., Tellam, J. H. & Herbert, A. W. (2002): Reconnaissance tracer tests in the Triassic sandstone aquifer north of Liverpool, UK. – Q. J. Eng. Geol. Hydrogeol., 35(2):167–178, 10 Abb., 2 Tab.; doi:10.1144/1470-9236/2000-30.
• Streetly, M., Mitchell, R., Walters, M. & Ravenscroft, P. (2011): Hydrogeology of Bottled Waters. – In: Dege, N. (ed) Technology of Bottled Water, 3rd edn. – p. 99–139, Chichester (Wiley-Blackwell); doi:10.1002/9781444393330.ch4.
• Streiff, C., Ricci, G., Lamblin, J. M., Ledoux, E., Medina Salcedo, F. & Mordos, R. (1978): Problemes d’exhaure et stabilite des pentes dans la mine aciel ouvert du Marquesado. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 933–949; Maracena (Asociación Nacional de lngenieros de Minas).
• Streit, J. E. & Siggins, A. F. (2004): Predicting, Monitoring and Controlling Geomechanical Effects of CO₂ Injection. – 1–9 p., 5 Abb.; Vancouver (Proceedings 7th International Conference on Greenhouse Gas Control Technologies).
• Strek, H. J. & Weber, J. B. (1982): Adsorption and Reduction in Bioactivity of Polychlorinated Biphenyl (Aroclor 1254) to Redroot Pigweed by Soil Organic Matter and Montmorillonite Clay. – Soil Sci. Soc. Am. J., 46(2):318–322, doi:10.2136/sssaj1982.03615995004600020021x.
• Strek, H. J. & Weber, J. B. (1982): Behaviour of polychlorinated biphenyls (PCBs) in soils and plants. – Environmental Pollution Series A, Ecological and Biological, 28(4):291–312, doi:10.1016/0143-1471(82)90146-5.
• Strof, P. & Rapantová, N. (2019): Challenges and possibilities of supercomputing in numerical modelling of mine water management problems. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 771; Perm, Russia (Perm State University).
• Strömberg, B. & Banwart, S. A. (1994): Kinetic modelling of geochemical processes at the Aitik mining waste rock site in northern Sweden. – Appl. Geochem., 9(5):583–595, 3 Abb., 8 Tab.
• Strongman, J. (2000): Mine Closure – An Overview of the Issues. – 1–29 p., Jakarta (Presentation Indonesia Mine Closure Workshop).
• Stropnik, B., Tamše, M., Ramšak, R., Drev Rošer, A. & Stegnar, P. (1991): The effects of coal mining and energy production in the Šalek valley, Slovenia, on surface water bodies. – Proceedings, 4th International Mine Water Association Congress, 1:213–221, 3 Abb., 2 Tab.
• Strosnider, W., Roman, B., Spellman Jr., C., Goodwill, J. & Tasker, T. (2024): Expanding possibilities for the co-treatment of mine drainage with municipal wastewater. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 600–601; Morgantown (International Mine Water Association).
• Strosnider, W. H. J., Hugo, J., Shepherd, N. L., Holzbauer-Schweitzer, B. K., Hervé-Fernández, P., Wolkersdorfer, Ch. & Nairn, R. W. (2020): A Snapshot of Coal Mine Drainage Discharge Limits for Conductivity, Sulfate, and Manganese across the Developed World. – Mine Water Environ., 39(2):165–172, 4 Abb., 1 Tab.; doi:10.1007/s10230-020-00669-8.
• Strosnider, W. H. J., Llanos Lopez, F. S., LaBar, J. A., Palmer, K. J., Peer, R. A. M. & Nairn, R. W. (2013): Cerro Rico de Potosí, Bolivia: Broader Impacts from Unabated Acid Mine Drainage. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1143–1143, Golden (International Mine Water Association).
• Strosnider, W. H. J., Winfrey, B. K. & Nairn, R. W. (2011): Alkalinity Generation in a Novel Multi-stage High-strength Acid Mine Drainage and Municipal Wastewater Passive Co-treatment System. – Mine Water Environ., 30(1):47–53, 2 Abb., 2 Tab.; doi:10.1007/s10230-010-0124-2.
• Struckmeier, W. (1986): A Regional Groundwater System Analysis of the Münster Basin Federal Republic of Germany –In: Engelen, G. B., Jones, G. P., International Hydrological Programme & International Commission on Groundwater (eds): Developments in the analysis of groundwater flow systems. – p. 311–322, 4 Abb., 1 Tab.; (International Association of Hydrological Sciences).
• Štrucl, I. (1981): Die schichtgebundenen Blei-Zink-Lagerstätten Jugoslawiens. – Mitt. Österr. Geol. Ges., 74/75:307–322, 4 Abb.
• Strugala-Wilczek, A., Stanczyk, K. & Bebek, K. (2020): Comparison of Metal Adsorption from Aqueous Solutions on Coal and Char Remaining After In-situ Underground Coal Gasification (UCG). – Mine Water Environ., 39(2):369–379, doi:10.1007/s10230-020-00677-8.
• Strunk, W. & White, E. B. (1999): The elements of style, 4th edn. – 105 p., Boston (Allyn and Bacon).
• Struzina, M. & Drebenstedt, C. (2008): Large Scale Laboratory Tests for Development of Dewatering System for Open Pit Mines Based on Horizontal Filter Wells Installed by Horizontal Directional Drilling. – Proceedings, 10th International Mine Water Association Congress:477–480.
• Struzina, M. & Koch, T. (2016): Latest development in water management of eastern-German lignite industry. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 11–13, Freiberg (TU Bergakademie Freiberg).
• Struzina, M., Müller, M., Drebenstedt, C., Mansel, H. & Jolas, P. (2011): Dewatering of Multi-aquifer Unconsolidated Rock Opencast Mines: Alternative Solutions with Horizontal Wells. – Mine Water Environ., 30(2):90–104, 16 Abb., 2 Tab.; doi:10.1007/s10230-011-0149-1.
• Strzodka, M. (2006): Die Enteisenungsanlage zum Erhalt des Feuchtbiotops „Steinitzer Quelle“. – Wiss. Mitt. Inst. Geol., 31:23–28, 13 Abb.
• Strzodka, M., Claus, R., Preuss, V., Thürmer, K. & Viertel, K. (2016): Advanced treatment of pit lakes using limestone and carbon dioxide. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 209–215, Freiberg (TU Bergakademie Freiberg).
• Strzodka, M., Preuss, V. & Thürmer, K. (2013): Underwater Nozzle Pipelines (UNP) – A new Process for in-lake Liming. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 741–746, 5 Abb.; Golden (International Mine Water Association).
• Stuart, W. T. & Simpson, T. A. (1961): Variations of pH with depth in anthracite mine-water pools in Pennsylvania; Article 37. – U.S. Geol. Surv. Prof. Pap., 0424-B:B82–B84, 1 Tab.
• Stuchlik, H. (1893): Geologische Skizze des oberbayerischen Kohlenreviers. – Österr. Z. f. Berg- u. Hüttenwesen, 41:380–382, 2 Abb., 1 Tab.
• Stuchlik, H. (1906): Die Faziesentwicklung der südbayrischen Oligocänmolasse. – Jb. k.-k. geol. R.-A., 56:277–350, 5 Abb., 2 Taf.
• Stucky, K. (1960): Die Eisen-Manganerze in der Trias des Val Ferrera. – 68 p., 20 Abb., 8 Tab., 3 Taf.; Zürich (unveröff. Diss. ETH Zürich).
• Stuede, G., Maganga, J. K., Ulrike, F., Matata, K. & Segor, F. K. (2019): Electrochemical Removal and Kinetics in the Removal of Fluoride from Underground Water in Kenya. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 275–280; Perm, Russia (Perm State University).
• Stumm, W. (1990): Aquatic Chemical Kinetics – Reaction Rates of Processes in Natural Waters. – 545 p., New York (Wiley & Sons).
• Stumm, W. & Lee, G. F. (1961): Oxygenation of Ferrous Iron. – Ind. Eng. Chem., 53(2):143–146, 4 Abb., 2 Tab.; doi:10.1021/ie50614a030.
• Stumm, W. & Morgan, J. J. (1996): Aquatic chemistry – Chemical Equilibria and Rates in Natural Waters, 3rd edn. – 1022 p., 323 Abb., 89 Tab.; New York (Wiley & Sons).
• Stumm-Zollinger, E. (1972): Die bakterielle Oxydation von Pyrit. – Archiv. Mikrobiol., 83(2):110–119, doi:10.1007/BF00425017.
• Stur, D. R. J. (1856): Über den Einfluß des Bodens auf die Vertheilung der Pflanzen. – Sitzungsber. Akad. Wiss. Wien, 20:1–75.
• Stur, D. R. J. (1857): Über den Einfluß des Bodens auf die Vertheilung der Pflanzen. – Sitzungsber. Akad. Wiss. Wien, 25:71–149.
• Su, B., Yu, J., Du, L., Ren, L., Zheng, D. & Yang, H. (2014): Research on Electrical Characteristics of Water Conducted Crack Zone in the Coal Seam. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 273–276, Xuzhou (International Mine Water Association).
• Su, M. X., Liu, Y. M., Li, H. Y., Li, C. C., Wang, P. & Ma, X. Y. (2021): Water Inrush Detection in Limestone Pit Rock Walls Using Borehole-to-Surface ERT. – Mine Water Environ., 40(4):1061–1072, doi:10.1007/s10230-021-00809-8.
• Su, N., Nelson, P. N. & Connor, S. (2015): The distributed-order fractional diffusion-wave equation of groundwater flow: Theory and application to pumping and slug tests. – J. Hydrol., 529, Part 3:1262–1273, doi:10.1016/j.jhydrol.2015.09.033.
• Subotskaya, Y. & Breckenridge, L. (2025): Evapotranspiration Cover Design Optimization: A Case Study. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 689–695; Braga (International Mine Water Association).
• Subramanian, K. S., Poon, R., Chu, I. & Connor, J. W. (1997): Antimony in Drinking Water, Red Blood Cells, and Serum: Development of Analytical Methodology Using Transversely Heated Graphite Furnace Atomization-Atomic Absorption Spectrometry. – Arch. Environ. Contam. Toxicol., 32:431–436, 1 Abb., 3 Tab.
• Subspace Associates (1990): A Mined Underground Space Master Plan for Minneapolis, Minnesota – Part II. – Tunneling and Underground Space Technology, 5(4):375–377, 2 Fig.; doi:10.1016/0886-7798(90)90134-6.
• Subyani, A. M. (2004): Use of chloride-mass balance and environmental isotopes for evaluation of groundwater recharge in the alluvial aquifer, Wadi Tharad, western Saudi Arabia. – Environmental Geology, 46(6-7):741–749, doi:10.1007/s00254-004-1096-y.
• Suess, E. (1883): Das Antlitz der Erde – Erste Abtheilung. – 778 p., 48 Abb., 1 Taf.; Prag (Tempsky).
• Suess, E. (1902): Abschieds-Vorlesung des Professors Eduard Suess bei seinem Rücktritte vom Lehramte. – Beiträge zur Paläontologie und Geologie Österreich-Ungarns und des Orients, 14(1):1–8.
• Suess, E. (1909): Das Antlitz der Erde 3,2. – 789 p., 55 Abb., 3 Taf., 5 Kart.; Wien (Tempsky).
• Suess, F. E. (1868): Über die Äquivalente des Rothliegenden in den Südalpen (Schluss). – Sitzungsber. Math Nat Klasse kaiserl Akad Wiss, 62(1):763–806, 1 Taf.
• Suess, F. E. (1898): Studien über unterirdische Wasserbewegung. – Jb. k.-k. geol. R.-A., 48(3):426–516, 4 Abb., 1 Tab., 3 Taf.
• Suggate, R. P. (1998): Relations between Depth of Burial, Vitrinite Reflectance and Geothermal Gradient. – Journal of Petroleum Geology, 21(1):5–32, 19 Abb.
• Sui, W. (2013): Grouting for ensuring coal mining safety above limestone aquifers with high water pressure. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 189–194, 6 Abb., 2 Tab.; Golden (International Mine Water Association).
• Sui, W., Liu, J., Yang, S., Chen, Z. & Hu, Y. (2011): Hydrogeological analysis and salvage of a deep coalmine after a groundwater inrush. – Environ. Earth Sci., 62(4):735–749, 8 Abb., 3 Tab.; doi:10.1007/s12665-010-0562-y.
• Sui, W. & Qu, H. (2015): Simulation of Contaminant Transportation in Saturated Transparent Rock Fractures. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–7 [electronic document], Santiago/Chile (Gecamin).
• Sui, W. & Sun, Y. (2014): An Interdisciplinary Response to Mine Water Challenges: A Foreword to the Proceedings of the 12th IMWA Congress. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 1–2, Xuzhou (International Mine Water Association).
• Sui, W. & Wu, Y. (2025): Water Disaster Control with Grouting in Bed Separation due to Deep Mining. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 289–294; Braga (International Mine Water Association).
• Sui, W. & Yang, B. (2016): Risk assessment of coal mining under sand aquifers. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1092–1098, Freiberg (TU Bergakademie Freiberg).
• Sui, W., Yang, B. & Liu, J. (2018): Qualitative and Quantitative Decision-Making Model to Determine the Size of Safety Pillars for Mining under Sand Aquifers. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 465–470; (Tshwane University of Technology).
• Sui, W., Yang, B., Zheng, S. & Hu, R. (2017): Large Scale Grouting To Reconstruct Groundwater Barrier And Its Geoenvironmental Impact. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 197–203, Lappeenranta (Lappeenranta University of Technology).
• Sui, Y., Abdulkreem Al-Huqail, A., Suhatril, M., Abed, A. M., Zhao, Y., Assilzadeh, H., Amine Khadimallah, M. & Elhosiny Ali, H. (2023): Hydrogen energy of mining waste waters: Extraction and analysis of solving issues. – Fuel, 331:125685, 7 Abb., 3 Tab.; doi:10.1016/j.fuel.2022.125685.
• Sukati, B. H., Annandale, J. G., deJager, P. C. & Tanner, P. (2018): Can Phosphate Be Used To Improve The Hazardous Status Of High Density Sludge And Transform It Into A Usable Product? Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 916–922; (Tshwane University of Technology).
• Sukhija, B. S., Reddy, D. V. & Bhattacharya, S. K. (1987): Source of seepage in the Sudamdih Mine area using environmental isotopes, Bihar, India. – J. Hydrol., 93(1-2):191–197, 2 Abb., 1 Tab.
• Sukhija, B. S., Reddy, D. V. & Nagabhushanam, P. (1994): Mine Water: Isotopic Evidence of Origin of Seepage and Hydrodynamic Behaviour. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:845–856, 7 Abb.
• Sukhija, B. S., Reddy, D. V., Nagabhushanam, P. & Chand, R. (1988): Validity of the environmental chloride method for recharge evaluation of coastal aquifers, India. – J. Hydrol., 99:349–366.
• Sukhija, B. S., Reddy, D. V., Nagabhushanam, P., Hussain, S., Giri, V. Y. & Patil, D. J. (1996): Environmental and injected tracers methodology to estimate direct precipitation recharge to a confined aquifer. – J. Hydrol., 177:77–97.
• Suksi, J., Rasilainen, K. & Marcos, N. (2005): U isotopic fractionation – a process characterising groundwater systems. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 683–690, Heidelberg (Springer).
• Sulaymon, A. H., Faisal, A. A. H. & Khaliefa, Q. M. (2017): Dominant Mechanisms for Metal Removal from Acidic Aqueous Solutions by Cement Kiln Dust. – Mine Water Environ., 36(2):209–216, doi:10.1007/s10230-016-0416-2.
• Sulej, A. M., Polkowska, Ż. & Namieśnik, J. (2011): Contamination of Runoff Water at Gdańsk Airport (Poland) by Polycyclic Aromatic Hydrocarbons (PAHs) and Polychlorinated Biphenyls (PCBs). – Sensors, 11(12):11901–11920, doi:10.3390/s111211901.
• Suliartini, N. M. S., Joll, C. A. & Douglas, G. B. (2023): Evaluation of Hydrotalcites Produced in Seawater for Remediation of Metalliferous Acid Mine Drainage and Submarine Placement. – Mine Water Environ., 42(2):230–239, doi:10.1007/s10230-023-00934-6.
• Sullivan, A. B. & Drever, J. I. (2001): Spatiotemporal variability in stream chemistry in a high-elevation catchment affected by mine drainage. – J. Hydrol., 252(1-4):237–250, 11 Abb., 1 Tab.
• Sullivan, E. J., Reimus, P. W. & Counce, D. A. (2003): Transport of a Reactive Tracer in Saturated Alluvium Described Using a Three-component Cation-exchange Model. – J. Contam. Hydrol., 62-3:675–694.
• Sulonen, M. L. K., Lakaniemi, A.-M., Kokko, M. E. & Puhakka, J. A. (2017): Reduced Inorganic Sulfur Compounds of Simulated Mining Waters Support Bioelectrochemical and Electrochemical Current Generation. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 939–946, Lappeenranta (Lappeenranta University of Technology).
• Suman, A. L., Freeman, S., Erdner, B., Sharp, M., Meier, L., Datin, D., Dalgarn, J., Garvin, M., Wood, F., Keheley, E., Rainbolt, J. & Crawford, J. (2000): Mine Shaft Subcommittee Final Report to Governor Frank Keating’s Tar Creek Superfund Task Force. – 64 p., 9 Abb., 2 Tab., 3 Anh.; Oklahoma City (Tar Creek Superfund Task Force Mine Shaft Subcommittee).
• Sumi, L. & Gestring, B. (2013): Polluting the Future – How mining companies are contaminating our nation’s waters in perpetuity. – 52 p., Washington (Earthworks).
• Sumioka, S. S. (1991): Quality of water in an inactive uranium mine and its effects on the quality of water in Blue Creek, Stevens County, Washington, 1984-85. – Water Resour. Investig. Rep., WRI 89-4110:1–70, 8 Abb., 26 Tab.; doi:10.3133/wri894110 .
• Sumner, D. M. & Jacobs, J. M. (2005): Utility of Penman–Monteith, Priestley–Taylor, reference evapotranspiration, and pan evaporation methods to estimate pasture evapotranspiration. – J. Hydrology, 308(1-4):81–104, 15 Abb., 3 Tab.; doi:10.1016/j.jhydrol.2004.10.023.
• Sun, B., Ahmed, F., Sun, F., Qian, Q. & Xiao, Y. (2016): Water quality monitoring using STORM 3 Data Loggers and a wireless sensor network. – Int. J. Sens. Netw., 20(1):26–36, doi:10.1504/ijsnet.2016.074270.
• Sun, B., Sun, F. & Qian, Q. (2016): Development of Wireless Sensor Networks (WSNs) for Water Quality Monitoring: World Environmental and Water Resources Congress 2016: Professional Development, Innovative Technology, International Perspectives, and History and Heritage. – 41–49 p., 8 Abb.
• Sun, J. & Miao, X. X. (2017): Water-Isolating Capacity of an Inclined Coal Seam Floor Based on the Theory of Water-Resistant Key Strata. – Mine Water Environ., 36(2):310–322, doi:10.1007/s10230-017-0428-6.
• Sun, M., Ding, Y., Qi, P., Xu, Q., Wang, C. & Sun, Y. (2023): Composition and Sources of Dissolved Organic Matter in the Goafs of the Xinjulong Coal Mine. – Mine Water Environ., 42(4):578–589, doi:10.1007/s10230-023-00957-z.
• Sun, P., Ilora, I., Basu, B., Blanchard, P., Brice, K. A. & Hites, R. A. (2007): Temporal and Spatial Trends of Atmospheric Polychlorinated Biphenyl Concentrations near the Great Lakes. – Environ. Sci. Technol., 41:1131–1136, doi:10.1021/es061116j.
• Sun, Q., Zhang, J., Zhou, N. & Qi, W. (2018): Roadway Backfill Coal Mining to Preserve Surface Water in Western China. – Mine Water Environ., 37(2):366–375, doi:10.1007/s10230-017-0466-0.
• Sun, Q., Zhang, J. X., Zhou, N. & Huang, Y. L. (2021): Key Aquiclude Strata Reconstruction and Fluid-Solid Coupled Deformation Mechanism Study for Backfill Coal Mining. – Mine Water Environ., 40(3):793–802, doi:10.1007/s10230-021-00786-y.
• Sun, W., Wu, Q., Dong, D. & Jiao, J. (2012): Avoiding Coal-Water Conflicts During the Development of China’s Large Coal-Producing Regions. – Mine Water Environ., 31(1):74–78, 2 Abb., 1 Tab.; doi:10.1007/s10230-012-0173-9.
• Sun, W., Zhang, S., Guo, W. & Liu, W. (2017): Physical Simulation of High-Pressure Water Inrush Through the Floor of a Deep Mine. – Mine Water Environ., 36(4):542–549, doi:10.1007/s10230-017-0443-7.
• Sun, W., Zhou, W. & Jiao, J. (2016): Hydrogeological Classification and Water Inrush Accidents in China’s Coal Mines. – Mine Water Environ., 35(2):214–220, doi:10.1007/s10230-015-0363-3.
• Sun, W. B., Xue, Y. C., Li, T. T. & Liu, W. T. (2019): Multi-field Coupling of Water Inrush Channel Formation in a Deep Mine with a Buried Fault. – Mine Water Environ., 38(3):528–535, doi:10.1007/s10230-019-00616-2.
• Sun, X. & Hwang, J.-Y. (2012): Desalination of Coal Mine Water with Electrosorption: Water in Mineral Processing. – 237–245 p., 6 Abb., 1 Tab.; Littleton (SME).
• Sun, Y., Liu, Y., Wang, C., Xu, Z., Shao, F. & Jiang, S. (2009): A Water Resources Protection Method and its Application to Arid and Semi-Arid Mining Areas. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 171–177, 5 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Sun, Y., Sui, W., Dong, G., Liu, S. & Yu, J. (2013): Evaluation and Depressurization of an Ordvician limestone confined aquifer in Xingcun coal mine. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 893–898, 6 Abb., 2 Tab.; Golden (International Mine Water Association).
• Sun, Y. & Xu, Z. (2016): Monitoring and numerical simulation of water inrush pathway caused by coal mining above karstic confined aquifer with high water pressure. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1099–1103, Freiberg (TU Bergakademie Freiberg).
• Sun, Y. & Xu, Z. (2019): The advance detection and treatment of karst collapse columns – A case study of the Renlou Coal Mine in Anhui Province, China. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 379–386; Perm, Russia (Perm State University).
• Sun, Y., Xu, Z., Cui, S. & Gao, S. (2018): The Formation Mechanism of High Salinity Groundwater in Arid Area and Its Influence on Coalmines- A Case Study of a Coalmine in Xinjiang, China. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 738–743; (Tshwane University of Technology).
• Sundblad, B. & Stiglund, Y. (1996): The restoration of the closed-down uranium mine in Ranstad, Sweden. Paper presented at the TOPSEAL ’96, Stockholm. – p. 42–46; (European Nuclear Society).
• Sundblad, K. (2003): Metallogeny of Gold in the Precambrian of Northern Europe. – Econ. Geol., 98(7):1271–1290, doi:10.2113/gsecongeo.98.7.1271.
• Sundborg, Å. (1956): The River Klarälven – A study of fluvial processes. – Geogr. Ann., 38(2, 3):127–316, 60 Abb., 8 Tab.; doi:10.1080/20014422.1956.11880887.
• Sundine, J. & Powell, S. (2015): An Innovative Economical and Efficient Method of Metal Removal from Mine Wastewater. Paper presented at the Mine Water Solutions in Extreme Environments, Vancouver. – 7 Abb., 8 Tab.; Vancouver (InfoMine).
• Surbeck, H., Deflorin, O. & Kloos, O. (2005): Spatial and temporal variations in the uranium series background in Alpine groundwater. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 831–844, Heidelberg (Springer).
• Suresh, S., Dinakar, N., Prasad, T. N. V. K. V., Nagajyothi, P. C., Damodharam, T. & Nagaraju, A. (2007): Effects of a Barite Mine on Ground Water Quality in Andhra Pradesh, India. – Mine Water Environ., 26(2):119–123, 2 Tab.
• Surface Mine Drainage Task, F. (1980): Suggested Guidelines for Method of Operation in Surface Mining of Areas with Potentially Acid-Producing Materials. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 1:elektronisches Dokument, 5 Abb.
• Suryaningtyas, D. T. & Gautama, R. S. (2008): Acid Mine Drainage Treatment of Overburden for the Removal of Cation Metals. – Proceedings, 10th International Mine Water Association Congress:341–344.
• Sustainable Development Advisory Council & Copper Mines of Tasmania (1995): Copper Mines of Tasmania Project – Final assessment report. – 93 p., zahlr. Abb., zahlr. Tab.; Hobart (The Council).
• Šušteršič, F. (1996): Poljes and Caves of Notranjska. – Acta Carsologica, 15:252–289, 6 Abb., 3 Tab.
• Šušteršič, F. (1996): The Pure Karst Model: Engineering in Karst. – 9 p., Portoroz (Proceedings International Mine Water Association Workshop).
• Šušteršič, F. (1996): The Pure Karst Model. – Cave and karst science, 23(1):25–32.
• Šušteršič, F. (2004): Cave Sediments and Denuded Caverns in the Laški Ravnik, Classical Karst of Slovenia. – In: Sasowsky, I. & Mylroie, J. (eds): Studies of Cave Sediments. – p. 123–134, New York (Springer); doi:10.1007/978-1-4419-9118-8_8.
• Šušteršič, F., Rejšek, K., Mišič, M. & Eichler, F. (2009): The role of loamy sediment (terra rossa) in the context of steady state karst surface lowering. – Geomorphology, 106(1-2):35–45, 3 Abb., 3 Tab.; doi:10.1016/j.geomorph.2008.09.024.
• Sustschinsky, P. v. (1901): Ueber den Cölestin aus dem Cementstein-Bergwerk Marienstein bei Tegernsee in Bayern. – Zeitschrift für Krystallographie und Mineralogie, 34:563–568, 7 Abb.
• Suter, K. (1997): Mercenaries, mines and mistakes. – World Today, 53(11):278–280.
• Sutisna, S., Wibowo, E., Rokhmat, M., Rahman, D. Y., Murniati, R., Khairurrijal, K. & Abdullah, M. (2017): Batik Wastewater Treatment Using TiO2 Nanoparticles Coated on the Surface of Plastic Sheet. – Procedia Eng., 170:78 – 83, doi:10.1016/j.proeng.2017.03.015.
• Suto, Y., Yamasaki, Y., Hashida, T. & Yamasaki, N. (2000): Effects of CO₂ on Water/Rock Chemical Interactions in Geothermal Reservoir Environment: Sustaining geothermal energy into the 21st century – Proceedings, World Geothermal Congress 2000. – 3901–3906 p., 10 Abb., 2 Tab.; Kyushu - Tohoku (World Geothermal Congress).
• Sutton, A., Sapsford, D. J. & Moorhouse, A. M. L. (2015): Mine Water Treatability Studies for Passive Treatment of Coal Mine Drainage. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Suvio, P., Kauppi, J. O., Jansson, K. & Kotiranta, T. (2017): Towards Minimum Impact Copper Concentrator – Simulated Operational Costs. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 226–236, Lappeenranta (Lappeenranta University of Technology).
• Suvio, P., Sapsford, D., Griffiths, A. J., Williams, K., Davies, J. D. & Maynard, S. (2010): High Density Sludge process applied to metal-containing effluent. – WIT Transactions on Ecology and the Environment, 135:289–299, 8 Abb., 2 Tab.; doi:10.2495/WP100251.
• Suwimonprecha, P., Černŷ, P. & Friedrich, G. H. (1995): Rare-Metal Mineralization related to Granites and Pegmatites, Phuket, Thailand. – Econ. Geol. Bull. Soc. Econ. Geol., 90(3):603–615.
• Suzuki, S. & Otani, T. (2004): Effect of long-term successive applications of organic fertilizers on dissipation of several pesticides in two soils. – J Pestic Sci, 29(1):33–39, doi:10.1584/jpestics.29.33.
• Suzuki, Y., Takenaka, C., Tomioka, R., Tsubota, H., Takasaki, Y. & Umemura, T. (2016): Accumulation of Arsenic and Copper by Bryophytes Growing in an Aquatic Environment near Copper Mine Tailings. – Mine Water Environ., 35(3):265–272, doi:10.1007/s10230-015-0335-7.
• Svab, M., Kubal, M., Müllerova, M. & Raschman, R. (2009): Soil flushing by surfactant solution – Pilot-scale demonstration of complete technology. – J. Hazard. Mater., 163:410–417, doi:10.1016/j.jhazmat.2008.06.116.
• Svanks, K. & Shumate, K. S. (1973): Factors Controlling Sludge Density During Acid Mine Drainage Neutralization. – Unpubl. Report for United States Department of the Interior (Report Nr. 392X – contract number A-022-OHIO). – 156 p., 36 Abb., 11 Tab.; Columbus (State of Ohio Water Resources Center – Ohio State University).
• Svensmark, H. (2007): Cosmoclimatology: a new theory emerges. – Astronomy & Geophysics, 48(1):1.18 – 1.24, doi:10.1111/j.1468-4004.2007.48118.x.
• Sverdrup, H. & Warfvinge, P. (1985): A reacidification model for acidified lakes neutralized with calcite. – Water Resour. Res., 21(9):1374–1380, doi:10.1029/WR021i009p01374.
• Svoboda, I., Pecharova, E., Prikryl, I. & Kasparova, I. (2008): The Development of Future Lakes in Opencast Mine Residual Pits in the Krušné Mountain Region of the Czech Republic. – Proceedings, 10th International Mine Water Association Congress:619–622.
• Swanepoel, H. (2011): Sulphate removal from industrial effluents through barium sulphate precipitation. – 77 p., 39 Abb., 4 Tab.; Potchefstroom (North-West University).
• Swanepoel, H., de Beer, M. & Liebenberg, L. (2012): Complete sulphate removal from neutralised acidic mine drainage with barium carbonate. – Water Pract. Tech., 7(1) 6 Abb.; doi:10.2166/wpt.2012.003.
• Swanson, E. E. & Titone, B. C. (2013): Packer Testing Program Design and Management. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 195–200, 1 Abb., 1 Tab.; Golden (International Mine Water Association).
• Swanson, S., Breckenridge, L. & Leduc, M. (2016): Mine Water Balances – A New Proposed Approach. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 528–534, Freiberg (TU Bergakademie Freiberg).
• Swart, A., Biggs, T., Black, L., Ferguson, J., Geldenhuys, B.-S., Harrison, J., Jacobs, R., Klein, P., Labuhn, R., Lane, A., Marquard, B., Muricy, P., Nel, J., O’Brien, J. & Deloitte Development LLC (2020): Tracking the trends 2020 – Leading from the front: Deloitte Insights. – 70 p., London (Deloitte Design Studio).
• Swart, C. J. U., James, A. R., Kleywegt, R. J. & Stoch, E. J. (2003): The future of the dolomitic springs after mine closure on the Far West Rand, Gauteng, RSA. – Environ. Geol., 44(7):751–770, doi:10.1007/s00254-003-0820-3.
• Swatuk, L. A. & Rahm, D. (2004): Integrating Policy, Disintegrating Practice: Water Resources Management in Botswana. – Phys. Chem. Earth, 29(15-18):1357–1364.
• Swaziland Ministry of Commerce Industry and Mines (1970): Annual Report of the Geological Survey and Mines Department for the Year Ending 31st December 1970. – 32 p., Mbabane.
• Sweeney, M. (1988): Water Inflow Patterns in Zambian Mines. – Proceedings, 3rd International Mine Water Congress, Melbourne:65–75, 4 Abb., 2 Tab.
• Sweet, P. R. (1970): The Historical Writing of Heinrich von Srbik. – History and Theory, 9(1):37–58, doi:10.2307/2504501.
• Swennen, R. & Viaene, W. (1990): Lithogeochemical patterns around Pb-Zn mineralizations in Dinantian carbonate rocks of (eastern) Belgium. – Miner. Deposita, 25(4):251–261, 9 Abb., 2 Tab.; doi:10.1007/bf00198994.
• Swenson, E. M. (1981): Electromagnetic Measurements of Tidal Transports in Esturie. – Estuaries, 4(3):161–166, 7 Abb.
• Swenson, J. B. & Diedrich, T. (2021): Forecasting Evolution of Sulfide Mineral Oxidation Rates Over Decadal Time Scales. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 532–537; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Swift, G. M., Reddish, D. J. & Lewis, M. (1999): The Application of Computer Based Numerical Techniques to the Problems of Groundwater Rebound in Mining Areas. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 41–46, 8 Abb.; Sevilla (International Mine Water Association).
• Sykes, J. (1993): The Use of Geosynthetic Materials in the Design of Lined Waste Containment Facilities. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 452–462, 4 Abb.; Chililabombwe (Konkola Division).
• Systat Software, I. (2002): TableCurve 2D 5.01 for Windows User’s Manual – Automated curve fitting and equation discovery. – 1.1–13.14 p., Richmond (SYSTAT Software Inc. Marketing Department).
• Szczepańska, J. & Twardowska, I. (1987): Coal Mine Spoil Tips as a Large Area Source of Water Contamination. – In: Rainbow, A. K. M. (ed) Advances in Mining Science and Technology 2. – p. 267–280, 3 Abb., 3 Tab.; (Elsevier); doi:10.1016/B978-0-444-42876-9.50026-9.
• Szczepińsk, J. (2014): Hydrogeological Conditions of Lignite Basins in Poland and Its Influence on Reclamation Voids by Flooding. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 4–8, 6 Abb.; Xuzhou (International Mine Water Association).
• Szczepiński, J. (2000): Predictive modelling of filling with water the Belchatów Lignite Mine final excavations. – Proceedings, 7th International Mine Water Association Congress:331–341, 5 Abb., 2 Tab.
• Szczepiński, J. (2001): Forcasting of groundwater table recovery after closure of the Bełchatów lignite open cast mine. Belo Horizonte. – p. 1–6 [CD–ROM], 3 Abb., 1 Tab.; Belo Horizonte (Proceedings IMWA Symposium Belo Horizonte).
• Szczepiński, J. (2008): Modelling of the Future „Piaski” Open Pit Impact on the Water Environment. – Proceedings, 10th International Mine Water Association Congress:481–484.
• Szczepiński, J. (2016): The significance of groundwater flow modelling study for simulation of open cast mine dewatering and assessing the environmental impact of drainage. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 508–511, Freiberg (TU Bergakademie Freiberg).
• Szczepiński, J. (2018): Groundwater Flow Model in the Area of the Extensive Open Pits Lignite Mining Activities. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 744–750; (Tshwane University of Technology).
• Szczepiński, J. (2022): Impact of Dewatering of the Planned Lignite Open Pit in Poland on the Water Environment on the Basis of Groundwater Flow Model. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 491–496; (International Mine Water Association).
• Szczepiński, J., Fiszer, J., Stachowicz, Z. & Szczepanik, P. (2010): Reclamation of Polish Lignite Open Pits by Flooding. – Biuletyn Panstwowego Instytutu Geologicznego, 441:167–174, 4 Abb., 4 Tab.
• Szczepiński, J. & Libicki, J. (1999): Modelling of the Belchatów Open-Pit Impact on the Groundwater Environment. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 69–77, 4 Abb., 5 Tab.; Sevilla (International Mine Water Association).
• Szczepiński, J. J. (2013): Stream-aquifer interaction in mining conditions using a groundwater flow model. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 201–206, 7 Abb.; Golden (International Mine Water Association).
• Szecsody, J. E., Fruchter, J. S., Williams, M. D., Vermeul, V. R. & Sklarew, D. (2004): In Situ Chemical Reduction of Aquifer Sediments: Enhancement of Reactive Iron Phases and TCE Dechlorination. – Environ. Sci. Technol., 38:4656–4663, 7 Abb., 2 Tab.
• Szentirmai, L. (1985): Combined system of sealing a mine under heavy karstic water hazard. – Proceedings, 2nd International Mine Water Association Congress, 1:411–423.
• Szidarovszky, F., Bogárdi, I. & Gershon, M. (1982): Multiobjective Analyses of Regional Mine Water Control and Environmental Protection. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, C:129–143, 4 Abb., 3 Tab.
• Szilágyi, G. (1982): Hydrogeology and Mine-Water Prevention at the Recsk Deep-sealed Porphyry-copper Occurence. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:144–153, 4 Abb.
• Szilagyi, G., Heinemann, Z. & Bogardi, I. (1978): Application of a simulation model for a large-scale karstic water aquifer. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 951–964; Maracena (Asociación Nacional de lngenieros de Minas).
• Szilagyl, G. (1985): Rebuilding of original water balance in karstic reservoirs. – Proceedings, 2nd International Mine Water Association Congress, 2:841–847.
• Szivák, A. & Zarándy, L. (1982): Relation between Dewatering and the Accomodation of hydraulic Flying-Ashes in the inner Spoil Bank Clay-Silt of the Thorez Mine. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, C:144–154, 3 Abb.
• Szklarska-Smialowska, Z. (1999): Pitting corrosion of aluminum. – Corrosion Sci., 41(9):1743–1767, doi:10.1016/S0010-938X(99)00012-8.
• Szücs, J. & Megyeri, M. (1991): Water Inrush Danger Reduction by Cavern Detection and Stowing. – Proceedings, 4th International Mine Water Association Congress, 2:175–181, 1 Abb., 1 Tab.
• Ta, D., Cao, S., Steyl, G., Yang, H. & Li, Y. (2019): Prediction of Groundwater Inflow into an Iron Mine: A Case Study of the Thach Khe Iron Mine, Vietnam. – Mine Water Environ., 38(2):310–324, doi:10.1007/s10230-019-00595-4.
• Tabak, H. H. & Govind, R. (2003): Advances In Biotreatment of Acid Mine Drainage and Biorecovery of Metals: 2. Membrane Bioreactor System for Sulfate Reduction. – Biodegradation, 14(6):437–452, 13 Abb., 5 Tab.; doi:10.1023/A:1027332918844.
• Tabak, H. H., Scharp, R., Burckle, J., Kawahara, F. K. & Govind, R. (2003): Advances in biotreatment of acid mine drainage and biorecovery of metals: 1. Metal precipitation for recovery and recycle. – Biodegradation, 14(6):423–436, 3 Abb., 11 Tab.; doi:10.1023/A:1027332902740.
• Taha, M. R., Mobasser, S. (2015): Adsorption of DDT and PCB by Nanomaterials from Residual Soil. – PloS one, 10(12):e0144071, doi:10.1371/journal.pone.0144071.
• Tahir, A., Boling, J., Haghbayan, M. H., Toivonen, H. T. & Plosila, J. (2019): Swarms of Unmanned Aerial Vehicles – A Survey. – J. Ind. Inf. Integr., 16:Article 100106, 5 Abb., 4 Tab.; doi:10.1016/j.jii.2019.100106.
• Taira, D. E., Schettini, E. B. C. & Silvestrini, J. H. (2015): The Influence of Stratification and Slope in Mixing Layers. – Procedia IUTAM, 14:536–542, doi:10.1016/j.piutam.2015.03.084.
• Takahashi, T., Masuda, N., Kobayashi, M., Osame, A., Asano, H., Okumura, M. & Hamai, T. (2011): A study on groundwater flow and chemistry of mine waste dam: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 619–622 p., Aachen (RWTH Aachen University).
• Takahashi, Y., Yoshida, H., Sato, N., Hama, K., Yusa, Y. & Shimizu, H. (2002): W- and M-type tetrad effects in REE patterns for water–rock systems in the Tono uranium deposit, central Japan. – Chem. Geol., 184(3-4):311–335, 17 Abb., 9 Tab.; doi:10.1016/S0009-2541(01)00388-6.
• Takai, K., Moser, D. P., Onstott, T. C., Spoelstra, N., Pfiffner, S. M., Dohnalkova, A. & Fredrickson, J. K. (2001): Alkaliphilus transvaalensis gen. nov., sp nov., an extremely alkaliphilic bacterium isolated from a deep South African gold mine. – Int. J. Syst. Evol. Microbiol., 51:1245–1256, 4 Abb., 3 Tab.
• Takaluoma, E., Pikkarainen, T. & Kemppainen, K. (2018): Adsorption And Desorption Of Metals Onto Reusable Adsorbent. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 923–928; (Tshwane University of Technology).
• Takaluoma, E., Samarina, T., Mwandila, G., Kabondo, L., Nyirenda, K. & Mwaanga, P. (2020): Selective Recovery of Copper and Cobalt from Mine Effluent. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 181–186; (International Mine Water Association).
• Takaluoma, E., Samarina, T. & Peronius, A. (2021): Prevention of Siltation in Artisanal Small-scale Mining. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 538–541; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Takaluoma, E. M., Takaluoma, T. T., Oilunkaniemi, R. & Laitinen, R. S. (2015): Structure and Bonding in Bis(1-naphthyl) Diselenide and Bis{[2-(N,N-dimethylamino)methyl]phenyl} Tetraselenide, and Their Brominated Derivatives. – Z. anorg. allg. Chem., 641(5):772–779, 9 Abb., 4 Tab.; doi:10.1002/zaac.201500043.
• Takara, H., Ratton Mascarenhas, G., Ribeiro Vasconcelos, O. M. d. S., Silva, H. J. d. & Franco, D. (2001): Standards for Mining Activities and Environment. – 1–10 [CD–ROM] p., 2 Tab.; Belo Horizonte (Proceedings IMWA Symposium Belo Horizonte).
• Takeno, N. (2005): Atlas of Eh-pH diagrams – Intercomparison of thermodynamic databases. – Geol. Surv. Jpn. Open File Rep., 419:285.
• Taki, M., Flipo, N. & Goetz, D. (2025): Hydrogeological and hydrological modelling of the impact of water resources on mineral resource production. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 470–475; Braga (International Mine Water Association).
• Talbot, H. P. & Woodman, A. G. (1897): Analysis of an Iron Rail Taken from a Gallery of an Unused Coal Mine. – J. Americ. Chem. Soc., 19(1):9–12.
• Tallon, L., O’Kane, M., Song, J. & Heidman, A. (2015): Incorporating Climate Variability into Cover System Design. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Tamburini, J. & Liang, H. C. (2015): Minimizing Life Cycle Costs at High Flowrates. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–8 [electronic document], Santiago/Chile (Gecamin).
• Tammeaid, I. & Money, N. J. (1993): Elements of Groundwater Pollution and Protection in a Karst Environment of Lusaka. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 410–414, 2 Abb.; Chililabombwe (Konkola Division).
• Tan, L., Zhang, P. & Wu, R. (2014): Numerical Simulation Analysis of Collapse Column Direct Current Method. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 336–338, Xuzhou (International Mine Water Association).
• Tan, W., Riggs, K. W., Thies, R. L. & Rurak, D. W. (1997): Use of an automated fluorescent microsphere method to measure regional blood flow in the fetal lamb. – Can. J. Physiol. Pharmacol., 75(8):959–68, doi:10.1139/y97-120.
• Tanabe, S., Madhusree, B., Öztürk, A. A., Tatsukawa, R., Miyazaki, N., Özdamar, E., Aral, O., Samsun, O. & Öztürk, B. (1997): Isomer-specific analysis of polychlorinated biphenyls in harbour porpoise (Phocoena phocoena) from the Black Sea. – Mar. Pollut. Bull., 34(9):712–720, doi:10.1016/S0025-326X(97)00015-5.
• Tanaka, N. & Tamamushi, R. (1964): Kinetic Parameters of Electrode Reactions. – Electrochim. Acta, 9:963–989, 1 Tab.
• Tang, G., Mayes, M. A., Parker, J. C. & Jardine, P. M. (2010): CXTFIT/Excel–A modular adaptable code for parameter estimation, sensitivity analysis and uncertainty analysis for laboratory or field tracer experiments. – Comput. Geosci., 36(9):1200–1209, 11 Abb., 1 Tab.; doi:10.1016/j.cageo.2010.01.013.
• Tang, J., Oelkers, E., Declercq, J. & Bowell, R. (2021): Effects of pH on arsenic mineralogy and stability in Poldice Valley, Cornwall, United Kingdom. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 542–549; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Tang, X. (2014): Risk Assessment of Groundwater Inrush from Coal Seam Floor Using Finite Element Strength Reduction Method. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 111, Xuzhou (International Mine Water Association).
• Tang-Lee, D. (2016): Corporate social responsibility (CSR) and public engagement for a Chinese state-backed mining project in Myanmar - Challenges and prospects. – Resour. Policy, 47:28–37, doi:10.1016/j.resourpol.2015.11.003.
• Taniguchi, Y., Nakamura, A., Senko, Y., Nagatsugi, F. & Sasaki, S. (2005): Effects of Halogenated WNA Derivatives on Sequence Dependency for Expansion of Recognition Sequences in Non-Natural-Type Triplexes. – J. Org. Chem., 71(5):2115–2122, doi:10.1021/jo052413u.
• Tankersley, K. B. (1984): Tracing Recharge Water to Porous Colluvium in Archaeological Sites. – Natl. Speleol. Soc. Bull., 46(2):34–35.
• Tannor, S. J. (2024): Double burden of mine water resources and the prospect of corporate sustainability as adaptation strategy: perspectives from Ghana, West Africa. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 602–607; Morgantown (International Mine Water Association).
• Tanya, S., Arthurita, V., Fanus van, W., Anatoliy, L. & Anine, J. (2017): Growth of soil algae and cyanobacteria on gold mine tailings material. – S. Afr. J. Sci., 113(11/12):1–6, 3 Abb., 4 Tab.; doi:10.17159/sajs.2017/20160384.
• Tar Creek Superfund Task Force Water Quality Subcommittee (2000): Final Report Governor Frank Keating’s Tar Creek Superfund Task Force Water Quality Subcommittee Surface & Ground Water Monitoring. – 21 p., 17 Abb., 42 Tab., 4 Anh.; Oklahoma City (Tar Creek Superfund Task Force Water Quality Subcommittee).
• Tar Creek Superfund Task Force Water Quality Subcommittee (2000): Final Report Governor Frank Keating’s Tar Creek Superfund Task Force Water Quality Subcommittee Water Quality Improvement Alternatives. – 35 p., 2 Abb., 4 Tab.; Oklahoma City (Tar Creek Superfund Task Force Water Quality Subcommittee).
• Tarbuck, E. J. & Lutgens, F. K. (2014): Earth – An Introduction to Physical Geology, 11th edn. – 876 p., Boston (Pearson).
• Tarcan, G. (2005): Mineral saturation and scaling tendencies of waters discharged from wells (>150 °C) in geothermal areas of Turkey. – J. Volcanol. Geotherm. Res., 142:263–283, 7 Abb., 5 Tab.; doi:10.1016/j.jvolgeores.2004.11.007.
• Tarcan, G., Filiz, S. & Gemici, U. (2000): Geology and Geochemistry of the Salihli Geothermal Fields, Turkey: Sustaining geothermal energy into the 21st century – Proceedings, World Geothermal Congress 2000. – 1829–1834 p., 6 Abb., 4 Tab.; Kyushu - Tohoku (World Geothermal Congress).
• Tardy, V., Casiot, C., Fernandez-Rojo, L., Resongles, E., Desoevre, A. & Hery, M. (2016): Environmental parameters as drivers of bacterial communities responsible for arsenic removal from acid mine drainage. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1064–1065, Freiberg (TU Bergakademie Freiberg).
• Targa, D. A., Moreira, C. A. & Casagrande, M. F. S. (2021): Hydrogeological Analysis of Sulfide Tailings at a Uranium Mine Using Geophysical and Hydrochemical Methods. – Mine Water Environ., 40(3):671–689, doi:10.1007/s10230-021-00791-1.
• Tarján, I. & Debreczeni, E. (1982): Sump Cleaning by Hydraulic Method. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:223–243, 15 Abb.
• Tarnuzzer, C. (1896): Geologische Beobachtungen während des Baues der Rhätischen Bahn bei Chur und Reichenau. – Jber. Natf. Ges. Graubünden, 39:55–63, doi:10.5169/seals-594855.
• Tarutis, W. J., Stark, L. R. & Williams, F. M. (1999): Sizing and performance estimation of coal mine drainage wetlands. – Ecol. Eng., 12(3-4):353–372, 7 Abb., 1 Tab.; doi:10.1016/S0925-8574(98)00114-1.
• Tarutis, W. J. & Unz, R. F. (1994): Using Decomposition Kinetics to Model the Removal of Mine Water Pollutants in Constructed Wetlands. – Water Sci. Technol., 29(4):219–226, doi:10.2166/wst.1994.0196.
• Tashakor, M. & Modabberi, S. (2019): Trace and Major Elements in Iranian Bottled Mineral Water – Effect of Geology and Compliance with National and International Standards. Paper presented at the 5th International YES Congress, Berlin. – p. 110–114; Potsdam (German YES Chapter & GFZ German Research Centre for Geosciences).
• Tasker, T. L., Roman, B., Eckenrode, J., Himes, N., Warner, H., Neely, B., Denholm, C., Strosnider, W., LaBar, J. & Danehy, T. (2024): Batch operating limestone treatment systems (BOLTS): a novel approach to treating mine drainage at lower cost. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 608–609; Morgantown (International Mine Water Association).
• Taskila, S. K., Banasik, M., Gogoi, H., Leiviskä, T. & Tanskanen, J. (2017): Isolation and Application of Siderophore Producing Bacteria from Finnish Wetland Samples for Treatment of Mining Water Effluents. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1222–1227, Lappeenranta (Lappeenranta University of Technology).
• Tasser, R. (2003): Die Bedeutung des Silberbergbaus in Tirol im Mittelalter. – Der Aufschluss, 54(3):175–186, 3 Abb.
• Tasser, R. (2013): Wer vom Tiroler Bergbau erzählte. – Puschta Bezirkszeitung,(14):16–17.
• Tate, G. (2003): Putting the legacy of mine water discharge into perspective and the progress in tackling the issues in a fair and consistent manner. – Land Contam. Reclam., 11(2):281–284, doi:10.2462/09670513.826.
• Tauchnitz, M., Degering, D., Pretzschner, C., Wonik, T. & Boess, J. (2005): Monitoring of natural radionuclides in soils as a tool for precision farming – methodical aspects. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 69–78, Heidelberg (Springer).
• Tauro, F., Aureli, M., Porfiri, M. & Grimaldi, S. (2010): Characterization of buoyant fluorescent particles for field observations of water flows. – Sensors (Basel), 10(12):11512–29, doi:10.3390/s101211512.
• Tavcar, P., Gantar, I., Repinc, U., Jacopic, R. & Benedik, L. (2003): Determination of long-lived radionuclides in underground water. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 383–389, 3 Abb., 1 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Taylor, J. & Waring, C. (2001): The Passive Prevention of ARD in Underground Mines by Displacement of Air with a Reducing Gas Mixture: GaRDS. – Mine Water Environ., 20(1):2–7, 1 Abb.; doi:10.1007/s10230-001-8074-3.
• Taylor, K., Banks, D. & Watson, I. (2016): Characterisation of hydraulic and hydrogeochemical processes in a reducing and alkalinity-producing system (RAPS) treating mine drainage, South Wales, UK. – Int. J. Coal Geol., 164:35–47, doi:10.1016/j.coal.2016.05.007.
• Taylor, K., Banks, D. & Watson, I. (2016): Heat as a natural, low-cost tracer in mine water systems: The attenuation and retardation of thermal signals in a Reducing and Alkalinity Producing Treatment System (RAPS). – Int. J. Coal Geol., 164(SI):48–57, doi:10.1016/j.coal.2016.03.013.
• Taylor, L. T. & Jones, D. M. (2001): Bioremediation of coal tar PAH in soils using biodiesel. – Chemosphere, 44(5):1131–1136, doi:10.1016/S0045-6535(00)00344-1.
• Taylor, M., Elliott, H. A. & Navitsky, L. O. (2018): Relationship between total dissolved solids and electrical conductivity in Marcellus hydraulic fracturing fluids. – Water Sci. Technol., 77(7-8):1998–2004, doi:10.2166/wst.2018.092.
• Taylor, M. J. & Antommaria, P. E. (1979): Excursion Potentials at Uranium Tailings Disposal Sites: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 801–837 p., 15 Abb.; San Francisco (Freeman).
• Taylor, O. J. (1985): Simulation of mine drainage of oil-shale deposits, Piceance Basin, Colorado, U.S.A. – Proceedings, 2nd International Mine Water Association Congress, 1:571–577.
• Taylor, O. J. (1988): Predicted effects of underground mine flooding at Tract C-b in Piceance Basin, northwestern Colorado. – Water Resour. Investig. Rep., WRI 87-4189:1–16, 11 Abb.
• Taylor, R. B. & Shaw, J. (2002): Coastal Character and Coastal Barrier Evolution in the Bras d’Or Lakes, Nova Scotia. – Proc NS Inst Sci, 42(1):149–181, 13 Abb., 3 Tab., 1 Anh.
• Taylor, S. R. & McLennan, S. M. (1981): The Composition and Evolution of the Continental Crust: Rare Earth Element Evidence from Sedimentary Rocks. – Phil. Trans. R. Soc. Lond. A, 301(1461):381–399, 8 Abb., 2 Tab.
• Tazioli, A. (2011): Experimental methods for river discharge measurements: comparison among tracers and current meter. – Hydrological Sciences Journal, 56(7):1314–1324, doi:10.1080/02626667.2011.607822.
• Te, B., Yiming, L., Tianwei, L., Huiting, W., Pengyuan, Z., Wenming, C. & Jun, J. (2020): Polychlorinated biphenyls in a grassland food network: Concentrations, biomagnification, and transmission of toxicity. – Sci. Total Environ., 709:135–781, doi:10.1016/j.scitotenv.2019.135781.
• Teaf, C., Merkel, B. J., Mulisch, H. M., Kuperberg, M. & Wcislo, E. (2006): Industry, mining and military sites. – In: Schmoll, O., Howard, G., Chilton, J. & Chorus, I. (eds): Protecting Groundwater for Health –Managing the Quality of Drinking-water Sources. – p. 309–337, 613–630, 7 Abb., 7 Tab.; London (IWA Publishing).
• Team, G.-S. P. (2004): GEO-SEQ Best Practices Manual Geologic Carbon Dioxide Sequestration – Site Evaluation to Implementation: LBNL-56623. – 1–40 p., 6 Abb., 3 Tab.; Berkeley (Report Ernest Orlando Lawrence Berkeley National Laborator).
• Teather, A. (2011): Interpreting hidden chalk art in southern British Neolithic flint mines. – World Archaeol., 43(2):230–251, doi:10.1080/00438243.2011.579496.
• Technische Universität Graz (2004): Vorlesung Grundwasserhydraulik. – Nn, 22 Abb., 3 Tab.
• Technology, T. (2010): User’s manual for Dye Trak and Dye Trak VII Measuring of regional blood flow utilizing colored microshperes.
• Teclu, D. G., Laing, M. D. & Wallis, F. M. (2009): Bioremediation of Contaminated Water Sources with Sulphate-Reducing Bacteria. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 606–613, 8 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Tedrow, O. R. & Lee, P. F. (2022): Use of Wild Rice (Zizania palustris L.) in Paddy-Scale Bioassays for Assessing Potential Use of Mining-Influenced Water for Irrigation. – Mine Water Environ., 41(4):938–953, doi:10.1007/s10230-022-00908-0.
• Teertstra, P., Culhamy, J. R. & Yovanovichz, M. M. (1997): Comprehensive Review of Natural and Mixed Convection Heat Transfer Models for Circuit Board Arrays. – J Electron Manuf, 7(2):79–92, 5 Abb.; doi:10.1142/S0960313197000105.
• Tehrani, R. & Van Aken, B. (2014): Hydroxylated polychlorinated biphenyls in the environment: sources, fate, and toxicities. – Environ. Sci. Poll. Res., 21(10):6334–6345, doi:10.1007/s11356-013-1742-6.
• Teichert, B. M. A., Jasnowski-Peters, H., Nikutta, S. E., Strauss, H., Schlömer, S. & Westermann, S. (2025): The legacy of hard coal mining revealed by isotopic fingerprinting of mine waters, Ruhr Area, Germany. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 370–376; Braga (International Mine Water Association).
• Teikeu, A. W., Njandjock, N. P., Tabod, C. T., Akame, J. M. & Nshagali, G. B. (2016): Hydrogeological activity of lineaments in Yaoundé Cameroon region using remote sensing and GIS techniques. – Egypt. J. Remote Sens. Space. Sci., 19(1):49–60, doi:10.1016/j.ejrs.2015.12.006.
• Teiwes, K. (1916): Die Wasserhaltungsmaschinen: Die Bergwerksmaschinen 5. – 490 p., 362 Abb.; Berlin (Springer); doi:10.1007/978-3-642-90836-1.
• Teixeira, L. A. C., Queiroz, J. P. L. & Marquez-Sarmiento, C. (2017): Oxidative Precipitation of Manganese from Dilute Waters. – Mine Water Environ., 36(3):452–456, doi:10.1007/s10230-016-0411-7.
• Tekin, E., Kayabali, K., Ayyidiz, T. & Ileri, O. (2000): Evidence of microbiologic activity in modern travertines; Sicakcermik geothermal field, central Turkey. – Carbonate Evaporite, 15(1):18–27, 5 Abb., 1 Tab.; doi:10.1007/BF03175645.
• Temerdashev, Z. A., Musorina, T. N. & Chervonnaya, T. A. (2024): Simultaneous Determination of Polychlorinated Biphenyls and Polyaromatic Hydrocarbons in Natural Waters by Dispersive Liquid–Liquid Microextraction and Gas Chromatography–Mass Spectrometry. – J. Anal. Chem., 79(10):1459–1465, doi:10.1134/S1061934824700849.
• Temple, K. L. & Colmer, A. R. (1952): The Formation of Acid Mine Drainage (Discussion). – Trans. Am. Inst. Min. Met. Eng., 184:1075–1078.
• Templeton, C. C. (1960): Solubility of Barium Sulfate in Sodium Chloride Solutions from 25 °C to 95 °C. – J. Chem. Eng. Data, 5(4):514–516, 3 Abb., 3 Tab.; doi:10.1021/je60008a028.
• Temporärer Arbeitskreis Geobiotechnologie in der Dechema e. V. (2013): Geobiotechnologie – Stand und Perspektiven. – 49 p., 14 Abb., 1 Tab.; Frankfurt a.M. (DECHEMA Gesellschaft für Chemische Technik und Biotechnologie e.V.).
• Tennant, E. & Al, T. (2021): Investigating the sulfidation and high-temperature (100 °C – 200 °C) dissolution of As₂O₃ stored at the Giant Mine, NWT, Canada. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 550–555; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Tentschert, E. (1983): Die Baugeologie im Wasserkraftbau Tirols. – Geol. Paläont. Mitt. Innsbruck, 12(11):235–248, 1 Kart.
• Tentschert, E. (2012): Wasserprognosen im Stollenbau – ein Glücksspiel? – Beitr. Hydrogeol., 59:161–168, 1 Abb., 3 Tab.
• Tercan, A. E. & Karayigit, A. I. (2001): Estimation of lignite reserve in the Kalburcayiri field, Kangal basin, Sivas, Turkey. – Int. J. Coal Geol., 47(2):91–100, 5 Abb., 3 Tab.
• Terezopoulos, N. G. & Singh, R. N. (1987): Ground Water Control be Grouting in Tunnels for a Pumped Storage Scheme. – Int. J. Mine Water, 6(1):33–48, 10 Abb., 2 Tab.
• Terrestrial Aquatic Environmental Managers Ltd & Senes Consultants Limited (1997): Guideline Document for Monitoring Acid Mine Drainage: MEND 4.5.4. – 44 Abb., 37 Tab.; Ottawa (The Mine Environment Neutral Drainage [MEND] Program).
• Terry, P., Leyland, J., Mason, D., Williams, H., Jones, L., Carline, R. & Stanley, P. C. (2023): Preventative Methods To Avoid Blow-out At Cwm Rheidol Adit 9, Ystumtuen Mine Sett. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 491–496; (International Mine Water Association).
• Terwelp, T. (2013): Grubenwasserhaltung – Änderung der Grubenwasserhaltung im Ruhrrevier im Zuge der Stilllegung des Steinkohlenbergbaues. – bergbau, 64(3):102–105, 3 Abb.
• Terzaghi, K. (1925): Erdbaumechanik auf bodenphysikalischer Grundlage. – 399 p., 65 Abb., 63 Tab.; Leipzig (Deuticke).
• Terzaghi, K. & Jelinek, R. (1954): Theoretische Bodenmechanik. – 505 p., 153 Abb.; Berlin (Springer).
• Terzaghi, K., Peck, R. B. & Mesri, G. (1996): Soil Mechanics in Engineering Practice, 3 edn. – 551 p., New York (Wiley).
• Tesarik, D. R. & Kealy, C. D. (1984): Estimating Horizontal Drain Design by the Finite-Element and Finite-Difference Methods. – Int. J. Mine Water, 3(3):1–18, 20 Abb., 2 Tab.
• Tesfaye, F. & Taskinen, P. (2011): Phase Equilibria and Thermodynamics of the System Zn-As-Cu-Pb-S at Temperatures below 1173 K. – Aalto Univ. Publ. Ser. Sci. Technol., 7:1–51, 30 Abb., 13 Tab., 1 Anl.
• Tesser, E., D’Amato, E., Gori, R. & Lubello, C. (2011): Conventional and innovative processes for neutral mine drainage treatment and reuse of residuals: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 485–490 p., Aachen (RWTH Aachen University).
• Tetra Tech Coffey (2022): Panguna Mine Legacy Impact Assessment Preparatory Phase – Executive Summary. – Unpubl. Report for Panguna Mine Legacy Impact Assessment Oversight Committee (Report Nr. 754-MELEN291242_R01). – 20 p., Southbank (Tetra Tech Coffey).
• Teuten, E. L., Rowland, S. J., Galloway, T. S. & Thompson, R. C. (2007): Potential for Plastics to Transport Hydrophobic Contaminants. – Environ. Sci. Technol., 41:7759–7764, doi:10.1021/es071737s.
• Teuten, E. L., Saquing, J. M., Knappe, D. R. U., Barlaz, M. A., Jonsson, S., Bjorn, A., Rowland, S. J., Thompson, R. C., Galloway, T. S., Yamashita, R., Ochi, D., Watanuki, Y., Moore, C., Viet, P. H., Tana, T. S., Prudente, M., Boonyatumanond, R., Zakaria, M. P., Akkhavong, K., Ogata, Y., Hirai, H., Iwasa, S., Mizukawa, K., Hagino, Y., Imamura, A., Saha, M. & Takada, H. (2009): Transport and release of chemicals from plastics to the environment and to wildlife. – Philos. Trans. R. Soc. B, 364:2027–2045, doi:10.1098/rstb.2008.0284.
• teWaterNaude, J. M. (2014): The story of the Asbestos Relief Trust - Part 1. – Occupational Health Southern Africa, 20(1):12–14.
• Tezcan Ün, Ü., Koparal, A. S. & Bakir Ögütveren, Ü. (2009): Hybrid processes for the treatment of cattle-slaughterhouse wastewater using aluminum and iron electrodes. – J. Hazard. Mater., 164(2-3):580–586, 11 Abb., 1 Tab.; doi:10.1016/j.jhazmat.2008.08.045.
• Thalheim, F. & Ebenbichler, R. (2020): Die Großquellen Tirols – Bestandsaufnahme und Detailuntersuchungen. Paper presented at the Geoforum Umhausen, Umhausen. – p. 80–96, 15 Abb., 9 Tab.
• Thalmair, M. & Romeder, H. (2010): „Larinmoos“ – die Erstnennung von Lermoos vor mehr als 900 Jahren. – Extra Verren, 2010:17–23, 5 Abb.
• Thamsen, P. U. & Osborn, W. J. (1993): Pumps for Operation in Mines. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 665–670, 6 Abb.; Chililabombwe (Konkola Division).
• Thapa, R., Nissinen, T., Riikonen, J. & Lehto, V. P. (2017): Recovery Of Uranium Using Bisphosphonate Modified Nanoporous Silicon. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1271, Lappeenranta (Lappeenranta University of Technology).
• The Economist (2016): Style Guide. – 280 p., London (Profile Books).
• The International Network for Acid Prevention (2014): Global Acid Rock Drainage Guide. – 473 p.
• The Pennsylvanian Department of Environmental Protection (1998): Coal mine drainage prediction and pollution prevention in Pennsylvania. – 398 p., 68 Abb., 193 Tab.; Harrisburg (Pennsylvanian Bureau of Mining and Reclamation).
• Theis, C. V. (1935): The relation between the lowering of the piezometric surface and the rate and duration of discharge of a well using groundwater storage. – Trans. Am. Geophys. Union, 16:519–524, 3 Abb.
• Theis, C. V. (1940): The source of water derived from wells – Essential factors controlling the response of an aquifer to development. – Civil Engineering, 10(5):277–280, 5 Abb.
• Theriault, S., Diedrich, T. & Day, S. (2015): Evaluation of Humidity Cell Test Precision from an Ongoing Geochemical Characterization Program. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Theron, C. & Lorentz, S. A. (2023): Rainfall Induced Transient Pressure Wave Mechanisms in Tailings. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 497–503; (International Mine Water Association).
• Thiel, V., Jenisch, A., Landmann, G., Reimer, A. & Michaelis, W. (1997): Unusual distributions of long-chain alkenones and tetrahymanol from the highly alkaline Lake Van, Turkey. – Geochim. Cosmochim. Acta, 61(10):2053–2064.
• Thienenkamp, M. (2004): Post-Closure Mine Hydrology and its Impact on Underground Tailings disposal at the Thalanga Mine, Queensland, Australia. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 85–90, 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Thienenkamp, M. (2004): Predicting Pit Water Quality for the Highway Reward Mine, Queensland, Australia. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 201–207, 1 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Thierrin, J., Steffen, P., Cornaz, S., Vuataz, F.-D., Balderer, W., Looser, M., Zobrist, J. & Zumstein, J. (2003): Praxishilfe – Grundwasserprobenahme. – 5 Abb., 3 Tab.; Bern (Bundesamt für Umwelt Wald und Landschaft).
• Thiéry, D. (2022): Simple approximate closed-form expressions for tracer injection in aquifer with a radially converging or diverging flow field. – J. Hydrol., 608:127661, doi:10.1016/j.jhydrol.2022.127661.
• Thiruvenkatachari, R., Francis, M., Cunnington, M. & Su, S. (2016): Application of integrated forward and reverse osmosis for coal mine wastewater desalination. – Sep. Purif. Technol., 163:181–188, doi:10.1016/j.seppur.2016.02.034.
• Thiruvenkatachari, R., Francis, M. J., Cunnington, M., Su, S. & Cote, C. (2015): Forward Osmosis Hybrid Processes for Mining Wastewater Treatment. – In: Shon, H. K., Phuntsho, S., Zhang, T. C. & Surampalli, R. Y. (eds): Forward Osmosis – Fundamentals and Applications. – p. 427–443, 7 Abb., 2 Tab.
• Thisani, S. K., Kallon, D. V. V. & Byrne, P. (2020): Geochemical Classification of Global Mine Water Drainage. – Sustainability-Basel, 12(24) doi:10.3390/su122410244.
• Thives, L. P., Ghisi, E., Thives Júnior, J. J. & Vieira, A. S. (2022): Is asbestos still a problem in the world? A current review. – J. Environ. Manage., 319:115716, doi:10.1016/j.jenvman.2022.115716.
• Thobejane, K., Ochieng', L. & Mokoena, K. (2023): Pre-mining Waste Rock Sampling – A Case Study in Sample Selection. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 504–509; (International Mine Water Association).
• Thomann, R. V. & Mueller, J. A. (1987): Principles of surface water quality modeling and control. – 644 p., New York (Harper & Row).
• Thomas, A., Knevels, J. & Becker, R. (2016): ‚Nördliche von Besse‘ oder Flächen bergbaulicher Tätigkeiten als geocodierte Literaturangaben. – In: Busch, W., et al. (eds): 16. Altbergbau-Kolloquium. – p. 67–78, 9 Abb.; Goslar (TU Clausthal).
• Thomas, C. L. (1904): Die Ringwälle im Quellengebiet der Bieber im Spessart. – Annalen des Vereins für Nassauische Altertumskunde und Geschichtsforschung, 34:179–205, 1 Abb., 4 Taf.
• Thomas, C. W. (1959): Errors in Measurement of Irrigation Water. – Trans. Am. Soc. Civ. Eng., 124:319–332, 6 Abb., 4 Tab.
• Thomas, D., Wildy, J., Weber, P., Rossiter, P., Lindsay, P. & Pizey, M. (2012): Strategies to reduce AMD liability treatment costs at Stockton Coal Mine, New Zealand: International Mine Water Association Symposium. – 678 A–678 H p., Bunbury (Edith Cowan University).
• Thomas, G., Sheridan, C. & Holm, P. E. (2024): Rare earth element (REE) and arsenic mobility in acid mine drainage (AMD) impacted soil. – Geoderma, 443 doi:10.1016/j.geoderma.2024.116817.
• Thomas, R., Piñero-García, F., Forssell-Aronsson, E., Mantero, J. & Isaksson, M. (2022): Natural Radioactivity and Metals in Pit Lakes in Sweden Analyzed by Principal Component and Cluster Analysis. – Mine Water Environ., 41(3):695–703, doi:10.1007/s10230-022-00888-1.
• Thomas, R. C. & Romanek, C. S. (2002): Passive Treatment of low-pH, Ferric Iron-Dominated Acid Rock Drainage in a Vertical Flow Wetland I: Acidity Neutralization and Alkalinity Generation. – 723–748 p., 3 Abb., 3 Tab.; Lexington (Proceedings 19th Annual National Meeting – American Society for Surface Mining and Reclamation).
• Thomas, R. C. & Romanek, C. S. (2002): Passive Treatment of low-pH, Ferric Iron-Dominated Acid Rock Drainage in a Vertical Flow Wetland II: Metal Removal. – 752–775 p., 7 Abb.; Lexington (Proceedings 19th Annual National Meeting – American Society for Surface Mining and Reclamation).
• Thomas, R. C., Romanek, C. S. & Paddock, L. S. (2004): Trace Metal Retention in LBOS-Amended, Vertical-Flow Constructed Wetlands Treating Low pH, Ferric Iron Dominated Acid Rock Drainage. Paper presented at the 21st Annual National Meeting – American Society for Surface Mining and Reclamation, Morgantown, 18–24 April 2004. – p. 1862–1893, 12 Abb., 2 Tab.
• Thomas, S. & Franz, G. (1988): Kluftminerale und ihre Bildungsbedingungen in Gesteinen der Eklogitzone/Südvenediger-Gebiet (Hohe Tauern, Österreich). – Mitt. Österr. Geol. Ges., 81:189–218, Refs: 2 p.; illus. incl. 37 anals., 2 tables, geol. sketch map.
• Thomashausen, S., Maennling, N. & Mebratu-Tsegaye, T. (2018): A comparative overview of legal frameworks governing water use and waste water discharge in the mining sector. – Resour. Policy, 55:143–151, doi:10.1016/j.resourpol.2017.11.012.
• Thomasson, M. J., Mahayasa, M., Standridge, L., Enns, D., Ruddy, B. & Schmelter, S. C. (2025): Utilizing pore pressure simulations with an unstructured mesh for closure design optimization of the Wanagon Stockpile at the Grasberg Mine. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 150–155; Braga (International Mine Water Association).
• Thompson, A. & Taylor, B. N. (2008): Guide for the Use of the International System of Units (SI). – NIST Special Publication, 811:76.
• Thompson, C., Thompson, R. & Zawadzki, W. (2025): Is the water balance for your waste rock pile reliable? A framework for improving assessment of water inputs and outputs for a typical storage facility. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 726–731; Braga (International Mine Water Association).
• Thompson, C. & Zawadzki, W. (2023): Pit Wall Depressurization Using Horizontal Drains: MODFLOW-Based Analysis Techniques. – Mine Water Environ., 42(4):528–532, doi:10.1007/s10230-023-00962-2.
• Thompson, H. (1991): The Economic Causes and Consequences of the Bougainville Crisis. – Resour. Policy, 17(1):69–85, doi:10.1016/0301-4207(91)90027-s.
• Thompson, J. G. (1980): Acid Mine Waters in South Africa and Their Amelioration. – Water SA, 6(3):130–134, 5 Tab.
• Thompson, K., Cadle, S. & Roemer, G. (2015): Integrating Less Common Data Sources to Improve Groundwater Model Calibration. – Mine Water Environ., 34(2):153–161, doi:10.1007/s10230-014-0294-4.
• Thompson, K. S., Cadle, S. & Roemer, G. (2013): Integrating Less-Common Data Sources to Improve Groundwater Model Calibration. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 207–212, 3 Abb., 1 Tab.; Golden (International Mine Water Association).
• Thompson, R. L., Johnston, K. S., Crozier, T. W. & Wilbur, S. C. (2013): Groundwater Modelling and Site Investigations to Evaluate Groundwater Supply Availability and Withdrawal Impacts for a Proposed Gold Mine in Yukon, Canada. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 213–218, 4 Abb., 1 Tab.; Golden (International Mine Water Association).
• Thompson, T. G. & Bonnar, R. U. (1931): The buffer capacity of sea water. – Ind. Eng. Chem. Anal., 3(4):393–395, 4 Tab.; doi:10.1021/ac50076a029.
• Thomsett, I. (2000): Managing large projects: a special case. – 28 p., New Gisborne (Thomsett International).
• Thomson, A. (2015): State crime on the margins of empire: Rio Tinto, the war on Bougainville and resistance to mining, by Kristian Lasslett. – Crit. Stud. Terror., 8(3):548–551, doi:10.1080/17539153.2015.1081012.
• Thöni, H. (2004): Erzwege in Montafon: Tätigkeitsbericht des Burgenausschusses 2003. – 26–32 p., 2 Abb.; Bregenz (Vorarlberger Landesmuseumsverein).
• Thorius, T. (2004): The Effect of Grootvlei Mine Water on the Blesbokspruit. – 104 p., Master of Science, Rand Afrikaans University, 33 Abb., 10 Tab., 11 Anl.
• Thorne, G. & Personnaz, V. (2012): Tailing dam management practices – A review of 3 case studies: International Mine Water Association Symposium. – 745–754 p., Bunbury (Edith Cowan University).
• Thornton, R. (2014): Zamazama, “illegal” artisanal miners, misrepresented by the South African Press and Government. – Extr. Ind. Soc., 1(2):127–129, doi:10.1016/j.exis.2014.06.003.
• Thornton, R., Wahl, N. & Blackketter, D. M. (2013): Convection mechanisms for geothermal heat exchangers in a vertical mine shaft. – Trans. Soc. Min. Metall. Explor., 332:2–5, 5 Abb.
• Thorsnes, T. & Løseth, H. (1991): Tectonostratigraphy in the Velfjord-Tosen region, southwestern part of the Helgeland Nappe Complex, Central Norwegian Caledonides. – Norges Geologiske Undersøkelse, 421:1–18, 11 Abb.
• Thrush, P. W. & Bureau of Mines (1968): A dictionary of mining, mineral, and related terms. – Washington (U.S. Dept. of the Interior).
• Thürkow, D. (2002): GIS-basierte Methoden zur Analyse der Wasserqualitätsentwicklung in Trinkwasserbrunnen am Beispiel des Einzugsgebietes der Saidenbachtalsperre (Erzgebirge). – 149 p., 55 Abb., 32 Tab.; Halle-Wittenberg (Unveröff. Diss. Martin-Luther-Universität).
• Thurman, C. (2022): Mines and Mountains: Mine Dump Aesthetics, Marikana, and Contemporary South African Fiction. – Res. Afr. Lit., 53(1):27–44, doi:10.2979/reseafrilite.53.1.03.
• Thurner, A. (1967): Hydrogeologie. – 350 p., Wien (Springer).
• Thurneysser zum Thurn, L. (1612): Zehen Bücher von kalten, warmen, minerischen und mettalischen Wassern, samt deren Vergleichung mit den Plantis oder Erdgewächsen. – Straßburg (Zetzner).
• Thuro, K., Baumgärtner, W. & Esslinger, C. (2000): Gypsum Karst Problems along an Alpine Motorway Tunnel: Underground Works. – 1–6 [CD–ROM] p., 8 Abb., 1 Tab.; Melbourne (Proceedings GeoEng 2000).
• Thuro, K., Brugger, G. & Winkler, F. (1997): Ungewöhnliche geologische Verhältnisse und deren Bewältigung beim Vortrieb des Grenztunnels Füssen. – Felsbau, 15(6):507–513, 7 Abb.
• Tian, H., Teng, F., Xu, J., Lou, S., Li, N., Zhao, Y. & Chen, M. (2015): An Innovative Anion Regulation Strategy for Energy Bands of Semiconductors: A Case from Bi2O3 to Bi2O(OH)2SO4. – Nat. Sci. Reports, 5:07770, doi:10.1038/srep07770.
• Tian, Y., Fourie, J. & Usher, B. (2020): Simulation of Column Leach Tests using Reactive Transport Modelling. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 94–99; (International Mine Water Association).
• Tianning, D., Guoxiong, L. & Jiahong, D. (1994): The Design and Construction of the Grout Jet to Seal an Underground Reservoir. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:379–384, 2 Abb.
• Tichomirowa, M., Haubrich, F., Junghans, M. & Pelkner, S. (2002): Schwefel- und Sauerstoffisotopen als Indikator für Herkunft und Mischungsprozesse in der Grube Himmelfahrt (Freiberg). – Wiss. Mitt. Inst. Geol., 19:91–93.
• Tiemer, K., Konig, B., Michels, I. & Kaden, S. (1985): Submodels of groundwater-surface water interaction for the analysis of regional water policies in open-pit lignite mining areas. – Proceedings, 2nd International Mine Water Association Congress, 2:849–860.
• Tietze, K. (1981): Direct Measurements of the In-Situ Density of Lake and Sea Water with a New Underwater Probe System. – Geophysica, 17(1-2):33–45, 8 Abb.
• Tietze, K., Geyh, M., Müller, H., Schröder, L., Stahl, W. & Wehner, H. (1980): The genesis of the methane in Lake Kivu (Central Africa). – Geol. Rdsch., 69(2):452–472, doi:10.1007/BF02104549.
• Tiihonen, T., Nissinen, T., Riikonen, J., Sarala, P., Lehto, V.-P. & Lemière, B. (2021): On-site XRF Analysis of Metal Concentrations of Natural Waters. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 556–562; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Tikilili, P. V. & Nkhalambayausi-Chirwa, E. M. (2011): Characterization and biodegradation of polycyclic aromatic hydrocarbons in radioactive wastewater. – J. Hazard. Mater., 192(3):1589–1596, doi:10.1016/j.jhazmat.2011.06.079.
• Tilch, N., Römer, A., Gruber, A., Lotter, M., Winkler, E. & Schattauer, I. (2014): Erkundung des Untergrundes bei Weißenbach (Lechtal, Bezirk Reutte) im Umfeld der Gips-führenden Raibler Schichten mittels (aero)geophysikalischer Methoden – erste Ergebnisse. Paper presented at the Geoforum Umhausen, Umhausen. – p. 197–210, 10 Abb.
• Tillmans, J. (1919): Über die quantitative Bestimmung der Reaktion in natürlichen Wässern [On the quantitative determination of the Reaction in natural waters]. – Zeitschrift für Untersuchung der Nahrungs- und Genußmittel sowie der Gebrauchsgegenstände, 38(1/2):1–16, 6 Tab.
• Timmermann, J. G. & Langaas, S. (2004): Environmental Information in European Transboundary Water Management. – 258 p., London (IWA Publishing).
• Timms, W., Acworth, I., Hartland, A. & Laurence, D. (2012): Leading practices for assessing the integrity of confining strata: application to mining and coal-seam gas extraction: International Mine Water Association Symposium. – 139–148 p., Bunbury (Edith Cowan University).
• Timms, W. A., Leong, S., Taplin, R., Hazelton, J. & Laurence, D. (2013): Mine site water information disclosures in the context of watersheds and reporting frameworks, eastern Australia. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 69–69, Golden (International Mine Water Association).
• Tin, N. T. & Wilander, A. (1995): Chemical conditions in acidic water in the plain of reeds, Viet Nam. – Water Res., 29(5):1401–1408.
• Tischler, J. S., Wiacek, C., Janneck, E. & Schlömann, M. (2013): Microbial Abundance in the Schwertmannite Formed in a Mine Water Treatment Plant. – Mine Water Environ., 32(4):258–265, 5 Abb., 2 Tab.; doi:10.1007/s10230-013-0250-8.
• Tischler, S. E. (1978): The Verrucano- and Buntsandstein ores in northern Tyrol. – Verh. Geol. B.-A., 3:491–497, Refs: 11; illus. incl. geol. sketch map.
• Tishchenko, A., Bakieva, E., Litvinenko, L. & Ivshina, I. (2019): Resistance of Actinobacteria of the Genus Gordonia to Heavy Metal. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 281–285; Perm, Russia (Perm State University).
• Tishmack, J. K. & Burns, P. E. (2004): The chemistry and mineralogy of coal and coal combustion products. – Spec. Publ. – Geol. Soc. London, 236:223–246, 9 Abb., 7 Tab.
• Titus, R., Witthüser, K. & Walters, B. (2009): Groundwater and Mining in the Bushveld Complex. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 178–184, 4 Abb; Pretoria (Document Transformation Technologies).
• TIWAG-Tiroler Wasserkraft AG (2014): Wasserwirtschaftlicher Rahmenplan Großwasserkraftwerksvorhaben Tiroler Oberland. – (Report Nr. WK 240-0174b). – 361 p., 156 Abb., 128 Tab., 1 Anl.; Innsbruck.
• Tiwari, A. K., Singh, P. K. & Mahato, M. K. (2016): Environmental Geochemistry and a Quality Assessment of Mine Water of the West Bokaro Coalfield, India. – Mine Water Environ., 35(4):525–535, doi:10.1007/s10230-015-0382-0.
• Tiwari, A. K., Singh, P. K. & Mahato, M. K. (2017): Assessment of Metal Contamination in the Mine Water of the West Bokaro Coalfield, India. – Mine Water Environ., 36(4):532–541, doi:10.1007/s10230-017-0440-x.
• Tiwary, R. B., Singh, D. B. & Tewary, B. K. (2000): Mine water quality and its management in Indian metalliferrous mines. – Proceedings, 7th International Mine Water Association Congress:660–671, 4 Tab.
• Tiwary, R. K. (2001): Environmental Impact of coal Mining on Water Regime and its Management. – Water Air Soil Pollut., 132(1-2):185–199, 1 Abb., 3 Tab.; doi:10.1023/A:1012083519667.
• Tiwary, R. K. & Dhar, B. B. (1994): Environmental Pollution from Coal Mining Activities in Damodar River Basin, India. – Mine Water Environ., 13(3-4):1–9, 2 Abb., 2 Tab.
• Tlowana, S., Coetzee, H. & Makgae, M. (2013): Realistic simulation of acid mine drainage generation in the gold mines of the Witwatersrand, South Africa. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 475–479, 1 Abb., 4 Tab.; Golden (International Mine Water Association).
• Tlowana, S., Coetzee, H., Vadapalli, V., Makgae, M. & Kruger, R. (2014): Leach Testing of Coal Fly Ash to Assess Its Applicability in the Closure of Abandoned Underground Coal Mines in Mpumalanga Province, South Africa. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 389–394, 2 Tab.; Xuzhou (International Mine Water Association).
• Tlustoš, P., Száková, J., Stárková, A. & Pavlíková, D. (2005): A comparison of sequential extraction procedures for fractionation of arsenic, cadmium, lead, and zinc in soil. – Open Chemistry, 3(4):830–851, doi:10.2478/BF02475207.
• To, T. B., Nordstrom, D. K., Cunningham, K. M., Ball, J. W. & McCleskey, R. B. (1999): New method for the direct determination of dissolved Fe(III) concentration in acid mine waters. – Environ. Sci. Technol., 33(5):807–813, 5 Abb., 3 Tab.; doi:10.1021/es980684z.
• Tobin, T., Harkins, J. D., Woods, W. E., Hall, N. C., Queiroz-Neto, A., Stanley, S. D. & Mundy, G. D. (1998): Testing for Drugs, Medications and other Substances in Racing Horses: Advances In Equine Nutrition. – 229–249 p., 3 Abb., 3 Tab.; Nottingham (Nottingham University Press).
• Todd, A. M. L., Robertson, I., Walsh, R. P. D., Byrne, P., Edwards, P. & Williams, T. (2021): Source Apportionment of Trace Metals at the Abandoned Nantymwyn Lead-Zinc Mine, Wales. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 563–568; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Todd, A. M. L., Robertson, I., Walsh, R. P. D., Byrne, P., Edwards, P. & Williams, T. (2022): Using Tracer Injection and Synoptic Sampling, and Salt Dilution Flow to Gauge Metal Fluxes in a Temperate Watershed in the UK. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 497–502; (International Mine Water Association).
• Todd, A. M. L., Robertson, I., Walsh, R. P. D., Byrne, P., Edwards, P. & Williams, T. (2024): Long-term changes in water quality downstream of three abandoned metal mines. – J. Hydrol., 634 5 Abb., 5 Tab.; doi:10.1016/j.jhydrol.2024.131011.
• Toderaş, M., Moraru, R. I. & Popescu-Stelea, M. (2016): Underground mine workings convergence dependence on operation time and location depth. – J. Min. Sci., 51(3):541–552, doi:10.1134/s1062739115030163.
• Todoli-Ferrandis, D., Silvestre-Blanes, J., Santonja-Climent, S., Sempere-Paya, V. & Vera-Perez, J. (2018): Deploy&Forget wireless sensor networks for itinerant applications. – Comput. Stand. Interfaces, 56:27–40, doi:10.1016/j.csi.2017.09.002.
• Todorovic, T., Ratkovic, V. M. & Vujic, S. (1985): Water Effect on Change of Shear Resistance Parameters of Working Media. – Proceedings, 2nd International Mine Water Association Congress, 1:231–239, 4 Abb.
• Tokarev, I., Zubkov, A. A., Rumynin, V. G., Polyakov, V. A., Kuznetsov, V. Y. & Maksimov, F. E. (2005): Origin of high 234U/238U ratio in post-permafrost aquifers. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 847–856, Heidelberg (Springer).
• Tokarev, I. V. (2002): Noble Gases Isotopes and Tritium as Tracers in Environmental Hydrogeology. – Wiss. Mitt. Inst. Geol., 19:103–111, 7 Abb.
• Tollmann, A. (1969): Tektonische Karte der Nördlichen Kalkalpen. 3. Teil: Der Westabschnitt. – Mitt. Geol. Ges. Wien, 62:78–170, 3 Taf.
• Tollmann, A. (1980): Tektonische Neuergebnisse aus den östlichen Zentralalpen. – Mitt. Österr. Geol. Ges., 71/72:191–200, 1 Abb.
• Tolonen, E.-T., Luukkonen, T., Runtti, H., Rämö, J. & Lassi, U. (2016): Sorption of arsenate on ettringite formed in sulphate removal from mine drainage water. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 867–873, Freiberg (TU Bergakademie Freiberg).
• Tolstikhin, I., Lehmann, B. E., Loosli, H. H. & Gautschi, A. (1996): Helium and argon isotopes in rocks, minerals, and related groundwaters: A case study in northern Switzerland. – Geochim. Cosmochim. Acta, 60(9):1497–1514.
• Tomić, V. & Krešić, N. (1985): The Significance of structurological Investigations in Defining of possible Directions of Inflow of Ground Water into Underground Mining Works. – Proceedings, 2nd International Mine Water Association Congress, 1:53–58, 4 Abb.
• Tomiyama, S. & Igarashi, T. (2022): The potential threat of mine drainage to groundwater resources. – Curr. Opin. Environ. Sci. Heal., 27:100347, doi:10.1016/j.coesh.2022.100347.
• Tomlin, N. & Bicer, N. (1988): The Application of Physical Modelling to the Undersea Mining Conditions at Kozlu Mine in Turkey. – Proceedings, 3rd International Mine Water Congress, Melbourne:371–387, 4 Abb., 2 Tab.
• Tong, S. (2014): Advanced Prospecting and Composite Identification Method for Ultrahigh Pressure-loaded Water-conducting Hidden Collapse Columns. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 579–586, Xuzhou (International Mine Water Association).
• Tönjes, B. (2016): Nachbergbau – Aufgaben und Verantwortung. – Veröff. Dt. Bergbau-Mus. Bochum, 217:133–136.
• Tonndorf, H. (2000): Die Uranlagerstätte Königstein. – Bergbau in Sachsen, 7:208.
• Tonogai, Y., Ito, Y., Iwaida, M., Tati, M., Ose, Y. & Sato, T. (1979): Studies on the toxicity of coal-tar dyes. I. Photodecomposed products of four xanthene dyes and their acute toxicity to fish. – J. Toxicol. Sci., 4(2):115–126, 7 Abb., 2 Tab.; doi:10.2131/jts.4.115.
• Too, K. J. a., Ndegwa, A., Boga, H., Feistel, U., Grischek, T. & Bongaerts, J. C. (2016): Kenyan-German Centre of Excellence for Mining, Environmental Engineering and Resource Management. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 93–98, Freiberg (TU Bergakademie Freiberg).
• Topp, H., Russell, H., Davidson, J., Jones, D., Levy, V., Gilderdale, M., Davis, G., Ring, R., Conway, G., Macintosh, P. & Sertorio, L. (2003): Process water treatment at the Ranger uranium mine, Northern Australia. – Water Sci. Technol., 47(10):155–162.
• Toran, L. (1987): Sulfate contamination in groundwater from a carbonate-hosted mine. – J. Contam. Hydrol., 2(1):1–29, doi:10.1016/0169-7722(87)90002-7.
• Toran, L. & Bradbury, K. R. (1988): Ground-water flow model of drawdown and recovery near an underground mine. – Ground Water, 26(6):724–733, 7 Abb., 2 Tab.; doi:10.1111/j.1745-6584.1988.tb00423.x.
• Torchala, B. & Barth, A. (2005): Xafis – Ein System zum Aufbau bzw. zur automatisierten Generierung server- sowie clientbasierter fachbezogener Geographischer Informationssysteme in der Web-Technologie. – Wiss. Mitt. Inst. Geol., 28:157–161, 2 Abb.
• Torchala, B., Wolfert, A., Imm, M., Kulke, M., Barth, A. & Kunze, S. (2004): Web-GIS – Technologie und Anwendungsbeispiele. – Wiss. Mitt. Inst. Geol., 25:61–64, 8 Abb.
• Torgoev, I., Aleshin, Y., Kovalenko, D. & Chervontsev, P. (2005): Risk assessment of emergency situation initiation in the uranium tailings of Kyrgyzstan. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 563–570, Heidelberg (Springer).
• Torgoev, I. A., Aleshyn, U. G. & Havenit, H. B. (2002): Impact of Uranium Mining and Processing on the Environment of Mountainous areas of Kyrgyzstan. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 93–98, 2 Abb.; Heidelberg (Springer).
• Toride, N., Leij, F. J. & van Genuchten, M. T. (1999): The CXTFIT Code for Estimating Transport Parameters from Laboratory or Field Tracer Experiments – Version 2.1. – U. S. Salinity Lab. Res. Rep., 137:1–119, 24 Abb., 29 Tab.
• Tornivaara, A., Räisänen, M. L., Kovalainen, H. & Kauppi, S. (2018): Kotalahti. Suljettujen ja hylättyjen kaivosten kaivannaisjätealueiden jatkokartoitus (KAJAK II) [Continued survey of the extractive waste facilities of closed and abandoned mines (KAJAK II)] 12. – p. 69–72, 2 Abb., 1 Tab.
• Tornivaara, A., Räisänen, M. L., Kovalainen, H. & Kauppi, S. (2018): Suljettujen ja hylättyjen kaivosten kaivannaisjätealueiden jatkokartoitus (KAJAK II) [Continued survey of the extractive waste facilities of closed and abandoned mines (KAJAK II)]. – Suomen Ympäristökeskuksen Raportteja, 12.
• Tornquist, A. (1927): Die Blei-Zinkerzlagerstatte von Bleiberg-Kreuth in Karnten – Alpine Tektonik, Vererzung und Vulkanismus. – 106 p., 29 Abb., 1 Anl.; Berlin (Springer); doi:10.1007/978-3-7091-9856-8.
• Tornquist, A. (1928): Der Bleierzbergbau und die Bleierzlagerstätten der Ostalpen. – Mitt. Geol. Ges. Wien, 21:155–157.
• Tornquist, A. (1928): Die geologischen Probleme der Blei-Zink-Vererzung der Ostalpen. – Verh. Geol. B.-A.:234–240.
• Tornquist, A. (1930): Perimagmatische Typen ostalpiner Erzlagerstätten. – Sber. Akad. d. Wiss. Wien, math.-nat. Klasse, Abt.1(139):291–308.
• Tornquist, A. (1933): Eine perimagmatische Antimon-Silber-Erzlagerstätte südlich Abfaltersbach, Osttirol. – Z. dt. geol. Ges., 85(1):53–77, sketch map 1 pl.
• Tornquist, A. (1935): Die hochmetamorphe Kieslagerstätte von Tessenberg-Panzendorf in Osttirol. – Sitzungsber. Akad. Wiss. Wien Mathem.-naturw. Kl. Abt. A, 144(1-2):19–32, 1 pl.
• Törnroos, R. (1982): Sphalerite geobarometry of some metamorphosed sulphide ore deposits in Finland. – Bull. Geol. Surv. Finland, 323:42.
• Torrance, K. E. & Chan, V. W. C. (1980): Heat transfer by a free convection loop embedded in a heat-conducting solid. – Int. J. Heat Mass Transfer, 23(8):1091–1097.
• Torrence, C. & Compo, G. P. (1998): A Practical Guide to Wavelet Analysis. – Bulletin of the American Meteorological Society, 79(1):61–78, 11 Abb., 2 Tab.
• Torricelli, S., Knezaurek, G. & Biffi, U. (2006): Sequence biostratigraphy and paleoenvironmental reconstruction in the Early Eocene Figols Group of the Tremp–Graus Basin (south-central Pyrenees, Spain). – Palaeogeogr. Palaeoclimatol. Palaeoecol., 232(1):1–35, doi:10.1016/j.palaeo.2005.08.009.
• Tortella, G. R., Rubilar, O., Cea, M., Wulff, C., Martinez, O. & Diez, M. C. (2010): Biostimulation of Agricultural Biobeds with NPK Fertilizer on Chlorpyrifos Degradation to Avoid Soil and Water Contamination. – J Soil Sci Plant Nut, 10(4):464–475, doi:10.4067/S0718-95162010000200007.
• Tosca, N. J., Knoll, A. H. & McLennan, S. M. (2008): Water Activity and the Challenge for Life on Early Mars. – Science, 320(5880):1204–1207, doi:10.1126/science.1155432.
• Tóth, B. (1982): Shaft Drilling Activity for the Water Protection of Bauxite Mines in Nyirád. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, B:244–258, 7 Abb.
• Tóth, B., Szilágyi, G. & Megyeri, M. (1987): Interference Tests by Applying Pulsation for Determining the hydraulic Parameters of Aquifers Endangering the Mine Sites: Hydrogeology of Coal Basins. – 183–188 p., Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Tóth, J. (1962): A theory of groundwater motion in small drainage basins in central Alberta, Canada. – J. Geophys. Res., 67(11):4375–4388, doi:10.1029/JZ067i011p04375.
• Tóth, J. (1963): A theoretical analysis of groundwater flow in small drainage basins. – J. Geophys. Res., 68(16):4795–4812, doi:10.1029/JZ068i016p04795.
• Tóth, J. (2016): The Evolutionary Concepts and Practical Utilization of the Tothian Theory of Regional Groundwater Flow. – Int. J. Earth Environ. Sci., 1:Article ID 1:IJEES–111, 5 Abb.; doi:10.15344/2456-351X/2016/111.
• Totsche, O., Fyson, A., Kalin, M. & Steinberg, C. E. W. (2006): Titration Curves – A Useful Instrument for Assessing the Buffer Systems of Acidic Mining Waters. – Environ. Sci. Pollut. Res., 13(4):215–224, 15 Abb., 2 Tab.; doi:10.1065/espr2005.09.284.
• Totsche, O., Fyson, A. & Steinberg, C. E. W. (2006): Microbial Alkalinity Production to Prevent Reacidification of Neutralized Mining Lakes. – Mine Water Environ., 25(4):204–213, 4 Abb., 3 Tab.
• Totsche, O. & Kunze, K. (2022): Rehabilitation of the Lusatian Water Balance, in Consideration of Climate Change and the End of Lignite Mining. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 503–509; (International Mine Water Association).
• Totsche, O., Kunze, K. & Bilek, F. (2025): Carbon Footprinting of Mine Water Treatment for Future CO₂ Emission Reduction. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 58–63; Braga (International Mine Water Association).
• Totsche, O., Lucke, B. & Benthaus, F.-C. (2018): In-Lake Neutralization Of Mine Lakes – 15 Years Of Continuous Development. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 199–203; (Tshwane University of Technology).
• Totschnig, R. (2013): Bronzezeitliche Holzeinbringung in den Bronzezeitlichen Bergbau Hallstatt. – 64 p., MPhil, Universität Wien, 75 Abb., 2 Tab., 1 Anl., 107 Taf., 27 Diagr.; Wien.
• Touche, G. D. L. (2016): Earthquakes and Groundwater and Surface Water Management at Mine Sites. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 102–107, Freiberg (TU Bergakademie Freiberg).
• Toughzaoui, S., Amari, K. E., Benkaddour, A., Hibti, M. & Essarraj, S. (2015): Hydrogeochemical and Isotopic Studies of the Kettara Mine Watershed, Morocco. – Mine Water Environ., 34(3):308–319, doi:10.1007/s10230-015-0326-8.
• Toulhoat, P., Gallien, J. P., Louvat, D., Moulin, V., l, H. P., Guerin, R., Ledoux, E., Gurban, I., Smellie, J. A. T. & Winberg, A. (1996): Preliminary studies of groundwater flow and migration of uranium isotopes around the Oklo natural reactors (Gabon). – J. Contam. Hydrol., 21(1-4):3–17, Refs: 27; illus. incl. 1 table, sects.
• Tovar Pacheco, J. A. (1999): Groundwater and Environment on Peruvian Mining. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 355–358, 2 Tab.; Sevilla (International Mine Water Association).
• Townley, L. R. (2025): Forty years of evolution of groundwater flow and solute transport modelling at and near mine sites. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 987–992; Braga (International Mine Water Association).
• Townley, L. R. (2025): Twenty-five years of evolution of integrated water management and integrated water balance modelling at mine sites. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 241–247; Braga (International Mine Water Association).
• Tracy, L. D. (1921): Mine-water Neutralizing Plant at Calumet Mine. – Trans. Am. Inst. Min. Met. Eng., 66:609–623, 2 Abb., 10 Tab.
• Train, R., Breidenbach, A. W., Schaffer, R. B. & Jarrett, B. M. (1976): Development Document for Interim Final Effluent Limitations Guidelines and New Source Performance Standards for the Coal Mining Point Source Category: EPA 440/1-76/057-a. – 288 p., 60 Abb., 36 Tab.; Washington (US Environmental Protection Agency).
• Trakowski, A. C. (1974): Abandoned Underground Mines. – 1–3 p., Pipestem (Proceedings Interstate Mining Compact Commission Spring Meeting).
• Trambouze, P. & Euzen, J.-P. (2004): Chemical reactors – From design to operation. – 649 p., Paris (Editions Technip).
• Tran, M. (2017): Technical And Economic Aspects Of Recent Achievements In Mine Water Management In The Mines Of Quang Ninh Coal Basin, Vietnam. Paper presented at the IMWA 2017 – Mine Water & Circular Economy, Lappeenranta. – p. 1348–1355; (Lappeenranta University of Technology).
• Tran, M., Nguyen, T. T. & Ho, T. A. (2019): Mine Water Management under Seasonal Rainfall Condition. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 308–313; Perm, Russia (Perm State University).
• Tran, T. Q., Banning, A., Wisotzky, F. & Wohnlich, S. (2020): Mine water hydrogeochemistry of abandoned coal mines in the outcropped Carboniferous formations, Ruhr Area, Germany. – Environ Earth Sci, 79(4) doi:10.1007/s12665-020-8821-z.
• Trannin, I. C. D., Siqueira, J. O. & Moreira, F. M. D. (2007): Características Biológicas do Solo Indicadoras de Qualidade Após Dois Anos de Aplicação de Biossólido Industrial e Cultivo de Milho [Biological characteristics indicators of soil quality after two years of application of an industrial biosolidand corn cultivation]. – Rev Bras Cienc Solo, 31(5):1173–1184, doi:10.1590/S0100-06832007000500032.
• Trapp, S. (2002): Dynamic root uptake model for neutral lipophilic organics. – Environ. Toxicol. Chem., 21(1):203–206, doi:10.1002/etc.5620210128.
• Travis, C. C. & Hester, S. T. (1991): Global chemical pollution. – Environ. Sci. Technol., 25(5):814–819, doi:10.1021/es00017a001.
• Trembath, J., Ntloko, P., Kirkaldy, A. & Mlambo, M. (2023): First record of freshwater planarian Girardia sinensis Chen & Wang, 2015 (Platyhelminthes, Tricladida, Continenticola) in South Africa. – BioInvasions Rec., 12(4):1059–1068, 2 Abb., 2 Tab.; doi:10.3391/bir.2023.12.4.18.
• Tremblay, G. (2018): International Network for Acid Prevention (INAP). Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 962–970; (Tshwane University of Technology).
• Tremblay, G., Hogan, C. & Gardiner, E. (2004): Experience of Canadian Partnership Programs – MEND and NOAM. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 53–60, Newcastle upon Tyne (University of Newcastle).
• Tremblay, G. A. & Hogan, C. M. (2015): The Canadian MEND Program – The First Twenty-Five Years. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Tremolada, P., Bumett, V., Calamari, D. & Jones, K. C. (1996): A Study of the Spatial Distribution of PCBs in the UK Atmosphere Using Pine Needles. – Chemosphere, 32(11):2189–2203, doi:10.1016/0045-6535(96)00127-0.
• Treptow, O. (1967): Ist die Bildung von Wasserprovinzen im Ruhrrevier möglich? – Glückauf, 103(18):877–881, 3 Abb.
• Tresintsi, S., Simeonidis, K., Pliatsikas, N., Vourlias, G., Patsalas, P. & Mitrakas, M. (2014): The role of SO₄^2– surface distribution in arsenic removal by iron oxy-hydroxides. – J. Solid State Chem., 213:145–151, doi:10.1016/j.jssc.2014.02.026.
• Treskatis, C., Hein, C., Peiffer, S. & Herrmann, F. (2009): Brunnenalterung – Sind Glaskugeln eine Alternative zum Filterkies nach DIN 4924? – bbr – Fachmagazin für Leitungsbau, Brunnenbau und Geothermie, 60(4):36–44, 7 Abb., 6 Tab.
• Trewin, N. H., Macdonald, D. I. M. & Thomas, C. G. C. (2002): Stratigraphy and sedimentology of the Permian of the Falkland Islands: lithostratigraphic and palaeoenvironmental links with South Africa. – J. Geol. Soc., 159(1):5–19, doi:10.1144/0016-764900-089.
• Trexler, H. (2024): Restoring the north branch Blacklick Creek with a centralized mine drainage treatment facility. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 610–610; Morgantown (International Mine Water Association).
• Trexler Jr, B. D. (1979): Hydrogeology of a Lead-Zinc Mine: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 552–570 p., 6 Abb., 4 Tab.; San Francisco (Freeman).
• Tricca, A., Stille, P., Steinmann, M., Kiefel, B., Samuel, J. & Eikenberg, J. (1999): Rare earth elements and Sr and Nd isotopic compositions of dissolved and suspended loads from small river systems in the Vosges Mountains (France), the river Rhine and groundwater. – Chem. Geol., 160(1-2):139–158, 15 Abb., 6 Tab.
• Trifi, M., Gasmi, A., Carbone, C., Majzlan, J., Nasri, N., Dermech, M., Charef, A. & Elfil, H. (2022): Machine learning-based prediction of toxic metals concentration in an acid mine drainage environment, northern Tunisia. – Environ. Sci. Pollut. Res., 29(58):87490–87508, doi:10.1007/s11356-022-21890-8.
• Trifonov, V. G. & Kozhurin, A. I. (2010): Study of active faults: Theoretical and applied implications. – Geotectonics/Geotektonika, 44(6):510–528, doi:10.1134/S0016852110060051.
• Triplett, J., Filippov, A. & Pisarenko, A. (2001): Coal Mine Methane in Ukraine – Opportunities for Production and Investment in the Donetsk Coal Basin. – 127 p., Washington (U.S. Environmental Protection Agency, Partnership for Energy and Environmental Reform).
• Trisasongko, B., Lees, B. & Paull, D. (2006): Polarimetric Classification in a Tailings Deposition Area at the Timika Mine Site, Indonesia. – Mine Water Environ., 25(4):246–250, 2 Abb., 1 Tab.
• Trivedi, P., Axe, L. & Tyson, T. A. (2001): An Analysis of Zinc Sorption to Amorphous versus Crystalline Iron Oxides Using XAS. – J. Colloid Interface Sci., 244:230–238, 6 Abb., 3 Tab.; doi:10.1006/jcis.2001.7971.
• Trofimuk, I. P. & Shenkman, B. M. (1987): Hydrogeochemistry of the Irkutsk Basin and Quality of Coal: Hydrogeology of Coal Basins. – 403–414 p., 3 Abb., 2 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Tröger, K., Knöller, K. & Strauch, G. (2005): Application of stable isotopes to assess reducing processes in lignite mining dumps: Mine Water 2005 – Mine Closure. – 261–164 p., 3 Abb.; Oviedo (University of Oviedo).
• Tromans, S. (2001): EC Waste Law – a complete mess? – J. Environ. Law, 13(2):133–156.
• Trommsdorff, V. (1962): Über Lamprophyre aus den nördlichen Kalkalpen (Ehrwaldit). – Tschermaks Min. Petr. Mitt., 8(3):281–325, 16 Abb.
• Trommsdorff, V., Dietrich, V. V., Flisch, M., Stille, P. & Ulmer, P. (1990): Mid-Cretaceous, primitive alkaline magmatism in the Northern Calcareous Alps: Significance for Austroalpine Geodynamics. – Geol. Rundsch., 79(1):85–97, 8 Abb.; doi:10.1007/BF01830448.
• Trontelj, A. & Ponikvar-Zorko, P. (1998): Influence of a uranium mine on the macrozoobenthic communities of the streams in the nearest environs, Slovenia. – Water Sci. Technol., 37(8):235–241, 1 Abb., 3 Tab.; doi:10.1016/S0273-1223(98)00262-5.
• Tropper, P., Bechter, D., Zambanini, J., Kaindl, R., Vavtar, F. & Lutz, J. (2011): Montangeschichte, Mineralogie, Geochemie und Petrologie der Kupferlagerstätte Bartholomäberg/Silbertal (Montafon, Vorarlberg). – Geo.Alp, 8:20–44, 16 Abb., 3 Tab.
• Tropper, P. & Vavtar, F. (2009): Mineralogical/petrological and geochemical survey of historic mining sites in the Tyrol and adjacent areas in the course of the Sonderforschungsbereich HiMAT (History of Mining Activities in the Tyrol and Adjacent Areas). – Geo.Alp, 6:1–10, 4 Abb.
• Trotter, R. T. I. (2012): Qualitative research sample design and sample size: resolving and unresolved issues and inferential imperatives. – Prev. Med., 55(5):398–400, doi:10.1016/j.ypmed.2012.07.003.
• Truche, L., Donzé, F. V., Goskolli, E., Muceku, B., Loisy, C., Monnin, C., Dutoit, H. & Cerepi, A. (2024): A deep reservoir for hydrogen drives intense degassing in the Bulqizë ophiolite. – Science, 383(6683):618–621, doi:10.1126/science.adk9099.
• Trudgill, S. T. (1987): Soil water dye tracing, with special reference to the use of rhodamine WT, lissamine FF and amino G acid. – Hydrol. Processes, 1(2):149–170, 13 Abb., 12 Tab.; doi:10.1002/hyp.3360010204.
• Trudinger, P. A. (1979): The Biological Sulfur Cycle. – In: Trudinger, P. A. & Swaine, D. J. (eds): Biogeochemical cycling of mineral-forming elements 3. – p. 293–313, 3 Abb., 3 Tab.; Amsterdam (Elsevier); doi:10.1016/S0166-1116(08)71062-8.
• Trudinger, P. A. & Swaine, D. J. (1979): Biogeochemical cycling of mineral-forming elements: Studies in Environmental Science 3. – 612 p., Amsterdam (Elsevier).
• Trudinger, P. A., Walter, M. R. & Ralph, B. J. (1980): Biogeochemistry of Ancient and Modern Environments. – 723 p., Berlin (Springer); doi:10.1007/978-3-642-48739-2.
• Trumm, D. (2010): Selection of active and passive treatment systems for AMD—flow charts for New Zealand conditions. – N. Z. J. Geol. Geophys., 53(2-3):195–210, doi:10.1080/00288306.2010.500715.
• Trumm, D., Ball, J., Pope, J. & Weisener, C. (2015): Antimony Passive Treatment by Two Methods – Sulfate Reduction and Adsorption onto AMD Precipitate. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Trumm, D., Ball, J., Pope, J. & Weisener, C. (2015): Passive Treatment of ARD Using Mussel Shells – Part III: Technology Improvement and Future Direction. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Trumm, D., Christenson, H., Pope, J., Watson, K., Mason, K., Squire, R., McDonald, G. & Mazzetti, A. (2018): Treatment of High Mn Concentrations at Waihi Gold Mine, New Zealand by Two Methods: A Limestone Leaching Bed and a Slag Leaching Bed. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 204–209; (Tshwane University of Technology).
• Trumm, D., Moynihan, E., Young, J. & Pope, J. (2022): Passive Treatment Of AMD Using a Full-Scale Upflow Mussel Shell Reactor, Echo Coal Mine, New Zealand. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 511–516; (International Mine Water Association).
• Trumm, D. & Pope, J. (2015): Passive Treatment of Neutral Mine Drainage at a Metal Mine in New Zealand Using an Oxidizing System and Slag Leaching Bed. – Mine Water Environ., 34(4):430–441, doi:10.1007/s10230-015-0355-3.
• Trumm, D., Pope, J. & Christenson, H. (2021): Passive Treatment Of AMD Using a Full-Scale Up-Flow Mussel Shell Reactor, Bellvue Coal Mine, New Zealand. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 577–583; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Trumm, D., Pope, J. & Newman, N. (2009): Passive treatment of neutral mine drainage at a metal mine in New Zealand using an oxidising system and slag leaching bed. Paper presented at the Proceedings Securing the Future 2009 & 8th ICARD, Skellefteå. – p. 1–10 [electronic document], 7 Abb.
• Trumm, D., Pope, J., West, R. & Weber, P. (2017): Downstream Geochemistry And Proposed Treatment – Bellvue Mine AMD, New Zealand. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 580–587, Lappeenranta (Lappeenranta University of Technology).
• Trumm, D. & Watts, M. (2010): Results of small-scale passive system trials to treat acid mine drainage, West Coast Region, South Island, New Zealand. – N. Z. J. Geol. Geophys., 53(2-3):227–237, 9 Abb., 1 Tab.; doi:10.1080/00288306.2010.509041.
• Trümpelmann, W. (1924): Die Gewinnung von Grundwasser und Oberflächenwasser auf den Zechen des Ruhrbezirks. – Glückauf, 60(18):349–355, 1 Abb., 7 Tab.
• Trümpelmann, W. (1924): Die Verwendung von Gruben- und Schachtwasser auf den Zechen im Ruhrbezirk. – Glückauf, 60(36):783–806.
• Trümpy, R. (1998): Die Entwicklung der Alpen: Eine kurze Übersicht. – Z. dt. geol. Ges., 149(2):165–182, 3 Abb., 1 Tab.; doi:10.1127/zdgg/149/1998/165.
• Trusler, G. E. (1988): The Chemical Removal of Sulphates Using Barium Salts. – 75 p., University of Natal; Durban.
• Trusler, G. E., Edwards, R. I. & Buckley, C. A. (1991): Sulfate, calcium and heavy metal removal from industrial effluents using barium carbonate. – Water SA, 17(2):167–172, 5 Abb., 5 Tab.
• Truss, L. (2003): Eats, Shoots & Leaves – The Zero Tolerance Approach to Punctuation. – New York (Gotham Books).
• Trzhtsinsky, Y. B., Johnson, K. S. & Gunay, G. (2002): Human-induced activation of gypsum karst in the southern Priangaria; East Siberia, Russia. – Carbonate Evaporite, 17(2):154–158.
• Tsai, Y.-J., Chou, F.-C. & Cheng, T.-C. (2009): Coupled acidification and ultrasound with iron enhances nitrate reduction. – J. Hazard. Mater., 163(2):743–747, 2 Abb., 1 Tab.; doi:10.1016/j.jhazmat.2008.07.021.
• Tschaikner, M. (2005): Das spätmittelalterliche „Land im Walgau“. – In: Gamon, T. (ed) Das Land im Walgau – 600 Jahre Appenzellerkriege im südlichen Vorarlberg. – p. 41–104, 20 Abb.; Nenzing (Elementa Walgau).
• Tschaikner, M. (2011): Der spätmittelalterliche Eisenbergbau in der Galina und im Gamperdond (Nenzing) – mit einem Exkurs über das Bergwerk in der Schwendi bei Bludenz. – Bludenzer Geschichtsblätter, 98/99:29–42, 4 Abb.
• Tschobanoglous, G., Burton, F. L. & Stensel, H. D. (2003): Wastewater Engineering – Treatment and Reuse: I – III, 4th edn. – 1819 p., Boston (McGraw-Hill).
• Tseng, P. H., Soll, W. E., Gable, C. W., Turin, H. J. & Bussod, G. Y. (2003): Modeling Unsaturated flow and Transport Processes at the Busted Butte Field test Site, Nevada. – J. Contam. Hydrol., 62-3:303–318.
• Tshivhase, M. V. (2014): The Concentration of Radioactive Materials in Mine Water. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 529–533, Xuzhou (International Mine Water Association).
• Tshivhase, V. M. & Mathuthu, M. (2013): Radiological effect of mine dumps on surrounding water resources. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1145–1150, 3 Abb., 8 Tab.; Golden (International Mine Water Association).
• Tsuji, K., Nakano, K., Takahashi, Y., Hayashi, K. & Ro, C.-U. (2012): X-ray Spectrometry. – Anal. Chem., 84(2):636–668, doi:10.1021/ac202871b.
• Tsujimura, M., Abe, Y., Tanaka, T., Shimada, J., Higuchi, S., Yamanaka, T., Davaa, G. & Oyunbaatar, D. (2007): Stable isotopic and geochemical characteristics of groundwater in Kherlen River basin, a semi-arid region in eastern Mongolia. – J. Hydrol., 333(1):47–57, doi:10.1016/j.jhydrol.2006.07.026.
• Tsukamoto, T. K. & Weems, V. (2010): Lime Delivery and Methodology in Mining Impacted Water Treatment. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 191–195, Sydney, NS (Cape Breton University Press).
• Tsukamoto, T. K. & Weems, V. (2010): Semi-Passive Bioreactors for Treatment of Acid Mine Drainag. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 283–287, Sydney, NS (Cape Breton University Press).
• Tsusue, A. & Holland, H. D. (1966): The coprecipitation of cations with CaCO₃–III – The coprecipitation of Zn²⁺ with calcite between 50 and 250 °C. – Geochim. Cosmochim. Acta, 30(4):439–453, 8 Abb., 4 Tab.; doi:10.1016/0016-7037(66)90072-X.
• Tuan Vo, D. (1978): Multicomponent analysis by synchronous luminescence spectrometry. – Anal. Chem., 50(3):396–401, doi:10.1021/ac50025a010.
• Tuck, J., Hayton, S. & Hartwell, S. (2022): Predictive Water Balance and Mass Load Modelling for Mine Water Through a Passive Treatment System. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 517–517; (International Mine Water Association).
• Tucker, R. F., Viljoen, R. P. & Viljoen, M. J. (2016): A Review of the Witwatersrand Basin – The World’s Greatest Goldfield. – Episodes, 39(2):105–133, doi:10.18814/epiiugs/2016/v39i2/95771.
• Tufar, W. (1965): Die alpidische Metamorphose an Erzlagerstätten am Ostrand der Alpen. – Z. dt. geol. Ges., 116(2):512–520, doi:10.1127/zdgg/116/1965/512.
• Tufar, W. (1974): Zur Altersgliederung der ostalpinen Vererzung. – Geol. Rdsch., 63(1):105–124, 17 Abb.; doi:10.1007/BF01820978.
• Tufar, W. (1981): Die Vererzung der Ostalpen und Vergleiche mit Typlokalitäten anderer Orogengebiete. – Mitt. Österr. Geol. Ges., 74/75:265–306, 34 Abb.
• Tuff, J., Harrison, B., Choy, S. Y., Strand, R. & Usher, B. (2015): Assessing the Robustness of Antamina’s Site Wide Water Balance/Water Quality Model over 5 Years of Implementation. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Tufte, E. R. (1990): Envisioning Information. – 127 p., Cheshire (Graphics Press).
• Tufte, E. R. (1997): Visual Explanations – Images and Quantities, Evidence and Narrative. – 157 p., Cheshire (Graphics Press).
• Tufte, E. R. (2001): The visual display of quantitative information, 2nd edn. – 197 p., Cheshire (Graphics Press).
• Tufte, E. R. (2006): Beautiful Evidence. – 213 p., Cheshire (Graphics Press).
• Tufte, E. R. (2006): The Cognitive Style of Powerpoint – Pitching Out Corrupts Within, 2nd edn. – Cheshire (Graphics Press).
• Tugrul, S., Basturk, O., Saydam, C. & Yilmaz, A. (1992): Changes in the hydrochemistry of the Black Sea inferred from water density profiles. – Nature, 359:137–139.
• Tuheteru, E. J., Kusuma, G. J., Gautama, R. S., Pranoto, K. & Palinggi, J. (2022): Comparison of Pit Wall Leaching Test in the Field and Laboratory. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 519–527; (International Mine Water Association).
• Tulloch, A. I. T. (2020): Improving sex and gender identity equity and inclusion at conservation and ecology conferences. – Nat. Ecol. Evol., doi:10.1038/s41559-020-1255-x.
• Tulsyan, Y., Raymond, E. S. & Steele, G. (2012): The New Hacker’s Dictionary – version 5.0.1, 5 JAN 2012. https://web.archive.org/web/20130827121341/http://cosman246.com/jargon.html Accessed 2019-01-26.
• Tum, S., Katayama, T., Miyata, N., Hamai, T., Semoto, Y. & Yasutaka, T. (2025): Evaluating the Sustainability of Passive Treatment for Acid Mine Drainage of a Legacy Mine via Life Cycle Assessment. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 416–421; Braga (International Mine Water Association).
• Tum, S., Katayama, T., Miyata, N., Watanabe, M., Hashimoto, Y. & Yasutaka, T. (2024): Understanding a passive treatment mechanism of manganese and zinc at a legacy mine in northern Japan using geochemical modelling. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 611–612; Morgantown (International Mine Water Association).
• Tümpling v. Jr, W., Wilken, R. D. & Einax, J. (1995): Mercury contamination in the northern Pantanal region Mato Grosso, Brazil. – J. Geochem. Explor., 52(1–2):127–134, 6 Abb., 1 Tab.; doi:10.1016/0375-6742(94)00040-I.
• Tuna, G., Arkoc, O. & Gulez, K. (2013): Continuous Monitoring of Water Quality Using Portable and Low-Cost Approaches. – Int. J. Distrib. Sens. N., 2013:Article ID 249598, doi:10.1155/2013/249598.
• Tuna, G., Nefzi, B., Arkoc, O. & Potirakis, S. M. (2014): A real-time remote monitoring of water quality by means of a wireless sensor network. – Sens. Lett., 12(9):1414–1421, doi:10.1166/sl.2014.3327.
• Tunoglu, C. & Ünal, A. (2001): Pannonian-Pontian Ostracoda fauna of Gelibolu Neogene Basin (NW Turkey). – Hacettepe Üniversitesi Yerbilimleri Uygulama ve Arastirma Merkezi Bülteni [Bulletin of Earth Sciences Application and Research Centre of Hacettepe University], 23:167–187, 2 Abb., 1 Tab., 3 Taf.
• Tuovinen, N., Weckström, K. & Salonen, V.-P. (2012): Impact of mine drainage on diatom communities of Orijärvi and Määrjärvi, lakes in SW Finland. – Boreal Env. Res., 17:437–446, 4 Abb., 5 Tab.
• Turan, J. & Turanová, L. (1993): Uhličitanová mineralizácia ložiska Nižná Slaná [Carbonate mineralization of the Nižná Slaná deposit]. – Západné Karpaty sér. Miner. Petrog., 16:147–167, 14 Abb., 8 Tab.
• Turanová, L. & Turan, J. (1993): Uhličitanová mineralizácia v permských horninách gemerika [Carbonate mineralization in permian rocks of the gemericum unit]. – Miner. Slovaca, 25(5):371–374.
• Turek, M. (2003): Recovery of NaCl from Saline Mine Water in an Electrodialysis-Evaporation System. – Chem. Pap., 57(1):50–52, 1 Abb., 4 Tab.
• Turek, M. (2004): Electrodialytic desalination and concentration of coal-mine brine. – Desalination, 162(1-3):355–359, 1 Abb., 4 Tab.; doi:10.1016/S0011-9164(04)00069-4.
• Turek, M., Dydo, P. & Klimek, R. (2005): Salt production from coal-mine brine in ED-evaporation-crystallization system. – Desalination, 184(1-3):439–446, 1 Abb., 4 Tab.; doi:10.1016/j.desal.2005.03.047.
• Turek, M. & Gonet, M. (1997): Nanofiltration in the utilization of coal-mine brines. – Desalination, 108:171–177, 1 Tab.; doi:10.1016/S0011-9164(97)00024-6.
• Turek, M., Mrowiec-Bialon, J. & Gnot, W. (1995): Utilization of coal mine brines in the chlorine production process. – Desalination, 101:57–67, 2 Abb., 8 Tab.
• Turian, R. M., Ma, T. W., Hsu, F. L. G. & Sung, D. J. (1998): Flow of concentrated non-newtonian slurries: 1. Friction losses in laminar, turbulent and transition flow through straight pipe. – Int. J . Multiphase Flow, 24(2):225–242, 9 Abb., 3 Tab.; doi:10.1016/S0301-9322(97)00038-4.
• Turin, H. J., Groffman, A. R., Wolfsberg, L. E., Roach, J. L. & Strietelmeier, B. A. (2002): Tracer and Radionuclide Sorption to Vitric Tuffs of Busted Butte, Nevada. – Appl. Geochem., 17(6):825–836.
• Turin, H. J., Jones, C. L., Groffman, A. R., Dunn, S. D., Lowry, W. E. & Soll, W. E. (2004): Collection of Unsaturated-zone Water Samples for Tracer Analysis: Evaluation of an Inverting Membrane Technique. – Ground Water Monit. Remediat., 24(3):95–101.
• Turk, T. (2017): Removal of Dissolved Arsenic by Pyrite Ash Waste. – Mine Water Environ., 36(2):255–263, doi:10.1007/s10230-016-0406-4.
• Turner, A. J. M. & Braungardt, C. (2012): Best left to leach? Geochemical understanding of waste tips at abandoned metal mines: International Mine Water Association Symposium. – 343–354 p., Bunbury (Edith Cowan University).
• Turner, A. J. M., Braungardt, C. & Potter, H. (2011): Risk-Based Prioritisation of Closed Mine Waste Facilities Using GIS: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 667–672 p., Aachen (RWTH Aachen University).
• Turner, A. J. M., Braungardt, C., Worsfold, P., Rieuwerts, J., Williamson, B. & Potter, H. (2009): Dynamic Up-Flow Percolation Tests – A Model for Mining Waste Leachate Generation. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 858–867, 7 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Turner, B. R. & Richardson, D. (2004): Geological controls on the sulphur content of coal seams in the Northumberland Coalfield, Northeast England. – Int. J. Coal Geol., 60(2-4):169–196, doi:10.1016/j.coal.2004.05.003.
• Turner, J. H. (1947): Epicurus and Friendship. – The Classical Journal, 42(6):351–355.
• Turner, J. P., Green, P. F., Holford, S. P. & Lawrence, S. R. (2008): Thermal history of the Rio Muni (West Africa)-NE Brazil margins during continental breakup. – Earth Planet. Sci. Lett., 270(3-4):354–367, doi:10.1016/j.epsl.2008.04.002.
• Turner, J. S. (1965): The coupled turbulent transports of salt and and heat across a sharp density interface. – Int. J. Heat Mass Transfer, 8(5):759–767, doi:10.1016/0017-9310(65)90022-0.
• Turner, J. S. (1968): The behaviour of a stable salinity gradient heated from below. – J. Fluid Mech., 33(1):183–200, doi:10.1017/S0022112068002442.
• Turner, J. S. (1973): Buoyancy effects in fluids: Cambridge monographs on mechanical and applied mathematics. – 367 p., Cambridge (Cambridge University Press).
• Turner, J. S. & Stommel, H. (1964): A New Case of Convection in the Presence of Combined Vertical Salinity and Temperature Gradients. – Proc. Natl. Acad. Sci. U.S.A., 52(1):49–53, doi:10.1073/pnas.52.1.49.
• Turney, W. R. & Thomson, B. M. (1992): Minerals and mine drainage. – Water Environ. Res., 64(4):446–448.
• Turowski, S. (1998): Schwermetalluntersuchungen am Schwarzbach im Spessart unter Berücksichtigung der Geologie des Lochborn von Bieber mit seiner Bergbaugeschichte. – Geol. Jb. Hessen, 126:15–35.
• Turrero, M. J., Garralón, A., Gómez, P., Melón, A. & Fernández, F. (1999): Characterisation of Heavy Elements Partitioning between Groundwater and suspended Particles after the Collapse of a Mine Tailings Dam (Aznalcóllar, South Spain). – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 255–260, 6 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Turrini, P., Massarutto, A., Pertile, M. & de Carli, A. (2021): Water Law, Policy and Economics in Italy – Between National Autonomy and EU Law Constraints: Global Issues in Water Policy. – Cham (Springer); doi:10.1007/978-3-030-69075-5.
• Turton, A. (2008): Three strategic water quality challenges that decision-makers need to know about and how the CSIR should respond [not presented]. Paper presented at the Science Real and Relevant – 2nd CSIR Biennial Conference, Pretoria, 18 November 2008. – 8 Abb.; (CSIR).
• Turton, A. (2009): The role of science in deepening democracy: the case for water in post-Apartheid South Africa. – The Journal for Transdisciplinary Research in Southern Africa, 5(1):9–28, 3 Abb.
• Turton, A. (2013): Debunking Persistent Myths about AMD in the Quest for a Sustainable Solution. – SAWEF Paradigm Shifter, 1:1–38, 19 Abb.
• Turton, A. (2014): Closure Mining – Introducing a new concept for environmentally responsible development. – Water Wheel, 13(3):18–21, 2 Abb.
• Turton, A. (2015): Managing the Unintended Consequences of Mining: Acid Mine Drainage in Johannesburg. – In: Eslamian, S. (ed) Urban Water Reuse Handbook. – p. 551–561, 6 Abb.; (CRC Press).
• Turton, A. (2015): When Gold Mining Ends: an environmental catastrophe for Johannesburg? – In: Khadiagala, G. M., Naidoo, P., Pillay, D. & Southall, R. (eds): New South African Review 5. – p., 9 Abb.; Johannesburg (Wits University Press).
• Turunen, E. (1953): Aijalan ja Metsämontun kaivokset [The Aijala and Metsämonttu mines]. – Vuoriteollisuus – Bergshanteringen, 11:16–28, 22 Abb.
• Turunen, K., Backnäs, S., Neitola, R. & Pasanen, A. (2016): Factors Controlling the Migration of Tailings-Derived Arsenic: A Case Study at the Yara Siilinjärvi Site. – Mine Water Environ., 35(4):407–420, doi:10.1007/s10230-016-0393-5.
• Turunen, K., Lukkarinen, V. & Korkka-Niemi, K. (2024): Chemical and isotopic evidence to clarify the salinity of the bedrock groundwater at Finnish mining site. – J. Hydro. Regional Stud., 51:101665, doi:10.1016/j.ejrh.2024.101665.
• Tuttle, J. H., Dugan, P. R., Macmilla, C. B. & Randles, C. I. (1969): Microbial Dissimilatory Sulfur Cycle in Acid Mine Water. – J. Bacteriol., 97(2):594.
• Tuttle, J. H., Dugan, P. R. & Randles, C. I. (1969): Microbial Sulfate Reduction and its potential Utility as an Acid Mine Water Pollution Abatement Procedure. – Appl. Microbiol., 17(2):297–302, 3 Abb., 4 Tab.
• Tuttle, J. H., Randles, C. I. & Dugan, P. R. (1968): Activity of Microorganisms in Acid Mine Water .I. Influence of Acid Water on Aerobic Heterotrophs of a Normal Stream. – J. Bacteriol., 95(5):1495, 6 Abb., 1 Tab.
• Tutu, H. (2012): Mining and Water Pollution: Water Quality Monitoring and Assessment. – 347–372 p., 15 Abb., 4 Tab.; Shanghai (InTech).
• Tutu, H., Bakatula, E. N., Dlamini, S., Rosenberg, E., Kailasam, V. & Cukrowska, E. M. (2013): Kinetic, equilibrium and thermodynamic modelling of the sorption of metals from aqueous solution by a silica polyamine composite. – Water SA, 39(4):437–443, 3 Abb., 4 Tab.; doi:10.4314/wsa.v39i4.1.
• Tutu, H., Camden-Smith, B., Cukrowska, E. M., Bakatula, E. N., Weiersbye, I. & Sutton, M. (2011): Mineral efflorescent crusts as sources of pollution in gold mining environments in the Witwatersrand: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 623–626 p., Aachen (RWTH Aachen University).
• Tutu, H., Cukrowska, E., McCarthy, T. S., Mphephu, N. F. & Hart, R. (2003): Determination and modelling of geochemical speciation of uranium in gold mine polluted land in South Africa. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 137–155, 10 Abb.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Tutu, H., Dlamini, S., Bakatula, E. N., Rosenberg, E., Kailasam, V. & Cukrowska, E. M. (2010): Application of silica polyamine composites for the removal of metals from mine wastewaters. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 287–291, Sydney, NS (Cape Breton University Press).
• Tutu, H., McCarthy, T. S. & Cukrowska, E. M. (2008): The chemical characteristics of acid mine drainage with particular reference to sources, distribution and remediation: The Witwatersrand Basin, South Africa as a case study. – Appl. Geochem., 23(12):3666–3684, doi:10.1016/j.apgeochem.2008.09.002.
• TÜV Süddeutschland & Bau und Betrieb GmbH (2007): Erfassung und radiologische Bewertung von Hinterlassenschaften mit NORM – Materialien aus früheren Tätigkeiten und Arbeiten einschließlich der modellhaften Untersuchung branchentypischer Rückstände – Teil 3a Bergbauliche Hinterlassenschaften der Steinkohle-Gewinnung. – Schriftenreihe Reaktorsicherheit und Strahlenschutz, BMU-2007-695.
• Tvedten, M. K., Breedveld, G. D. & Pabst, T. (2017): Valorization of Pre-oxidized Tailings as Cover Material for the Reclamation of an Old Acid-generating Mining Site. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 877–883, Lappeenranta (Lappeenranta University of Technology).
• Tveito, A. (2010): Are you Planning to Take a PhD? –:503–517, doi:10.1007/978-3-642-01156-6_34.
• Tversky, A. & Kahneman, D. (1971): Belief in the law of small numbers. – Psychological Bulletin, 67(2):105–110, doi:10.1037/h0031322.
• Twardowska, I., Ingar, W., Margareta, W., Tommi, K. & Johannes, D. (2010): European Waste Characterisation Standards for the prevention of acid rock drainage. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 545–549, Sydney, NS (Cape Breton University Press).
• Twardowska, I. & Szczepańska, J. (2000): Effect of bulk use of power plant fly ash in coal mine workings on water quality in the Upper Silesian Coal Basin (USCB, Poland). – Proceedings, 7th International Mine Water Association Congress:168–179, 3 Tab.
• Tweedale, G. (2000): Sources in the history of occupational health: the Turner & Newall archive. – Soc. Hist. Med., 13(3):515–33, doi:10.1093/shm/13.3.515.
• Tweedale, G. (2001): Magic Mineral to Killer Dust – Turner & Newall and the Asbestos Hazard. – 344 p., Oxford (Oxford University Press); doi:10.1093/acprof:oso/9780199243990.001.0001.
• Twidwell, L. G., Gammons, C. H., Young, C. A. & Berg, R. B. (2006): Summary of Deepwater Sediment/Pore Water Characterization for the Metal-laden Berkeley Pit Lake in Butte, Montana. – Mine Water Environ., 25(2):86–92, 3 Abb., 4 Tab.
• Twining, J. R. & Cameron, R. F. (1997): Decision-making processes in ecological risk assessment using copper pollution of Macquarie Harbour from Mt. Lyell, Tasmania, as a case study. – Hydrobiologia, 5:207–218, 5 Abb., 2 Tab.
• Tylcer, J. (1987): Coexistence of the Coal Mining and the Mineral Water exploration in the Ostrava-Karviná Mining District: Hydrogeology of Coal Basins. – 587–593 p., 6 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Tymms, R. S. & Mulenga, S. C. (1993): Investigations of Seepage Loss from the Lubengele Tailings Dam at Konkola Copper Mines, Zambia. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 130–158, 2 Abb., 4 Tab.; Chililabombwe (Konkola Division).
• U. S. Army Corps of Engineers (2004): Tar Creek and Lower Spring River Watershed Management Plan – Reconnaissance Phase Draft. – 21 p., 10 Abb., 9 Anh.; (Unpublished Report).
• U. S. Department of the Interior – Bureau of Reclamation (2001): Water Measurement Manual, 3rd revised edn. – 272 p., 155 Abb., 25 Tab.; Washington (U.S. Government Print. Office).
• U. S. Department of the Interior – Bureau of Reclamation (2015): Technical Evaluation of the Gold King Mine Incident – San Juan County, Colorado. – 89 p., 66 Abb., 1 Tab., 3 Anl.; Denver (U.S. Department of the Interior).
• U. S. Environmental Protection Agency (1976): Environmental Protection Agency: EPA 560/6-76-005. – 334 p., Washington (U.S. Environmental Protection Agency – Office of Toxic Substances).
• U. S. Environmental Protection Agency (1983): Design Manual – Neutralization of Acid Mine Drainage: EPA-600/2-83-001. – 231 p., 60 Abb., 38 Tab.; Cincinnati (U.S. Environmental Protection Agency – Office of Research and Development).
• U. S. Environmental Protection Agency (1994): Guidance for the Data Quality Objectives Process: EPA-600/R-96/055. – 69 p., 14 Abb., 4 Tab.; Washington (U.S. Environmental Protection Agency).
• U. S. Environmental Protection Agency (1996): The Volunteer Monitor’s Guide to Quality Assurance Project Plans, EPA 841-B-96-003. – 59 p.
• U. S. Environmental Protection Agency (1997): EPA’s National Hardrock Mining Framework. – 12 p., Washington (U.S. Environmental Protection Agency,).
• U. S. Environmental Protection Agency (1999): The Class V Underground Injection Control Study – Special Drainage Wells (Volume 14): EPA/816-R-99-014n. – 45 p.
• U. S. Environmental Protection Agency (2000): Abandoned Mine Site Characterization and Cleanup Handbook: EPA 910-B-00-001. – 408 p., 5 Abb., 18 Tab.; Denver, San Fancisco, Seattle (U.S. Environmental Protection Agency).
• U. S. Environmental Protection Agency (2001): Coal Remining best Management Practices Guidance Manual: EPA-821-B-01-010. – 618 p., 71 Abb., 76 Tab.; Washington (U.S. Environmental Protection Agency).
• U. S. Environmental Protection Agency (2003): EPA and Hardrock Mining – A Source Book for Industry in the Northwest and Alaska. – 57 p., 3 Abb., 11 Tab.; Seattle (U.S. Environmental Protection Agency).
• U. S. Environmental Protection Agency (2007): Assessment for Non-Radionuclides Including Arsenic, Cadmium, Chromium, Copper, Lead, Nickel, Nitrate, Perchlorate, and Selenium: Monitored Natural Attenuation of Inorganic Contaminants in Ground Water 2 EPA/600/R-07/140. – 108 p., 21 Abb., 15 Tab.; Cincinnati (U.S. Environmental Protection Agency).
• U. S. Environmental Protection Agency (2007): Technical Basis for Assessment: Monitored Natural Attenuation of Inorganic Contaminants in Ground Water 1 EPA/600/R-07/139. – 78 p., 14 Abb., 17 Tab.; Cincinnati (U.S. Environmental Protection Agency).
• U. S. Environmental Protection Agency (2010): Assessment for Radionuclides Including Tritium, Radon, Strontium, Technetium, Uranium, Iodine, Radium, Thorium, Cesium, and Plutonium-Americium: Monitored Natural Attenuation of Inorganic Contaminants in Ground Water 3 EPA/600/R-10/093. – 127 p., 33 Abb., 15 Tab.; Cincinnati (U.S. Environmental Protection Agency).
• U. S. Environmental Protection Agency (2012 [2015]): Guidelines Establishing Test Procedures for the Analysis of Pollutants under the Clean Water Act – Analysis and Sampling Procedures – 40 CFR Part 136. – Federal Register, 77(97):29758–29834.
• U. S. Environmental Protection Agency (2014): Reference guide to treatment technologies for mining-influenced water: EPA 542-R-14-001. – 94 p., Washington (U. S. Environmental Protection Agency).
• U. S. Environmental Protection Agency (2018): 2018 Edition of the Drinking Water Standards and Health Advisories Tables. – (Report Nr. EPA 822-F-18-001). – 12 p., Washington (Office of Water).
• U. S. Geological Survey (2000): Interim report on the scientific investigations in the Animas River watershed, Colorado to facilitate remediation decisions by the U.S. Bureau of Land Management and the U.S. Forest Service. – Open-File Rep. US Geol. Surv., OF 00-245:1–34, 14 Abb., 4 Tab.; doi:10.3133/ofr2000245.
• U. S. Geological Survey (2013): Mineral Commodity Summaries 2013: 2013. – 198 p., Reston (U.S. Geological Survey).
• U. S. Geological Survey (2015): National Field Manual for the Collection of Water-Quality Data. Techniques of Water-Resources Investigations TWRI 9. – p., Washington (U.S. Geol. Survey).
• Ubaldini, S., Luptakova, A., Macingova, E., Massidda, R. & Fornari, P. (2010): Application of Biohydrometallurgical Processes for Heavy Metals Removal from Acid Mine Drainage. – Nova Biotechnologica, 10:15–21, 3 Abb., 5 Tab.
• Ubl, S., Scheringer, M., Stohl, A., Burkhart, J. F. & Hungerbuhler, K. (2012): Primary source regions of polychlorinated biphenyls (PCBs) measured in the Arctic. – Atmos. Environ., 62:391–399, doi:10.1016/j.atmosenv.2012.07.061.
• Ucero Aoiz, L. & Uriel Romero, S. (1978): The determination of the transmissivity of coastal aquifers based on the observation of sinusoidal, ondulatory, transitory regimes induced by tidal oscillations. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1303–1322; Maracena (Asociación Nacional de lngenieros de Minas).
• Ucik, F. H. (2002): Messing in Österreich – Die Herstellung und die wirtschaftliche Bedeutung unter besonderer Berücksichtigung der ehemaligen Messinghütte Möllbrücke. – Carinthia II, 192/112:161–188, 15 Abb., 1 Tab.
• Ucik, F. H. (2006): Flossöfen mit ungenügend Erzversorgung in Kärnten und ihr wirtschaftlicher Niedergang. – Carinthia II, 196/116(1):199–210, 7 Abb.
• Ueki, K., Ueki, A., Takahashi, K. & Iwatsu, M. (1992): The Role of Sulfate Reduction in Methanogenic Digestion of Municipal Sewage-Sludge. – J. Gen. Appl. Microbiol., 38(3):195–207.
• Ueno, D., Darling, C., Alaee, M., Campbell, L., Pacepavicius, G., Teixeira, C. & Muir, D. (2007): Detection of Hydroxylated Polychlorinated Biphenyls (OH-PCBs) in the Abiotic Environment:  Surface Water and Precipitation from Ontario, Canada. – Environ. Sci. Technol., 41(6):1841–1848, doi:10.1021/es061539l.
• Uerpmann, E.-P. (1980): Barriers in Radioactive-Waste Disposal [abstract]. – Abstr. Pap. Am. Chem. Soc., 180(AUG):115–NUCL.
• Uerpmann, E.-P. (1980): Hydrogeologische Fragen bei der Endlagerung radioaktiver Abfälle. – 128 p., 21 Abb., 5 Tab.; Clausthal-Zellerfeld (Unveröff. Diss. TU Clausthal).
• Uerpmann, H. P. (1999): Camel and horse skeletons from protohistoric graves at Mleiha in the Emirate of Sharjah (UAE). – Arab. Archaeol. Epigr., 10(1):102–118.
• Uhlig, U., Radigk, S., Uhlmann, W., Preuß, V. & Koch, T. (2016): Iron removal from the Spree River in the Bühlow pre-impoundment basin of the Spremberg reservoir. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 182–190, Freiberg (TU Bergakademie Freiberg).
• Uhlig, U., Reichenbacher, B. & Bassler, B. (2000): Säugetiere, Fisch-Otolithen und Charophyten aus den Unteren Cyrenen-Schichten (Oligozän) der bayerischen Faltenmolasse (Murnauer Mulde). – Eclogae geol. Helv., 93:503–516, 7 Abb., 1 Tab., 1 Taf.; doi:10.5169/seals-168838.
• Uhlík, J. & Baier, J. (2012): Model Evaluation of Thermal Energy Potential of Hydrogeological Structures with Flooded Mines. – Mine Water Environ., 31(3):179–191, 14 Abb., 3 Tab.; doi:10.1007/s10230-012-0186-4.
• Uhlmann, W., Büttcher, H., Totsche, O. & Steinberg, C. E. W. (2004): Buffering of Acidic Mine Lakes: The Relevance of Surface Exchange and Solid-Bound Sulphate. – Mine Water Environ., 23(1):20–27, 7 Abb., 4 Tab.
• Uhlmann, W., Claus, T., Zimmermann, K. & Koch, T. (2017): Development Of A Tool For Efficient Three Dimensional Reactive Multicomponent Transport Modelling Independent From The Geohydraulic Model System. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 618–625, Lappeenranta (Lappeenranta University of Technology).
• Uhlmann, W., Lindig, Y., Claus, T., Radigk, S. & Zarach, V. (2017): Quantification Of Diffuse Iron Discharge Into Surface Waters Using Feasible Methods In The Lusatian Lignite Mining District. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1014–1021, Lappeenranta (Lappeenranta University of Technology).
• Uhlmann, W., Lindig, Y., Koch, T. & Arnold, I. (2016): Estimation of pyrite weathering in Lusatian lignite open cast mines using geochemical investigation methods. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 329–336, Freiberg (TU Bergakademie Freiberg).
• Uhlmann, W., Nitsche, C., Neumann, V., Guderitz, I., Leßmann, D., Nixdorf, B. & Hemm, M. (2001): Tagebauseen – Wasserbeschaffenheit und wassergütewirtschaftliche Sanierung – Konzeptionelle Vorstellungen und erste Erfahrungen. – Studien und Tagungsberichte, 35:1–77, 53 Abb., 26 Tab.
• Uhlmann, W., Zimmermann, K., Mix, S., Claus, T. & Totsche, O. (2017): A Model-based Study On The Discharge Of Iron-rich Groundwater Into The Lusatian Post-mining Lake Lohsa, Germany. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 626–632, Lappeenranta (Lappeenranta University of Technology).
• Uhlmann, W., Zimmermann, K., Mix, S., Nixdorf, B. & Totsche, O. (2016): Causes of an distinct metalimnic oxygen gradient in the pit lake Senftenberger See in summer 2013 as a case study. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 261–268, Freiberg (TU Bergakademie Freiberg).
• Ui, T. (1983): Volcanic dry avalanche deposits – Identification and comparison with nonvolcanic debris stream deposits. – J. Volcanol. Geoth. Res., 18(1-4):135–150, doi:10.1016/0377-0273(83)90006-9.
• Ulbricht, A., Bilek, F. & Brömme, K. (2018): Development of a Technical Concept of Spatial and Temporal Coordinated Mine Water Recycling Exemplified by a Mining Area with Urban Influence. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 210–214; (Tshwane University of Technology).
• Ulf, C. (2003): Der Neue Streit um Troia – Eine Bilanz, 1st edn. – 381 p., München (Beck).
• Ullrich, B. (2018): Zur Mineralogie anthropogen induzierter Alterationsprozesse – Sekundärminerale der Uranerzaufbereitungsanlage Dresden-Coschütz/Gittersee (Uranfabrik 95 der SDAG Wismut). – Geol. Saxonica, 64:1–29, 53 Abb., 5 Tab.
• Ullsperger, l., Merkel, B. J., Quentin, K.-E. & Udluft, P. (1988): Hydrogeologische und hydrochemische Untersuchungen in der ungesättigten Zone eines Kiesgrundwasserleiters Teil II: Ergebnisse langjähriger bodenhydrologischer Messungen. – Z. f. Wasser- und Abwasserforschung, 21:56–66, 16 Abb., 8 Tab.
• Ullwer, H. (2001): Messingherstellung nach dem alten Galmeiverfahren. – Erzmetall, 54(6):319–326, 6 Abb., 5 Tab.
• Ulrich, K.-U., Bethge, C., Guderitz, I., Heinrich, B., Neumann, V., Nitsche, C. & Benthaus, F.-C. (2012): In-Lake Neutralization: Quantification and Prognoses of the Acid Load into a Conditioned Pit Lake (Lake Bockwitz, Central Germany). – Mine Water Environ., 31(4):320–338, 7 Abb., 6 Tab.; doi:10.1007/s10230-012-0206-4.
• Ulrich, K.-U., Nitsche, C., Struzina, M. & Jolas, P. (2016): Experimental determination of process parameters for mine water treatment and permissible utilization of the iron-rich residues. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1287–1294, Freiberg (TU Bergakademie Freiberg).
• Ulrich, K.-U., Rossberg, A., Scheinost, A. C., Foerstendorf, H., Zänker, H. & Jenk, U. (2005): Speciation of Colloid-borne Uranium by EXAFS and ATR-FTIR spectroscopy. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 137–148, Heidelberg (Springer).
• Ulrich, K.-U., Veeramani, H., Schofield, E. J., Sharp, J. O., Suvorova, E. I., Stubbs, J. E., Lezama-Pacheco, J. S., Barrows, C. J., Cerrato, J. M., Campbell, K. M., Yabusaki, S. B., Long, P. E. & Bernier, L. (2011): Biostimulated uranium immobilization within aquifers – from bench scale to field experiments: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 627–632 p., Aachen (RWTH Aachen University).
• Ulrich-Obal, M. (1997): The Applicability of Passive Methods for the Purification of Mining Wastewaters in Slovenia. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:529–542, 10 Abb., 2 Tab.
• Ulrich-Obal, M., Miklavcic, V., Rozman, S. & Likar, F. (1997): Consequences of the Use of Ore Residues for Backfilling of Pit Areas and its Influence on the Quality of Mine Waters. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:543–551, 3 Abb., 4 Tab.
• Ulusoy, H. İ. (2015): Simple and useful method for determination of inorganic selenium species in real samples based on UV-VIS spectroscopy in a micellar medium. – Analytical Methods, 7(3):953–960, doi:10.1039/c4ay02691h.
• Ulytskyi, O., Pashkevych, L., Petruk, R. & Dyachenko, N. (2025): Methods of Restoration of the Slana River to Improve the State of the Ecosystem. – Environ. Probl., 10(4):420–430, 5 Abb., 3 Tab.; doi:10.23939/ep2025.04.420.
• Uma, K. O. (1992): Origin of Acid-mine Drainage in Enugu. – Environ. Geol. Water Sci., 20(3):181–194, 8 Abb., 4 Tab.; doi:10.1007/bf01706161.
• Umpleby, J. B. (1910): Geology and ore deposits of Republic mining district. – Washington Geological Survey Bulletin, 1:1–67.
• UN Department of Technical Cooperation for Development (1989): Swaziland. Ground water in Eastern, Central and Southern Africa. – p. 260–268, New York (United Nations).
• UN Environment Programme (UNEP) & Secretariat of the PCB Elimination Network (PEN) (2017): PCB a forgotten legacy? UN Environment, Chatelaine, 18.
• UNEP Chemicals and Waste Branch & DTIE Science and Risk Unit (2016): Consolidated Assessment of Efforts Made Toward the Elimination of Polychlorinated Biphenyls. – 32 p., Châtelaine (UN Environment Programme (UNEP)).
• UNESCO (2018): Decision 42 COM 8B.5 – Barberton Makhonjwa Mountains (South Africa). In: WHC/18/42.COM/18 (ed). UNESCO World Heritage Centre, Manama, 182–185.
• UNESCO, World Meteorological Organization & International Association of Hydrological Sciences (1970): Hydrometry I – Proceedings of the Koblenz Symposium September 1970. Koblenz Symposium, Koblenz, 1970. Imprimerie Louis-Jean, Gap, 892 S.
• UNESCO/ICES/SCOR/IAPSO joint panel on oceanographic tables and standards (1981): Background papers and supporting data on the Practical Salinity Scale 1978. – UNESCO Tech. Pap. Mar. Sci., 37.
• Unger, C., Lechner, A. M., Glenn, V., Edraki, M. & Mulligan, D. R. (2012): Mapping and Prioritising Rehabilitation of Abandoned Mines in Australia. Paper presented at the Life of Mine Conference, Brisbane. – p. 259–265, 2 Abb., 3 Tab.
• Unger, C. J., Lechner, A. M., Kenway, J., Glenn, V. & Walton, A. (2015): A jurisdictional maturity model for risk management, accountability and continual improvement of abandoned mine remediation programs. – Resour. Policy, 43:1–10, doi:10.1016/j.resourpol.2014.10.008.
• Unger, K. (2002): Hydrodynamische Verhältnisse im gefluteten Unterbau des Bergwerks Großkogel/Tirol – Numerische Modellierung mit ANSYS-FLOTRAN [Hydrodynamic conditions in the flooded substructure of the Großkogel mine/Tyrol – Numerical modelling with ANSYS-FLOTRAN]. – 117 p., Diplomarbeit, TU Bergakademie Freiberg, 52 Abb., 37 Tab., 2 Anl.; Freiberg.
• Unger, Y. (2007): Using Carbon Dioxide to remediate acidic Mining Lakes: Water in Mining Environments. – 267–271 p., 5 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Unger, Y. & Wolkersdorfer, Ch. (2006): Sideritbildung in Tagebaurestseen – Mögliche Sanierungsstrategie des Restlochs Spreetal Nordost. – Wiss. Mitt. Inst. Geol., 31:119–124, 2 Abb., 1 Tab.
• Unger-Lindig, Y., Merkel, B. & Schipek, M. (2010): Carbon dioxide treatment of low density sludge: a new remediation strategy for acidic mining lakes? – Environ. Earth Sci., 60(8):1711–1722, 8 Abb., 10 Tab.; doi:10.1007/s12665-009-0305-0.
• United Nations Department of, E., Social, A., United Nations Environment Programme, I. & Environment (1999): Environmental Guidelines for Mining Operations: ST/TCD/20. – 1–23 p., 13 Anl.; (United Nations).
• United Nations Department of Economic and Social Affairs [UNDESA] & United Nations Environment Programme Industry and Environment [UNEP] (2002): Berlin II Guidelines for Mining and Sustainable Development. – 52 p., 1 Tab., 11 Anl.; (United Nations).
• United Nations Department of Economic and Social Affairs [UNDESA] & United Nations Environment Programme Industry and Environment [UNEP] (2002): Berlin II Guidelines for Mining and Sustainable Development – Appendices. – 1 Tab., 11 Anl.; (United Nations).
• United Nations Environment Programme (2000): Post-Conflict Environmental Assessment – FYR of Macedonia. – 84 p., 19 Abb., 2 Tab., 7 Kart.; Nairobi (United Nations Environment Programme [UNEP]).
• United Nations Environment Programme (2000): Spill of liquid and suspended Waste at the Aurul S.A. Retreatment Plant in Baia Mare – UNEP OCHA Assessment Mission. – 57 p., 20 Abb., 4 Tab.; Genf (United Nations Environment Programme [UNEP]).
• United Nations Environment Programme & Chilean Copper Commission (2001): Abandoned Mines – Problems, Issues and Policy Challenges for Decision Makers. – 30 p., Paris (United Nations Environment Programme; http://www.mineralresourcesforum.org/docs/pdfs/abandoned_report.pdf).
• Unland, W., Eckart, M., Paul, M., Kuhn, W. & Ostermann, R. (2002): Groundwater rebound compatible with the aquatic environment – technical solutions at WISMUT’s Ronneburg mine. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 667–676, 5 Abb., 1 Tab.; Heidelberg (Springer).
• Unsal, B. & Yazicigil, H. (2016): Assessment of Open Pit Dewatering Requirements and Pit Lake Formation for the Kışladağ Gold Mine, Uşak, Turkey. – Mine Water Environ., 35(2):180–198, doi:10.1007/s10230-015-0345-5.
• Unterrichter, O. v., Ampferer, O. & Beyrer, G. (1902): Die Miemingerkette – Ein Beitrag zu ihrer eingehenderen Kenntnis. – Z. Dt.-Österr. Alpenver., 33:209–240, 10 Abb.
• Unterrichter, O. v., Ampferer, O. & Beyrer, G. (1902): Die Miemingerkette – Zur Geologie. – Z. Dt.-Österr. Alpenver., 33:219–223, 1 Abb.
• Unterrichter, O. v., Ampferer, O. & Beyrer, G. (1903): Die Miemingerkette – Ein Beitrag zu ihrer eingehenderen Kenntnis. – Z. Dt.-Österr. Alpenver., 34:237–270, 7 Abb.
• Upadhyay, S. K. (2006): Chemical Kinetics and Reaction Dynamics. – 256 p., New York (Springer).
• Upreti, P., Tangyie, G. C., Huddersman, K. & Smail, I. (2016): Field trial of an ion exchange based metal removal technology in the treatment of mine waters. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 828–835, Freiberg (TU Bergakademie Freiberg).
• Upstillgoddard, R. C. & Wilkins, C. S. (1995): The Potential of SF6 as a Geothermal Tracer. – Water Res., 29(4):1065–1068, 2 Abb.
• Urban, P. (2014): D 8 – odstranění sesuvu v km 56,300-56,500 + stabilizace oblasti kolem stavby D8 0805 – Protokol o Laboratorních Zkouškách [D 8 – Remediation of the landslide at km 56.300–56.500 + stabilization of the area around the construction site D8 0805 – Laboratory Test Report]. – Unpubl. Report for AZ Consult | Klišská 1334/12 | Ústí/Lab (Report Nr. 750-01-14). – 115 p., Černošice (GEMATEST spol. s r. o.).
• Urban, R. & Mayer, A. (2006): Floristische und vegetationskundliche Besonderheiten aus den Bayerischen Alpen – Funde im Rahmen der Alpenbiotopkartierung – Teil 2. – Ber. Bayer. Bot. Ges., 76:185–212, 7 Kart.
• Url, W. (1956): Über Schwermetall-, zumal Kupferresistenz einiger Moose. – Protoplasma, 46(1-4):768–793, 16 Abb., 1 Tab.; doi:10.1007/BF01248913.
• Urlich, C. & Hughes, A. (2017): Tailings Seepage Paths Mapped using Electric Based Technology. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 64–72, Lappeenranta (Lappeenranta University of Technology).
• Urone, P. & Schroeder, W. H. (1969): SO2 in the atmosphere: a wealth of monitoring data, but few reaction rate studies. – Environ. Sci. Technol., 3(5):436–445, doi:10.1021/es60028a006.
• Usero García, J., Morillo Aguado, J. & Gracia Manarillo, I. (1999): Heavy Metals in Sediments from the Tinto River (Spain). – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 243–246, 3 Abb., 3 Tab.; Sevilla (International Mine Water Association).
• Usher, B. H., Strachotta, C., Strand, R. & Jackson, J. (2010): Linking fundamental geochemistry and empirical observations for water quality predictions using GoldSim. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 313–317, Sydney, NS (Cape Breton University Press).
• Usinowicz, P. J., Monzyk, B. F., Conkle, H. N., Fahnestock, F. M. v. & Beers, T. J. (2009): Liquid-Liquid Extraction for Acid Mine/Acid Rock Drainage Processing for Water Purification and Recovery of Sulfate and Metals Without Sludge or Brine Production. – Proceedings Water Environment Federation, WEFTEC 2009:1509–1524, 9 Abb., 3 Tab.; doi:10.2175/193864709793956590.
• Ussath, M., Grimmer, M., Hoth, N., Wendler, C., Haubrich, F. & Kelm, U. (2016): Potential Recovery of strategic elements from heap leaching material. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1366–1369, Freiberg (TU Bergakademie Freiberg).
• Ussath, M., Hoth, N., Grimmer, M. & Alcalde, J. (2017): Hand-held X-ray fluorescence (hXRF) measurements as a useful tool in the environmental and mining sector – Comparative measurements and effects of water content. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 979–986, Lappeenranta (Lappeenranta University of Technology).
• Ussath, M., Wendler, C., Hoth, N., Kelm, U., Haubrich, F., Hache, M., Heide, G., Grimmer, M. & Drebenstedt, C. (2015): Mobility of Strategic Elements in Chilean Tailings in the Context of Secondary Mining Processes. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Uster, B., O’Sullivan, A. D., Ko, S. Y., Evans, A., Pope, J., Trumm, D. & Caruso, B. (2015): The Use of Mussel Shells in Upward-Flow Sulfate-Reducing Bioreactors Treating Acid Mine Drainage. – Mine Water Environ., 34(4):442–454, doi:10.1007/s10230-014-0289-1.
• Uttinger, G. (1819): Bemerkungen über die Uebergangs-Formazion und die derselben folgenden Flözkalkbildungen im Tyrolischen Unterinnthal. – Leonhards Taschenbuch f. d. Mineralogie, 13(1):156–188.
• Uushona, V. & Mathuthu, M. (2021): Assessing Heavy Elements In Tailings Water Around A Uranium Mine In Namibia. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 584–587; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Uusisuo, M. (2013): Turning prospects into success – Sector reports help to anticipate changes in the business environment – Mining industry: Sector Report 1. – 101 p., 65 Abb., 26 Tab., 4 Anl.; Helsinki (Ministry of Employment and the Economy).
• Uwiera, M. (1998): Numerical simulation of brine migration in the vicinity of a potash mine. – Saskatoon (Master Thesis University of Saskatchewan).
• Uyttendaele, M. (1985): Case Study – Hydrogeochemical Prospection in a Lead-Zinc Mine (Vedrin, Belgium). – Proceedings, 2nd International Mine Water Association Congress, 1:1045–1056, 2 Abb., 10 Tab.
• Uzarowicz, Ł. (2011): Technogenic Soils Developed on Mine Spoils Containing Iron Sulfides in Select Abandoned Industrial Sites: Environmental Hazards and Reclamation Possibilities. – Pol. J. Environ. Stud., 20(3):771–782.
• Uzarowicz, Ł. (2013): Microscopic and microchemical study of iron sulphide weathering in a chronosequence of technogenic and natural soils. – Geoderma, 197:137–150, doi:10.1016/j.geoderma.2013.01.006.
• Uzarowicz, Ł., Šegvić, B., Michalik, M. & Bylina, P. (2012): The effect of hydrochemical conditions and pH of the environment on phyllosilicate transformations in the weathering zone of pyrite-bearing schists in Wieściszowice (SW Poland). – Clay Minerals, 47(4):401–417, doi:10.1180/claymin.2012.047.4.01.
• Uzarowicz, Ł. & Skiba, S. (2011): Technogenic soils developed on mine spoils containing iron sulphides: Mineral transformations as an indicator of pedogenesis. – Geoderma, 163(1-2):95–108, doi:10.1016/j.geoderma.2011.04.008.
• Uzarowicz, Ł., Skiba, S., Skiba, M. & Michalik, M. (2008): Mineral Transformations in Soils on Spoil Heaps of an Abandoned Pyrite Mine in Wieściszowice (Rudawy Janowickie Mts., Lower Silesia, Poland). – Polish J. Soil Sci., 41(2):183–193, 7 Abb., 3 Tab.
• Uzarowicz, Ł., Skiba, S., Skiba, M. & Šegvić, B. (2011): Clay-Mineral Formation in Soils Developed in the Weathering Zone of Pyrite-Bearing Schists: a Case Study from the Abandoned Pyrite Mine in Wieściszowice, Lower Silesia, SW Poland. – Clays Clay Miner., 59(6):581–594, doi:10.1346/ccmn.2011.0590604.
• Vaclav, P. & Gulikova, E. (2007): Humic-based Sorbent: Potential of toxic Metal Removal from Mine Waters or Increase of Efficiency in passive Mine Water Purification: Water in Mining Environments. – 273–275 p., 3 Tab.; Cagliari (Mako Edizioni).
• Vadapalli, V. R. K., Coetzee, H., Gcasamba, S., Ramasenya, K., Ntholi, T., Nyale, S., Sinthumule, E. & Morokane, M. (2022): Integrated and Sustainable Mine Water Management Solution for Witwatersrand Gold Fields. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 529–534; (International Mine Water Association).
• Vadapalli, V. R. K., Sakala, E., Dube, G. & Coetzee, H. (2020): Mine Water Treatment and the Use of Artificial Intelligence in Acid Mine Drainage Prediction. – In: Fosso-Kankeu, E., Wolkersdorfer, Ch. & Burgess, J. (eds): Recovery of Byproducts from Acid Mine Drainage Treatment. – p. 23–48, 6 Abb.; Salem (Scrivener); doi:10.1002/9781119620204.ch2.
• Vaezihir, A., Jowdat, Y., Mazaheri, N. & Aghili, S. (2023): Evaluation of Leakage Potential from Tailing Dam of Sungun Copper Mine Using Hydrogeological Findings and Numerical Modelling. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 510–516; (International Mine Water Association).
• Vaezihir, A., Mahjoubi, R., Aghili, S., Mazaheri, N. & Haji Ahmadi, M. (2022): The Role of Natural Attenuation in Decrease of Metal Concentration in a River Polluted by AMD Released from Sungun Mine (NW of Iran). Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 535–540; (International Mine Water Association).
• Vaezihir, A., Safari, F., Javani, H. & Mazaheri, N. (2018): The Efficiency of Open Lime-Zeolite Channel System in Treatment of Acid Mine Drainage (AMD) Released from Sungun Copper Mine. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 295–300; (Tshwane University of Technology).
• Vago, J., Gardini, B., Kminek, G., Baglioni, P., Gianfiglio, G., Santovincenzo, A., Bayón, S. & Winnendael, M. v. (2006): ExoMars – Searching for life on the red planet. – Esa Bulletin-European Space Agency, 126:16–23, 5 Abb., 1 Tab.
• Vaht, R., Mayes, W. & Luud, A. (2011): Impact of Oil Shale Mining on Flow Regimes in Northeast Estonia. – Mine Water Environ., 30(4):284–295, 8 Abb., 3 Tab.; doi:10.1007/s10230-011-0162-4.
• Väisänen, M. (1988): Geology of the Orijärvi-Aijala area. – Opas – Geologian Tutkimuskeskus, 22:81–86.
• Väisänen, U., Pietikäinen, K., Johansson, P., Kupila, J., Pihlaja, J., Kozyrev, A., Konukhin, V., Orlov, A., Smirnov, Y. & Alakangas, L. (2014): ENVIMINE – Developing Environmental and Geodynamical Safety Related to Mine Closure in the Barents Region. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 706–710, Xuzhou (International Mine Water Association).
• Valanko, R., Shestakova, M., Pekonen, P., Hesampour, M., Hansen, B., Halttunen, S., Hofmann, R., Pretorius, R., Penttinen, M., Recktenwald, M., Karpova, T., Rossum, R. v., Grönfors, O., Mattsson, E., Ahlgren, J., Nilsson, B., Leen, P., Havansi, H. & Abinet, R. (2020): About water treatment. – 287 p., Helsinki (Kemira Oyj).
• Valcarcel, M., Gomez Hens, A., Rubio, S. & Petidier, A. (1987): Direct quantification of coproporphyrins and uroporphyrins in urine by derivative synchronous fluorescence spectroscopy. – Clinical chemistry, 33(10):1826–31.
• Valdebenito, V. (2015): Participatory Monitoring and Evaluation – The case of the MLP project. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–8 [electronic document], Santiago/Chile (Gecamin).
• Valderrama, P., Roche, O., Samaniego, P., des Vries, B. V. & Araujo, G. (2018): Granular fingering as a mechanism for ridge formation in debris avalanche deposits: Laboratory experiments and implications for Tutupaca volcano, Peru. – J. Volcanol. Geoth. Res., 349:409–418, doi:10.1016/j.jvolgeores.2017.12.004.
• Valente, T., Barroso, A., Antunes, I. M., Gomes, P., Fonseca, R., Pinho, C., Pamplona, J., Sequeira Braga, M. A. & Sousa, J. P. S. (2021): Acid Mine Drainage Precipitates At The Nanometric Scale – Properties And Environmental Role. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 588–594; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Valente, T., Gomes, P., Sequeira Braga, M. A., Dionísio, A., Pamplona, J. & Grande, J. A. (2015): Iron and arsenic-rich nanoprecipitates associated with clay minerals in sulfide-rich waste dumps. – CATENA, 131:1–13, doi:10.1016/j.catena.2015.03.009.
• Valente, T. M., Antunes, I. M., Sequeira Braga, M. A., Neiva, A., Santos, A. & Moreno, F. (2019): Mobility Control Of Uranium And Other Potentially Toxic Elements In Mine Waters By Ochre-Precipitates. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 457–462; Perm, Russia (Perm State University).
• Valente, T. M., Ferreira, M. J. & Gomes, C. L. (2010): Application of Fuzzy Logic to Qualify the Environmental Impact in Abandoned Mining Sites. – Water Air Soil Pollut., 217(1-4):303–315, doi:10.1007/s11270-010-0587-6.
• Valente, T. M., Ferreira, M. J., Grande, J. A., de la Torre, M. L. & Borrego, J. (2013): pH, electric conductivity and sulfate as base parameters to estimate the concentration of metals in AMD using a fuzzy inference system. – J. Geochem. Explor., 124:22–28, doi:10.1016/j.gexplo.2012.07.013.
• Valente, T. M., Gomes, P., Sequeira Braga, M. A., Pamplona, J., Antunes, I. M., Ríos Reyes, C. A. & Moreno, F. (2019): Mineralogical Attenuation Processes Associated With The Evolution Of Acid Mine Drainage In Sulfide-Rich Mine Wastes. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 146–153; Perm, Russia (Perm State University).
• Valente, T. M., Grande, J. A., de la Torre, M. L., Gomes, P., Santisteban, M., Borrego, J. & Sequeira Braga, M. A. (2015): Mineralogy and geochemistry of a clogged mining reservoir affected by historical acid mine drainage in an abandoned mining area. – J. Geochem. Explor., 157:66–76, doi:10.1016/j.gexplo.2015.05.016.
• Valente, T. M., Grande, J. A. & Torre, M. L. d. l. (2016): Extracting value resources from acid mine drainages and mine wastes in the Iberian Pyrite Belt. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1339–1340, Freiberg (TU Bergakademie Freiberg).
• Valente, T. M., Grande, J. A. & Torre, M. L. d. l. (2016): Magnesium and aluminum sulfates in salt efflorescences from acid mine drainage in the Iberian Pyrite Belt (SW Spain). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 445–450, Freiberg (TU Bergakademie Freiberg).
• Valente, T. M. & Leal Gomes, C. (2007): The role of two acidophilic algae as ecological indicators of acid mine drainage sites. – J. Iberian Geol., 33(2):283–294.
• Valente, T. M. & Leal Gomes, C. (2009): Occurrence, properties and pollution potential of environmental minerals in acid mine drainage. – Sci. Total Environ., 407(3):1135–1152, doi:10.1016/j.scitotenv.2008.09.050.
• Valente, T. M. & Pamplona, J. (2018): Monitoring of a Public Water Supply System: A Case of Groundwater and Surface Water Contamination by Acid Rock Drainage. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 751–756; (Tshwane University of Technology).
• Valentin, F. (2001): Hydraulik I – Einführung in die Hydromechanik. – 125 p., München (Vorlesungsskript TU München).
• Valenzuela, F., Basualto, C., Tapia, C. & Sapag, J. (1999): Application of hollow-fiber supported liquid membranes technique to the selective recovery of a low content of copper from a Chilean mine water. – J. Membr. Sci., 155(1):163–168, 3 Abb.; doi:10.1016/S0376-7388(98)00321-4.
• Valenzuela, F., Vega, M. A., Yanez, M. F. & Basualto, C. (2002): Application of a mathematical model for copper permeation from a Chilean mine water through a hollow fiber-type supported liquid membrane. – J. Membr. Sci., 204(1-2):385–400, 9 Abb., 7 Tab.
• Valero, D., Ortiz, J. M., García, V., Expósito, E., Montiel, V. & Aldaz, A. (2011): Electrocoagulation of wastewater from almond industry. – Chemosphere, 84(9):1290–1296.
• Valiantzas, J. D. (2006): Simplified versions for the Penman evaporation equation using routine weather data. – J. Hydrology, 331(3-4):690–702, 8 Abb.; doi:10.1016/j.jhydrol.2006.06.012.
• Valiente, M., Diez, S., Masanta, A., Frias, C. & Muhammed, M. (1991): Separation of Copper and Zinc from Waste Acid Mine Effluents of Rio Tinto Area. – Mine Water Environ., 10(1-4):17–27, 13 Abb., 1 Tab.; doi:10.1007/BF02914806.
• Valjus, T., Huotari, T., Lerssi, J., Markovaara-Koivisto, M. & Tarvainen, T. (2017): Geophysical Study of a Potential Source of Secondary Raw Materials - The Aijala Mine Tailings Area Southern Finland. Paper presented at the 23rd European Meeting of Environmental and Engineering Geophysics, Malmö. – p. 1–5.
• Vall i Roselló, E., Tarrasón i Pérez, J. C., Bascompte i Canals, F. & Oliveras i Mejías, J. (1999): Mining Itineraries: old abandoned Mines used with Tourist and educational Ends. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 221–225, 7 Abb.; Sevilla (International Mine Water Association).
• Vallero, D. A. & Blight, G. (2019): Mine Waste: A Brief Overview of Origins, Quantities, and Methods of Storage. – In: Letcher, T. M. & Vallero, D. A. (eds): Waste – A handbook for management 2nd edn. – p. 129–151, San Diego (Academic Press); doi:10.1016/B978-0-12-815060-3.00006-2.
• Van Aardt, J. M., Bowell, R., BéruBé, K., Jones, T. & Lusambo, V. (2018): Geochemical and Bioreactivity Assessment of Future Mining Operations at Mutanga Uranium Project, Southern Province, Zambia. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 757–762; (Tshwane University of Technology).
• van Biljon, M., Swart, A. H. & Brawner, C. O. (2006): Geology, hydrogeology and structural competency of the boundary pillar at South Deep gold mine. – J. S. Afr. Inst. Min. Metall., 106(5):317–329.
• van Biljon, W. J. (1959): The Nature and Origin of the Chrysotile Asbestos Deposits in Swaziland and the Eastern Transvaal. – 130 p., unpubl. Ph.D., University of the Witwatersrand; Johannesburg.
• van Coller, A. A., Shaw, V. A. & Trusler, G. E. (2024): Water Management and Treatment in the Closure Phase: Case Studies and the Associated Challenges. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 613–618; Morgantown (International Mine Water Association).
• van Dam, R. A., Hogan, A. C., Harford, A. J. & Humphrey, C. L. (2019): How Specific Is Site-Specific? A Review and Guidance for Selecting and Evaluating Approaches for Deriving Local Water Quality Benchmarks. – Integr. Environ. Assess. Manage., 15(5):683–702, doi:10.1002/ieam.4181.
• Van den Berg, M., De Jongh, J., Poiger, H. & Olson, J. R. (1994): The toxicokinetics and metabolism of polychlorinated dibenzo-p-dioxins (PCDDs) and dibenzofurans (PCDFs) and their relevance for toxicity. – Crit. Rev. Toxicol., 24(1):1–74, doi:10.3109/10408449409017919.
• Van Den Berg, M., Olie, K. & Hutzinger, O. (1985): Polychlorinated dibenzofurans (PCDFs). – Toxicol. Environ. Chem., 9(3):171–217, doi:10.1080/02772248509357079.
• Van der Burght, L. (2010): Analysis and modelling of tree succession on the 1991 Randa rockslide (Switzerland). – 132 p., MSc, Universiteit Gent, 59 Abb., 13 Tab., 15. Anl.; Gent.
• Van der Burght, L., Stoffel, M. & Bigler, C. (2011): Analysis and modelling of tree succession on a recent rockslide deposit. – Plant Ecolog., 213(1):35–46, doi:10.1007/s11258-011-0004-2.
• van der Ent, A., Baker, A. J., Reeves, R. D., Chaney, R. L., Anderson, C. W., Meech, J. A., Erskine, P. D., Simonnot, M. O., Vaughan, J., Morel, J. L., Echevarria, G., Fogliani, B., Rongliang, Q. & Mulligan, D. R. (2015): Agromining: farming for metals in the future? – Environ. Sci. Technol., 49(8):4773–80, doi:10.1021/es506031u.
• van der Ham, F., Witkamp, G. J., de Graauw, J. & van Rosmalen, G. M. (1998): Eutectic freeze crystallization: Application to process streams and waste water purification. – Chemical Engineering and Processing: Process Intensification, 37(2):207–213, doi:10.1016/S0255-2701(97)00055-X.
• van der Heiden, G., Raats, C. M. S. & Boon, H. F. (1978): Fluidized bed electrolysis for the removal or recovery of metals from dilute solution. Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 1095–1109; Maracena (Asociación Nacional de lngenieros de Minas).
• van der Linde, J. C., Fosso-Kankeu, E., Gericke, G., Waanders, F., Dreyer, L. & Lemmer, N. (2019): Flocculant types and operating conditions influencing particles settling rates in feed water used at a coal power plant. – Desalin. Water Treat., 150:293–300, doi:10.5004/dwt.2019.23735.
• van der Merwe, C. (2003): The Assessment of the Influence of Treated Underground Mine Water on the Benthic Fauna in a Portion of the Blesbokspruit Ramsar Site. – 55 p., 15 Abb., 13 Tab.; Rand (unpubl. Thesis Rand Afrikaans University).
• van der Merwe, P. H., Maree, J. P. & Basson, N. D. (1983): Using Acid-Mine Water for Removal of Phosphates from Sewage Effluent. – Water Sci. Technol., 15(2):155–167.
• van der Merwe, P. H., Maree, J. P. & Basson, N. D. (1983): Using Acid-Mine Water for Removal of Phosphates from Sewage Effluent – Reply. – Water Sci. Technol., 15(2):175–175.
• van der Merwe, W. & Lea, I. (2003): Towards sustainable mine water treatment at Grootvlei mine. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 25–36, 4 Abb., 9 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• van der Sloot, H. A. & van Zomeren, A. (2011): Characterisation leaching tests and associated geochemical speciation modelling to assess long term release behaviour from extractive wastes: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 689–694 p., Aachen (RWTH Aachen University).
• Van der Sloot, H. A. & Van Zomeren, A. (2012): Characterisation Leaching Tests and Associated Geochemical Speciation Modelling to Assess Long Term Release Behaviour from Extractive Wastes. – Mine Water Environ., 31(2):92–103, 7 Abb., 3 Tab.; doi:10.1007/s10230-012-0182-8.
• van der Walt, A. & Wolkersdorfer, Ch. (2018): Indicator Parameters for Metals of Potential Concern in South African Acid and Circum-Neutral Mine Waters. – In: Meier, G., et al. (eds): 18. Altbergbau-Kolloquium – Tagungsband. – p. 120–124, 2 Abb.; Nossen (Wagner).
• Van der Walt, M. & Van Der Merwe, H. (2018): Water Reuse In The Mining Industry – A Resource, Fnancial And Socio-Economic Imperative. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 929–933; (Tshwane University of Technology).
• van Deventer, H. & Cho, M. A. (2014): Assessing leaf spectral properties of Phragmites australis impacted by acid mine drainage. – S. Afr. J. Sci., 110(7/8):71–81, 7 Abb., 7 Tab.; doi:10.1590/sajs.2014/20130184.
• van Emmerik, T., Popp, A., Solcerova, A., Müller, H. & Hut, R. (2018): Reporting negative results to stimulate experimental hydrology: discussion of “The role of experimental work in hydrological sciences – insights from a community survey”. – Hydrol. Sci. J.-J. Sci. Hydrol., 63(8):1269–1272, doi:10.1080/02626667.2018.1493203.
• van Gelder, G. J. (2018): Gleanings of Curiosities from the Harvest-Fields of Arabic Literature: Chapter 87 of Kitab al-Zahrah by Ibn Dawud al-Isbahani (d. 297/910). – J. Arab. Lit., 49(1-2):23–49, doi:10.1163/1570064x-12341359.
• van Genuchten, C. M., Addy, S. E. A., Peña, J. & Gadgil, A. J. (2012): Removing Arsenic from Synthetic Groundwater with Iron Electrocoagulation: An Fe and As K-Edge EXAFS Study. – Environ. Sci. Technol., 46(2):986–994, 3 Abb., 2 Tab.; doi:10.1021/es201913a.
• van Genuchten, M. T. (1980): A Closed-Form Equation for Predicting the Hydraulic Conductivity of Unsaturated Soils. – Soil Sci. Soc. Am. J., 44(5):892–898, doi:10.2136/sssaj1980.03615995004400050002x.
• van Heeren, A. (1998): Management Accounting for sustainable development – A chain related case study between Costa Rica and the Netherlands. In: Seventh International Conference of Greening of Industry Network. http://citeseerx.ist.psu.edu/viewdoc/download?doi=10.1.1.482.8690&rep=rep1&type=pdf.
• van Hille, R., Foster, T., Storey, A., Duncan, J. & Lewis, A. (2004): Heavy Metal Precipitation by Sulphide and Bicarbonate: Evaluating Methods to predict anaerobic Digester Overflow Performance. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 141–150, 6 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Van Hille, R. P., Boshoff, G. A., Rose, P. D. & Duncan, J. R. (1999): A continuous process for the biological treatment of heavy metal contaminated acid mine water. – Resour. Conserv. Recycl., 27(1-2):157–167, 5 Abb., 2 Tab.; doi:10.1016/S0921-3449(99)00010-5.
• van Hille, R. P., van Wyk, N., Motleleng, L. & Mooruth, N. (2011): Lessons in passive treatment: Towards efficient operation of a sulphate reduction – sulphide oxidation system: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 491–496 p., Aachen (RWTH Aachen University).
• Van Houten, L. (2018): Mushroom Compost – What is it and How is it Used? – Reclam. Matters, 2018(Spring):28–30.
• Van Husen, D. (2000): Geological Processes during the Quaternary. – Mitt. Österr. Geol. Ges., 92:135–156, 15 Abb.
• van Husen, D. (2011): Quaternary Glaciations in Austria. 15. – p. 28, Amsterdam (Elsevier); doi:10.1016/B978-0-444-53447-7.00002-7.
• van Iterson, F. K. T. (1938): The clarification of coal-washery effluent. – Proc. Kon. Ned. Akad. Wet., 41(2):81–94, 11 Abb.
• van Lier, J. B., Mahmoud, N. & Zeeman, G. (2008 ): Anaerobic Wastewater Treatment. – In: Henze, M., Loosdrecht, M. C. M. v., Ekama, G. A. & Brdjanovic, D. (eds): Biological Wastewater Treatment: Principles, Modelling and Design. – p. 415–456, London (IWA Publishing).
• van Lier, J. B., van der Zee, F. P., Frijters, C. T. M. J. & Ersahin, M. E. (2015): Celebrating 40 years anaerobic sludge bed reactors for industrial wastewater treatment. – Rev. Environ. Sci. Biotechnol., 14(4):681–702, doi:10.1007/s11157-015-9375-5.
• van Luijk, N., Giles, A., Millington, R. & Hayhurst, L. (2020): The extractives industry: (un)likely and (un)welcome partners in regenerating Indigenous cultures in Canada? – Ann. Leis. Res.:20, doi:10.1080/11745398.2020.1768877.
• van Niekerk, A. M. (2001): Innovative and New Mine Water Treatment Technologies. – Proceedings, Conference on environmentally responsible mining in southern Africa, 1:4A28–4A37, 3 Abb.
• van Niekerk, A. M. (2009): Mine Water Reclamation and Re-Use – South African Experience. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 185–198, 6 Abb; Pretoria (Document Transformation Technologies).
• van Niekerk, H., Silberbauer, M. J. & Maluleke, M. (2014): Geographical differences in the relationship between total dissolved solids and electrical conductivity in South African rivers. – Water SA, 40(1):133–137, 2 Abb., 6 Tab.; doi:10.4314/wsa.v40i1.16.
• van Niekerk, H. J. & van der Walt, I. J. (2006): Dewatering of the Far West Rand dolomitic area by gold mining activities and subsequent ground instability. – Land Degrad. Dev., 17(4):441–452, doi:10.1002/ldr.749.
• Van Noten, K., Topal, S., Baykara, M. O., Ozkul, M., Claes, H., Aratman, C. & Swennen, R. (2019): Pleistocene-Holocene tectonic reconstruction of the Ballik travertine (Denizli Graben, SW Turkey) – (De)formation of large travertine geobodies at intersecting grabens. – J. Struct. Geol., 118:114–134, 14 Abb.; doi:10.1016/j.jsg.2018.10.009.
• Van Oosterhout, M. F., Willigers, H. M., Reneman, R. S. & Prinzen, F. W. (1995): Fluorescent microspheres to measure organ perfusion: validation of a simplified sample processing technique. – Am. J. Physiol., 269(2):H725–H733, doi:10.1152/ajpheart.1995.269.2.H725.
• Van Rentergem, G. & de Volder, S. (2025): Bathymetry in caves. – Int. Hydrogr. Rev., 31(2):152–156, doi:10.58440/ihr-31-2-n10.
• van Rooyen, M., van Staden, P. J. & du Preez, K. A. (2021): Sulphate removal technologies for the treatment of mine-impacted water. – J. S. Afr. I. Min. Metall., 121(10):1–7, doi:10.17159/2411-9717/1541/2021.
• Van Roy, S., Vanbroekhoven, K., Dejonghe, W. & Diels, L. (2004): Immobilization of Heavy Metals in the saturated Zone by Sorption and in situ Bioprecipitaion Processes. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 53–60, 4 Abb., 2 Tab.; Newcastle upon Tyne (University of Newcastle).
• van Schalkwyk, L. G. & Bellamy, R. E. S. (1994): Sealing of high pressure water fissures in South African Mines. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:299–316, 3 Tab.
• Van Tol, J. & Lorentz, S. (2018): The Application of Hydropedology Surveys to Quantify Near-Surface Impacts from Mining Waste. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 471–475; (Tshwane University of Technology).
• van Tonder, D. M., Coetzee, H., Esterhuyse, S., Strachan, L., Wade, P. & Mudau, S. (2009): South Africa’s challenges pertaining to mine closure – development and implementation of regional mining and closure strategies. Paper presented at the Mine Closure 2009, Perth. – p. 79–91, 1 Abb.; Perth (Australian Centre for Geomechanics).
• Van Tonder, G. J. & Kirchner, J. (1990): Estimation of natural groundwater recharge in the Karoo aquifers of South Africa. – J. Hydrol., 121(1-4):395–419, doi:10.1016/0022-1694(90)90243-q.
• van Tonder, G. J., Maree, J. P. & Millard, P. (1994): Neutralization of Acid Coal Mine Water With Dolomite in a Fluidised-bed Reactor. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:587–597, 5 Abb., 4 Tab.
• van Tonder, G. J., Usher, B. H., Dennis, I. & Vermeulen, P. D. (2007): Predicting Rebound in a Deep Colliery in South Africa. – Mine Water Environ., 26(2):79–87, 12 Abb., 3 Tab.; doi:10.1007/s10230-007-0154-6.
• Van Voast, W. A. (1985): Ground-water reactions to surface coal mining in semiarid lands. – Proceedings, 2nd International Mine Water Association Congress, 2:861–873.
• van Vuuren, L. (2006): Bottled Water Sector bubbling over. – Water Wheel, 2006(Nov/Dec):18–21, 5 Abb., 1 Tab.
• van Wyk, E., Mokgatle, T. & de Meillon, N. (2013): Witwatersrand Mine Voids – Their Hydrochemistry and Hydrodynamic Characteristics. Paper presented at the 13th Biennial Groundwater Division Conference and Exhibition, Durban. – p. 1–15.
• van Wyk, L. H. (1993): Advances in Mine Dewatering Pumps. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 631–656, 3 Abb., 8 Anl.; Chililabombwe (Konkola Division).
• Van Wyk, Y. & Witthüser, K. (2011): A forced-gradient tracer test on the Hansrivier Dyke: Beaufort West, South Africa. – Water SA, 37(4) 9 Abb., 4 Tab.; doi:10.4314/wsa.v37i4.2.
• van Zijl, J. S. V. (2006): A review of the resistivity structure of the Karoo Supergroup, South Africa, with emphasis on the dolerites: A study in anisotropy. – S. Afr. J. Geol., 109:315–328, 12 Abb., 5 Tab.
• van Zweel, N., Dennis, R. & Dennis, I. (2015): Modelling Humidity Cell Experimental Data by Making Use of the PHREEQC Code. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• van Zyl, A. J., Naicker, K. & Barnard, P. (2018): Risk-based Modelling of Soil Cover for Rehabilitation Planning of Coal Discard Facility in South Africa to Achieve Groundwater Quality Criteria. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 476–480; (Tshwane University of Technology).
• van Zyl, A. W., Harrison, S. T. L. & van Hille, R. P. (2011): Biodegradation of thiocyanate by a mixed microbial population: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 119–124 p., Aachen (RWTH Aachen University).
• van Zyl Dirk, J. A. & Straskraba, V. (1999): Mine Closure Considerations in arid and semi-arid Areas. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 213–220, 3 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• van Zyl, H. C., Maree, J. P., van Niekerk, A. M., van Tonder, G. J. & Naidoo, C. (2001): Collection, Treatment and re-use of Mine Water in the Olifants River Catchment. – J. S. Afr. Inst. Min. Metall., 101(1):41–46, 2 Abb., 7 Tab.
• van Zyl, N. L. (2011): The Influence of Flooding on Underground Coal Mines. – 156 p., University of the Free State, 109 Abb., 44 Tab.; Bloemfontein.
• Van Zyl, P. A. (2017): A History of Asbestos Mining in South Africa. – Parktown (Asbestos Relief Trust).
• Vanbroekhoven, K., Broeck, F. V. d., Feyaerts, K., Broeck, E. V. d., Verkaeren, P., Verstraelen, J., Zeuwts, L., Gemoets, J. & Diels, L. (2007): In Situ Precipitation for Remediation of Heavy Metal contaminated Groundwater at a non ferrous industrial Site: Water in Mining Environments. – 277–281 p., 4 Abb., 3 Tab.; Cagliari (Mako Edizioni).
• Vanbroekhoven, K., Vermoortel, Y., Diels, L. & Gemoets, J. (2007): Stimulation of in Situ Bioprecipitation for the Removal of hexavalent Chromium from contaminated Groundwater: Water in Mining Environments. – 283–287 p., 4 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Vance Haynes, C. & Haas, H. (1980): Radiocarbon evidence for Holocene recharge of groundwater, Western Desert, Egypt. – Radiocarbon, 22(3):705–717, doi:10.1017/S0033822200010079.
• Vandana, M., John, S. E., Maya, K. & Padmalal, D. (2020): Environmental impact of quarrying of building stones and laterite blocks: a comparative study of two river basins in Southern Western Ghats, India. – Environ. Earth Sci., 79(14):366, doi:10.1007/s12665-020-09104-1.
• Vandenberg, A. (1980): Regional groundwater motion in response to an oscillating water table. – J. Hydrol., 47(3):333–348, doi:10.1016/0022-1694(80)90102-X.
• Vandenberg, J. & Litke, S. (2018): Beneficial Use of Springer Pit Lake at Mount Polley Mine. – Mine Water Environ., 37(4):663–672, doi:10.1007/s10230-017-0504-y.
• Vandenberg, J., McCullough, C. & Castendyk, D. (2015): Key issues in Mine Closure Planning Related to Pit Lakes. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Vandenberg, J., Schultze, M., McCullough, C. D. & Castendyk, D. (2022): The Future Direction of Pit Lakes: Part 2, Corporate and Regulatory Closure Needs to Improve Management. – Mine Water Environ., 41(2):544–556, doi:10.1007/s10230-022-00868-5.
• Vandenberg, J. A., Herrell, M., Faithful, J. W., Snow, A. M., Lacrampe, J., Bieber, C., Dayyani, S. & Chisholm, V. (2016): Multiple Modeling Approach for the Aquatic Effects Assessment of a Proposed Northern Diamond Mine Development. – Mine Water Environ., 35(3):350–368, doi:10.1007/s10230-015-0337-5.
• Vandenberg, J. A., Lauzon, N., Prakash, S. & Salzsauler, K. (2011): Use of water quality models for design and evaluation of pit lakes. – In: McCullough, C. D. (ed) Mine Pit Lakes – Closure and Management. – p. 63–80, 4 Abb., 1 Tab.; Perth (Australian Centre for Geomechanics).
• Vandenberg, J. A., Salzsauler, K. & Donald, S. (2016): Best Practices Checklist for Modelling Mine Waters. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1161–1169, Freiberg (TU Bergakademie Freiberg).
• Vandenbohede, A. & Van Houtte, E. (2012): Heat transport and temperature distribution during managed artificial recharge with surface ponds. – J. Hydrol., 472:77–89, 12 Abb., 6 Tab.; doi:10.1016/j.jhydrol.2012.09.028.
• Vandenhove, H., Cuypers, A., Hees, M. v. & Wannijn, J. (2005): Effect of uranium and cadmium uptake on oxidative stress reactions for Phaseolus vulgaris. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 175–182, Heidelberg (Springer).
• Vandersluis, G. D., Straskraba, V. & Effner, S. A. (1995): Hydrogeological and Geochemical Aspects of Lakes Forming in Abandoned Open Pit Mines: Water resources at risk. – IMWA.162–177 p., 1 Abb., 3 Tab.; Minneapolis (American Institute of Hydrology).
• VanderStoep, S. W. & Johnston, D. D. (2009): Research methods for everyday life – Blending qualitative and quantitative approaches. – 330 p., San Francisco (Jossey-Bass).
• Vanderwalt, S. R., Vaneldik, R. & Potgieter, H. G. J. (1975): Recovery of Fe, Mn and Al from a Mine Water Effluent. – Water Res., 9(10):865–868, 5 Abb., 1 Tab.
• Vanhanen, E., Cook, N. D. J., Hudson, M. R., Dahlenborg, L., Ranta, J. P., Havela, T., Kinnunen, J., Molnár, F., Prave, A. R. & Oliver, N. H. S. (2015): Chapter 5.4 – The Rompas Prospect, Peräpohja Schist Belt, Northern Finland. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 467–484, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00018-2.
• Vanhooydonck, J., Mahoney, J., Stephen, R. & Maclear, G. (2015): Selecting Pit Lake Model Approaches Based on Data Availability. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Vaníček, I., Jirásko, D. & Vaníček, M. (2018): Interaction of transport infrastructure with natural hazards (landslides, rock falls, floods). – ce/papers, 2(2-3):135–164, doi:10.1002/cepa.666.
• Vara Prasad, M. N., de Campos Favas, P. J. & Kumar Maiti, S. (2018): Bio-Geotechnologies for Mine Site Rehabilitation. – 708 p., (Elsevier); doi:10.1016/C2016-0-04139-6.
• Varma, A. (1954): The copper-zinc ore deposits of Aijala and Metsämonttu. – Geol. Tutkimuslaitos, 55:20–24, 4 Abb., 2 Tab.
• Varnell, C. (2021): Utilization of Abandoned Coal Mines as Sources of Municipal Water. – Acad. Lett., Article 535:1–4, doi:10.20935/al535.
• Varnell, C. J., Brahana, J. V. & Steele, K. (2004): The Influence of Coal Quality Variation on Utilization of Water from Abandoned Coal Mines as a Municipal Water Source. – Mine Water Environ., 23(4):205–209, 3 Abb.
• Varnes, D. J. (1978): Slope Movement Types and Processes. – In: Schuster, R. L. & Krizek, R. J. (eds): Landslides, Analysis and Control 176. – p. 11–33, Washington (National Academy of Sciences).
• Vasan, S. S., Modak, J. M. & Natarajan, K. A. (2001): Some recent advances in the bioprocessing of bauxite. – Int. J. Miner. Process., 62(1-4):173–186, 3 Abb., 4 Tab.
• Vasco, D. W. & Datta-Gupta, A. (1999): Asymptotic solutions for solute transport: A formalism for tracer tomography. – Water Resour. Res., 35(1):98WR02742 1–16, doi:10.1029/98WR02742.
• Vasco, D. W. & Finsterle, S. (2004): Numerical Trajectory Calculations for the Efficient Inversion of Transient flow and Tracer Observations. – Water Resour. Res., 40(1):W01507, doi:10.1029/2003WR002362.
• Vasco, D. W., Karasakia, K. & Nakagomeb, O. (2002): Monitoring production using surface deformation: the Hijiori test site and the Okuaizu geothermal field, Japan. – Geothermics, 31(3):303–342.
• Vasconcelos, F. d. M., Zanetti, C., Almeida, D. & Souza, A. d. (2015): Hydrogeochemistry Tailing Model to Evaluate Future Water Quality – Mina Vazante MG, Brazil. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Vasconcelos, F. M., Zanetti, C. S. A. & Soares, A. M. (2018): Colloids and its Influence in the Water Quality Diagnosis of Tailling Dam. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 934–939; (Tshwane University of Technology).
• Vaselli, O., Meloni, F., Nisi, B., Cabassi, J., Bianchi, F., Montegrossi, G. & Rappuoli, D. (2025): Water Geochemistry in the Former Hg-Mining Area of Abbadia San Salvatore (Central Italy): a Review. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 721–725; Braga (International Mine Water Association).
• Vashchenko, B., Gorpiniuc, S., Iwanow, A., Klimchuk, A., Lawrow, I., Lyaguschkin, V., Mavlyudov, B., Maksimowitsch, N., Pankov, N., Runkov, E., Chernyavsky, G. & Shumeyko, A. (2017): Ординская Пещера – Познание [Die Ordin Höhle – Erkenntnisse], 2nd edn. – 287 p., Moscow (PHOTOTEAM.PRO).
• Vasilatos, C., Koukouzas, N. & Alexopoulos, D. (2015): Geochemical Control of Acid Mine Drainage in Abandoned Mines – The Case of Ermioni Mine, Greece. – Procedia Earth Planet. Sci., 15:945–950, doi:10.1016/j.proeps.2015.08.151.
• Vasileiou, E. & Koumantakis, I. (2011): The exploitation of lignite deposits in relation with the surface and groundwater in the mining area. The case study of Potamia basin, Thessaly, Greece: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 65–70 p., Aachen (RWTH Aachen University).
• Vasileiou, E., Stathopoulos, N., Stefouli, M., Charou, E. & Perrakis, A. (2012): Evaluating the environmental impacts after the closure of mining activities, using Remote Sensing methods-The case study of Aliveri mine area: International Mine Water Association Symposium. – 755–763 p., Bunbury (Edith Cowan University).
• Vasquez, F., Waples, J. & Condor, J. (2015): Challenges in Prediction of Acid Rock Drainage Potential for Skarns – Use of Modified Testing. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–12 [electronic document], Santiago/Chile (Gecamin).
• Vasquez, Y., Neculita, C. M., Caicedo, G., Cubillos, J., Franco, J., Vásquez, M., Hernández, A. & Roldan, F. (2021): Passive multi-unit field-pilot for acid mine drainage remediation: Performance and environmental assessment of post-treatment solid waste. – Chemosphere:133051, doi:10.1016/j.chemosphere.2021.133051.
• Vasterling, M., Wegler, U., Becker, J., Brustle, A. & Bischoff, M. (2017): Real-time envelope cross-correlation detector: application to induced seismicity in the Insheim and Landau deep geothermal reservoirs. – Journal of Seismology, 21(1):193–208, doi:10.1007/s10950-016-9597-1.
• Vasudevan, S. (2012): Effects of alternating current (AC) and direct current (DC) in electrocoagulation process for the removal of iron from water. – The Canadian Journal of Chemical Engineering, 90(5):1160–1169, doi:10.1002/cjce.20625.
• Vasudevan, S., Lakshmi, J., Kamaraj, R. & Sozhan, G. (2013): A critical study on the removal of copper by an electrochemically assisted coagulation – equilibrium, kinetics, and thermodynamics. – Asia-Pac. J. Chem. Eng., 8:162–171, 10 Abb., 6 Tab.; doi:10.1002/apj.1657.
• Vasudevan, S., Lakshmi, J. & Sozhan, G. (2009): Studies on a Mg-Al-Zn Alloy as an Anode for the Removal of Fluoride from Drinking Water in an Electrocoagulation Process. – Acta Hydrochim. Hydrobiol., 37(4):372–378.
• Vasudevan, S., Lakshmi, J. & Sozhan, G. (2009): Studies on the Removal of Iron from Drinking Water by Electrocoagulation – A Clean Process. – Acta Hydrochim. Hydrobiol., 37(1):45–51.
• Vatalis, K. I. & Kaliampakos, D. C. (2006): An overall index of environmental quality in coal mining areas and energy facilities. – Environ. Manage., 38(6):1031–45, doi:10.1007/s00267-005-0114-5.
• Vatankhah, A. R. (2014): Full-Range Solution for the Theis Well Function. – J. Hydrol. Eng., 19(3):649–653, doi:10.1061/(asce)he.1943-5584.0000833.
• Vaupotič, J. & Kobal, I. (1999): Releases of radium from an abandoned uranium mine site: Žirovski Vrh uranium mine, Slovenia. – J. Radioanal. Nucl. Chem., 241(1):107–111, 6 Abb.; doi:10.1007/BF02347296.
• Vaute, L., Le Pape, P., Collon-Drouaillet, P. & Fabriol, R. (2010): Modelling the long-term evolution of groundwater’s quality in a flooded iron-ore mine using a reactive transport pipe network model. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 317–321, Sydney, NS (Cape Breton University Press).
• Vaute, L., Nguyen, T. D., Fabriol, R., Pinault, J. L., Baubron, J. C., Homand, F., Groupement d’Interet Scientifique de Recherche sur l’Impact et la Securite des Ouvrages Souterrains Nancy & Ministere de la Recherche et de l'Industrie Paris France France (2004): Une methode de modelisation hydrogeologique inverse appliquee a un probleme d’ingenierie; l’abaissement du niveau d’un reservoir minier ennoye dans le bassin ferrifere lorrain. – Apres-mine 2003; impacts et gestion des risques; besoins et acquis de la recherche; colloque international, 106-107:85–94.
• Vaxelaire, J. & Cezac, P. (2004): Moisture distribution in activated sludges – a review. – Water Res., 38(9):2215–2230.
• Vaxelaire, S. & Battaglia-Brunet, F. (2023): Treatment Of A Mine Water Containing Arsenic And Thiocyanates: Four Years Results On A Pilot Plant Scale. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 517–522; (International Mine Water Association).
• Vaxelaire, S., Jally, B., Fabienne, B.-B. & Jérôme, J. (2019): The Development Of A Treatment Process For The Mine Water Containing Arsenic And Thiocyanate From Lab Scale To Pilot Plant Scale. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 286–291; Perm, Russia (Perm State University).
• Vazquez Borragan, A. (2014): Modelling Internal Erosion Within An Embankment Dam Prior To Breaching. – 52 p., Stockholm University.
• Vazquez, O., Pu, X., Monnell, J. D. & Neufeld, R. D. (2010): Release of Aluminum from Clays in an Acid Rock Drainage Environment. – Mine Water Environ., 29(4):270–276, 2 Abb., 4 Tab.; doi:10.1007/s10230-010-0114-4.
• Vázquez, V., Parga, J., Valenzuela, J. L., Figueroa, G., Valenzuela, A. & Munive, G. (2014): Recovery of Silver from Cyanide Solutions Using Electrochemical Process Like Alternative for Merrill-Crowe Process. – Mater. Sci. Appl., 5(12):863–870, 5 Abb., 6 Tab.; doi:10.4236/msa.2014.512087.
• Vebsar Inc. (1978): Microeconomic Impacts of the Proposed “PCB Ban Regulations” – Final Task Report. – Unpubl. Report for Office of Planning and Management (Report Nr. EPA 560/6-77-035). – 125 p., Springfield (U.S. Environmental Protection Agency).
• Vedder, H. & Fischer, U. (2011): Layout and Operation of granular fixed bed reactors: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 497–500 p., Aachen (RWTH Aachen University).
• Veevers, J. J., Cole, D. I. & Cowan, E. J. (1994): Southern Africa: Karoo Basin and Cape Fold Belt. – In: Veevers, J. J. & Powell, C. M. A. (eds): Geol. Soc. Am. Memoir 184. – p. 223–279, (Geological Society of America).
• Veevers, J. J. & Powell, C. M. A. (1994): Permian-Triassic Pangean Basins and Foldbelts Along the Panthalassan Margin of Gondwanaland: Geol. Soc. Am. Memoir. – (Geological Society of America).
• Vega, E., Lesikar, B. & Pillai, S. D. (2003): Transport and Survival of Bacterial and Viral Tracers through Submerged-flow Constructed Wetland and Sand-filter System. – Bioresour. Technol., 89(1):49–56.
• Vega, J. L., Ayala, J., Loredo, J. & García Iglesias, J. (2005): Bentonites as adsorbents of heavy metals ions from mine waste leachates – Experimental data: Mine Water 2005 – Mine Closure. – 603–609 p., 3 Abb., 8 Tab.; Oviedo (University of Oviedo).
• Végh-Neubrandt, E. & Mensáros, P. (1982): Karstwater-Flow-Controlling Geological Conditions in the Transdanubian Central Mountains of Hungary. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:154–164, 4 Abb.
• Vegter, J. R. (1996): The fountains of Pretoria. – Environ. Geol., 27(2):113–117, doi:10.1007/bf01061682.
• Vegter, J. R. (2001): The Fountains of Pretoria. – In: LaMoreaux, P. E. & Tanner, J. T. (eds): Springs and Bottled Waters of the World – Ancient History, Source, Occurence, Quality and Use. – p. 169–173, 209 Abb., 53 Tab.; Berlin (Springer).
• Vegter, J. R. & Foster, M. B. J. (1992): The hydrogeology of dolomitic formations in the southern and western Transvaal. – International Contributions to Hydrogeology, 13:355–376.
• Veil, J. (2013): Water Associated with Oil and Gas Production – Produced Water Management and Water Needs. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1229–1233, 2 Tab.; Golden (International Mine Water Association).
• Veil, J. A., Kupar, J. M. & Puder, M. G. (2003): Use of Mine Pool Water for Power Plant Cooling. – Unpubl. Report for Energy, U. S. D. o. (Report Nr. W-31-109-Eng-38). – 52 p., 7 Abb., 10 Tab.; Argonne (Argonne National Laboratory).
• Veith, H. (1871): Deutsches Bergwörterbuch. – 600 p., Breslau (Korn).
• Velasco Fuentes, O. U., Sheinbaum, J. & Ochoa, J. (2003): Nonlinear Processes in Geophysical Fluid Dynamics – A tribute to the scientific work of Pedro Ripa. – 376 p., Dordrecht (Kluwer); doi:10.1007/978-94-010-0074-1.
• Velde, B. (1995): Origin and Mineralogy of Clays – Clays and the Environment. – 334 p., 182 Abb., 7 Tab.; Berlin (Springer); doi:10.1007/978-3-662-12648-6.
• Velichkova, R., Simova, I., Zelenakova, M. & Purcz, P. (2025): Assessment of Heavy Metal Pollution from Mine Waters. Paper presented at the 2025 XXXIV International Scientific Conference Electronics (ET). – p. 1–5.
• Vellemu, E. C., Mensah, P. K., Griffin, N. J., Odume, O. N., Palmer, C. G. & Dowse, R. (2018): Using a Risk-based Approach for Derivation of Water Quality Guidelines for Sulphate. – Mine Water Environ., 37(1):166–173, doi:10.1007/s10230-017-0480-2.
• Veltman, S. & Wilke, A. R. (2008): Groundwater Flow Mechanisms at Margaret shaft, KOSH Gold Mining Area. – Proceedings, 10th International Mine Water Association Congress:39–42.
• Venburg, L. G. (1979): Dewatering of Mines – A Practical Analysis: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 219–232 p., 5 Abb.; San Francisco (Freeman).
• Venter, A. (2000): Sampling Guide. – In: The Department of Water Affairs and Forestry, The Department of Health & Water Research Commission (eds): Quality of Domestic Water Supplies 2. – p. 28, Pretoria.
• Vepsäläinen, M. (2012): Electrocoagulation in the treatment of industrial waters and wastewaters. – VTT Science, 12:1–96, 20 Abb., 12 Tab.
• Vepsäläinen, M., Pulliainen, M. & Sillanpää, M. (2012): Effect of electrochemical cell structure on natural organic matter (NOM) removal from surface water through electrocoagulation (EC). – Sep. Purif. Technol., 99:20–27, doi:10.1016/j.seppur.2012.08.011.
• Verati, C., de’Donato, P., Prieur, D. & Lancelot, J. (1999): Evidence of bacterial activity from micrometer-scale layer analyses of black-smoker sulfide structures (Pito seamount site, Easter Microplate). – Chem. Geol., 158(3-4):257–269, Refs: 31; illus. incl. 2 tables, sketch map.
• Verburg, R. (2011): Mitigating Acid Rock Drainage. – In: Darling, P. (ed) SME Mining Engineering Handbook, 3 edn. – p. 1721–1732, 12 Abb.; Littleton (Society for Mining Metallurgy and Exploration).
• Verburg, R., Bezuidenhout, N., Chatwin, T. & Ferguson, K. (2009): The Global Acid Rock Drainage Guide (GARD Guide). – Mine Water Environ., 28(4):305–310, 1 Abb.; doi:10.1007/s10230-009-0078-4.
• Verburg, R. & Chatwin, T. (2010): The Global Acid Rock Drainage Guide (GARD Guide) – Best Management Practices for Acid Prevention. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 63–67, Sydney, NS (Cape Breton University Press).
• Verburg, R. & Oliveira, M. (2016): Surface Paste Disposal of High-Sulfide Tailings at Neves-Corvo – Evaluation of Environmental Stability and Operational Experience. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 361–367, Freiberg (TU Bergakademie Freiberg).
• Verburg, R. & Oliveira, M. (2025): Surface Disposal of High-Sulfide Paste Tailings at the Neves Corvo Mine, Portugal. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 388–392; Braga (International Mine Water Association).
• Verburg, R. B. M. (2001): Use of Paste Technology for Tailings Disposal: Potential Environmental Benefits and Requirements for Geochemical Characterization. – 1–13 [CD–ROM] p., 8 Abb.; Belo Horizonte (Proceedings IMWA Symposium Belo Horizonte).
• Verdenelli, R. A., Conforto, C. B., Perez-Brandan, C., Chavarria, D., Rovea, A., Vargas-Gil, S. & Meriles, J. M. (2013): Integrated multivariate analysis of selected soil microbial properties and their relationships with mineral fertilization management in a conservation agriculture system. – Acta Agr Scand B-S P, 63(7):623–632, doi:10.1080/09064710.2013.837193.
• Vereecken, H., Jaekel, U., Esser, O. & Nitzsche, O. (1999): Solute transport analysis of bromide, uranin and LiCl using breakthrough curves from aquifer sediment. – J. Contam. Hydrol., 39(1–2):7–34, doi:10.1016/S0169-7722(99)00033-9.
• Verein Deutscher Zementwerke e. V. (1999): Die Bedeutung des Chromates in Zementen und zementhaltigen Zubereitungen: Sachstandsbericht. – 3 Abb., 4 Tab.; Düsseldorf (Verein Deutscher Zementwerke e.V.).
• Vergani, L., Mapelli, F., Zanardini, E., Terzaghi, E., Di Guardo, A., Morosini, C., Raspa, G. & Borin, S. (2017): Phyto-rhizoremediation of polychlorinated biphenyl contaminated soils: An outlook on plant-microbe beneficial interactions. – Sci. Total Environ., 575:1395–1406, doi:10.1016/j.scitotenv.2016.09.218.
• Verger, R. P., Steyn, J., Labuschagne, P., Schmidt, R., Fourie, J. & Pretorius, F. (2018): Viability Of Converting A South African Coal Mining Pit Lake System Into A Water Storage Facility. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 884–890; (Tshwane University of Technology).
• Verhoest, N. E. C., Troch, P. A., Paniconi, C. & De Troch, F. P. (1998): Mapping basin scale variable source areas from multitemporal remotely sensed observations of soil moisture behavior. – Water Resour. Res., 34(12):3235–3244, 3 Abb., 3 Tab., 3 Plat.
• Verlicchi, P. & Grillini, V. (2020): Surface Water and Groundwater Quality in South Africa and Mozambique—Analysis of the Most Critical Pollutants for Drinking Purposes and Challenges in Water Treatment Selection. – Water, 12(1) doi:10.3390/w12010305.
• Verma, M. P. (2000): Chemical Thermodynamics of Silica: a Critique on its Geothermometer. – Geothermics, 29(3):323–346.
• Verma, M. P. (2000): Revised Quartz Solubility Temperature Dependence Equation along the Water-vapor Saturation Curve. – In: Iglesias, E. (ed) Sustaining geothermal energy into the 21st century – Proceedings, World Geothermal Congress 2000. – p. 1927–1932, 5 Abb., 1 Tab.; Kyushu – Tohoku (World Geothermal Congress).
• Verma, M. P., Tello, E., Sandoval, F., Tovar, R. & Martinez, J. L. (2002): An interlaboratory calibration of silica for geothermal water chemistry. – Geothermics, 31(6):677–686, 3 Abb., 3 Tab.
• Verma, S. P. (2020): Basic Concepts of Statistics. – In: Verma, S. P. (ed) Road from Geochemistry to Geochemometrics. – p. 227–246, Singapore (Springer Singapore); doi:10.1007/978-981-13-9278-8_4.
• Verma, S. P. (2020): Road from Geochemistry to Geochemometrics, 1st edn. – 669 p., Berlin (Springer); doi:10.1007/978-981-13-9278-8.
• Verma, S. P., Pandarinath, K. & Santoyo, E. (2008): SolGeo: A new computer program for solute geothermometers and its application to Mexican geothermal fields. – Geothermics, 37(6):597–621, doi:10.1016/j.geothermics.2008.07.004.
• Vermeulen, N. J. (2001): The composition and state of gold tailings. – PhD, University of Pretoria, 216 Abb., 47 Tab.; Pretoria.
• Vermeulen, P. D. (2010): The assessment of mine rebound and decanting in deeper coal mines. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 511–515, Sydney, NS (Cape Breton University Press).
• Vermeulen, P. D. (2012): A South African perspective on shale gas hydraulic fracturing: International Mine Water Association Symposium. – 149–158 p., Bunbury (Edith Cowan University).
• Vermeulen, P. D. & Bester, M. (2009): Assessment of How Water Quality and Quantity will be Affected by Mining of the Waterberg Coal Reserves. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 113–123, 10 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Vermeulen, P. D., Burger, M. & van Wyk, A. (2014): Potential Hydrological Interaction of a Gold Mine and a Coal Mine in South Africa. – Mine Water Environ., 33(1):3–14, 10 Abb., 2 Tab.; doi:10.1007/s10230-013-0237-5.
• Vermeulen, P. D., Burger, M., van Wyk, A. & Lukas, E. (2014): Using Environmental Isotopes in a Coal Mine and a Gold Mine to Determine Groundwater Interaction. – Mine Water Environ., 33(1):15–23, 8 Abb., 1 Tab.; doi:10.1007/s10230-013-0245-5.
• Vermeulen, P. D., Deysel, L.-M., MacDonald, N. & Aphane, V. (2014): Spoils Handling from Coal Mines in the Waterberg Coalfield Area, South Africa. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 524–528, 3 Abb., 1 Tab.; Xuzhou (International Mine Water Association).
• Vermeulen, P. D. & Usher, B. H. (2006): An investigation into recharge in South African underground collieries. – J. S. Afr. Inst. Min. Metall., 106:771–788, 25 Abb., 9 Tab.
• Vermeulen, P. D. & Usher, B. H. (2008): Operation and Monitoring Guidelines for Irrigating with Coal Mine Water in South Africa. – Proceedings, 10th International Mine Water Association Congress:109–112.
• Vermeulen, P. D., Wessels, L. & Lukas, E. (2013): Development of a 3-D electrical conductivity image for a colliery in South Africa to determine post-closure management options. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1151–1156, 6 Abb.; Golden (International Mine Water Association).
• Vernon, C. W. (1903): Cape Breton, Canada, at the Beginning of the Twentieth Century: A Treatise Of Natural Resources And Development. – 340 p., Toronto (Nation Pub. Co.).
• Véron, J. (2005): The Alpine Molasse Basin – Review of Petroleum Geology and Remaining Potential. – Bull. angew. Geol., 10(1):75–86, 5 Abb.
• Verplanck, P. L., Mueller, S. H., Goldfarb, R. J. & Nordstrom, D. K. (2007): Elevated Arsenic in Ground Water, Ester Dome (Alaska): Water in Mining Environments. – 473–477 p., 3 Abb.; Cagliari (Mako Edizioni).
• Verreault, M. (2024): Tracer dilution profiles for mine dewatering: approach and case study. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 619–624; Morgantown (International Mine Water Association).
• Verreault, M., Rouleau, A. & Rasmussen, H. (2002): Estimating the Area of Contribution to a Pumping Well: Applications of Seismic Refraction and Tracer Testing. – 197–203 p., 10 Abb.; Niagara Falls (Proceedings of the 55th Canadian Geotechnical and 3rd Joint IAH-CNC and CGS Groundwater Specialty Conferences).
• Vervoort, A. & Declercq, P.-Y. (2018): Upward surface movement above deep coal mines after closure and flooding of underground workings. – Int. J. Mining Sci. Technol., 28(1):53–59, doi:10.1016/j.ijmst.2017.11.008.
• Veselič, M. (1996): Flow and Transport in Fracfured Media as a Basis for Pollution Control: Engineering in Karst. – 30 p., 14 Abb., 3 Tab.; Portoroz (Proceedings International Mine Water Association Workshop).
• Veselič, M. (1997): Proposed Environmental Guidlines for Open Pit Gravel Production in Slovenia. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:483–490.
• Veselič, M. & Enichlmayr, E. (1988): Water Inrush Protection Criteria and Dewatering Scheme at Sakog Brown Coal Mine, Trimmelkam, Austria. – Proceedings, 3rd International Mine Water Congress, Melbourne:583–588, 2 Tab.
• Veselič, M., Enichlmayr, E., Vejvar, E., Popovic & Marko (1991): Mine Dewatering Techniques and Technology Applied at SAKOG Brown Coal Mine. – Proceedings, 4th International Mine Water Association Congress, 2:183–188, 1 Abb., 3 Tab.
• Veselič, M. & Mali, N. (1991): Reliability of Hydrogeochemical Methods as Water Inrush Risk Prediction Tools. – Proceedings, 4th International Mine Water Association Congress, 1:313–326, 6 Abb., 6 Tab.
• Veselič, M. & Norton, P. J. (1997): Successes and Failures in Prediction of Groundwater Rebound in Abandoned Mines – Some Theory and Case Studies. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:127–147, 4 Abb.
• Veselič, M., Ribicic, M. & Kocar, F. (1988): Criteria for Safe Mining under the Surface Water Accumulations in Velenje Lignite Mine. – Proceedings, 3rd International Mine Water Congress, Melbourne:445–449.
• Veselič, M., Vukelic, Z., Mavec, M., Lajlar, B. & Supovec, I. (1998): Dewatering Wells with Moyno Pumps – a new technologic Issue in Mine Dewatering: Mine Water and Environmental Impacts 1. – 213–220 p., 4 Abb.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Vesilind, P. A. & Hsu, C. C. (1997): Limits of sludge dewaterability. – Water Sci. Technol., 36(11):87–91, doi:10.1016/S0273-1223(97)00673-2.
• Vesper, D. J., Cravotta III, C. A., Fredrick, K., Herman, E. K., Lei, L., Riddell, J. L., Bell, M. L., Rockwell, L. J. & Schaffer, C. R. (2024): The release of dissolved inorganic carbon (DIC) and CO₂ from coal mine drainages. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 625–626; Morgantown (International Mine Water Association).
• Vesper, D. J., Moore, J. E. & Adams, J. P. (2016): Inorganic carbon dynamics and CO₂ flux associated with coal-mine drainage sites in Blythedale PA and Lambert WV, USA. – Environ. Earth Sci., 75(4):14, doi:10.1007/s12665-015-5191-z.
• Vestola, E. & Mroueh, U.-M. (2008): In situ treatment of acid mine drainage by sulphate reducing bacteria – guide to the pit lake treatment. – (Report Nr. 1235-0605). – 1–58,1/1–1/9,2/1–2/4,3/1–3/2 p.
• Vetter, W. (2011): Utility of Stable Isotopes of Hydrogen and Carbon as Tracers of POPs and Related Polyhalogenated Compounds in the Environment. – In: Baskaran, M. (ed) Handbook of Environmental Isotope Geochemistry. – p. 679–703, Berlin (Springer); doi:10.1007/978-3-642-10637-8_32.
• Veveakis, E., Vardoulakis, I. & Di Toro, G. (2007): Thermoporomechanics of creeping landslides: The 1963 Vaiont slide, northern Italy. – J. Geophys. Res. Earth Surf., 112(F3):F03026, doi:10.1029/2006jf000702.
• Vicario, M. M., Manassa, M. F. S., Paiva, E. M., Carlos, L. E. L. & Morton, K. L. (2025): Catoca Diamond Mine – implementation of an advanced monitoring network for a Tailings Storage Facility (TSF). Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 307–313; Braga (International Mine Water Association).
• Vicente, A., Nel, J. & Reynolds-Clausen, K. (2019): Assessing Different Coal Combustion Residue Scenarios in Opencast Coal Mines, Mpumalanga, South Africa. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 602–606; Perm, Russia (Perm State University).
• Vidal, C., Broschek, U., Zuñiga, G. & Bravo, L. (2009): Zeotreat: Multifunctional Adsorbents for Metal and Sulphate Removal in Mining Wastewaters from Copper Industry, Chilean Case. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 454–461, 7 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Vidal, T., Pereira, J. L., Abrantes, N., Soares, A. M. V. M. & Gonçalves, F. (2012): Ecotoxicological Assessment of Contaminated River Sites as a Proxy for the Water Framework Directive: an Acid Mine Drainage Case Study. – Water Air Soil Pollut., 223(9):6009–6023, doi:10.1007/s11270-012-1335-x.
• Vidal-Legaz, B. (2017): EU Raw Materials Information System and Raw Materials Scoreboard: Addressing the Data Needs in Support of the EU policies – an example for water use in mining. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 854–861, Lappeenranta (Lappeenranta University of Technology).
• Vieira, E. S. & Gomes, J. A. N. F. (2010): Citations to scientific articles – Its distribution and dependence on the article features. – J. Informetr., 4:1–13, 11 Abb., 4 Tab.; doi:10.1016/j.joi.2009.06.002.
• Vieira, F. M. C. C., Diering, D. H. & Durrheim, R. J. (2001): Methods to Mine the Ultra-Deep Tabular Gold-Bearing Reefs of the Witwatersrand Basin, South Africa. – In: Hustrulid, W. A. & Bullock, R. L. (eds): Underground Mining Methods – Engineering Fundamentals and International Case Studies. – p. 691–704, 21 Abb., 3 Tab.; Littleton (Society for Mining Metallurgy and Exploration).
• Viers, J., Grande, J. A., Zouiten, C., Freydier, R., Masbou, J., Valente, T. M., Torre, M.-L. d. l., Destrigneville, C. & Pokrovsky, O. S. (2018): Are Cu isotopes a useful tool to trace metal sources and processes in acid mine drainage (AMD) context? – Chemosphere, 193:1071–1079, doi:10.1016/j.chemosphere.2017.11.133.
• Viet, N. D., Jang, D., Yoon, Y. & Jang, A. (2022): Enhancement of membrane system performance using artificial intelligence technologies for sustainable water and wastewater treatment: A critical review. – Crit Rev Env Sci Tec, 52(20):3689–3719, doi:10.1080/10643389.2021.1940031.
• Vieweg, C. (2009): Die Rekordfahrt des Wunder-Mercedes. – Die Welt, 14.7.2009, 1 Abb.
• Vigânico, E. M. & Silva, R. A. (2010): Hydrometallurgical/UV Process to Produce Ferrous Sulfate from the Pyrite Present in Coal Tailings. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 603–607, Sydney, NS (Cape Breton University Press).
• Vigneault, B., Campbell, P. G. C., Tessier, A. & De Vitre, R. (2001): Geochemical Changes in Sulfidic Mine Tailings Stored Under a Shallow Water Cover. – Water Res., 35(4):1066–1076.
• Vile, M. A. & Wieder, R. K. (1993): Alkalinity generation by Fe(III) reduction versus sulfate reduction in wetlands constructed for acid-mine drainage treatment. – Water Air Soil Pollut., 69(3-4):425–441, doi:10.1007/BF00478175.
• Vilela, F., Lima, G., Macniks, J., Ferreira, J. & Le Petit, M. (2018): Evaluation and Comparison of Kinetic Tests Performed with the Humidity Cell, Column and Funnel Methods and Proposition of a Model with the Disposition Way. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 481–486; (Tshwane University of Technology).
• Viljoen, M. J. (2016): The Bushveld Complex – Host to the World’s Largest Platinum, Chromium and Vanadium Resources. – Episodes, 39(2):239–268, 33 Abb.; doi:10.18814/epiiugs/2016/v39i2/95777.
• Viljoen, M. J. & Viljoen, R. P. (1969): The geology and geochemistry of the lower ultramafic unit of the Onverwacht Group and a proposed new class of igneous rocks. – Geological Society of South Africa Special Publication, 2:55–86.
• Villa Gomez, D., Hofmann, H., Zhang, C., Williams, D. & Gomes, P. B. C. (2018): Assessing Biotic and Abiotic Conditions for Understanding Bioleaching Processes in Tailings. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 221–227; (Tshwane University of Technology).
• Villa Gomez, D., Liu, Y., Vaughan, J., Marcellin, E., Wyman, V., Serrano, A. & Southam, G. (2018): Microbial-mediated Ni and Co recovery from mine tailings. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 940–945; (Tshwane University of Technology).
• Villa, J. L., Andrade, F., Álvarez, I., Brown, M. & Sesmero, C. (2025): Methodology for Estimating Hydrogeological Risk for Open Pits. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 628–632; Braga (International Mine Water Association).
• Villachica, C., Clemente-Jul, C., Villachica, J., Villachica, L. & Llamosas, J. (2021): Circular Economy in Tailings Management. – Mine Water Environ., 40(1):23–35, doi:10.1007/s10230-020-00740-4.
• Villain, L., Alakangas, L. & Öhlander, B. (2010): Geochemical Evaluation of Mine Water Quality in an Open-Pit Site Remediated by Backfilling and Sealing. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 515–519, Sydney, NS (Cape Breton University Press).
• Villain, L., Sundström, N., Perttu, N., Alakangas, L. & Öhlander, B. (2011): Geophysical investigations to identify groundwater pathways at a small open-pit copper mine reclaimed by backfilling and sealing: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 71–76 p., Aachen (RWTH Aachen University).
• Villas Bôas, R. C. & Barreto, M. L. (2000): Mine Closure in Iberoamerica. – 455 p., Rio de Janeiro (Cyted – Imacc – Unido).
• Vinci, B. J. & Schmidt, T. W. (2001): Passive, Periodic Flushing Technology for Mine Drainage Treatment Systems. – In: Barnhisel, R. I., Buchanan, B. A., Peterson, D. & Pfeil, J. J. (eds): Land Reclamation – A Different Approach 2. – p. 611–625, 6 Abb.; Lexington (Proceedings 18th Annual National Meeting – American Society for Surface Mining and Reclamation).
• Vink, S., Hoey, D., Robbins, S. & Roux, E. (2013): Regulating mine water releases using water quality trading. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 71–76, 6 Abb.; Golden (International Mine Water Association).
• Vink, S. & Robbins, S. (2012): Mine water management in variable climate regimes: International Mine Water Association Symposium. – 20 A–20 I p., Bunbury (Edith Cowan University).
• Viollier, E., Inglett, P. W., Hunter, K., Roychoudhury, A. N. & Van Cappellen, P. (2000): The ferrozine method revisited – Fe(II)/Fe(III) determination in natural waters. – Appl. Geochem., 15:785–790, 6 Abb.; doi:10.1016/S0883-2927(99)00097-9.
• Virchow, R. (1879): Aerztliche Praxis in der Troas. – Archiv für pathologische Anatomie und Physiologie und für klinische Medicin, 77:174–180, doi:10.1007/BF01929741.
• Virchow, R. (1879): Beiträge zur Landeskunde der Troas. – Abh. Königl. Akad. Wiss. Berlin Phys. Klas., 3:1–190, 2 Anl.
• Virender, K. S. (2008): Ferrates – Synthesis, Properties, and Applications in Water and Wastewater Treatment: ACS Symp. Ser. 985. – 528 p., (American Chemical Society); doi:10.1021/bk-2008-0985.
• Virta, R. L. (2002): Asbestos – Geology, Mineralogy, Mining, and Uses. – U. S. Geol. Surv. Open-File Rep., 02-149:28, 9 Abb., 8 Tab.
• Visha, A., Gandhi, N., Bhavsar, S. P. & Arhonditsis, G. B. (2018): A Bayesian assessment of polychlorinated biphenyl contamination of fish communities in the Laurentian Great Lakes. – Chemosphere, 210:1193–1206, doi:10.1016/j.chemosphere.2018.07.070.
• Visser, D. & Carpenter, R. (2012): Water security and engineering innovation for the Southdown Project: International Mine Water Association Symposium. – 431–438 p., Bunbury (Edith Cowan University).
• Visser, J. N. J. & Young, G. M. (1990): Major Element Geochemistry and Paleoclimatology of the Permo-Carboniferous Glacigene Dwyka Formation and Postglacial Mudrocks in Southern Africa. – Palaeogeogr. Palaeoclimatol. Palaeoecol., 81(1-2):49–57, doi:10.1016/0031-0182(90)90039-a.
• Visser, T. J. K., Modise, S. J., Krieg, H. M. & Keizer, K. (2001): The removal of acid sulphate pollution by nanofiltration. – Desalination, 140(1):79–86, 3 Abb., 5 Tab.; doi:10.1016/S0011-9164(01)00356-3.
• Vistelius, A. B. (1960): The Skew Frequency Distributions and the Fundamental Law of the Geochemical Processes. – J. Geol., 68(1):1–22.
• Viswanathan, R. (1993): Dirty Water Settling at Konkola Mine, Konkola. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 498–506, 7 Abb., 2 Tab.; Chililabombwe (Konkola Division).
• Vlad, S. N. (2011): Perspective targeting CuAuMo porphyries of Romanian Carpathians: blind porphyry mineralization and its variable distal expression as vein and skarns. – Central European Journal of Geosciences, 3(3):318–335, doi:10.2478/s13533-011-0031-5.
• Vlahos, P., Mackay, D., Eisenreich, S. J. & Hornbuckle, K. C. (1995): Exchange of Chemicals Between the Atmosphere and Lakes. – In: Lerman, A., Imboden, D. M. & Gat, J. (eds): Physics and chemistry of lakes. – p. 167–184, Berlin (Springer); doi:10.1007/978-3-642-85132-2.
• Vodyanitskii, Y. N. & Kirillova, N. P. (2016): Conversion of Munsell color coordinates to Cie-L*a*b* system: Tables and calculation examples. – Moscow University Soil Science Bulletin, 71(4):139–146, doi:10.3103/S0147687416040074.
• Vogel, D., Paul, M., Sänger, H.-J. & Jahn, S. (1996): Probleme der Wasserbehandlung am Sanierungsstandort Ronneburg. – Geowissenschaften, 14:486–489.
• Vogel, H. A. (1829): Die Mineralquellen des Königreichs Bayern – Aus Auftrag des königl. Staatsministeriums des Inneren nach ihren quantitativen Bestandtheilen chemisch untersucht. – 148 p., München (Central-Schulbücher-Verlag).
• Vogel, J. C., Lerman, J. C. & Mook, W. G. (1972): Natural isotopes in the groundwater of the Tulúm Valley, San Juan, Argentina. – Bull. Int. Assoc. Hydrol. Sci., XVII(4):85–96, doi:10.1080/02626667209493805.
• Vogel, J. C., Thilo, L. & Van Dijken, M. (1974): Determination of groundwater recharge with tritium. – J. Hydrol., 23:131–140, doi:10.1016/0022-1694(74)90027-4.
• Vogel, J. S., Turteltaub, K. W., Finkel, R. & Nelson, D. E. (1995): Accelerator mass spectrometry – Isotope Quantification at Attomole Sensitivity. – Anal. Chem., 67(11):353A–359A, doi:10.1021/ac00107a001.
• Vogel, R. M. (2022): The geometric mean? – Commun. Stat. Theory Methods, 51(1):82–94, doi:10.1080/03610926.2020.1743313.
• Vohryzka, K. (1968): Die Erzlagerstätten von Nordtirol und ihr Verhältnis zur alpinen Tektonik. – Jb. Geol. B.-A., 111(1):3–88, 36 Abb., 1 Taf.
• Voigt, J. C. W. (1799): Kleine Mineralogische Schriften: Ersther Theil. – 239 p., Weimar (Gädicke).
• Voigt, J. C. W. (1799): Kleine Mineralogische Schriften: Zweyter Theil. – 228 p., Weimar (Gädicke).
• Voigt, S., Schneider, J. W., Saber, H., Hminna, A., Lagnaoui, A., Klein, H., Brosig, A. & Fischer, J. (2011): Complex Tetrapod Burrows from Middle Triassic Red Beds of the Argana Basin (Western High Atlas, Morocco). – Palaios, 26(9):555–566, doi:10.2110/palo.2011.p11-014r.
• Volckman, O. B. (1963): Operating Experience on a Large Scale Electrodialysis Water-Demineralization Plant: Advances in Chemistry (Saline Water Conversion—II) 38. – 133–157 p., Washington (Proceedings American Chemical Society); doi:10.1021/ba-1963-0038.ch010.
• Völkel, J., Murray, A., Leopold, M. & Hürkamp, K. (2012): Colluvial filling of a glacial bypass channel near the Chiemsee (Stöttham) and its function as geoarchive. – Z. Geomorph., 56(3):371–386, doi:10.1127/0372-8854/2012/0070.
• Völkl, G. (1991): Beispiele Alpiner Karstlandschaften aus Hydrogeologischer Sicht – Erkenntnisse aus der Einbeziehung von Höhlengerinnen in die Beobachtung bei Markierungsversuchen. – Wissensch. Beih. Z. „Die Höhle“, 39:27–35, 6 Abb.
• Volkov, Y. I., Lugovoy, V. P. & Rivlin, V. M. (1991): Drainage Systems for Stratified Deposits in Non-dislocated Rock Complexes. – Proceedings, 4th International Mine Water Association Congress, 2:189–192.
• Volman, R. (1984): Die gebruik van bariumsulfied om sulfate uit suur industriele uitvloeisels te verwyder [The use of barium sulphide to remove sulphate from acidic industrial effluents]. –, Universiteit van Stellenbosch; Stellenbosch.
• Voltz, H. (1892): Die Bergwerks- und Hüttenverwaltungen des Oberschlesischen Industrie-Bezirks – Ein historisch-statistischer Wegweiser. – 235 p., Kattowitz (Selbstverl. des Oberschlesischen Berg- und Hüttenmännischen Vereins).
• von Ammon, L. (2011): Bayerische Braunkohlen und ihre Verwertung – Bericht erstattet an das Kgl. Staatsministerium des Königlichen Hauses und des Äußern. – 16 Abb., 12 Tab., 2 Anl.; München (Kgl. Hof- und Univ.-Buchdr.).
• von der Heyden, B. P., La Cock, R. A., Ferreira, D. R., Conradie, T. A., van Rooyen, J. D. & Palcsu, L. (2024): Mineralisation controls for the diverse Cape manganese occurrences, South Africa. – S. Afr. J. Geol., 127(3):619–640.
• von der Heyden, B. P., Smith, A. J. B., Tsikos, H., Tadie, M., Mhlanga, X., van Eeden, L., Backeberg, N., Schultz, T. G. & Djeutchou, C. (2024): Manganese in South Africa – Its mineral economics, geology and geometallurgy. – S. Afr. J. Geol., 127(4):765–796, doi:10.25131/sajg.127.0039.
• von Flurl, M. (1813): Ueber das Vorkommen der Steinkohlen zu Häring, sowohl in geognostischer als oryktognostischer Rücksicht. – Denkschriften der königlichen Akademie der Wissenschaften zu München:172–182.
• von Gunten, H. R., Surbeck, H. & Rössler, E. (1996): Uranium series disequilibrium and high thorium and radium enrichments in karst formations. – Environ. Sci. Technol., 30(4):1268–1274.
• von Kleinsorgen, C. (2021): Extension Of Measuring Points Network For The Upper Aquifers Of RAG Aktiengesellschaft Through The Drilling Pferdekamp. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 595–600; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• von Kulmiz, P. H. (1914): Das Absatzgebiet der schlesischen Kohle. – Probleme der Weltwirtschaft, 19:1–120, 1 Abb., 6 Taf., 6 Kart.
• von Löhneysen, G. E. (1650): Bericht vom Bergwerck, wie man dieselben bawen und in guten wolstande bringen sol, sampt allen dazu gehörigen arbeiten, ordnung und Rechtlichen prozeßen. – 343 p., 16 Kupfer; [Zellerfeld] ([Löhneyss]).
• von Lupin, F. (1809): Mineralogische Briefe; geschrieben auf einer Reise durch Schwaben und Tyrol im Sommer 1805. – In: von Salis, K. U. & Steinmüller, J. R. (eds): Alpina – Eine Schrift der genauern Kenntniß der Alpen gewiedmet 4. – p. 74–201, Winterthur (Steinerische Buchhandlung).
• von Pechmann, H. (1971): Der Wald in der Wirtschaft und im Denken des 16. Jahrhunderts. – Forstwiss. Centralbl., 90(3):224–235, 5 Abb.
• von Philipsborn, H. & Geipel, R. (2006): Radioaktivität und Strahlungsmessung 8th edn. – 244 p., 43 Abb., 8 Tab.; München (Bayerisches Staatsministerium für Umwelt Gesundheit und Verbraucherschutz (StMUGV)).
• von Rohden, C. & Ilmberger, J. (2001): Tracer experiment with sulfur hexafluoride to quantify the vertical transport in a meromictic pit lake. – Aquatic Sciences, 63(4):417–431, 9 Abb.
• von Scheffer, C., De Vleeschouwer, F., Le Roux, G. & Unkel, I. (2024): Mineral dust and lead deposition from land use and metallurgy in a 4800-year-old peat record from the Central Alps (Tyrol, Austria). – Quaternary International, 700-701:68–79, doi:10.1016/j.quaint.2023.03.018.
• von Stackelberg, K. (2019): PCBs. – In: Nriagu, J. (ed) Encyclopedia of Environmental Health (2nd Edition). – p. 68–77, Amsterdam (Elsevier); doi:10.1016/B978-0-12-409548-9.11921-9.
• Vong, C. Q., Gourdier, S. & Bazargan-Sabet, B. (2019): A Robust Model Coupling Subsidence with Salt Dissolution. – Mine Water Environ., 38(1):166–177, doi:10.1007/s10230-018-0552-y.
• Vonortas, N. S. & Spivack, R. N. (2006): Managing large research partnerships: Examples from the Advanced Technology Program’s Information Infrastructure for Healthcare program. – Technovation, 26(10):1101–1110, 1 Tab.; doi:10.1016/j.technovation.2005.08.011.
• Voorhis, A. D. & Dorson, D. L. (1975): Thermal convection in the Atlantis II hot brine pool. – Deep-Sea Research, 22:167–175, 5 Abb.
• Vopalka, D., Benes, P. & Doubravova, K. (2005): Modelling of uranium release from waste rock pile. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 255–262, Heidelberg (Springer).
• Voppichler, A. (2003): Der Klimastollen im Prettauer Bergwerk. – Tiroler Chronist, 92:22–23, 4 Abb.
• Vorarlberger Illwerke, A. G. (2009): Kopswerk II – Das modernste Pumpspeicherkraftwerk der Welt. – Österreichische Wasser- und Abfallwirtschaft, 61(7-8):a23–a26, 9 Abb.; doi:10.1007/s00506-009-0126-0.
• Vories, K. C. & Harrington, A. (2004): State Regulation of Coal Combustion By-Product Placement at Mine Sites – A Technical Interactive Forum (Proceedings). – 222 p., Alton (U.S. Department of the Interior).
• Vories, K. C. & Harrington, A. (2006): Flue Gas Desulfurization (FGD) By-Products at Coal Mines and Responses to the National Academy of Sciences Final Report “Managing Coal Combustion Residues in Mines” – A Technical Interactive Forum (Proceedings). – 237 p., Alton (U.S. Department of the Interior).
• Vornehm, C. (2005): Hydro-geochemische Untersuchungen zum System Niederschlag – Boden – Grundwasser im Grundgebirge des Bayerischen Waldes. – 185 p., München (Diss. LMU München [urn:nbn:de:bvb:19-40411]).
• Vornehm, C., Bender, S. & Lehrberger, G. (2002): Impact of ore deposits and anthropogenic activities on local hydrochemistry at “Silberberg”, S-Germany. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1081–1090, 7 Abb.; Heidelberg (Springer).
• Voronina, A. O., Egorova, D. O., Korsakova, E. S. & Plotnikova, E. G. (2019): Diversity of the bphA1 Genes in a Microbial Community from Anthropogenically Contaminated Soil and Isolation of New Pseudomonads Degrading Biphenyl/Chlorinated Biphenyls. – Microbiology, 88(4):433–443, doi:10.1134/s0026261719030172.
• Voss, C. (2015): Editor’s Message: University of Kansas (USA) plagiarism allegations regarding two Hydrogeology Journal articles by Dr. Marios Sophocleous. – Hydrogeol. J., 23(1):213–214, doi:10.1007/s10040-014-1215-0.
• Voss, L., Hsiao, I. L., Ebisch, M., Vidmar, J., Dreiack, N., Böhmert, L., Stock, V., Braeuning, A., Loeschner, K., Laux, P., Thünemann, A. F., Lampen, A. & Sieg, H. (2020): The presence of iron oxide nanoparticles in the food pigment E172. – Food Chem., 327:127000, doi:10.1016/j.foodchem.2020.127000.
• Voznjuk, G. G. & Gorshkov, V. A. (1983): Mine Water Utilization in the USSR National Economy. – Int. J. Mine Water, 2(1):23–30, 1 Abb.; doi:10.1007/BF02504618.
• Vrabec, M., Pavlovčič Prešeren, P. & Stopar, B. (2006): GPS study (1996—2002) of active deformation along the Periadriatic fault system in northeastern Slovenia: tectonic model. – Geol. Carpath., 57(1):57–65, 5 Abb., 1 Tab.
• Vrabec, M., Šmuc, A., Pleničar, M. & Buser, S. (2009): Geological evolution of Slovenia – An overview. – In: Pleničar, M., Bojan, O., Novak, M. & Pirc, S. (eds): The Geology of Slovenia. – p. 23–40, 17 Abb.; Ljubljana (Geološki zavod Slovenije).
• Vranesh, G. (1979): Mine Drainage – The Common Enemy: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 54–97 p., San Francisco (Freeman).
• Vrba, J. (1996): Thermal mineral water springs in Karlovy Vary. – Environ. Geol., 27:120–125, 2 Abb., 3 Tab.
• Vreček, P. & Benedik, L. (2002): Determination of 210Pb and 210Po in Sediments, Water, and Plants in an Area Contaminated with Mine Waste. – Mine Water Environ., 21(4):156–159, 2 Abb., 3 Tab.
• Vreček, P., Benedik, L., Repin, U., Stegnar, P. & Gantar, I. (2002): Radionuclides in underground water in an area contaminated with uranium mill waste. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 85–92, 5 Abb., 1 Tab.; Heidelberg (Springer).
• Vrzal, D., Prikryl, I., Truszyk, A. & Fafílková, V. (2011): Complicated water quality and stratification at the post-mining pit lake Medard near Sokolov, Czech Republic: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 551–556 p., Aachen (RWTH Aachen University).
• Vukelic, Z. (1997): Development and Optimisation of the Technology for The Velenje Coal Mine Dewatering System. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:195–201, 2 Abb., 1 Tab.
• Vutukuri, V. S. & Singh, R. N. (1993): Recent Developments in Pumping Systems in Underground Metalliferous Mining. – Mine Water Environ., 12(1-4):71–94, 18 Abb.
• Vutukuri, V. S. & Singh, R. N. (1995): Mine Inundation – Case Histories. – Mine Water Environ., 14(1-4):107–130, 12 Abb., 2 Tab.; doi:10.1007/BF02914857.
• Vylita, T. (1991): Grouting of Mine Workings in the Josef Seam of the Mary Mine. – Proceedings, 4th International Mine Water Association Congress, 2:193–197.
• Vymazal, J. (2011): Constructed Wetlands for Wastewater Treatment: Five Decades of Experience. – Environ. Sci. Technol., 45(1):61–69, 1 Tab.; doi:10.1021/es101403q.
• Wachniew, P., Czupryński, P. & Małoszewski, P. (2003): Hydraulic characteristics of constructed wetlands evaluated by means of tracer tests. – Wiss. Mitt. Inst. Geol., 24:83–89, 7 Abb., 4 Tab.
• Wachniew, P. & Rozanski, K. (1997): Carbon budget of a mid-latitude, groundwater-controlled lake: Isotopic evidence for the importance of dissolved inorganic carbon recycling. – Geochim. Cosmochim. Acta, 61(12):2453–2465, 7 Abb., 5 Tab.; doi:10.1016/S0016-7037(97)00089-6.
• Wachniew, P. & Rozanski, K. (2002): Tracers and Isotopes in constructed Wetland Studies. – Wiss. Mitt. Inst. Geol., 19:19–23.
• Wacker-Theodorakopoulos, C. (2000): Zehn Jahre Duales System Deutschland. – Wirtschaftsdienst, 80(10):628–630, 2 Tab.
• Wackwitz, T. (2002): Multitracerversuch im gefluteten Blindschacht des Bergwerks Großkogel/Tirol: Vorbereitung, Durchführung und GIS unterstützte Auswertung [Multitracer test in the flooded subvertical shaft of the Großkogel mine/Tyrol: preparation, implementation and GIS-supported evaluation]. – 104 p., 37 Abb., 17 Tab., 48 Anl.; Freiberg (Unveröff. Dipl.-Arb. TU Bergakademie Freiberg).
• Wade, P. W. (2009): Verification of a Semi-Passive Microbially-Assisted Biotechnology for Large-Scale Treatment of Acid Mine Drainage. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 567–573, 1 Tab; Pretoria (Document Transformation Technologies).
• Wagenbreth, O., Wächtler, E., Becke, A., Douffet, H., Jobst, W., Pforr, H. & Sennewald, R. (2015): Der Freiberger Bergbau – Technische Denkmale und Geschichte, 2nd edn. – 385 p., 315 Abb., 28 Tab.; Berlin (Springer); doi:10.1007/978-3-662-44764-2.
• Waggitt, P. (2001): Environmental Compliance Requirements to be Observed by Active and Closed-out Uranium Mines in Northern Australia – an Update. – Mine Water Environ., 20(4):178–189, 4 Abb.; doi:10.1007/s10230-001-8103-2.
• Waggitt, P. (2005): Environmental regulation of uranium mining in Australia. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 571–584, Heidelberg (Springer).
• Wagner, A. & Müller, C. (2011): Infiltration of groundwater to stabilize groundwater levels in the area of wetlands: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 77–78 p., Aachen (RWTH Aachen University).
• Wagner, B., Schäfer, B., Strobl, C., Mikulla, C., Spörlein, T., Barth, A. & Sieste, M. (2006): Flächendatenbank für die hydrogeologische Karte im bayerischen Bodeninformationssystem. – Grundwasser, 11(2):89–98, doi:10.1007/s00767-006-0130-2.
• Wagner, B., Töpfner, C., Lischeid, G., Scholz, M., Klinger, R. & Klaas, P. (2003): Hydrogeochemische Hintergrundwerte der Grundwässer Bayerns. – GLA Fachbericht, 21:1–250, 107 Abb., 15 Tab.
• Wagner, C. C., Amos, H. M., Thackray, C. P., Zhang, Y., Lundgren, E. W., Forget, G., Friedman, C. L., Selin, N. E., Lohmann, R. & Sunderland, E. M. (2019): A Global 3-D Ocean Model for PCBs: Benchmark Compounds for Understanding the Impacts of Global Change on Neutral Persistent Organic Pollutants. – Global Biogeochem. Cycles, 33(3):469–481, doi:10.1029/2018GB006018.
• Wagner, G. (1953): Eine neue Fundstelle von fossilführendem Jura-Restschutt auf Burgsandstein. – Geol. Bl. NO-Bayern, 3:43.
• Wagner, G., Pernicka, E. & Uerpmann, H. P. (2003): Troia and the Troad – Scientific Approaches. – 448 p., 135 Abb., 23 Tab.; Berlin (Springer); doi:10.1007/978-3-662-05308-9.
• Wagner, G. A., Pernicka, E., Seeliger, T. C., Öztunali, Ö., Baranyi, I., Begemann, F. & Schmitt-Strecker, S. (1984): Geologische Untersuchungen zur frühen Metallurgie in NW-Anatolien. – Bulletin of the Mineral Research and Exploration Institute of Turkey, 101-102:45–81, 23 Abb., 7 Tab.
• Wagner, J. C. (1963): Asbestosis in Experimental Animals. – Brit. J. Ind. Med., 20(1):1–12, 22 Abb., 1 Tab.; doi:10.1136/oem.20.1.1.
• Wagner, N. J. & Hlatshwayo, B. (2005): The occurrence of potentially hazardous trace elements in five Highveld coals, South Africa. – Int. J. Coal Geol., 63(3–4):228–246, doi:10.1016/j.coal.2005.02.014.
• Wagner, S. & Bilek, F. (2010): Übertragung eines Verfahrens zur Sulfat- und Eisenabreinigung auf bergbaubeeinflusste Grundwässer. – Wiss. Mitt. Inst. Geol., 42:27–35, 5 Abb., 4 Tab.
• Wagner, S. & Miller, H. (1993): Elementmobilisierungen bei Scherbewegungen zwischen Gesteinen unterschiedlicher Zusammensetzung. – Z. dt. geol. Ges., 144(1):129–149, 9 Abb., 4 Tab.; doi:10.1127/zdgg/144/1993/129.
• Wagner, T. & Cook, N. J. (1998): Sphalerite remobilization during multistage hydrothermal mineralization events – examples from siderite-Pb-Zn-Cu-Sb veins, Rheinisches Schiefergebirge, Germany. – Mineral. Petrol., 63(3-4):223–241, doi:10.1007/bf01164152.
• Wagner, T. & Lorenz, J. (2002): Mineralogy of complex Co-Ni-Bi vein mineralization, Bieber deposit, Spessart, Germany. – Mineral. Mag., 66(3):385–407, doi:10.1180/0026461026630036.
• Wagner, T., Okrusch, M., Weyer, S., Lorenz, J., Lahaye, Y., Taubald, H. & Schmitt, R. T. (2010): The role of the Kupferschiefer in the formation of hydrothermal base metal mineralization in the Spessart ore district, Germany: insight from detailed sulfur isotope studies. – Miner. Deposita, 45(3):217–239, doi:10.1007/s00126-009-0270-2.
• Wagner, T., Pleschberger, R., Kainz, S., Ribis, M., Kellerer-Pirklbauer, A., Krainer, K., Philippitsch, R. & Winkler, G. (2020): The first consistent inventory of rock glaciers and their hydrological catchments of the Austrian Alps. – Austrian J. Earth Sci., 113(1):1–23, doi:10.17738/ajes.2020.0001.
• Wagner, W. & Pruß, A. (2002): The IAPWS Formulation 1995 for the Thermodynamic Properties of Ordinary Water Substance for General and Scientific Use. – J. Phys. Chem. Ref. Data, 31(2):387–535, doi:10.1063/1.1461829.
• Wahl, T., Replogle, J. & Bos, M. G. (2008): WINFLUME—Windows-based software for the design of long-throated measuring flumes. –.
• Wahlang, B., Jin, J., Hardesty, J. E., Head, K. Z., Shi, H., Falkner, K. C., Prough, R. A., Klinge, C. M. & Cave, M. C. (2019): Identifying sex differences arising from polychlorinated biphenyl exposures in toxicant-associated liver disease. – Food and Chemical Toxicology, 129:64–76, doi:10.1016/j.fct.2019.04.007.
• Wahl-Clerici, R., Helfert, M. & Wiechowski, A. (2012): Três Minas – Eine Bergwerkskatastrophe mit Rettungsaktion in der römischen Kaiserzeit. – Frankfurter elektronische Rundschau zur Altertumskunde, 17:12–28, 12 Abb.
• Wahlström, M., Kaartinen, T., Mäkinen, J., Punkkinen, H., Häkkinen, A., Mamelkina, M., Tuunila, R., Lamberg, P., Gonzales, M. S., Sandru, M., Johnsen, H., Andreassen, J.-P., Harðardóttir, V., Franzson, H., Sund, C. & Jansson, K. (2017): Water Conscious Mining (WASCIOUS). – TemaNord (Nordic Council of Ministers); doi:10.6027/TN2017-525.
• Wahnee, K., Coursey, K., Norton, A., Jefferson, M., Cogburn, M., Kimbro, M., Lipe, S., Rhoney, K., Biles, T., Pankop, A., Sprowls, M., Suiter, J., Tsai, S.-M., Gillespie, C., Athay, D., Wolfard, T., Alcazar, A., Stearns, C. & Pham, V. (2000): Development of Holistic Remediation Alternatives for the Catholic 40 and Beaver Creek – Report to Governor Frank Keating’s Tar Creek Superfund Task Force. – 45 p., 20 Abb., 11 Tab.; Stillwater (University of Oklahoma).
• Wai, C. M., Reece, D. E., Trexler, B. D., Ralston, D. R. & Williams, R. E. (1980): Production of acid water in a lead-zinc mine, Coeur d’Alene, Idaho. – Environ. Geol., 3(3):159–162, doi:10.1007/bf02473491.
• Waite, T. D. & Morel, F. M. M. (1984): Photoreductive dissolution of colloidal iron oxides in natural waters. – Environ. Sci. Technol., 18(11):860–868, doi:10.1021/es00129a010.
• Wakao, N., Hanada, K., Sakurai, Y. & Shiota, H. (1978): Seasonal-Variations in Number of Acidophilic iron-oxidizing Bacteria and Iron Oxidation in the River Contaminated with Acid Mine Water. – Soil Sci. Plant Nutr., 24(4):491–501.
• Wakao, N. & Shiota, H. (1982): Effect of Temperature on the Bacterial Iron Oxidation Rate in a River contaminated with Acid-Mine Water. – J. Gen. Appl. Microbiol., 28(5):465–467.
• Wakasa, S., A., Ishiyama, D., Takeda, T., Ðorđievski, S., Hirose, K., Obradović, L., Marincović, V. & Gardić, V. (2017): Comparative Analysis of Waste Material Distribution between Remote Sensing Data and Geochemical Map. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 793–800, Lappeenranta (Lappeenranta University of Technology).
• Wakefield, A. (2010): Leibniz and the Wind Machines. – Osiris, 25(1):171–188, doi:10.1086/657268.
• Walach, G. & Weber, F. (1977): Ein Beitrag zur Hydrogeologie des Walgaues auf Grund geophysikalischer Messungen. – Verh. Geol. B.-A., 1977(2):201–208, 1 Abb.
• Walde, E. & Grabherr, G. (2006): Via Claudia Augusta und Römerstraßenforschung im östlichen Alpenraum: IKARUS – Innsbrucker klassisch-archäologische Universitätsschriften 1. – 464 p., Innsbruck (Innsbruck University Press).
• Walder, I., Wahlstrom, M., Kaartinen, T., Drielsma, J. A. & Twardowska, I. (2011): European waste characterisation standards A/NRD prevention: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 695–695 p., Aachen (RWTH Aachen University).
• Walder, I. F., Carr, D., Lee, J. S. & Williamson, A. (2004): Similarities in hydrogeochemical Processes between Ore Deposition Formation and acid Mine Drainage – Example near a Porphyry Copper Mine. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 133–140, 5 Abb., 2 Tab.; Newcastle upon Tyne (University of Newcastle).
• Walder, I. F., Nilssen, S., Räisänen, M. L., Heikkinen, P. M., Pulkkinen, K., Korkka-Niemi, K., Salonen, V.-P., Destouni, G., Hasche, A., Wolkersdorfer, Ch., Witkowski, A. J., Blachére, A., Morel, S., Lefort, D., Midžić, S., Silajdžić, I., Coulton, R. H., Williams, K. P., Rees, B., Hallberg, K. B. & Johnson, D. B. (2005): Contemporary Reviews of Mine Water Studies in Europe, Part 2. – Mine Water Environ., 24(1):2–37, 10 Abb., 13 Tab.; doi:10.1007/s10230-005-0068-0.
• Waldmann, L. (1953): Das Lebenswerk von Franz Eduard Sueß. – Jb. Geol. B.-A., 96(2):193–216.
• Walker, A. & Humphries, R. N. (1994): Modelling the Filtration of Surface Mineral Extraction Waste Water by Reed Bed Treatment Systems. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:691–702, 4 Abb., 1 Tab.
• Walker, G. D. & Perri, P. R. (2003): Advanced Reservoir Characterization in the Antelope Shale to establish the Viability of CO₂ Enhanced Oil Recovery in California’s Monterey Formation Siliceous Shale. – 159 p., 23 Abb., 14 Tab.; Bakersfield (Chevron USA Production Company).
• Walker, S. C. (1988): An Introduction to Screw-Type Pumps within the Mining Industry. – Int. J. Mine Water, 7(2):19–32, 5 Abb.
• Wallace, M. G., Johnson, K. O., Osnes, J. D., Krantz, E. L. & Hocking, C. M. (2013): Hydrogeological and Geochemical Evaluations in Support of Mine Water Management for the Jurong Rock Cavern Project, Singapore. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 899–903, 3 Abb., 1 Tab.; Golden (International Mine Water Association).
• Wallace, S. D., Higgins, J., Crolla, A., Kinsley, C., Bachand, A. & Verkuijl, S. (2006): High-Rate Ammonia Removal in Aerated Engineered Wetlands. Paper presented at the 10th International Conference on Wetland Systems for Water Pollution Control, Lisbon. – p. 255–262, 4 Abb., 2 Tab.; Lisbon (IWA Publishing).
• Wallin, J. (2021): County of Nevada –Voter Survey Toplines Idaho-Maryland Gold Mine. J. Wallin Opinion Research, Newport Beach, 11.
• Walls, D. B., Boyce, A. J., Banks, D. & Burnside, N. M. (2023): The occurrence of elevated δ34S in dissolved sulfate in a multi-level coal mine water system, Glasgow, UK. – Int. J. Coal Geol., 272:104248, doi:10.1016/j.coal.2023.104248.
• Walls, J. M. & James, A. R. (2009): A Relook at the Slope Geometry of Mine Residue Deposits in Terms of Erosion, Soil Formation, Vegetation Cover and Water Quality. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 807–822, 4 Abb., 3 Tab; Pretoria (Document Transformation Technologies).
• Wällstedt, T. & Borg, H. (2005): Metal burdens in surface sediments of limed and nonlimed lakes. – Sci. Total Environ., 336(1-3):135–154, 3 Abb., 5 Tab.
• Walser, C. (2009): Bergbau, Knappen & Archäologen. – Montafoner Standpunkt, 9(3):14–15, 5 Abb.
• Walsh, B., van der Plank, S. & Behrens, P. (2017): The effect of community consultation on perceptions of a proposed mine: A case study from southeast Australia. – Resour. Policy, 51:163–171, doi:10.1016/j.resourpol.2016.12.006.
• Walsh, K., Brown, A. G., Gourley, B. & Scaife, R. (2017): Archaeology, hydrogeology and geomythology in the Stymphalos valley. – J. Archaeolog. Sci. Rep., 15:446–458, doi:10.1016/j.jasrep.2017.03.058.
• Waltenberger, A. (1882): Orographie des Wetterstein-Gebirges und der Miemingerkette – Mit einem Vorwort und Ersteigungslinien von Hermann von Barth. – 5 Kart.; Augsburg (Lampart).
• Walter, K. & Friedmann, J. (2007): Fire in the Hole – Underground coal gasification may provide a secure energy supply and reduce greenhouse gas emissions. – Science & Technology Review, 2007(4):12–18, 5 Abb., 1 Tab.
• Walter, S. (2019): Storytelling Via Digital Media As A Success Factor In Education For Geological Specialties. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 759–764; Perm, Russia (Perm State University).
• Walter, S. (2021): Akzeptanzkommunikation in der Energie- und Rohstoffwirtschaft – Chancen und Grenzen für kleine und mittlere Unternehmen zur Verbesserung des Akzeptanzniveaus am Beispiel des Freistaats Sachsen [Acceptance Communication in the Energy and Raw Materials Industry – Opportunities and Limitations for Small and Medium-Sized Enterprises to Improve the Acceptance Level Using the Free State of Saxony as Example]. – 136 p., Doctoral thesis, Technische Universität Bergakademie Freiberg; Freiberg.
• Walter, S., Mugova, E. & Wolkersdorfer, Ch. (2022): Public Opinion on Mine Water in Three Former German Hard Coal Mining Regions. Paper presented at the IMWA 2022 – Reconnect, Christchurch. – p. 541–543, 1 Abb., 1 Tab.; Christchurch (International Mine Water Association).
• Walter, T. (2006): Identifizierung der Grundwasserkörper nach EU-WRRL im Saarland und Ermittlung regionaler hydrogeochemischer Hintergrundwerte. – Wiss. Mitt. Inst. Geol., 31:339–346, 6 Abb., 1 Tab.
• Walter, T. M. (2025): Sensible communication strategy in mine water related licensing processes. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 670–675; Braga (International Mine Water Association).
• Walters, E. R., Behum, P. T. & Lefticariu, L. (2013): Sulfate Reducing Bioreactor Dependence on Organic Substrates for Long-Term Remediation of Acid Mine Drainage: Field Experiments. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 747–747, Golden (International Mine Water Association).
• Walther, A., Hoth, N., Büttcher, H., Bilek, F., Geißler, M., Struzina, M. & Lucke, B. (2014): Prediction of Sulfate Concentrations and Mass Fluxes in Aquifers Influenced by Lignite Mining in the South of Leipzig (Germany). – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 142–146, Xuzhou (International Mine Water Association).
• Walther, A., Hoth, N., Büttcher, H., Weber, A., Geißler, M., Struzina, M. & Lucke, B. (2015): Final Outcome of Sulfate Transport Modelling and a Prediction of Ground and Surface Water Quality in Aquifers Influenced by Lignite Mining in Germany. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Walton, K. C. & Johnson, D. B. (1992): Microbiological and Chemical Characteristics of an Acidic Stream Draining a Disused Copper Mine. – Environ. Pollut., 76(2):169–175, doi:10.1016/0269-7491(92)90105-J.
• Walton-Day, K. (1999): Geochemistry of the Processes that Attenuate Acid Mine Drainage in Wetlands. – In: Plumlee, G. S. & Logsdon, M. J. (eds): The Environmental Geochemistry of Mineral Deposits 6A. – p. 215–228, 4 Abb.; Littleton (Society of Economic Geologists).
• Walton-Day, K. (2003): Passive and active treatment of mine drainage. – In: Jambor, J. L., Blowes, D. W. & Ritchie, A. I. M. (eds): Environmental Aspects of Mine Wastes 31. – p. 335–359, 8 Abb.; Waterloo, Ontario (Mineralogical Association of Canada).
• Walton-Day, K., Flynn, J. L., Kimball, B. A. & Runkel, R. L. (2005): Mass loading of selected major and trace elements in Lake Fork Creek near Leadville, Colorado, September–October 2001. – U. S. Geol. Surv. Sci. Investig. Rep., 2005-5151 doi:10.3133/sir20055151.
• Walton-Day, K., Gusek, J. & Newman, C. P. (2022): Opportunities to Improve Water Quality during Abandoned Mine-Tunnel Reclamation. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 545–551; (International Mine Water Association).
• Walton-Day, K., Mill, T. J., Adolph, A., Dee, K. T., Relego, M. R. & Borbely, C. (2013): The Water-Quality Effects of a Bulkhead Installed in the Draining Dinero Mine Tunnel, near Leadville, Colorado. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1157–1163, 2 Abb., 1 Tab.; Golden (International Mine Water Association).
• Walton-Day, K. & Poeter, E. (2009): Investigating hydraulic connections and the origin of water in a mine tunnel using stable isotopes and hydrographs. – Appl. Geochem., 24(12):2266–2282, doi:10.1016/j.apgeochem.2009.09.015.
• Wan, Y., Jones, P. D., Holem, R. R., Khim, J. S., Chang, H., Kay, D. P., Roark, S. A., Newsted, J. L., Patterson, W. P. & Giesy, J. P. (2010): Bioaccumulation of polychlorinated dibenzo-p-dioxins, dibenzofurans, and dioxin-like polychlorinated biphenyls in fishes from the Tittabawassee and Saginaw Rivers, Michigan, USA. – Sci. Total Environ., 408(11):2394–2401, doi:10.1016/j.scitotenv.2010.02.003.
• Wandinger, M. (1999): Water-related Issues in Permafrost Mining, with Special Emphasis on the Coal Mining of Spitsbergen (Norway). – Mine Water Environ., 18(1):67–74, 2 Abb.
• Wandinger, M. (2002): Die Kirchen zu Biberwier (Tirol) und ihr Bezug zum Bergbau. – res montanarum, 29:9–17, 10 Abb.
• Wang, A., Duncan, S. E. & Dietrich, A. M. (2016): Effect of iron on taste perception and emotional response of sweetened beverage under different water conditions. – Food. Qual. Prefer., 54:58–66, doi:10.1016/j.foodqual.2016.06.016.
• Wang, B., Dong, X. L., Chen, B. & Dou, T. T. (2019): Hydraulic Conductivity of Geosynthetic Clay Liners Permeated with Acid Mine Drainage. – Mine Water Environ., 38(3):658–666, doi:10.1007/s10230-019-00611-7.
• Wang, B., Liu, S., Hao, Z. & Zhang, X. (2014): Water Content Estimation of Aquifer Using Transient Electromagnetic Method. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 286–291, Xuzhou (International Mine Water Association).
• Wang, C. (2016): Graphic methods for judging sources of roof water inrush – a case study, China. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1074–1077, Freiberg (TU Bergakademie Freiberg).
• Wang, C. (2018): Facing challenges of closure boom of Permo-Carboniferous underground coalmines in North China: a medium-size hydrogeochemical simulation experiment. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 70–73; (Tshwane University of Technology).
• Wang, C., Bai, H. & Liu, S. (2010): Mine Water Issues in China. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 445–449, Sydney, NS (Cape Breton University Press).
• Wang, C., Bai, H., Liu, S., Mao, X., Yu, J. & Liu, Y. (2013): Integrated methods to determine the optimal underlying grouting strata against hazardous waterinrush (China)-a case study. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 219–221, 2 Abb.; Golden (International Mine Water Association).
• Wang, C. & Li, Q. (2019): Hydrogeochemical And Water Cycle Features Of Groundwater At A Western Arid Coal Mine In The Ordos Jurassic Coal Province, China. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 463–466; Perm, Russia (Perm State University).
• Wang, C., Sun, Y., Miao, X. & Yang, G. (2008): History of Water Conservation in Shendong Mining Area, China. – Proceedings, 10th International Mine Water Association Congress:43–45.
• Wang, C.-B. & Zhang, W.-X. (1997): Synthesizing Nanoscale Iron Particles for Rapid and Complete Dechlorination of TCE and PCBs. – Environ. Sci. Technol., 31(7):2154–2156, doi:10.1021/es970039c.
• Wang, C. S. (2009): Potential Impact of Mining Activity on Xin’An Karst System, Shanxi, China. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 199–205, 11 Abb; Pretoria (Document Transformation Technologies).
• Wang, D., Ma, Y., Wang, Y., Liu, B. & Wang, Y. (2014): Research on the No.8 Coal Roof Aquifer Drain in No.2 North District of Donghuantuo Coal Mine, Kailuan. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 73–80, Xuzhou (International Mine Water Association).
• Wang, D. & Sui, W. (2022): Hydrogeological Effects of Fault Geometry for Analysing Groundwater Inflow in a Coal Mine. – Mine Water Environ., 41(1):93–102, doi:10.1007/s10230-021-00795-x.
• Wang, F., Wang, Y. & Jing, C. (2021): Application Overview of Membrane Separation Technology in Coal Mine Water Resources Treatment in Western China. – Mine Water Environ., 40(2):510–519, doi:10.1007/s10230-021-00781-3.
• Wang, F., Xu, J. L., Chen, S. J. & Ren, M. Z. (2019): Method to Predict the Height of the Water Conducting Fractured Zone Based on Bearing Structures in the Overlying Strata. – Mine Water Environ., 38(4):767–779, doi:10.1007/s10230-019-00638-w.
• Wang, H. (2024): The Influence of a Loose Layer Water Cut-off Curtain on the Slope Stability of Open-pit Coal Mines. – Mine Water Environ., 43(3):529–539, doi:10.1007/s10230-024-00996-0.
• Wang, H., Dong, S. N., Chai, R., Qiao, W., Yang, J., Liu, J., Zhou, L. S., Zhou, Z. F., Liu, Z. X. & Shang, H. B. (2021): The Water Resisting Properties of the Top Portion of the Ordovician Limestone Aquifer in the North China Coalfield. – Mine Water Environ., 40(3):690–700, doi:10.1007/s10230-021-00783-1.
• Wang, H., Moo, J. G. S. & Pumera, M. (2014): Tissue cell assisted fabrication of tubular catalytic platinum microengines. – Nanoscale, 6(19):11359–11363, doi:10.1039/c4nr03720k.
• Wang, H., Zhao, G. J. & Pumera, M. (2014): Beyond Platinum: Bubble-Propelled Micromotors Based on Ag and MnO2 Catalysts. – J. Am. Chem. Soc., 136(7):2719–2722, doi:10.1021/ja411705d.
• Wang, J. (2014): New Technology of Preventing and Controlling Underground Water Hazard for Chinese Underground Non-coal Mining. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 468–473, Xuzhou (International Mine Water Association).
• Wang, J., Zhang, Q., Wang, Y. & Gao, D. (2022): Detection and Sealing Technology of River-goaf Water Supply Channel and Their Application. Paper presented at the IMWA 2022 – Reconnect, Christchurch, New Zealand. – p. 553–558; (International Mine Water Association).
• Wang, J. S. Y., Trautz, R. C., Cook, P. J., Finsterle, S., James, A. L. & Birkholzer, J. (1999): Field Tests and Model Analyses of Seepage into Drift. – J. Contam. Hydrol., 38(1-3):323–347.
• Wang, L. P., Ponou, J., Matsuo, S., Okaya, K., Dodbiba, G., Nazuka, T. & Fujita, T. (2013): Integrating sulfidization with neutralization treatment for selective recovery of copper and zinc over iron from acid mine drainage. – Miner. Eng., 45:100–107, 11 Abb., 2 Tab.; doi:10.1016/j.mineng.2013.02.011.
• Wang, M. & Li, J. (1987): Technology of Mine Water Control in China. – Int. J. Mine Water, 6(3):25–38, 7 Abb.
• Wang, Q., Dong, S., Wang, H., Yang, J., Zhao, C., Dong, X. & Wang, T. (2020): Effects of Groundwater Table Decline on Vegetation Transpiration in an Arid Mining Area: A Case Study of the Yushen Mining Area, Shaanxi Province, China. – Mine Water Environ., 39(4):839–850, doi:10.1007/s10230-020-00714-6.
• Wang, Q., Wang, T. & Wang, X. (2017): Exploration Of Cambrian Limestone Groundwater Runoff Zone Based On Downhole Communication Test. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 117–123, Lappeenranta (Lappeenranta University of Technology).
• Wang, Q., Wang, X. & Hou, Q. (2016): Geothermal Water at a Coal Mine: From Risk to Resource. – Mine Water Environ., 35(3):294–301, doi:10.1007/s10230-015-0352-6.
• Wang, Q., Wang, X., Liu, X., Zhen, X., Guo, J., Chen, G. & Zhang, B. (2018): Prevention of Groundwater Disasters in Coal Seam Floors Based on TEM of Cambrian Limestone. – Mine Water Environ., 37(2):300–311, doi:10.1007/s10230-017-0500-2.
• Wang, R. & Sang, S. (2014): Summary of Water Resources Supervision of Shale Gas Lifecycle in America and Revelations to China. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 685, Xuzhou (International Mine Water Association).
• Wang, T., Wang, X. & Wang, Q. (2017): Research On Transformation Characteristics Of Humic Acid Based On Improved Three-dimensional Fluorescence Regional Integral. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 814–821, Lappeenranta (Lappeenranta University of Technology).
• Wang, W., Bai, J., Zhang, G., Jia, J., Wang, X., Liu, X. & Cui, B. (2019): Occurrence, sources and ecotoxicological risks of polychlorinated biphenyls (PCBs) in sediment cores from urban, rural and reclamation-affected rivers of the Pearl River Delta, China. – Chemosphere, 218:359–367, doi:10.1016/j.chemosphere.2018.11.046.
• Wang, W., Li, Z., Du, F., Cao, Z. & Li, G. (2023): Study of Roof Water Inrush Control Technology and Water Resources Utilization During Coal Mining in a Karst Area. – Mine Water Environ., 42(4):546–559, doi:10.1007/s10230-023-00953-3.
• Wang, W., Zhang, H., Zheng, L., Zhang, Y.-b., Wu, Y.-q. & Liu, S.-g. (2017): A new approach for modeling landslide movement over 3D topography using 3D discontinuous deformation analysis. – Comput. Geotech., 81:87–97, doi:10.1016/j.compgeo.2016.07.015.
• Wang, X., Chen, C., Chang, Y. & Liu, H. (2009): Dechlorination of chlorinated methanes by Pd/Fe bimetallic nanoparticles. – J. Hazard. Mater., 161(2):815–823, doi:10.1016/j.jhazmat.2008.04.027.
• Wang, X., Li, S., Xu, Z., Lin, P., Hu, J. & Wang, W. (2019): Analysis of Factors Influencing Floor Water Inrush in Coal Mines: A Nonlinear Fuzzy Interval Assessment Method. – Mine Water Environ., 38(1):81–92, doi:10.1007/s10230-018-00578-x.
• Wang, X., Liu, L., Ma, L., Deng, R., Yang, Y. & Zhou, J. (2025): Treatment of copper-containing acid mine drainage by combined use of multiple technologies. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1011–1016; Braga (International Mine Water Association).
• Wang, X. Y., Li, F., Kan, X. D., Guo, S. T., Li, W. J. & Luo, W. J. (2022): Optimal Scheduling of a Mine Water Drainage System Based on Improved Particle Swarm Optimization Algorithm: A Case Study of the Guhanshan Coal Mine, China. – Mine Water Environ., 41(2):475–486, doi:10.1007/s10230-022-00866-7.
• Wang, X. Y., Wang, T. T., Wang, Q., Liu, X. M., Li, R. Z. & Liu, B. J. (2017): Evaluation of Floor Water Inrush based on Fractal Theory and an Improved Analytic Hierarchy Process. – Mine Water Environ., 36(1):87–95, doi:10.1007/s10230-016-0407-3.
• Wang, Y. (2014): Application of Audio Frequency Electric Perspective in Detecting Work Face Limestone Base for Grouting Reconstruction. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 339, Xuzhou (International Mine Water Association).
• Wang, Y., Liu, Z., Wu, X. & Shi, L. (2024): Characteristics and Trend Prediction of Groundwater Chemical Evolution Under the Influence of Sea Water in the Jiaojia Gold Mining Area, China. – Mine Water Environ., 43(1):53–72, doi:10.1007/s10230-023-00968-w.
• Wang, Y., Ma, Y., Liu, B. & Wang, D. (2014): Analysis on Fault Zone Characteristics and Disaster Reason Inducing Alluvium Material Burst into Coal Mine. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 113, Xuzhou (International Mine Water Association).
• Wang, Y., Qiu, M., Shi, L., Xu, D., Liu, T. & Qu, X. (2019): A GIS-based Model of Potential Groundwater Yeld Zonation for A Sandstone Aquifer based on the EWM and TOPSIS Methods. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 387–393; Perm, Russia (Perm State University).
• Wang, Y., Shi, L., Gao, W., Xu, D., Liu, T. & Qu, X. (2019): Prediction of the Confined Water Rising Zone in a Coal Floor Based on Fuzzy Theory (Fuzzy) – Gray Relation Analysis (GRA) – Particle Swarm Optimization(PSO) – Support Vector Regression (SVR). Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 53–58; Perm, Russia (Perm State University).
• Wang, Y., Xie, X., Ge, Q., Liu, J., Zhang, Y., Wu, Y. & Pu, Z. (2023): A Sedimentary Facies-Based Method to Control Water Hazards in the Roof of Deep Jurassic Coals. – Mine Water Environ., 42(2):240–250, doi:10.1007/s10230-023-00930-w.
• Wang, Z. (2014): Ordovician Limestone Karst Water Disaster Prevention and Control Technology for Feicheng Coal Field. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 459–467, Xuzhou (International Mine Water Association).
• Wang, Z., Jin, Y., Shen, C., Li, T., Huang, Y. & Li, B. (2016): Spontaneous Detachment of Colloids from Primary Energy Minima by Brownian Diffusion. – PloS one, 11(1):e0147368, doi:10.1371/journal.pone.0147368.
• Wang, Z., Li, W., Yin, S. & Li, J. (2014): The Research on the Height of the ‘Two Zones’ in Xiegou Mine Areas, Shanxi, China ·. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 618–623, Xuzhou (International Mine Water Association).
• Wang, Z., Zhao, Z., Liu, H., Wu, Q., Ren, H., Li, X. & Wang, H. (2024): Field Experimental Study of Sulfuric Acid Extraction from Acid Mine Drainage. – Mine Water Environ., 43(4):623–632, doi:10.1007/s10230-024-01007-y.
• Wang, Z., Zheng, J., Tang, J., Wang, X. & Wu, Z. (2016): A pilot-scale forward osmosis membrane system for concentrating low-strength municipal wastewater: performance and implications. – Sci. Reports, 6:21653, doi:10.1038/srep21653.
• Wang, Z. Y., Wang, C. L., Wang, Z. D. & Jia, S. Y. (2011): Mine Internet of Things based on Neural Network and its Research and Application. – In: Zeng, D. (ed) Materials, Mechatronics and Automation, Pts 1-3 467-469. – p. 1746–1752, Stafa-Zurich (Trans Tech); doi:10.4028/www.scientific.net/KEM.467-469.1746.
• Wanghua, S., Yue, G. & Fuyuan, F. (2012): An evaluation on coal mining safety above high pressure confined aquifers in a deep coalmine: International Mine Water Association Symposium. – 735–744 p., Bunbury (Edith Cowan University).
• Wanner, G. (2000): Die Anfänge der Geowissenschaften in Vorarlberg. – Jb. Vorarlberger Landesmus.ver.:67–80.
• Wanner, P., Al-Sulaimani, M. Y. N., Waber, N. & Wanner, C. (2015): Assessing the Environmental Hazard of Using Seawater for Ore Processing at the Lasail Mine Site in the Sultanate of Oman. – Mine Water Environ., 34(1):59–74, doi:10.1007/s10230-014-0281-9.
• Waples, J., Jones, T., Aguierre, G. & Wisskirchen, C. (2015): Evaluation of Lag Times for Tailings in Extreme Arid Climates by Long-Term and Delayed-Rinse Kinetic Tests. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Ward, A. D. & Trimble, S. W. (2003): Environmental hydrology, 2nd edn. – 475 p., Boca Raton (Taylor & Francis).
• Ward, J. H. W. (1995): Geology and metallogeny of the Barberton greenstone belt: a survey. – J. Afr. Earth Sci., 21(2):213–240, doi:10.1016/0899-5362(95)00067-4.
• Ward, L. A., Cain, O. L., Mullally, R. A., Holliday, K. S., Wernham, A. G. H., Baillie, P. D. & Greenfield, S. M. (2009): Health beliefs about bottled water: a qualitative study. – BMC Public Health, 9(1):196, doi:10.1186/1471-2458-9-196.
• Ward, R. C. (1971): Measuring Evapotranspiration – A Review. – J. Hydrol., 13:1–21.
• Ward, R. S., Harrison, I., Leader, R. U. & Williams, A. T. (1997): Fluorescent polystyrene microspheres as tracers of colloidal and particulate materials – Examples of their use and developments in analytical technique. – In: Kranjc, A. (ed) Tracer Hydrology 97 – International Symposium of Underground Water Tracing 7. – p. 99–103, 4 Abb., 1 Tab.; Rotterdam (Balkema).
• Ward, R. S., Williams, A. T., Barker, J. A., Brewerton, L. J. & Gale, I. N. (1998): Groundwater Tracer Tests – A Review and Guidelines for their use in British Aquifers. – Brit. Geol. Surv. Techn. Rep., WD/98/19:114, 16 Abb., 21 Tab.
• Warenik-Bany, M., Maszewski, S., Mikolajczyk, S. & Piskorska-Pliszczynska, J. (2019): Impact of environmental pollution on PCDD/F and PCB bioaccumulation in game animals. – Environ. Pollut., 255:113–159, doi:10.1016/j.envpol.2019.113159.
• Warheit, D. B. (2008): How Meaningful are the Results of Nanotoxicity Studies in the Absence of Adequate Material Characterization? – Toxicol. Sci., 101(2):183–185, doi:10.1093/toxsci/kfm279.
• Warhurst, A. (1994): Environmental best-practice in metals production. – In: Hester, R. E. & Harrison, R. M. (eds): Mining and its Environmental Impact 1. – p. 133–160, (The Royal Society of Chemistry); doi:10.1039/9781847551467-00133.
• Warhurst, A. & Mitchell, P. (2000): Corporate Social Responsibility and the Case of Summitville Mine: Mine Closure in Iberoamerica. – 117–135 p., Rio de Janeiro (Cyted – Imacc – Unido).
• Warhurst, A. & Noronha, M. L. (1999): Environmental Policy in Mining – Corporate Strategy and Planning for Closure. – 532 p., Boca Raton (CRC Press).
• Waring, C. & Peterson, M. (2008): Mine Subsidence Induced Hydraulic Connection Tested by Geochemical and Geophysical Tracing Techniques. – Proceedings, 10th International Mine Water Association Congress:47–50.
• Waring, C. L. & Hankin, S. I. (1999): Trial Results from a new electrokinetic geophysical Technique for Remote Measurement of Sub-Surface Hydraulic Conductivity. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 825–828, 7 Abb.; Sevilla (International Mine Water Association).
• Waring, C. L. & Taylor, J. R. (1999): A new technique for building in-situ sub-surface hydrologic barriers: NBT. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 663–665, 3 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Warjri, S. M. & Syiem, M. B. (2018): Analysis of Biosorption Parameters, Equilibrium Isotherms and Thermodynamic Studies of Chromium (VI) Uptake by a Nostoc sp. Isolated from a Coal Mining Site in Meghalaya, India. – Mine Water Environ., 37(4):713–723, doi:10.1007/s10230-018-0523-3.
• Warkentin, D., Chow, N. & Nacu, A. (2010): Expanding Sulphide Use for Metal Recovery from Mine Water. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 195–199, Sydney, NS (Cape Breton University Press).
• Warma, A. (1975): Outokumpu Oy:n Aijalan ja Metsämontun kaivosten vaiheita [Outokumpu Ltd: The Ajala and Metsämonttu operations]. – Vuoriteollisuus – Bergshanteringen, 33:94–98, 2 Abb., 2 Tab.
• Warren, B. J. (2013): Selenium in mine waters: a review. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 481–485, Golden (International Mine Water Association).
• Warren, C. J., Kaback, D., Inci, G. & Neff, D. (2015): Predicting Water Quality for a High Altitude Mine Waste Facility in Peru. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Warren, J. E. & Root, P. J. (1963): The Behavior of Naturally Fractured Reservoirs. – SPE Journal, 228:245–255, 9 Abb.
• Warrender, R., Pearce, N., Perkins, B., Brown, A., Sapsford, D., Bowell, R. & Dey, M. (2010): Field Trials of Low-Cost Permeable Reactive Media for the Passive Treatment of Circum-Neutral Metal Mine Drainage in mid-Wales, UK. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 291–295, 2 Abb., 1 Tab.; Sydney, NS (Cape Breton University Press).
• Warrender, R. & Pearce, N. J. G. (2007): Remediation of circum-neutral, low-iron Waters by permeable reactive Media: Water in Mining Environments. – 289–293 p., 3 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Warrender, R., Pearce, N. J. G., Perkins, W. T., Florence, K. M., Brown, A. R., Sapsford, D. J., Bowell, R. J. & Dey, M. (2011): Field Trials of Low-Cost Permeable Reactive Media for the Passive Treatment of Circum-Neutral Metal Mine Drainage in mid-Wales, UK. – Mine Water Environ., 30(2):82–89, 4 Abb., 3 Tab.; doi:10.1007/s10230-011-0150-8.
• Wartmann, H. (1863): Urkundenbuch der Abtei Sanct Gallen – Auf Veranstaltung der Antiquarischen Gesellschaft in Zürich bearbeitet: Theil I. Jahr 700–840. – 360 p., Zürich (Höhr).
• Wartmann, H. (1866): Urkundenbuch der Abtei Sanct Gallen – Auf Veranstaltung der Antiquarischen Gesellschaft in Zürich bearbeitet: Theil II. Jahr 840–920. – 514 p., Zürich (Höhr).
• Warwick, K. G., Ryan, M. & Wright, I. A. (2024): Biomagnification of potentially toxic elements from Tahmoor Colliery, Bargo NSW, from water and sediment into the surrounding biota and fur of the iconic Australian platypus (Ornithorhynchus anatinus). Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 627–633; Morgantown (International Mine Water Association).
• Wasserstein, B. (1933): Zur Petrogenesis des Burgsandsteins zwischen Nürnberg und Weißenburg i. B. mit besonderer Berücksichtigung der selteneren Bestandteile. – N. Jb. Min. Geol. Pal. Beil., B 70(3):335–392, 2 Abb., 9 Tab., 43 Taf.
• Water Quality Branch, S. & Approvals Division Alberta, E. (1991): Tracer-Dye Study Guidelines. – 9 p., (Alberta Environment).
• Waterhouse, J. (1988): Special Problems of Management – General Report. – Proceedings, 3rd International Mine Water Congress, Melbourne:803–807.
• Waterhouse, J., Crisostomo, J., Nolan, D. & Dutton, A. (2008): An Integration of Hydrogeology and Geotechnical Engineering for the Design of the Tutupan Coal Mine T100 Low Wall, South Kalimantan, Indonesia. – Proceedings, 10th International Mine Water Association Congress:81–84.
• Waterhouse, J. & Friday, R. (2000): The line or not to line – the effect of geometry on seepage rates from tailings storage facilities. – Proceedings, 7th International Mine Water Association Congress:482–491, 4 Abb., 2 Tab.
• Waterhouse, J., Murie, A. & Thomson, D. (2003): Groundwater inflows and management at Emily Ann and Maggie Hays underground Nickel mines, Western Australia. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 73–81, 5 Abb.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Waterhouse, J. & Wicenciak, C. (2012): Experience-based approaches to coal mine groundwater evaluation in Kalimantan, Indonesia: International Mine Water Association Symposium. – 55–62 p., Bunbury (Edith Cowan University).
• Waterhouse, J. D. (2019): Integrating Hydrogeology with Geotechnical Engineering. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 564–569; Perm, Russia (Perm State University).
• Waters, A. S. & Webster-Brown, J. G. (2016): Is Dilution a Solution to Aluminium Toxicity in an Acid Mine Drainage Affected Stream on the Stockton Plateau, New Zealand? – Mine Water Environ., 35(2):235–242, doi:10.1007/s10230-016-0387-3.
• Waters, C. N., Zalasiewicz, J., Summerhayes, C., Barnosky, A. D., Poirier, C., Gałuszka, A., Cearreta, A., Edgeworth, M., Ellis, E. C., Ellis, M., Jeandel, C., Leinfelder, R., McNeill, J. R., Richter, D. d., Steffen, W., Syvitski, J., Vidas, D., Wagreich, M., Williams, M., Zhisheng, A., Grinevald, J., Odada, E., Oreskes, N. & Wolfe, A. P. (2016): The Anthropocene is functionally and stratigraphically distinct from the Holocene. – Science, 351(6269):aad2622–1–aad2622–10, doi:10.1126/science.aad2622.
• Waterston, K., Bejan, D. & Bunce, N. J. (2006): Electrochemical oxidation of sulfide ion at a boron-doped diamond anode. – J. Appl. Electrochem., 37(3):367–373, 4 Abb.; doi:10.1007/s10800-006-9267-z.
• Watson, A., Van Zyl, D. & Goodwill, J. Proceedings of the Fourth Annual International Conference on Mine Water Solutions. Mine Water Solutions 2022, Vancouver, 2022. University of British Columbia, 523 S.
• Watson, F. W. & Cooper, R. A. (1921): The acidity of mine waters. – J. Chem., Metall. Min. Soc. S. Afr., 22:30–34.
• Watson, I. A. (2007): Managing Minewater in abandoned Coalfields using engineered Gravity Discharges: Water in Mining Environments. – 355–359 p., 3 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Watson, I. A., Taylor, K., Sapsford, D. J. & Banks, D. (2009): Tracer testing to investigate hydraulic performance of a RAPS Treating Mine Water in South Wales. Paper presented at the Proceedings Securing the Future 2009 & 8th ICARD, Skellefteå. – p. 1–10 [electronic document], 3 Abb., 2 Tab.
• Watson, J. O. & Brown, E. T. (1982): Analysis of plane Groundwater flow by the Boundary Integral Equation Method. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:295–310, 5 Abb., 1 Tab.
• Watten, B. J. & Schwartz, M. F. (1996): Carbon Dioxide Pretreatment of AMD for Limestone Diversion Wells. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 17:J–1–10, 10 Abb.
• Watten, B. J., Sibrell, P. L. & Schwartz, M. F. (2004): Effect of acidity and elevated PCO2 on acid neutralization within pulsed limestone bed reactors receiving coal mine drainage. – Environ. Eng. Sci., 6:786–802, 10 Abb., 2 Tab.; doi:10.1089/ees.2004.21.786.
• Watten, B. J., Sibrell, P. L. & Schwartz, M. F. (2005): Acid neutralization within limestone sand reactors receiving coal mine drainage. – Environ. Pollut., 137(2):295–304, doi:10.1016/j.envpol.2005.01.026.
• Watts, H. D., Tribe, L. & Kubicki, J. D. (2014): Arsenic Adsorption onto Minerals: Connecting Experimental Observations with Density Functional Theory Calculations. – Minerals, 4(2):208–240, doi:10.3390/min4020208.
• Watzel, R. (2022): Minerals for future technologies: how Germany copes with challenges. – Spec. Publ. – Geol. Soc. London, 526(1) doi:10.1144/sp526-2022-12.
• Watzlaf, G. R. & Ackman, T. E. (2006): Underground Mine Water for Heating and Cooling using Geothermal Heat Pump Systems. – Mine Water Environ., 25(1):1–14, 9 Abb., 2 Tab.
• Watzlaf, G. R., Kairies, C. L., Schroeder, K. T., Danehy, T. & Beam, R. (2002): Quantitative Results from the Flushing of four Reducing and Alkalinity-Producing Systems. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 23:1–11, 5 Abb., 2 Tab.
• Watzlaf, G. R., Schroeder, K. T. & Kairies, C. L. (2000): Long-term performance of anoxic limestone drains. – Mine Water Environ., 19(2):98–110, 3 Abb., 5 Tab.
• Watzlaf, G. R., Schroeder, K. T. & Kairies, C. L. (2000): Long-Term Perpormance of Alkalinity-Producing Passive Systems for the Treatment of Mine Drainage. Paper presented at the Proceedings National Meeting of the American Society for Surface Mining and Reclamation, Tampa. – p. 262–274, 4 Abb., 5 Tab.
• Waugh, W. J., Smith, G. M., Bergman-Tabbert, D. & Metzler, D. R. (2001): Evolution of Cover Systems for the Uranium Mill Tailings Remedial Action Project, USA. – Mine Water Environ., 20(4):190–197, 3 Abb.; doi:10.1007/s10230-001-8104-1.
• Waybrant, K. R., Blowes, D. W. & Ptacek, C. J. (1998): Selection of Reactive Mixtures for Use in Permeable Reactive Walls for Treatment of Mine Drainage. – Environ. Sci. Technol., 32(13):1972–1979, doi:10.1021/es9703335.
• Waybrant, K. R., Ptacek, C. J. & Blowes, D. W. (2002): Treatment of mine drainage using permeable reactive barriers: column experiments. – Environ. Sci. Technol., 36(6):1349–1356, 8 Abb., 7 Tab.; doi:10.1021/es010751g.
• Waychunas, G. A., Kim, C. S. & Banfield, J. F. (2005): Nanoparticulate iron oxide minerals in soils and sediments: unique properties and contaminant scavenging mechanisms. – Journal of Nanoparticle Research, 7(409-433) 13 Abb., 1 Tab.
• Waygood, C. G. & Ferreira, S. (2009): A Review of the Current Strategy for Capping Mining Spoils. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 738–745, 5 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Weaver, B. (1990): A Guide to the Geology of Saint Helena, 1st edn. – 25 p., 7 Abb., 1 Tab.; Norman (University of Oklahoma).
• Weaver, J. M. C., Cave, L. & Talma, A. S. (2007): Groundwater Sampling – A Comprehensive Guide for Sampling Methods. – (Report Nr. WRC TT 303/07). – 168 p., Pretoria (Water Research Commission).
• Webb, J. A. & Garland, C. (1996): A mass balance study of acid mine drainage at Queenstown, Western Tasmania. – Abstracts – Geological Society of Australia, 41:465.
• Webb, J. A. & Sasowsky, I. D. (1994): The interaction of acid mine drainage with a carbonate terrane: evidence from the Obey River, north-central Tennessee. – J. Hydrol., 161:327–346.
• Webb, P. B. (1844): Topographie de la Troade ancienne et moderne. – Paris (Gide).
• Weber, A. (2020): Surrounded by Pit Lakes: New Landscapes After Lignite Mining in the Former German Democratic Republic. – Mine Water Environ., 39(3):658–665, doi:10.1007/s10230-020-00696-5.
• Weber, A., Bilek, F. & Lünich, K. (2019): Biological Treatment of Mining Impacted Groundwater and Streams – an Option to Meet European Legal Standards? Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 314–319; Perm, Russia (Perm State University).
• Weber, A., Bruns, S. & Wolf, P. (2023): Pit Lake Runstedt as “Reactor” for Remediation – On the Way to Better Energy Efficiency. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 523–528; (International Mine Water Association).
• Weber, A. & Kassahun, A. (2017): How Geochemical Modelling Helps Understanding Processes in Mine Water Treatment Plants – Examples from Former Uranium Mining Sites in Germany. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 672–679, Lappeenranta (Lappeenranta University of Technology).
• Weber, A., Koch, C., Totsche, O. & Bilek, F. (2016): Reactive transport modelling of iron-II and sulphate in the former Lusatian lignite mining areas. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1202–1209, Freiberg (TU Bergakademie Freiberg).
• Weber, A., Kunze, K., Wilhelm, S., Bilek, F. & Kreische-König, E. (2025): Monitoring of Water Quality in Post-Mining Pit Lakes – Why, How and How Long? Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 175–181; Braga (International Mine Water Association).
• Weber, A., Ulbricht, A., Müller, A., Gessert, A., Bilek, F. & Sommer, T. (2021): Potash Dump Leachates – Challenges from Environmental Regulatory Requirements and Climate Change. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 601–606; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Weber, B. (1837): Das Land Tirol mit einem Anhange – Vorarlberg – ein Handbuch für Reisende – Einleitung – Nordtirol (Inn‑, Lech-, Grossachenregion): 1. – 862 p., Innsbruck (Wagner).
• Weber, C. (2003): Hydrogeologische Verhältnisse der östlichen Troas/Türkei. – 134 p., 29 Abb., 15 Anh.; Freiberg (Unveröff. Dipl.-Arb. TU Bergakademie Freiberg).
• Weber, L. (1997): Handbuch der Lagerstätten der Erze, Industrieminerale und Energierohstoffe Österreichs. – Arch. f. Lagerst.forsch. Geol. B.-A., 19:607.
• Weber, L., Holnsteiner, R., Reichl, C. & Schinner, E. (2009): Ein Generationvertrag – Der österreichische Rohstoffplan. – Geologie – Die Welt unter uns, 73:34–38, 2 Abb.
• Weber, L. & Reichl, C. (2012): Darstellung des Österreichischen Bergbaus. – In: Weber, L. (ed) Der Österreichische Rohstoffplan 26. – p. 43–95, 59 Abb., 23 Tab.; Wien (Geologische Bundesanstalt Wien).
• Weber, L. & Weiss, A. (1983): Bergbaugeschichte und Geologie der Österreichischen Braunkohlenvorkommen. – Archiv für Lagerstättenforschung der Geologische Bundesanstalt, 4:1–317.
• Weber, P., Weisener, C., Diloreto, Z. & Pizey, M. (2015): Passive Treatment of ARD Using Mussel Shells – Part I: System Development and Geochemical Processes. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Weber, R. (2007): Relevance of PCDD/PCDF formation for the evaluation of POPs destruction technologies – Review on current status and assessment gaps. – Chemosphere, 67(9):S109–S117, doi:10.1016/j.chemosphere.2006.05.094.
• Weber, R., Gaus, C., Tysklind, M., Johnston, P., Forter, M., Hollert, H., Heinisch, E., Holoubek, I., Lloyd-Smith, M., Masunaga, S., Moccarelli, P., Santillo, D., Seike, N., Symons, R., Torres, J. P., Verta, M., Varbelow, G., Vijgen, J., Watson, A., Costner, P., Woelz, J., Wycisk, P. & Zennegg, M. (2008): Dioxin- and POP-contaminated sites – contemporary and future relevance and challenges – Overview on background, aims and scope of the series. – Environ. Sci. Pollut. Res. Int., 15(5):363–93, doi:10.1007/s11356-008-0024-1.
• Weber, R., Gonser, S., Kohler, J., Korner, W., Herold, C., Haag, R., Krapp, M. & Peichl, L. (2018): Biomonitoring of polychlorinated biphenyls in Bavaria/Germany-long-term observations and standardization. – Environ. Sci. Pollut. Res. Int., 25(17):16344–16354, doi:10.1007/s11356-017-1108-6.
• Weber, R., Herold, C., Hollert, H., Kamphues, J., Blepp, M. & Ballschmiter, K. (2018): Reviewing the relevance of dioxin and PCB sources for food from animal origin and the need for their inventory, control and management. – Environ. Sci. Eur., 30(1):42, doi:10.1186/s12302-018-0166-9.
• Weber, R., Herold, C., Hollert, H., Kamphues, J., Ungemach, L., Blepp, M. & Ballschmiter, K. (2018): Life cycle of PCBs and contamination of the environment and of food products from animal origin. – Environ. Sci. Pollut. Res. Int., 25(17):16325–16343, doi:10.1007/s11356-018-1811-y.
• Webster, J. G., Nordstrom, D. K. & Smith, K. S. (1994): Transport and Natural Attenuation of Cu, Zn, As, and Fe in the Acid Mine Drainage of leviathan and Bryant Creeks. – In: Alpers, C. N. & Blowes, D. W. (eds): Environmental geochemistry of Sulfide Oxidation 550. – p. 244–260, 3 Abb., 3 Tab.; New York (American Chemical Society); doi:10.1021/bk-1994-0550.ch017.
• Webster, L., Roose, L., Bersuder, P., Kotterman, M., Haarich, M. & Vorkamp, K. (2013): Determination of Polychlorinated Biphenyls (PCBs) in Sediment and Biota. – ICES Tech. Mar. Environ. Sci.,(53):18, doi:10.17895/ices.pub.5078.
• Wedepohl, K. H. (1953): Untersuchungen zur Geochemie des Zinks. – Geochim. Cosmochim. Acta, 3:93–142, 4 Abb., 1 Tab.
• Wedepohl, K. H., Correns, C. W., Shaw, D. M., Turekian, K. K. & Zemann, J. (1969): Handbook of Geochemistry. – Berlin Heidelberg New York (Springer).
• Wedepohl, K. H. & Rentzsch, J. (2006): The composition of brines in the early diagenetic mineralization of the Permian Kupferschiefer in Germany. – Contrib. Mineral. Petrol., 152(3):323, doi:10.1007/s00410-006-0105-4.
• Wedewardt, M. (1995): Hydrochemie und Genese der Tiefenwässer im Ruhr-Revier. – DMT-Berichte aus Forschung und Entwicklung, 39:1–250, 60 Abb., 10 Tab., 2 Anl.
• Wee, I., Lee, D. & Shim, D. H. (2018): Button Filtering for Converting Image to Coordinates of Swarming Drones. 18th International Conference on Control, Automation and Systems – ICCAS 2018. – p. 850–855, New York (IEEE).
• Wegener, U. (1994): Dactylorhiza majalis (RCHB.) HUNT et SUMMERHAYES – die Blume des Jahres 1994 – Massenwechsel bei unterschiedlichen Bewirtschaftungseinflüssen im Harz. – Berichte aus den Arbeitskreisen Heimische Orchideen, 11(2):57–70, 3 Abb., 2 Tab.
• Wegener, U. (1994): Pflanzversuch mit dem Breitblättrigen Knabenkraut (Dactylorhiza majalis (RCHB.) HUNT et SUMMERHAYES) im Harz. – Berichte aus den Arbeitskreisen Heimische Orchideen, 11(1):117–127, 1 Abb., 6 Tab.
• Weghuis, M. O. (2013): High rate biotechnology for the metal and mining industry. – Environ. Sci. Eng. Mag., 26(4):28–32, 8 Abb.
• Wegman, R. C. C. & Hofstee, A. W. M. (1985): Determination of PCB-Congeners in Sediment Samples Using a Retention Index System. Paper presented at the Fourth European Symposium – Organic Micropollutants in the Aquatic Environment, Wien, October 22–24,1985. – p. 162–166, 3 Abb., 3 Tab.; Dordrecht (Reidel).
• Wehling, H.-W. (2010): Die Entwicklung des Ruhrgebiets im Spiegel regionaler Strukturmodelle. – Mitt. Essener Ges. Geogr. Geol.,(1):47–58, 5 Abb.
• Wehrli, B. (1990): Redox Reactions of Metal Ions at Mineral Surfaces. – In: Stumm, W. (ed) Aquatic Chemical Kinetics – Reaction Rates of Processes in Natural Waters. – p. 311–336, 9 Abb., 4 Tab.
• Wei, D. & Sun, B. (2014): Optimization Utilization Projects of Limestone Water in Hengyuan Coal Mine. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 662–665, Xuzhou (International Mine Water Association).
• Wei, J. C., Wu, F. Z., Yin, H. Y., Guo, J. B., Xie, D. L., Xiao, L. L., Zhi, H. F. & Lefticariu, L. (2017): Formation and Height of the Interconnected Fractures Zone after Extraction of Thick Coal Seams with Weak Overburden in Western China. – Mine Water Environ., 36(1):59–66, doi:10.1007/s10230-016-0396-2.
• Wei, K., Cossey, H. L. & Ulrich, A. C. (2021): Effects of Calcium and Aluminum on Particle Settling in an Oil Sands End Pit Lake. – Mine Water Environ., 40(4):1025–1036, doi:10.1007/s10230-021-00808-9.
• Wei, L., Cai, M., Du, Y., Tang, J., Wu, Q., Xiao, T., Luo, D., Huang, X., Liu, Y., Fei, Y. & Chen, Y. (2019): Spatial Attenuation of Mining/Smelting-Derived Metal Pollution in Sediments From Tributaries of the Upper Han River, China. – Mine Water Environ., 38(2):410–420, doi:10.1007/s10230-018-00583-0.
• Wei, X. & Wolfe, F. A. (2013): Minerals and Mine Drainage. – Water Environ. Res., 85(10):1515–1547, doi:10.2175/106143013X13698672322507.
• Wei, Z., Bi, L., Xu, Y. & He, H. (2015): Evaluating knickpoint recession along an active fault for paleoseismological analysis: The Huoshan Piedmont, Eastern China. – Geomorphology, 235:63–76, doi:10.1016/j.geomorph.2015.01.013.
• Wei, Z., Dong, D., Ji, Y., Ding, J. & Yu, L. (2022): Source Discrimination of Mine Water Inrush Using Multiple Combinations of an Improved Support Vector Machine Model. – Mine Water Environ., 41(4):1106–1117, doi:10.1007/s10230-022-00884-5.
• Weichgrebe, D., Kayser, K., Zwafink, R. & Rosenwinkel, K.-H. (2014): Umweltauswirkungen von Fracking bei der Aufsuchung und Gewinnung von Erdgas insbesondere aus Schiefergaslagerstätten – Arbeitspaket 3 – Flowback – Stand der Technik bei der Entsorgung, Stoffstrombilanzen. – Texte, 53:AP3–I–AP3–126, 35 Abb., 9 Tab.
• Weidinger, J. T., Schramm, J.-M. & Surenian, R. (1996): On preparatory causal factors, initiating the prehistoric Tsergo Ri landslide (Langthang Himal, Nepal). – Tectonophysics, 260:95–107, 16 Abb.; doi:10.1016/0040-1951(96)00078-9.
• Weidner, C., Henkel, S., Lorke, S., Rüde, T. R., Schüttrumpf, H. & Klauder, W. (2011): Investigation of Clogging Processes on Vertical Filter Wells Using an Experimental Model: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 79–84 p., Aachen (RWTH Aachen University).
• Weidner, C., Henkel, S., Lorke, S., Rüde, T. R., Schüttrumpf, H. & Klauder, W. (2012): Experimental Modelling of Chemical Clogging Processes in Dewatering Wells. – Mine Water Environ., 31(4):242–251, 9 Abb., 4 Tab.; doi:10.1007/s10230-012-0188-2.
• Weidner, C., Henkel, S., Schüttrumpf, H., Rüde, T. R. & Klauder, W. (2013): Assessing the Applicability of Quaternary Sediments as Gravel Pack Material for Dewatering Wells. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 905–910, 1 Abb., 4 Tab.; Golden (International Mine Water Association).
• Weidner, C., Houben, G., Halisch, M., Kaufhold, S., Sander, J., Reich, M. & Menz, C. (2016): Wellbore Skin in Mine Dewatering and Drinking Water Supply: Field Observation, Mineralogy and Hydraulic Effect. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 478–485, Freiberg (TU Bergakademie Freiberg).
• Weidner, C., Naurath, L., Rüde, T. R. & Banning, A. (2011): Parameters affecting Na-fluorescein (uranine) detection in mine water tracer tests: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 85–89 p., Aachen (RWTH Aachen University).
• Weiersbye, I. M. & Witkowski, E. T. F. (2003): Acid rock drainage (ARD) from gold tailings dams on the Witwatersrand basin impacts on tree seed fate, viability, inorganic content and seedling morphology. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 311–328, 4 Abb., 3 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Weightman, E., Craw, D., Kerr, G. & Snow, T. (2022): Antimony Mobilisation and Attenuation During Ore Processing at Orogenic Gold Mines, Southern New Zealand. – Mine Water Environ., 41(1):5–15, doi:10.1007/s10230-021-00836-5.
• Weiler, J. & Schneider, I. A. H. (2025): If we had had a consistent system for using pyrite in coal mining in the state of Santa Catarina, Brazil, what would the scenario be? Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 739–744; Braga (International Mine Water Association).
• Weilner, C. (2013): Entstehung und hydrobiologische Entwicklung der Tagebauseen im Oberpfälzer Seenland. – Naturw. Z. Niederbayern, 34:125–144, 9 Abb., 2 Tab.
• Weiner, E. R. (2010): Applications of Environmental Aquatic Chemistry – A Practical Guide, 2nd edn. – 465 p., Boca Raton (CRC Press); doi:10.1201/b12963.
• Weinig, H., Dobner, A., Lagally, U., Stephan, W., Streit, R. & Weinelt, W. (1984): Oberflächennahe mineralische Rohstoffe von Bayern – Lagerstätten und Hauptverbreitungsgebiete der Steine und Erden – Mit einer Karte 1:500 000. – Geol. Bavarica, 86:1–563, 2 Beil.
• Weinzierl, W. (1972): Über den alten Bergbau in Vorarlberg. – 54 p., Dornbirn (Jochum).
• Weis, E.-G. (2016): Regenerative Energien auf Bergbaubrachen. – Veröff. Dt. Bergbau-Mus. Bochum, 217:98–102.
• Weise, S. (2002): 3He und 85K-Erfahrungen und Anwendungsbeispiele. – Wiss. Mitt. Inst. Geol., 19:63–70, 10 Abb.
• Weisener, C., Diloreto, Z., Trumm, D., Pope, J. & Weber, P. (2015): ARD Passive Treatment using Waste Mussel Shells – Part II: System Autopsy and Biogeochemical Investigations. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Weishaupt, S. J. (2021): Hochgebirgshydrologie – Monitoring und Separation des Wasserhaushalts am Zugspitzplatt. – 193 p.
• Weiske, A., Schaller, J., Hegewald, T., Kranz, U., Feger, K.-H., Werner, I. & Dudel, E. G. (2013): Changes in catchment conditions lead to enhanced remobilization of arsenic in a water reservoir. – Sci. Total Environ., 449:63–70, doi:10.1016/j.scitotenv.2013.01.041.
• Weiß, A. (1997): Grubenrisse – zu Unrecht wenig beachtete montanhistorische Quellen. – 8. Erbe-Symposium, 41:261–266, 3 Abb.
• Weiss, A. (2005): Zur Geschichte des Bergbaus im Raum Arzberg-Haufenreith (Steiermark). – Joannea Geol. Paläont., 7:99–125, 13 Abb.
• Weiss, C. A., Jr. & Gerasimowicz, W. V. (1996): Interaction of water with clay minerlas as studied by 2H nuclear magnetic resonance spectroscopy. – Geochim. Cosmochim. Acta, 60(2):265–275.
• Weithofer, K. A. (1899): Zur Kenntnis der oberen Horizonte der oligocänen Brackwassermolasse Oberbayerns und deren Beziehungen zur miocänen (oberen) Meeresmolasse im Gebiete zwischen Inn und Lech. – Verh. d. k. k. geol. Reichsanst, 10:269—282.
• Weithofer, K. A. (1902): Einige Querprofile durch die Molassebildungen Oberbayerns. – Jb. k.-k. geol. R.-A., 52:39–70, 4 Taf.
• Weithofer, K. A. (1912): Über neuere Aufschlüsse in den jüngeren Molasseschichten Oberbayerns. – Verh. d. k. k. geol. Reichsanst:347–356.
• Weithofer, K. A. (1914): Die Entwicklung der Anschauungen über Stratigraphie u. Tektonik im oberbayr. Molassegebiet. – Geol. Rundsch., 5(1):65–77.
• Weithofer, K. A. (1917): Die Oligozänablagerungen Oberbayerns. – Mitt. geol. Ges, 10(1-2):1–125, 1 Abb., 2 Taf.
• Weithofer, K. A. (1920): Das Pechkohlengebiet des bayerischen Voralpenlandes und die Oberbayerische Aktiengesellschaft für Kohlenbergbau – Denkschrift aus Anlaß des 50jährigen Bestandes dieser Gesellschaft (1870–1920). – 344 p., 20 Taf.; München (Wolf & Sohn).
• Weizenegger, F. J. & Merkle, M. (1839): Vorarlberg, aus den Papieren des in Bregenz verstorbenen Priesters Franz Joseph Weizenegger – In drei Abtheilungen: 1-3. – Innsbruck (Wagner).
• Weizsäcker, W. (1930): Das alte Zinnbergrecht von Graupen im Erzgebirge. – Savigny – Z. f. Rechtsgeschichte, 50:238–309.
• Welgemoed, T. J. (2005): Capacitive Deionization Technology™ – Development and Evaluation of an Industrial Prototype System. – 90 p., 26 Abb., 9 Tab.; Pretoria (unpubl. Master Thesis University of Pretoria).
• Welgemoed, T. J. & Schutte, C. F. (2005): Capacitive Deionization Technology™: An alternative desalination solution. – Desalination, 183(1):327–340, doi:10.1016/j.desal.2005.02.054.
• Welke, P. (2003): Die Wasserwirtschaft des Oberharzer Erzbergbaus – ihre Entwicklung und Möglichkeiten der zukünftigen Nutzung. – Siedlungsforschung, 21:303–312, 5 Abb.
• Wells, M. F. (1998): Construction of a Concrete plug in the South Deep’s Main Shaft to Seal off a Major Water Intersection: Mine Water and Environmental Impacts 1. – 171–182 p., 6 Abb.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Wells, S. (2012): International Space Station. – Boeing Defense – Backgrounder:1–11, 6 Abb.
• Welman Purchase, M. D. (2020): A Model of the Behaviour of Cyanide in a Witwatersrand Sulfidic Au-tailings Environment. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 100–105; (International Mine Water Association).
• Welman Purchase, M. D. & Hansen, R. (2023): Modelling The Behaviour Of Ferric and Ferrous Iron In A Goldmine Tailings Environment, Free State – South Africa. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 529–533; (International Mine Water Association).
• Wels, C., Ferguson, P. R. & Fawcett, M. (2012): Numerical groundwater flow modelling at the historic Rum Jungle mine site, northern Australia: International Mine Water Association Symposium. – 309–316 p., Bunbury (Edith Cowan University).
• Wels, C., Findlater, L., Shaw, S. & Laurencont, T. (2004): Mt Morgan Mine – a case Study of ARD impacted Groundwater. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 235–245, 3 Abb., 4 Tab.; Newcastle upon Tyne (University of Newcastle).
• Wen, G. L., Du, J. H., Wang, Z. H., Shi, S. M. & Chen, L. Y. (1994): Deep Bore Sealing Grout Technique to Strengthen and Suppress Water in Cracked and Faulted Zone of a Tunnel. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:323–330, 2 Tab., 3 Kart.
• Wen, J. T., Castro, C. & Tsutsui, H. (2015): In Planta Microsphere-Based Lateral Flow Leaf Biosensor in Maize. – J. Lab. Autom., 20(4):500–505, doi:10.1177/2211068214551826.
• Wen, X.-P. & Yang, X.-F. (2011): Monitoring of Water Quality Using Remote Sensing Data Mining: Knowledge-Oriented Applications in Data Mining. – 135–146 p., 8 Abb., 2 Tab.; Shanghai (InTech); doi:10.5772/13698.
• Wendel, G. (1998): Radioactivity in mines and mine water – sources and mechanisms. – J. S. Afr. Inst. Min. Metall., 98(2):87–92, 4 Abb., 2 Tab.
• Wendland, E. & Himmelsbach, T. (2002): Underground Waste Repositories in Exhausted Coal Mines – Recent Developments. – Mine Water Environ., 21(4):160–167, 11 Abb.
• Wendlandt, R. F. (1991): Oxygen diffusion in basalt and andesite melts; experimental results and discussion of chemical versus tracer diffusion. – Contr. Mineral. and Petrol., 108(4):463–471, 4 Abb., 2 Tab.
• Wendler, C., Hoth, N., Kassahun, A. & Paul, M. (2017): Investigations on Microbial Reduction Processes in a Flooded Underground Mine. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 843–850, Lappeenranta (Lappeenranta University of Technology).
• Wendt, H., Vogt, H., Kreysa, G., Goldacker, H., Jüttner, K., Galla, U. & Schmieder, H. (2012): Electrochemistry, 2. Inorganic Electrochemical Processes. – 273–313 p., 34 Abb., 14 Tab.; Weinheim (Wiley-VCH).
• Wendt-Potthoff, K. & Koschorreck, M. (2002): Functional Groups and Activities of Bacteria in a Highly Acidic Volcanic Mountain Stream and Lake in Patagonia, Argentina. – Microb. Ecol., 43(1):92–106.
• Wendt-Potthoff, K., Scharf, B. W., Boehrer, B., Völkner, C., Tittel, J. & Merkt, J. (2016): Varve formation in the acidic (pH 2.7) pit lake 111 (Lusatia, Germany). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 244–250, Freiberg (TU Bergakademie Freiberg).
• Wengler, R. M. (1873): Das Berggebäude Himmelfahrt Fundgrube zu Freiberg im Jahre 1871. – Jahrbuch für das Berg- und Hüttenwesen im Königreiche Sachsen – Abhandlungen aus dem Gebiete des Berg-und Hüttenwesens:98–116, 3 Tab., 2 Taf.
• Wennervirta, H. & Papunen, H. (1974): Heavy metals as lithogeochemical indicators for ore deposits in the Iilinjärvi and Aijala fields, SW-Finland. – Bull. Geol. Surv. Finland, 269:22, 8 Abb., 4 Tab.
• Wennrich, R., Mattusch, J., Morgenstern, P., Freyer, K., Treutler, H. C., Stark, H. J., Bruggemann, L., Paschke, A., Daus, B. & Weiss, H. (2004): Characterization of Sediments in an Abandoned Mining Area – A case Study of Mansfeld Region, Germany. – Environ. Geol., 45(6):818–833.
• Wennrich, R., Mattusch, J., Morgenstern, P., Stark, H. J., Spivakov, B. Y. & Shkinev, V. M. (2000): Multi-elemental analysis in size fractions of fine-grained solid residue of ore grinding. – Int. J. Environ. Anal. Chem., 77(1):63–74.
• Wenyong, P., Zhizhong, L. & Hongze, G. (1991): Ordovician Limestone Water Control in North China Coalfield. – Proceedings, 4th International Mine Water Association Congress, 1:207–211.
• Wenzel, T., Heinrich, P., Manig, R., Grab, T., Oppelt, L., Ebel, T. & Wunderlich, T. (2024): GIS-based development of energy networks using mine water geothermal energy for cross-sectoral heating and cooling supply of municipal quarters. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 634–639; Morgantown (International Mine Water Association).
• Werle, M., Costa, E., Marteleto, T., Bittencourt de Abreu, C., Albuquerque, R., Lange, L., Silva Ramos, M. L., Cambraia Trindade, A. C., Pereira Teodoro, M. I., Guimarães, L., Silva, R. & Kwitko, R. (2025): Estimation of Drainage Composition Sourced from Lime-Iron Ore Tailings Mixture in Dry Stack Deposit: Laboratory Testing and Numerical Modeling. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 850–855; Braga (International Mine Water Association).
• Werneck, W. L. (1980): Oberösterreichs Rohstoffvorkommen in Raum und Zeit (Stratigraphische Zuordnung und Wirtschaftliche Bedeutung). – Jb. Oö. Mus.-Ver., 125(I):183–222, 11 Abb.
• Werner, A., Rieger, A., Mosch, M., Haseneder, R. & Repke, J. U. (2018): Nanofiltration of indium and germanium ions in aqueous solutions: Influence of pH and charge on retention and membrane flux. – Sep. Purif. Technol., 194:319–328, doi:10.1016/j.seppur.2017.11.006.
• Werner, E., Donovan, J. J. & Barker, E. (2008): Alkaline Injection of Concentrated Sodium Hydroxide Solution into an Acidic Surface Mine Spoil Aquifer. – Mine Water Environ., 27(2):109–121, 9 Abb., 3 Tab.; doi:10.1007/s10230-008-0040-x.
• Werner, F., Bilek, F. & Luckner, L. (2001): Impact of regional groundwater flow on the water quality of an old post-mining lake. – Ecol. Eng., 17(2):133–142, 10 Abb., 1 Tab.; doi:10.1016/S0925-8574(01)00061-1.
• Werner, F., Bilek, F. & Luckner, L. (2001): Implications of Predicted Hydrologic Changes on Lake Senftenberg as Calculated Using Water and Reactive Mass Budgets. – Mine Water Environ., 20(3):129–139, 8 Abb., 4 Tab.; doi:10.1007/s10230-001-8094-z.
• Werner, F., Bremstahler, F. & Luckner, L. (1999): Predictive Modeling of Water Quality in Post Mining Environments. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 445–448, 6 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Werner, F., Cremer, S., Getta, M. & Meßer, J. (2011): Ground Water Discharge from a Near Surface Aquifer into Deep Coal Production Horizons as Post Mining Hot Spots of Water Logging Probability: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 125–128 p., Aachen (RWTH Aachen University).
• Werner, F., Eulitz, K., Graupner, B. & Mueller, M. (2008): Pit Lake Baerwalde Revisited: Comparing Predictions to Reality. – Proceedings, 10th International Mine Water Association Congress:623–626.
• Werner, F., Graupner, B., Merkel, B. J. & Wolkersdorfer, Ch. (2006): Assessment of a Treatment Scheme for Acidic Mining Lakes Using CO₂ and Calcium Oxides to Precipitate Carbonates: ICARD 2006 7. – 2344–2353 [CD–ROM] p., 6 Abb., 2 Tab.; St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06022344.
• Werner, F., Luckner, L., Benthaus, F.-C. & Richter, G. (2006): Konzepte zur Stabilisierung der Gewässergüte der Lausitzer Seenkette. – Wiss. Mitt. Inst. Geol., 31:113–118, 4 Abb.
• Werner, F., Meßer, J., Seeger, U. & Struzina, M. (2016): Mine Water Issues addressed in the project train@mine. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 72–77, Freiberg (TU Bergakademie Freiberg).
• Werner, F., Müller, M. & Bilek, F. (2002): Some Experiences with Modelling Water Quality of Post-Mining-Lakes in East Germany. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1000–1008, 2 Abb.; Heidelberg (Springer).
• Werner, F., Müller, M. & Graupner, B. (2004): Groundwater Surface Water Interaction of a post Lignite Mining Lake in Germany and its Relevance for the local Water Management. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 181–187, 6 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Werner, P. (1981): Über einige Verwachsungserscheinungen an Erzmineralien des Siegerlandes. – Der Aufschluss, 32(12):483–489, 7 Abb.
• Werner, T. M. & Kadlec, R. H. (1996): Application of Residence time Distributions to Stormwater Treatment Systems. – Ecol. Eng., 7(3):213–234.
• Werner, T. M. & Kadlec, R. H. (2000): Wetland Residence time Distribution Modeling. – Ecol. Eng., 15(1-2):77–90, 12 Abb., 1 Tab.; doi:10.1016/S0925-8574(99)00036-1.
• Werner, W. & Dennert, V. (2004): Lagerstätten und Bergbau im Schwarzwald – Ein Führer unter besonderer Berücksichtigung der für die Öffentlichkeit zugänglichen Bergwerke. – 334 p., Freiburg i. Br. (Landesamt für Geologie Rohstoffe und Bergbau Baden-Württemberg).
• Wernhöner, U., Schartner, C., H., L.-W., Schubert, G. & Schedl, A. (2012): Metalle im Grundwasser in Österreich – Karten und Erläuterungen. – 58 p., 17 Abb.; Wien (Bundesministerium für Land- und Forstwirtschaft, Umwelt und Wasserwirtschaft).
• Wernicke, T., Rojo-Nieto, E., Paschke, A., Nogueira Tavares, C., Brauns, M. & Jahnke, A. (2022): Exploring the partitioning of hydrophobic organic compounds between water, suspended particulate matter and diverse fish species in a German river ecosystem. – Environ. Sci. Eur., 34(1):66, doi:10.1186/s12302-022-00644-w.
• Wernli, H. R. (2011): Einführung in die Tracerhydrologie – Hydrologisches Praktikum. – 152 p., Bern (unveröff. Skript Geographisches Institut der Universität Bern Labor).
• West, M. L. (2011): The Making of the Iliad: Disquisition and Analytical Commentary. – 456 p., Oxford (Oxford University Press); doi:10.1093/acprof:osobl/9780199590070.001.0001.
• West Virginia Department of Health and Human Resources (2003): State of West Virginia Source Water Assessment and Protection Program – Source Water Assessment Report – City of Gary McDowell County – (Report Nr. WV3302420). – 12 p., West Virginia (Source Water Protection Unit).
• West Virginia Division of Environmental Protection – Office of Mining and Reclamation (2001): West Virginia Acid Mine Drainage Study 2000 – A Quantitative Inventory and Interpretive Review of Water Quality on Active Mining Operations in West Virginia. – 15 p., 10 Abb., 11 Tab.; Morgantown (West Virginia Division of Environmental Protection).
• West Virginia, U. (1998): Disposal of Fluidized Bed Combustion Ash in an Underground Mine to Control Acid Mine Drainage and Subsidence. – Unpubl. Report for Morgantown, U. S. D. o. E. O. o. F. E. (Report Nr. DE-FC21-94MC29244). – 12 p., 3 Tab., 1 Anl.; Morgantown (West Virginia University).
• Westbom, R., Thörneby, L., Zorita, S., Mathiasson, L. & Björklund, E. (2004): Development of a solid-phase extraction method for the determination of polychlorinated biphenyls in water. – J. Chromatogr. A, 1033(9):1–8, doi:10.1016/j.chroma.2004.01.022.
• Westermann, A. (2009): Die vorderösterreichischen Montanregionen in der Frühen Neuzeit: Vierteljahresschrift für Sozial- und Wirtschaftsgeschichte – Beihefte 202. – 395 p., Stuttgart (Steiner).
• Westermann, E. (2011): Der Tiroler Bergbau der Firma Fugger im Bild (1490–1550). – Der Anschnitt, 63:88–110.
• Westermann, S., Dogan, T., Reker, B., Goerke-Mallet, P., Wolkersdorfer, Ch. & Melchers, Ch. (2017): Evaluation of mine water rebound processes in European Coal Mine Districts to enhance the understanding of hydraulic, hydrochemical and geomechanical processes. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 147–153, 2 Abb.; Lappeenranta (Lappeenranta University of Technology).
• Westermann, S., Dogan, T., Reker, B., Goerke-Mallet, P., Wolkersdorfer, Ch. & Melchers, Ch. (2020): Evaluation of Mine Water Rebound Processes in European Coal Mine Districts to Enhance the Understanding of Hydraulic, Hydrochemical and Geochemical Processes. – In: Kretschmann, J., Goerke-Mallet, P. & Melchers, Ch. (eds): Done for Good 2.0 – Results in Post-Mining Research. – p. 159–166, 2 Abb.; Bochum (Technische Hochschule Georg Agricola).
• Westermann, S., Goerke-Mallet, P., Reker, B., Dogan, T., Wolkersdorfer, Ch. & Melchers, Ch. (2017): Aus Erfahrungen lernen: Evaluierung von Grubenwasseranstiegsprozessen zur Verbesserung zukünftiger Prognosen. 17. Altbergbau-Kolloquium – Tagungsband. – p. 259–273, 6 Abb., 1 Tab.; Nossen (Wagner).
• Westermann, S., Reker, B., Goerke-Mallet, P., Wolkersdorfer, Ch. & Melchers, Ch. (2020): Hydraulics of Underground Mine Flooding – Optimization of Predication and Monitoring Procedures. – In: Kretschmann, J., Goerke-Mallet, P. & Melchers, Ch. (eds): Done for Good 2.0 – Results in Post-Mining Research. – p. 221–235, 7 Abb., 1 Tab.; Bochum (Technische Hochschule Georg Agricola).
• Westermann, S., Rudakov, D. & Melchers, Ch. (2023): Sensitivity Analysis of Flooding-influencing Factors by Design of Experiment (DoE) Applied at Three Underground Hard-coal Mines. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 534–539; (International Mine Water Association).
• Westermann, S., Teichert, B. M. A. & Möllerherm, S. (2025): System and process understanding of mine gas release of closed hard coal mines in the context of EU methane regulation. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 422–425; Braga (International Mine Water Association).
• Westerstrand, M. & Öhlander, B. (2011): Geochemical Effects of Increased Production on Recirculated Process Water at the Kiirunavaara Iron Mine, Northern Swede. – Mine Water Environ., 30(4):252–262, 8 Abb., 7 Tab.; doi:10.1007/s10230-011-0156-2.
• Westin, R. A., Barruss, R. P., Woodcock, B. & King, R. L. (1981): Polychlorinated Biphenyls Regulations and Substitutes – A Compliance Manual for the U.S. Mining Industry. – 8838.
• Weston Solutions (2004): Draft Preliminary Wastewater Treatment Technology Evaluation Tar Creek Superfund Site Oklahoma Picher Mining District. – 30 p., 2 Abb., 1 Tab.; Tulsa (U.S. Army Corps of Engineers).
• Weston Solutions Inc. (2018): Final Expanded Site Inspection Report Shaffer Equipment/Arbuckle Creek Area Site Minden, Fayette County, West Virginia. – (Report Nr. EP-S3-15-02). – 159 p., West Chester (U.S. Environmental Protection Agency Region III, Hazardous Site Cleanup Division).
• Westphal, J. (1913): Jahrbuch für den Oberbergamtsbezirk Breslau. – 872 p., Kattowitz, Breslau, Berlin (Phönix).
• Westreicher, F. (2019): Der Bergsturz Am Stöttlbach – Wie am Mieminger Plateau aus einer postglazialen Moräne ein holozäner Bergsturz wurde. – 109 p., Universität Innsbruck, 59 Abb., 3 Tab.; Innsbruck.
• Westwater, D. C. & Price, K. (2020): Scour Protection Design Criteria for Mine Site Infrastructure. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 199–205; (International Mine Water Association).
• Wetzel, K.-F. (1994): Abflussbildung während sommerlicher Niederschläge in einem kleinen Einzugsgebiet der nördlichen Kalkalpen. – Erdkunde, 48(3):161–173, 9 Abb., 4 Tab.
• Wetzel, K.-F. (2004): On the Hydrology of the Partnach Area in the Wetterstein Mountains (Bavarian Alps). – Erdkunde, 58:172–186, 13 Abb., 2 Tab.; doi:10.3112/erdkunde.2004.02.05.
• Wetzel, R. G. (2001): Limnology – lake and river ecosystems, 3rd edn. – 1006 p., San Diego (Academic Press).
• Wetzenstein, W. (1972): Die Mineralparagnesen der Blei-Zinklagerstätte St. Veit (Heiterwand-Gebiet, östliche Lechtaler Alpen, Tirol). – Verh. Geol. B.-A., 1972(2):288–298, 3 Abb.
• Weyer, J. (1996): Zukünftige Verbringung von Hydroxidschlämmen. – Unpubl. Report for GmbH, B. S. T. M. & Co, K. G. 34 p., 2 Abb., 8 Anl.; Freiberg (TU Bergakademie Freiberg).
• Weyer, J. (2003): Collapse of the adit “Rothschoenberger Stollen” as a result of the flood on 12/13 August 2002. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 477–492, 24 Abb., 1 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Weyer, J. (2010): CO₂ in underground openings and mine rescue exercise. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 93–97, Sydney, NS (Cape Breton University Press).
• Weyer, K. U. (2011): Successful Geologic CO₂ Storage by Geofluids System Analysis: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 203–208 p., Aachen (RWTH Aachen University).
• Weyer, P. J., Brender, J. D., Romitti, P. A., Kantamneni, J. R., Crawford, D., Sharkey, J. R., Shinde, M., Horel, S. A., Vuong, A. M. & Langlois, P. H. (2014): Assessing bottled water nitrate concentrations to evaluate total drinking water nitrate exposure and risk of birth defects. – J. Water Health, 12(4):755–762, doi:10.2166/wh.2014.237.
• Whaley-Martin, K., Marshall, S., Nelson, T. E. C., Twible, L., Jarolimek, C. V., King, J. J., Apte, S. C. & Warren, L. A. (2020): A Mass-Balance Tool for Monitoring Potential Dissolved Sulfur Oxidation Risks in Mining Impacted Waters. – Mine Water Environ., 39(2):291–307, doi:10.1007/s10230-020-00671-0.
• Wheatley, H. B. (1902): How to make an Index: The Book-Lover’s Library. – 236 p., London (Elliot Stock).
• Wheeler, A. (1988): Pumps and Pumping – What the Industry wants from Pump Manufacturers. – Int. J. Mine Water, 7(2):1–6.
• Wheeler, W. N. & Kalin, M. (1992): Biopolishing of Zinc and Other Metals by Periphyton Communities Around a Base Metal Mine. – Proceedings, 27th Central Canadian Symposium on Water Pollution Research:1–5, 3 Abb., 2 Tab.
• Whillier, A. (1977): Recovery of energy from the water going down mine shafts. – J. S. Afr. Inst. Min. Metall., 78:183–186, 2 Abb.
• Whillier, A. & Van Der Walt, J. (1977): Gravity-fed water systems in mines. – J. S. Afr. Inst. Min. Metall., 78:187–192, 6 Abb., 1 Tab.
• Whitbread, J. J., Williams, R. E. & Miller, S. M. (1992): A Statistical Method to evaluate potentially similar Zones of Groundwater Discharge at the Bunker Hill Mine near Kellog, Idaho. – Mine Water Environ., 11(3):17–25, 4 Abb., 2 Tab.
• White, N. C. & Hedenquist, J. W. (1990): Epithermal environments and styles of mineralization: Variations and their causes, and guidelines for exploration. – J. Geochem. Explor., 36(1):445–474, doi:10.1016/0375-6742(90)90063-G.
• White, N. C. & Hedenquist, J. W. (1995): Epithermal gold deposits – Styles, characteristics and exploration. – SEG Newsletter, 23:1, 9–13, 3 Abb., 7 Tab.
• White, T. H., Bester, M. & Carey, R. (2020): Slope Depressurisation at Sishen Mine, Northern Cape, South Africa. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 212–217; (International Mine Water Association).
• White, W. M. (2013): Geochemistry. – 668 p., (Wiley-Blackwell).
• White, W. M. (2015): Isotope Geochemistry. – 478 p., (Wiley-Blackwell).
• White, W. M., Casey, W. H., Marty, B. & Yurimoto, H. (2018): Encyclopedia of Geochemistry – A Comprehensive Reference Source on the Chemistry of the Earth: Encyclopedia of Earth Sciences Series. – 1557 p., Cham (Springer).
• White, W. M., Hofmann, A. W. & Bow, C. S. (1978): Isotope and LIL element geochemistry of the Galapagos Islands. – Open-File Rep. US Geol. Surv., OF 78-0701:449–451, Refs: 8; illus. incl. sketch map; doi:10.3133/ofr78701.
• Whitehead, P. G., Hall, G., Neal, C. & Prior, H. (2005): Chemical behaviour of the Wheal Jane bioremediation system. – Sci. Total Environ., 338(1–2):41–51, 6 Abb., 4 Tab.; doi:10.1016/j.scitotenv.2004.09.004.
• Whitehead, P. G. & Jeffrey, H. (1995): Heavy metals from acid mine drainage – impacts and modelling strategies. – In: Petts, G. E. (ed) Man’s Influence on Freshwater Ecosystems and Water Use 230. – p. 55–66, 6 Abb., 2 Tab.; Wallingford (International Association of Hydrological Sciences).
• Whitehead, R. L., Harper, R. W. & Sisco, H. G. (1984): Hydrologic changes associated with the October 28, 1983, Idaho earthquake. – Pure Appl. Geophys., 122(2-4):280–293, 8 Abb., 1 Tab.; doi:10.1007/BF00874599.
• Whitfield, G. (2015): 50 must-see geological Sites in South Africa. – 320 p., Cape Town (Struik Nature).
• Whitfield, L. M. & Anderson, D. (1988): The Role of Algae in the Investigation of Water Inflow into a Coal Mine. – Proceedings, 3rd International Mine Water Congress, Melbourne:251–260, 3 Tab.
• Whitman, S. K. & Breitmeyer, R. J. (2019): Sensitivity of Percolation Estimates to Modeling Methodology: A Case Study at an Unlined Tailings Facility with Limited Monitoring Data. – Mine Water Environ., 38(2):294–309, doi:10.1007/s10230-019-00591-8.
• Whitmer, S., Baker, L. & Wass, R. (2000): Loss of bromide in a wetland tracer experiment. – J. Environ. Qual., 29(6):2043–2045, 3 Abb.; doi:10.2134/jeq2000.00472425002900060043x.
• Whitmore, C., Kauffman, M. & Effner, S. (2013): Application of Column Leaching Tests to Predict Seepage Water Quality from Waste Rock in the Southeast Idaho Phosphate District. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 487–492, 3 Tab.; Golden (International Mine Water Association).
• Whitney, D. L. & Evans, B. W. (2009): Abbreviations for names of rock-forming minerals. – Am. Mineral., 95(1):185–187, doi:10.2138/am.2010.3371.
• Whittaker, A. C. & Boulton, S. J. (2012): Tectonic and climatic controls on knickpoint retreat rates and landscape response times. – J. Geophys. Res. Earth Surf., 117(F2) doi:10.1029/2011jf002157.
• Whittaker, B. N. & Aston, T. R. C. (1982): Subsidence Effects in the undersea Coalfield Workings of North-East England. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, A:399–419, 12 Abb., 4 Tab.
• Whittaker, B. N. & Reddish, D. J. (1989): Subsidence – Occurence, Prediction and Control. – Developments in Geotechnical Engineering, 56:528, 35 Tab., 259 Abb.
• Whittaker, B. N., Reddish, D. J. & Fitzpatrick, D. J. (1985): Ground Fractures due to Longwall Mining Subsidence. – Proceedings, 2nd International Mine Water Association Congress, 1:1057–1072, 12 Abb.
• Whittaker, B. N., Reddish, D. J. & Sun, G. (1991): Mine Design and Planning Aspects: Undermining Aquifers and Surface Water Bodies. – Proceedings, 4th International Mine Water Association Congress, 2:199–210, 11 Abb.
• Whittaker, B. N., Singh, R. N. & Neate, X. J. (1979): Effect of Longwall Mining on Ground Permeability and Subsurface Drainage: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 161–183 p., 16 Abb., 1 Tab.; San Francisco (Freeman).
• Whittingham, J. K. (1971): Geological and Geohydrological Investigations Along the Cango and Baviaanskloof Fault Zones Cape Province. – Unpubl. Report for Department of Water Affairs (Report Nr. GH1740 – Technical Report). – 45 p., Pretoria (Geological Survey).
• Whittingham, J. K. (1972): Fissure Zones and Underground-Water in Parts of Cape Province – A Review. – Unpubl. Report for Department of Water Affairs (Report Nr. GH1814 – Technical Report). – 26 p., Cape Town (Geological Survey).
• Whittle, P. & Leggett, A. (2012): The implications of redox conditions for the perpetual management of mine pit lakes: International Mine Water Association Symposium. – 547–556 p., Bunbury (Edith Cowan University).
• Whittle, P. & Smith, R. E. W. (2013): Development and application of water quality criteria for reliable management of off-site risk. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 77–82, Golden (International Mine Water Association).
• Whitworth, K. (2003): The importance of day eyes, level rooms and soughs for mine water drainage. – Land Contam. Reclam., 11(2):285–292, doi:10.2462/09670513.827.
• Whitworth, K. R. (2002): The monitoring and modelling of mine water recovery in UK coalfields. – Spec. Publ. – Geol. Soc. London, 198:61–73, 15 Abb., 2 Tab.
• Whitworth, T. M. (1996): Potential environmental impact of the abandoned La Bajada uranium mine near Cochiti Lake, Santa Fe and Sandoval counties, New Mexico. – New Mexico Geology, 18(3):71–77, 2 Abb., 8 Tab.
• Whyte, S. R., Fietze, C. P. & Vadapalli, V. R. K. (2009): Influence of Mine Water pH on the Leach Characteristics and Structural Integrity of Two Backfill Products. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 940–945, 5 Abb., 6 Tab; Pretoria (Document Transformation Technologies).
• Wiberg, K., Sterner-Molin, A. & Jacobsson, S. P. (2004): Simultaneous determination of albumin and immunoglobulin G with fluorescence spectroscopy and multivariate calibration. – Talanta, 62(3):567–74, doi:10.1016/j.talanta.2003.08.024.
• Wiberg, N., Wiberg, E. & Holleman, A. F. (2016): Anorganische Chemie: 1+2, 103rd edn. – 2694 p., Berlin (De Gruyter).
• Wibowo, Y. G., Safitri, H., Malik, I. B. I., Sudibyo & Priyanto, S. (2022): Alternative Low-Cost Treatment for Real Acid Mine Drainage: Performance, Bioaccumulation, Translocation, Economic, Post-Harvest, and Bibliometric Analyses. – Sustainability-Basel, 14(22) doi:10.3390/su142215404.
• Wichern, J., Wichern, F. & Joergensen, R. G. (2006): Impact of salinity on soil microbial communities and the decomposition of maize in acidic soils. – Geoderma, 137(1-2):100–108, 4 Abb., 6 Tab.
• Wichmann, A., Picken, P., Anttila, E.-L., Haanpää, K.-M. & Siggberg, E. (2021): Systematic Approach in Environmental Geochemistry as Part of a Mining Project Roadmap. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 607–611; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Wichtmann, H. (1986): Boden, Bodenlösung und Vegetation auf Standorten mit starker Schwermetallbelastung im ehemaligen Bergbaurevier Mechernich. – Fortschr. Geol. Rheinld. u. Westf., 34:471–492, 11 Abb., 2 Tab.
• Widmoser, E. (1970): Tirol A bis Z. – 1131 p., Innsbruck (Südtirol-Verl.).
• Wiebe, R. & Gaddy, V. L. (1940): The Solubility of Carbon Dioxide in Water at Various Temperatures from 12 to 40° and at Pressures to 500 Atmospheres – Critical Phenomena. – J. Am. Chem. Soc., 62(4):815–817, doi:10.1021/ja01861a033.
• Wieber, G. (2002): Ground Water in Abandoned Mercury Mines: A Study from the Saar-Nahe Basin in Southwestern Germany. – Mine Water Environ., 21(2):73–80, 5 Abb., 4 Tab.
• Wieber, G. (2013): Stillgelegte geflutete Erzbergwerke – schädliche Bodenveränderungen gemäß Bundes-Bodenschutzgesetz? – altlasten spektrum,(5):201–209, 2 Abb., 5 Tab.
• Wieber, G. (2014): Hydrogeologie und Wärmefluss der gefluteten Grube Mercur in Bad Ems, Rheinisches Schiefergebirge. – Jber. Mitt. oberrhein. geol. Ver., N.F., 96:361–377, 8 Abb., 3 Tab.
• Wieber, G. (2017): Hydrogeologische Untersuchungen zum geothermischen Potential der ehemaligen Verbundgrube Holzappel – Leopoldine-Louise – Peter, Untere (sic!) Lahn-Revier, Rheinisches Schiefergebirge. – Mainzer geowiss. Mitt., 45:103–140, 26 Abb., 7 Tab.
• Wieber, G. (2020): Hydrogeologie und Wasserwirtschaft der Grubenwässer des ehemaligen Buntmetallerzbergbaus im Hunsrück, Rheinisches Schiefergebirge. – Mainzer geowiss. Mitt., 48:225–252, 11 Abb., 6 Tab.
• Wieber, G., Enzmann, F. & Kersten, M. (2016): Pycnocline dynamics in an abandoned and flooded mine dynamics in an abandoned and flooded mine. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 637–641, Freiberg (TU Bergakademie Freiberg).
• Wieber, G. & Pohl, S. (2008): Mine Water: A Source of Geothermal Energy – Examples from the Rhenish Massif. – Proceedings, 10th International Mine Water Association Congress:113–116.
• Wieber, G. & Quensel, P. (2024): Geothermal multiple use of mine water from the Wolf – San Fernando – Friedrich Wilhelm composite mine, Rhenish Massiv, Germany. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 640–644; Morgantown (International Mine Water Association).
• Wieber, G., Stemke, M., Wonik, T., Enzmann, F. & Kersten, M. (2019): Stratification Dynamics and Geothermal Potential of a Deep Shaft in the Flooded Wolf Mine, Siegerland/Germany. – Mine Water Environ., 38(2):325–334, doi:10.1007/s10230-019-00602-8.
• Wieber, G. H. E., Deckert, H., Enzmann, F. & Kersten, M. (2012): Heat storage potential of a flooded mine in the Siegerland-Wied district, Germany: International Mine Water Association Symposium. – 459–466 p., Bunbury (Edith Cowan University).
• Wieber, G. H. E., Landschreiber, K., Pohl, S. & Streb, C. (2011): Geflutete Grubenbaue als Wärmespeicher. – bbr, 62(5):34–40, 6 Abb., 2 Tab.
• Wieber, G. H. E., Lang, R. & Mays, M. (2021): Hydrogeologie von Grubenwässern des ehemaligen Steinkohlenbergbaus in Rheinland-Pfalz. – Mainzer geowiss. Mitt., 49:221–238, 9 Abb., 3 Tab.
• Wieber, G. H. E. & Streb, C. (2011): Hydrochemistry and mine water hydraulics of flooded mines: case studies from the Rhenish Massif, Germany: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 633–637 p., Aachen (RWTH Aachen University).
• Wiechers, H. N. S. (1988): Underground Mine Service Water Quality – Current Status and Strategies for Improvement. – J. Mine Vent. Soc. S. Afr., 41(4):38–50, 2 Fig., 8 Tab.
• Wieder, R. K. (1987): Determining the capacity for metal retention in man-made wetlands constructed for treatment of coal mine drainage. Paper presented at the America Society of Mining and Reclamation. – p. 375–381, 1 Abb., 1 Tab.
• Wiederhold, J. G. (2015): Metal Stable Isotope Signatures as Tracers in Environmental Geochemistry. – Environ. Sci. Technol., 49(5):2606–2624, doi:10.1021/es504683e.
• Wiek, S., Helm, B., Karrasch, P., Hunger, S., Hoffmann, T. G., Schönrock, S., Klehr, W., Six, A., Stäglich, I., Kuhn, K., Mehl, D., Tränckner, J., Bernard, L. & Krebs, P. (2019): Boot-gestütztes längskontinuierliches Monitoring von Fließgewässern mit online-Sonden. – Hydrol. Wasserbewirtsch., 63(1):19–32, 15 Abb., 2 Tab.; doi:10.5675/HyWa_2019.1_2.
• Wielinga, B., Lucy, J. K., Moore, J. N., Seastone, O. F. & Gannon, J. E. (1999): Microbiological and geochemical characterization of fluvially deposited sulfidic mine tailings. – Appl. Environ. Microbiol., 65(4):1548–1555, 6 Abb.
• Wiertz, J. V. (1999): Mining and Metallurgical Waste Management in the Chilean Copper Industry. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 403–408, 3 Abb.; Sevilla (International Mine Water Association).
• Wiesemann, F. (2000): Steiler Aufstieg ins Großbürgertum – Die Villa Leiffmann in Düsseldorf. – kalonymos, 3(Extrablatt):23–24, 3 Abb.
• Wiesner, B. (2021): Evaluation Of A Short Period Increasing Water Influx In A Mine Drainage Facility Of A Former Hard Coal Mine. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 612–616; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Wiesner, M., Zgórska, A., Zawartka, P. & Klinger, C. (2016): Environmental risk mitigation resulting from implementation of mine water treatment technologies developed within project MANAGER. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 64–71, Freiberg (TU Bergakademie Freiberg).
• Wijdeveld, A., Evens, T. & Pennekamp, J. (2016): Use of tensiometers to determine the Moisture Characterization Point in ores. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1104–1111, Freiberg (TU Bergakademie Freiberg).
• Wikens, S. E. & van Niekerk, A. M. (1993): Opencast Mine Water Simulation Modelling. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 176–189, 6 Abb., 1 Tab.; Chililabombwe (Konkola Division).
• Wild, S. (2014): State eyes black and female graduates for research funding. – Mail & Guardian Online, 2014–07–22.
• Wildeman, T., Brodie, G. A. & Gusek, J. (1993): Wetland Design for Mining Operations. – 408 p., 67 Abb., 40 Tab.; Richmond, BC (BiTech).
• Wildeman, T., Gusek, J., Dietz, J. & Morea, S. (1993): Handbook for Constructed Wetlands Receiving Acid Mine Drainage. – Unpubl. Report for Risk Reduction Engineering, L. & Agency, U. S. E. P. (Report Nr. CR 815325). – 233 p., zahlr. Abb., zahlr. Tab.; Golden (Colorado School of Mines).
• Wildeman, T. R., Duggan, L. A., Bolis, J. L. & Gusek, J. (1992): Constructed Wetlands that Emphasize Sulfate Reduction: a Staged Design Process and Operation in Cold Climates. Paper presented at the 24th Annual Meeting Canadian Mineral Processors, Ottawa. – 2 Abb.; 2 Tab.
• Wildeman, T. R., Machemer, S. D., Klusman, R. W., Cohen, R. R. H. & Lemke, P. (1990): Metal Removal Efficiencies from Acid Mine Drainage in the Big Five R. Constructed Wetland. Paper presented at the Mining and Reclamation Conference and Exhibition, Charleston. – p. 417–424, 2 Abb., 2 Tab.; Morgantown (America Society of Mining and Reclamation).
• Wildeman, T. R. & Schmiermund, R. L. (2004): Mining Influenced Waters – Their Chemistry and Methods of Treatment. Paper presented at the National Meeting of the American Society for Surface Mining and Reclamation, Morgantown, 18–24 April 2004. – p. 2001–2013, 4 Tab.
• Wildemeersch, S., Brouyère, S., Orban, P., Couturier, J., Gardin, N., Dingelstadt, C., Veschkens, M. & Dassargues, A. (2009): Application of the HFEMC Method to an Abandoned Coalfield in Belgium: From Conceptualisation to Scenario Simulations. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 70–78, 9 Abb; Pretoria (Document Transformation Technologies).
• Wilhelm, S., Poppei, J., Mayer, G., Schwarz, R., Klubertanz, G., Siegel, P. & Förster, B. (2002): Influence of chemical reactions on the flow system and contaminant transport in a former salt mine. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 1099–1108, 8 Abb.; 1 Tab.; Heidelberg (Springer).
• Wilk, Z. (1985): Hydrogeological Aspects of Groundwater Hazard in polish Underground Mining. – Proceedings, 2nd International Mine Water Association Congress, 1:269–276, 1 Tab.
• Wilk, Z., Adamczyk, A. F., Motyka, J. & Witczak, S. (1988): A Zinc-Lead Ore Mine Water Contamination by a Paper Factory Fluid Waste. – Proceedings, 3rd International Mine Water Congress, Melbourne:853–860, 3 Abb.
• Wilkin, R. (2007): Metal Attenuation Processes at Mining Sites. – Ground Water Issue, EPA/600/R-07/092:1–12, 3 Abb., 3 Tab.
• Wilkin, R. T. (2008): Contaminant Attenuation Processes at Mine Sites. – Mine Water Environ., 27(4):251–258, 2 Tab.; doi:10.1007/s10230-008-0049-1.
• Wilkinson, F., Beckett, P. J. & St-Germain, P. (1999): Establishment of Wetland Plants on Flooded Mine Tailings. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 591–598, 3 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Wilkinson, J., Reynolds, B., Neal, C., Hill, S., Neal, M. & Harrow, M. (1997): Major, minor and trace element composition of cloudwater and rainwater at Plynlimon. – Hydrol. Earth Syst. Sci., 1(3):557–569, 5 Abb., 6 Tab.; doi:10.5194/hess-1-557-1997.
• Wilkinson, M. J. (1973): Sterkfontein cave system – Evolution of a karst form. – 96 p., Master of Arts, University of the Witwatersrand; Johannesburg.
• Willbold, M. & Stracke, A. (2006): Trace element composition of mantle end-members: Implications for recycling of oceanic and upper and lower continental crust. – Geochem. Geophys. Geosyst., 7:30, doi:10.1029/2005gc001005.
• Willemink, J. (1983): A correlation model for calculating groundwater level responses in the Sishen North Mine. – Water SA, 9(3):103–109, 7 Abb.
• Willems, H. P. L., Rotelli, M. D., Berry, D. F., Smith, E. P., Reneau, R. B., Jr. & Mostaghimi, S. (1997): Nitrate removal in riparian wetland soils: Effects of flow rate, temperature, nitrate concentration and soil depth. – Water Res., 31(4):841–849.
• Willems, T. & Bagdy, I. (1982): Some results of karstic hydrogeology and its utilization in mine water control. – Proceedings, 1st International Mine Water Congress, Budapest, Hungary, ABCD Supplementary volume:163–174, 6 Abb.
• Willett, I. R. & Bond, W. J. (1998): Fate of manganese and radionuclides applied in uranium mine waste water to a highly weathered soil. – Geoderma, 84(1-3):195–211, Refs: 14; illus. incl. 7 tables.
• Williams, A. & Mitchell, C. (1994): Methane emissions from coal mining. – In: Hester, R. E. & Harrison, R. M. (eds): Mining and its Environmental Impact 1. – p. 97–110, (The Royal Society of Chemistry); doi:10.1039/9781847551467-00097.
• Williams, A. J. (2010): Laboratory Information Management Systems (LIMS). Encyclopedia of Spectroscopy and Spectrometry, 2nd edn. – p. 1255–1261, Oxford (Academic Press); doi:10.1016/B978-0-12-374413-5.00070-1.
• Williams, B. C. (1991): Statistical and Geochemical Analyses of Vadose and Saturated Pore Waters in Sulfidic Mine Waste Tailings. – Proceedings, 4th International Mine Water Association Congress, 2:305–316, 1 Abb., 6 Tab.
• Williams, C. P. (1877): Analysis of Mine Water from the Lead Region of South-west Missouri. – American Chemist, 7:246–247.
• Williams, D., Fowler, J. & Zyl, D. v. (2015): Mine Planning and Acid Rock Management. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Williams, D. D., Lee, M. K., Crawford, J. E. & Tyree, P. O. (1999): Analysis of convective heat transfer in deformed and stratified aquifers associated with Frasch thermal mining. – Ground Water, 37(4):517–522.
• Williams, D. J., Bigham, J. M., Cravotta, C. A., III, Traina, S. J., Anderson, J. E. & Lyon, J. G. (2002): Assessing Mine Drainage pH from the Color and Spectral Reflectance of Chemical Precipitates. – Appl. Geochem., 17(10):1273–1286, 7 Abb., 1 Tab.; doi:10.1016/S0883-2927(02)00019-7.
• Williams, G. P., Gammons, C. H. & Parker, S. R. (2013): Natural acid rock drainage in the Judith Mountains, Central Montana, USA. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 493–498, 4 Abb.; Golden (International Mine Water Association).
• Williams, M. (2001): Arsenic in mine waters: an international study. – Environ. Geol., 40(3):267–278, 8 Abb., 2 Tab.
• Williams, M. & Lewis, M. (1997): Schieferbergbau in Großbritannien. – Der Anschnitt, 49(4-5):158–170, 11 Abb., 2 Tab.
• Williams, M., Pinana, E., Opara, O. & Adams, J. (2018): Electrobiological Reduction for Low Level Selenium Removal from Mine Water and Reverse Osmosis Brine. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1136–1141; (Tshwane University of Technology).
• Williams, M. E. (2003): A Brief Review of Reverse Osmosis Membrane Technology. – 1–29 p., 4 Abb.; Harriman (EET Corporation and Williams Engineering Services Company).
• Williams, M. P. A. & Goldstone, A. (1988): Water Management and Water Treatment at Golden Cross. – Proceedings, 3rd International Mine Water Congress, Melbourne:571–582, 4 Abb., 4 Tab.
• Williams, P. J., Botes, E., Maleke, M. M., Ojo, A., DeFlaun, M. F., Howell, J., Borch, R., Jordan, R. & Van Heerden, E. (2014): Effective bioreduction of hexavalent chromium–contaminated water in fixed-film bioreactors. – Water SA, 40(3):549, doi:10.4314/wsa.v40i3.19.
• Williams, R. D. & Diehl, S. F. (2014): Techniques for predicting metal mining influenced water: Management technologies for metal mining influenced water 5. – 137 p., Englewood (SME).
• Williams, R. D., Kirk, L., Figueroa, L. & Diehl, S. (2015): The ADTI/SME Prediction Volume – Techniques for Predicting Metal Mining Influenced Water – The Consensus Process and What’s New. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–7 [electronic document], Santiago/Chile (Gecamin).
• Williams, R. E. (1979): Coping with Mine Drainage Regulations: Mine Drainage – Proceedings of the First International Mine Drainage Symposium. – 184–218 p., 5 Abb., 2 Tab., 2 Taf.; San Francisco (Freeman).
• Williams, R. E. & Kirschner, F. E., Jr. (1992): Hydrogeological Evaluation of a Prototype In-situ Leach Cell in Unsaturated Lead-Zinc Mine and Mill Wastes. – Mine Water Environ., 11(4):23–33, 7 Abb.
• Williams, R. E. & Kirschner Jr, F. E. (1993): Hydrogeological Evaluation of a Prototype In-Situ Leach Cell in Unsaturated Lead-Zinc Mine and Mill Water. – In: International Mine Water Association & Zambia Consolidated Copper Mines Limited (eds): First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal. – p. 336–347, 7 Abb.; Chililabombwe (Konkola Division).
• Williams, R. L., Mayer, K. U., Amos, R. T., Blowes, D. W., Ptacek, C. J. & Bain, J. G. (2007): Using dissolved gas analysis to investigate the performance of an organic carbon permeable reactive barrier for the treatment of mine drainage. – Appl. Geochem., 22(1):90–108, doi:10.1016/j.apgeochem.2006.09.007.
• Williams, S. & Cook, J. W. (1967): Pesticide residues. – Anal. Chem., 39(5):142–157, doi:10.1021/ac60249a003.
• Williams, T., Dent, J., Eckhardt, T., Riding, M. & Sapsford, D. (2020): Treatability Trials To Remove Zinc From Abbey Consols Mine Water, Wales, UK. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 225–230; (International Mine Water Association).
• Williams, T., Dent, J., Eckhardt, T., Riding, M. & Sapsford, D. (2021): Treatability Trials To Remove Zinc From Abbey Consols Mine Water, Wales, UK. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 617–623; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Williamson, J., Pastorinho, R., Ranville, J., Meyer, J., Santore, R., Ryan, A., Gorsuch, J., Rogevich-Garman, E., Schlekat, C. & Dwyer, R. (2013): Toxicity of Metal Mixtures to Daphnia magna: Comparison of Laboratory and Field Investigations. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 499–504, 2 Abb., 2 Tab.; Golden (International Mine Water Association).
• Williamson, M. (2015): Pyrite Oxidation in Well-Constrained Humidity Cell Tests. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Williamson, M. A. & Rimstidt, J. D. (1994): The kinetics and electrochemical rate-determining step of aqueous pyrite oxidation. – Geochim. Cosmochim. Acta, 58(24):5443–5454, doi:10.1016/0016-7037(94)90241-0.
• Williamson, S. & Vogwill, R. I. J. (2001): Dewatering in the Hot Groundwater Conditions at Lihir Gold. Paper presented at the IMWA Symposium Belo Horizonte, Belo Horizonte. – p. 1–15 [CD–ROM], 5 Abb., 1 Tab.; Belo Horizonte (International Mine Water Association).
• Williamson, W. H. & Whitfield, L. M. (1987): The Effects of Coal Extraction on the Overlying Groundwater Regime adjacent to Cataract Reservoir, near Sydney, Australia: Hydrogeology of Coal Basins. – 595–606 p., 4 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Willscher, S. (2006): Mikrobielle Verwitterungsprozesse bei der Freisetzung von Schwermetallen und Arsen aus fluvialen Tailingablagerungen. – Wiss. Mitt. Inst. Geol., 31:139–144, 4 Abb.
• Willscher, S., Hertwig, T., Felix, M. & Sohr, A. (2010): Environmental Impact of Differently Remediated Hard Coal Overburden and Tailings Dumps a Few Decades after Remediation. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 519–523, Sydney, NS (Cape Breton University Press).
• Willscher, S., Hertwig, T., Frenzel, M., Felix, M. & Sohr, A. (2010): Einfluss von Abdeckung und Rekultivierung auf die Qualität und Quantität der Sickerwasserbildung in historischen Steinkohlebergehalden des Erzgebirges. – Wiss. Mitt. Inst. Geol., 42:205–212.
• Willscher, S., Jablonski, L., Mirgorodski, D., Ollivier, D., Merten, D., Wittig, J. & Büchel, G. (2016): Results of field scale phytoremediation experiments on a former Uranium mining site. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 780, Freiberg (TU Bergakademie Freiberg).
• Willscher, S., Schaum, M., Goldammer, J., Knippert, D., Kühn, D., Ihling, H. & Schaarschmidt, T. (2016): Geochemical and microbial conditions of a lignite coal spoil and overburden area in Middle Germany and environmental impact decades after remediation. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 693–698, Freiberg (TU Bergakademie Freiberg).
• Willscher, S., Starke, S., Felix, M. & Sohr, A. (2010): Mikrobiologische Untersuchung von historischen Steinkohlebergehalden und Schlussfolgerungen auf die Beeinflussung der Sickerwasser- und Grundwasserqualität. – Wiss. Mitt. Inst. Geol., 42:195–201.
• Willy, H. (2001): Grundwassertemperatur-Tiefenprofilmessungen der bayerischen Wasserwirtschaftsverwaltung – Zusammenfassender Bericht: Materialien 103. – 105 p., 12 Abb., 2 Tab., 6 Anl.; München (Bayerisches Landesamt für Wasserwirtschaft).
• Wilmoth, R. C. (1973): Applications of reverse osmosis to acid mine drainage treatment. – 159 p., 33 Abb., 56 Tab.; Washington (U.S. Government Print. Office).
• Wilmoth, R. C. (1977): Limestone and Lime Neutralization of Ferrous Iron Acid Mine Drainage. – Environmental Protection Technology Series, EPA-600/2-77-101:95, 22 Abb., 34 Tab.
• Wilmoth, R. C., Baugh, T. L. & Decker, D. W. (1978): Removal of selected trace elements from acid mine drainage using existing technology. – 886–894 p., 3 Abb., 11 Tab.; Lafayette (Proceedings of the 33rd Industrial Waste Conference).
• Wilmoth, R. C., Scott, R. B. & Harris, E. F. (1977): Application of ion exchange to acid mine drainage treatment. – 820–829 p., 5 Abb., 6 Tab.; Lafayette (Proceedings 32nd Industrial Waste Conference).
• Wilson, D., Amos, R., Blowes, D., Langman, J., Sego, D. & Smith, L. (2015): Diavik Waste Rock Project – Reactive Transport Simulation of Sulfide Weathering. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–11 [electronic document], Santiago/Chile (Gecamin).
• Wilson, D., Amos, R. T., Blowes, D. W., Langman, J. B., Smith, L. & Sego, D. C. (2018): Diavik Waste Rock Project – A Mechanistic Approach to the Prediction of the Geochemical Evolution of Sulfidic Waste Rock. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 487–492; (Tshwane University of Technology).
• Wilson, D. & Brown, D. (1997): Fast-track Provision of St. Aidans Reverse-Osmosis Water-Treatment Plant. – Water Environ. Manage., 11:271–276, 2 Abb., 4 Tab.
• Wilson, E. O. (1998): Consilience – The unity of knowledge. – 332 p., New York (Knopf).
• Wilson, G. V. & Flett, J. S. (1921): The Lead, Zinc, Copper and Nickel Ores of Scotland – Islay. – Memoirs of the Geological Survey, Scotland, XVIII:65–73, 1 Abb., 1 Tab.
• Wilson, J. F., Cobb, E. D. & Kilpatrick, F. A. (1986): Fluorometric procedures for dye tracing. Techniques of Water-Resources Investigations of the United States Geological Survey TWRI 3-A12, 1986 revised edn. – p. 1–34, 13 Abb., 3 Tab.; Washington (U.S. Geol. Survey); doi:10.3133/twri03A12.
• Wilson, J. F. J., Cobb, E. D. & Kilpatrick, F. A. (1984): Fluorometric Procedures for Dye Tracing. – U. S. Geol. Surv. Open-File Report, 84-234:53, 13 Abb., 3 Tab.
• Wilson, R. D. & Mackay, D. M. (1993): The Use of Sulphur Hexafluoride as a Conservative Tracer in Saturated Sandy Media. – Ground Water, 31(5):719–724, 3 Abb., 2 Tab.
• Wilson, R. G. (1985): Source of Groundwater entering Collieries beneath Reservoir. – Proceedings, 2nd International Mine Water Association Congress, 1:59–68, 5 Abb., 1 Tab.
• Wilson, S. (2015): Research is ceremony: Indigenous research methods. – 144 p., Halifax (Fernwood Publishing).
• Wilson, S. A. (2015): Corporate social responsibility and power relations: Impediments to community development in post-war Sierra Leone diamond and rutile mining areas. – Extr. Ind. Soc., 2(4):704–713, doi:10.1016/j.exis.2015.09.002.
• Wilson, S. A., Barker, S. L. L., Dipple, G. M. & Atudorei, V. (2010): Isotopic Disequilibrium during Uptake of Atmospheric CO₂ into Mine Process Waters: Implications for CO₂ Sequestration. – Environ. Sci. Technol., 44(24):9522–9529, doi:10.1021/es1021125.
• Wilson, S. A., Dipple, G. M., Power, I. M., Barker, S. L. L., Fallon, S. J. & Southam, G. (2011): Subarctic Weathering of Mineral Wastes Provides a Sink for Atmospheric CO₂. – Environ. Sci. Technol., 45(18):7727–7736, doi:10.1021/es202112y.
• Wilson, T. R. S. (1981): Conductometry. – In: Whitfield, M. & Jagner, D. (eds): Marine electrochemistry – A practical introduction. – p. 146–185, 12 Abb., 3 Tab.; Chichester (Wiley).
• Wilton, M. J. & Lupo, J. (2013): Water Balances and their Role in Operational Mine Water Management. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 223–228, 5 Abb.; Golden (International Mine Water Association).
• Wiltschka, K., Neumann, L., Werheid, M., Bunge, M., Düring, R.-A., Mackenzie, K. & Böhm, L. (2020): Hydrodechlorination of hexachlorobenzene in a miniaturized nano-Pd(0) reaction system combined with the simultaneous extraction of all dechlorination products. – Appl. Catal. B, 275:119100, doi:10.1016/j.apcatb.2020.119100.
• Wiltschka, K., Wolkersdorfer, Ch., Düring, R.-A. & Böhm, L. (2023): Between Underground and the Deep Blue Sea: Contamination of Mine Water Effluents by Polychlorinated Biphenyls (PCBs). – ACS ES&T Water, 3(11):3474–3484, 1 Abb., 2 Tab.; doi:10.1021/acsestwater.3c00179.
• Wiltschka, K., Wolkersdorfer, Ch., Düring, R.-A. & Böhm, L. (2024): Belastung von Grubenwässern durch polychlorierte Biphenyle (PCB) [Contamination of mine water by polychlorinated biphenyls (PCBs)]. – Mitt. Fachgr. Umweltchem. Ökotoxikol., 30(1):14–18, 2 Abb., 1 Tab.
• Wimberley, F. (2008): Best Practice Guideline A5 – Water Management for Surface Mines. – 83 p., 46 Abb., 1 Tab., 2 Anl.; Pretoria (Department of Water Affairs and Forestry).
• Wimberley, F., Jordaan, J. & Pulles, W. (2008): Best Practice Guideline A2 – Water Management for Mine Residue Deposits. – 76 p., 20 Abb., 6 Tab., 6 Anl.; Pretoria (Department of Water Affairs and Forestry).
• Wimmer, G. (2002): Ermittlung des Grundwasserdargebotes in Karst- und Kluftaquiferen des Rheinischen Schiefergebirges mit Hilfe Geografischer Informationssysteme in ausgewählten Einzugsgebieten im Raum Bergisch Gladbach und Kronenburg/Eifel. – Mitt. Ing.- und Hydrogeologie, 82:314, 74 Abb., 25 Tab., 8 Anl.
• Winberg-Wang, H., Neretnieks, I. & Voutilainen, M. (2019): A Note on the Use of Uranine Tracer to Visualize Radionuclide Migration Experiments: Some Observations and Problems. – Nuclear Technology, 205(7):964–977, doi:10.1080/00295450.2019.1573620.
• Winckler, K. (2012): Die Alpen im Frühmittelalter – Die Geschichte eines Raumes in den Jahren 500 bis 800. – 423 p., Wien (Böhlau).
• Winde, F. (2005): Long-term Impacts of Gold and Uranium Mining on Water Quality in Dolomitic Regions – examples from the Wonderfonteinspruit catchment in South Africa. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 807–816, Heidelberg (Springer).
• Winde, F. (2005): The Role of Groundwater-Stream Interactions for Uranium Fluxes in Fluvial Systems. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 263–274, Heidelberg (Springer); doi:10.1007/3-540-28367-6_27.
• Winde, F. (2009): Uranium Pollution of Water Resources in Mined-Out and Active Goldfields of South Africa – A Case Study in the Wonderfonteinspruit Catchment on Extent and Sources of U-Contamination and Associated Health Risks. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 772–781, 4 Abb; Pretoria (Document Transformation Technologies).
• Winde, F. (2010): Uranium pollution of the Wonderfonteinspruit, 1997-2008 Part 2: Uranium in water – concentrations, loads and associated risks. – Water Sa, 36(3):257–278.
• Winde, F. (2010): Uranium pollution of the Wonderfonteinspruit, 1997–2008 Part 1: Uranium toxicity, regional background and mining-related sources of uranium pollution. – Water SA, 36(3):239–256.
• Winde, F. (2011): Peatlands as Filters for Polluted Mine Water?—A Case Study from an Uranium-Contaminated Karst System in South Africa—Part IV: Quantifying the Chemical Filter Component. – Water, 3(4):391–423, doi:10.3390/w3010391.
• Winde, F. & Sandham, L. A. (2004): Uranium pollution of South African streams – An overview of the situation in gold mining areas of the Witwatersrand. – GeoJournal, 61(2):131–149, doi:10.1007/s10708-004-2867-4.
• Winde, F. & Stoch, E. J. (2010): Threats and opportunities for post-closure development in dolomitic gold-mining areas of the West Rand and Far West Rand (South Africa) – a hydraulic view part 2 : opportunities. – Water SA, 36(1):75–82, doi:10.4314/wsa.v36i1.50908.
• Winde, F., Wade, P. & van der Walt, I. J. (2004): Gold tailings as a source of water-borne uranium contamination of streams – The Koekemoerspruit (South Africa) as a case study Part III of III: Fluctuations of stream chemistry and their impacts on uranium mobility. – Water SA, 30(2):230–239, 9 Abb., 1 Tab.
• Windom, H. L., Moore, W. S., Niencheski, L. F. H. & Jahnke, R. A. (2006): Submarine groundwater discharge – A large, previously unrecognized source of dissolved iron to the South Atlantic Ocean. – Marine Chemistry, 102(3-4):252–266, 8 Abb., 1 Tab.; doi:10.1016/j.marchem.2006.06.016.
• Winfrey, B. K., Nairn, R. W., Tilley, D. R. & Strosnider, W. H. J. (2015): Emergy and Carbon Footprint Analysis of the Construction of Passive and Active Treatment Systems for Net Alkaline Mine Drainage. – Mine Water Environ., 34(1):31–41, doi:10.1007/s10230-014-0304-6.
• Wink, K. (2001): Die Ausgrabung auf dem "Diebsschlössle", KG Stallehr/Vorarlberg. – 36 p., 19 Abb., 1 Taf., 41 Anl.; Innsbruck (unveröff. Arbeitsbericht).
• Winkelmann, A. (1969): Der Tiroler Knappentanz. – Der Anschnitt, 21(2):30–32, 6 Abb.
• Winkler, C. (2001): Einsatz passiver Reinigungsmethoden zur Behandlung von Bergbauwässern am Beispiel der Grube Straßberg/Harz. – Wiss. Mitt. Inst. Geol., 16:179–192, 4 Abb., 3 Tab.
• Winner Global Energy & Environmental Services L. L. C. (2009): AMD Value Extraction Process – Liquid to Liquid Extraction Final Report. – Unpubl. Report for Pennsylvania Department of Environmental Protection – Bureau of Abandoned Mine, R. (Report Nr. GR# 410003675). – 169 p., 78 Abb., 29 Tab.; Sharon (Winner Global Energy & Environmental Services LLC).
• Winter, T. (2019): Hydrochemistry and isotope hydrology of thermal springs in the Alps. – 32 p., Master of Science, Georg-August-Universität Göttingen, 25 Abb., 2 Tab.; Göttingen.
• Winter, T. C., Harvey, J. W., Franke, O. L. & Alley, W. M. (1998): Ground Water and Surface Water – A Single Resource. – U. S. Geol. Surv. Circular, C 1139:1–79.
• Winters, W. R. & Capo, R. C. (2004): Ground Water Flow Parameterization of an Appalachian Coal Mine Complex. – Ground Water, 42(5):700–710, doi:10.1111/j.1745-6584.2004.tb02724.x.
• Wippermann, T. (2000): Bergbau und Umwelt – Langfristige geochemische Einflüsse: Geowissenschaften und Umwelt. – 238 p., 85 Abb., 39 Tab.; Berlin (Springer).
• Wireman, M., Davies, G. J. & Stover, B. K. (2001): Characterizing Ground-Water Flow Paths in high-altitude fractured Rock Settings impacted by Mining Activities. – 1–11 [CD–ROM] p., 9 Abb.; Toronto (Proceedings International Conference on Fractured rock).
• Wirth, W. (1984): Zur Nomenklatur von Orchis/Dactylorhiza sambucina. – Berichte aus den Arbeitskreisen Heimische Orchideen, 1(1):4–8.
• Wiseman, I. M. (2002): Constructed Wetlands for Minewater Treatment: R&D Technical Report P2-181/TR. – 125 p., 93 Abb., 21 Tab.; Bristol (Environment Agency).
• Wiseman, I. M., Edwards, P. J. & Rutt, G. P. (2003): Recovery of an aquatic ecosystem following treatment of abandoned mine drainage with constructed wetlands. – Land Contam. Reclam., 11(2):221–229, doi:10.2462/09670513.818.
• Wisotzky, F. (2001): Prevention of Acidic Groundwater in Lignite Overburden Dumps by the Addition of Alkaline Substances: Pilot-scale Field Experiments. – Mine Water Environ., 20(3):122–128, 6 Abb., 2 Tab.; doi:10.1007/s10230-001-8093-0.
• Wisotzky, F. (2004): Mitigation of Acid Mine Drainage Problems by Addition of Limestone at the Rhineland Lignite Mining Area (Germany). – Wiss. Mitt. Inst. Geol., 25:167–173, 2 Abb., 1 Tab.
• Wisotzky, F. (2018): Wasserchemie der Erbstollenwässer im südlichen Ruhrgebiet. – KW – Korrespondenz Wasserwirtschaft,(1):36–41, doi:10.3243/kwe2018.01.003.
• Wisotzky, F. & Cremer, N. (2003): Sequential Extraction Procedure in Columns – Part 1: Development and Description of a new Method. – Environ. Geol., 44(7):799–804.
• Wisotzky, F. & Cremer, N. (2003): Sequential Extraction Procedure in Columns – part 2: Application of a new Method. – Environ. Geol., 44(7):805–810.
• Wisotzky, F., Cremer, N. & Lenk, S. (2018): Angewandte Grundwasserchemie, Hydrogeologie und hydrogeochemische Modellierung – Grundlagen, Anwendungen und Problemlösungen, 2nd edn. – 678 p., 179 Abb., 91 Tab.; Heidelberg (Springer); doi:10.1007/978-3-662-55558-3.
• Wisotzky, F. & Lenk, S. (2006): Darstellung und Evaluierung der Minderungsmaßnahmen zur Kippenwasserversauerung im Tagebau Garzweiler der RWE Power AG (Rheinisches Braunkohlenrevier, Germany). – Wiss. Mitt. Inst. Geol., 31:133–138, 4 Abb., 1 Tab.
• Wissenschaftlich-Technische Werkstätten GmbH (1997): Leitfähigkeits-Fibel – Einführung in die Konduktometrie für Praktiker. Wissenschaftlich-Technische Werkstätten GmbH, Weilheim, 58.
• Witkowski, A. (1987): The hydrogeological Properties of the carboniferous Sandstones in the SW Part of the Upper Silesian Coal Basin in the Light of the laboratory Research: Hydrogeology of Coal Basins. – 189–201 p., 4 Abb., 3 Tab.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Witkowski, A. J. (1997): Environmental Aspects of Use of the Carboniferous Waste-Rocks for Road Construction. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 2:491–499, 2 Abb., 1 Tab.
• Witkowski, A. J. (2021): 40 Years of IMWA in Poland. – Mine Water Environ., 40(3):567–569, doi:10.1007/s10230-021-00787-x.
• Witkowski, A. J., Motyka, J. & Wróbel, J. (2003): Assessment of potential risk of groundwater contamination in areas subjected to the intensive mining drainage – Case study from Poland – Olkusz Zn-Pb ore mining region. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 221–234, 9 Abb., 4 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Wittenberg, A. & Schwarz-Schampera, U. (2005): Advanced Investigations of Unconventional Uranium and Thorium Deposits by In-Situ µ-EDXRF Analysis. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 159–164, Heidelberg (Springer).
• Witter, R. (2002): Auswirkungen einer künstlichen Destratifikation auf die thermischen und hydrodynamischen Verhältnisse in der Bleilochtalsperre. – 196 p., 85 Abb., 8 Tab.; Bauhaus-Universität Weimar (unveröff. Dissertation).
• Witthaus, H. (2023): Grubenwassermonitoring in geschlossenen Bergwerken der RAG Aktiengesellschaft. – Bergbau, 74(10):449–452, 8 Abb.
• Witthaus, H. & Drobniewski, M. (2017): Monitoring of Mine Water. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 88–93, Lappeenranta (Lappeenranta University of Technology).
• Witthaus, H., Frankenhoff, H. & Balzer, I. (2017): Minewater concept in detail – A case study of closing a German coal mine at Ruhr district. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 175–182, Lappeenranta (Lappeenranta University of Technology).
• Witthaus, H. & Melchers, Ch. (2019): Mine Water Monitoring in Abandoned Mines at RAG Aktiengesellschaft. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 59–67; Perm, Russia (Perm State University).
• Witthäuser, K. (2002): Tracerversuche in Festgesteinen. – Wiss. Mitt. Inst. Geol., 19:53–62, 5 Abb., 2 Tab.
• Witthüser, K. T. & Holland, M. (2008): Hydrogeology of the Cradle of Humankind World Heritage Site, South Africa. Paper presented at the The 12th International Conference of International Association for Computer Methods and Advances in Geomechanics (IACMAG), Goa, 1–6 October, 2008. – p. 4811–4818.
• Witthüser, K. T., Holland, M., Seidel, T. & König, C. M. (2015): Numerical Modelling of Mine Dewatering and Flooding in the Evander Gold Basin, South Africa. – S. Afr. J. Geol., 118(1):71–82, doi:10.2113/gssajg.118.1.71.
• Wittle, J. K. & Pamukcu, S. (1993): Electrokinetic treatment of contaminated soils, sludges, and lagoons – Final report: DOE/CH-9206. – 65 p., 38 Abb., 10 Tab.; Washington (U.S. Department of Energy).
• Wittlinger, R. & Ballschmiter, K. (1987): Global baseline pollution studies XI: Congener specific determination of polychlorinated biphenyls (PCB) and occurrence of alpha- and gamma-hexachlorocyclohexane (HCH), 4,4′-DDE and 4,4′-DDT in continental air. – Chemosphere, 16(10):2497–2513, doi:10.1016/0045-6535(87)90308-0.
• Wittmann, G. T. W. & Förstner, U. (1976): Heavy metal enrichment in mine drainage: I. The Rustenburg Platinum Mining Area. – S. Afr. J. Sci., 72:342–346, 1 Abb., 3 Tab.
• Wittmann, G. T. W. & Förstner, U. (1976): Heavy metal enrichment in mine drainage: II. The Witwatersrand goldfields. – S. Afr. J. Sci., 72:365–370, 1 Abb., 3 Tab.
• Wittmann, G. T. W. & Förstner, U. (1977): Heavy metal enrichment in mine drainage: III. The Klerksdorp, West Wits and Evander Goldfields. – S. Afr. J. Sci., 73(2):53–57.
• Wittrup, M. B. (1988): The origin of water leaks in Saskatchewan potash mines. – 116 p., Refs: 166; Saskatoon (University of Saskatchewan).
• Wittrup, M. B., Kyser, T. K. & Danyluk, T. (1986): The use of stable isotopes to determine the source of brine in Saskatchewan potash mines. – Special Publication – Saskatchewan Geological Society, 8:159–165, 5 Abb.
• Witz, L. (2019): Archives, museums and autobiography: Reflections on write your own history (with a small detour to the University of Bophuthatswana). – Journal for Contemporary History, 44(2):4–28, doi:10.18820/24150509/SJCH44.v2.1.
• Wixforth, H. & Ziegler, D. (1994): The niche in the universal banking system: the role and significance of private bankers within German industry, 1900 – 1933. – Financial history review, 1(2):99–119, 4 Tab.
• Wöbking, H. (1982): Untertägige Eigenpotentialmessungen in den Bergbauen Großkogel bei Brixlegg und Falkenstein bei Schwaz. – Berg- u. Hüttenm. Mh., 127(12):476–483, 8 Abb.
• Wojciechowksi, J. (1985): Land subsidence effected by dewatering of open-pits. – Proceedings, 2nd International Mine Water Association Congress, 2:875–889.
• Wojtkowiak, F., Couillet, J.-C., Daupley, X. & Tauziede, C. (2000): Geotechnical and environmental impacts on the surface of the water rising in French underground coal mines after closure. – Proceedings, 7th International Mine Water Association Congress:180–194, 6 Abb.
• Wolansky, D. (1964): Die Hydrogeologie des Deckgebirges im niederrheinisch- westfälischen Revier in ihrer Bedeutung für den Bergbau. – Z. dt. geol. Ges., 116(1):55–69, 5 Abb.; doi:10.1127/zdgg/116/1964/55.
• Wold, S., Esbensen, K. & Geladi, P. (1987): Principal component analysis. – Chemom. Intell. Lab. Syst., 2(1):37–52, 16 Abb.; doi:10.1016/0169-7439(87)80084-9.
• Wolery, T. J. (1992): EQ3NR, A Computer Program for Geochemical Aqueous Speciation-Solubility Calculations: Theoretical Manual, User’s Guide, and Related Documentation (Version 7.0): 110662 PT III. – 246 p., 7 Abb., Div Tab.; Livermore (Lawrence Livermore National Laboratory); doi:10.2172/138643.
• Wolf, B. (1932): Forschungen im Zugspitzgebiet. – Mitt. Höhlen- u. Karstforschung (1-4):153–154.
• Wolf, C., Christmann, P., Gummer, T., Schnaudt, C. & Verhoeven, S. (2021): Conducting General Social Surveys as Self-Administered Mixed-Mode Surveys. – Public Opin. Q., 85(2):623–648, doi:10.1093/poq/nfab039.
• Wolf, P. P. (1807): Kurzgefaßte Geschichte, Statistik und Topographie von Tirol. – 324 p., München (Lindauer).
• Wolf, W. (1923): Das silberne Zeitalter im Montafon. – Heimat – volkstüml. Beitr. zur Kultur u. Naturkunde Vorarlbergs, 4:33–35.
• Wolfe, N., Hedin, R., Hedin, B. & Weaver, O. (2024): Passive Treatment using Drainable Limestone Beds: Lessons from 13 Years of Design and Maintenance. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 645–646; Morgantown (International Mine Water Association).
• Wolfe, N. A., Hedin, R. S., Hedin, B. C. & Weaver, O. J. (2025): Evaluating the Effectiveness of Various Aggregate Cleaning Methods. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 844–849; Braga (International Mine Water Association).
• Wolfers, B. & Ademmer, C. (2010): Grenzen der bergrechtlichen Nachsorgehaftung – Verhältnismäßigkeitsprüfung im Bergrecht nach dem Rammelsberg-Urteil. – Deutsches Verwaltungsblatt – Abhandlungen, 2010(1):22–27.
• Wolfstrigl-Wolfskron, M. R. v. (1899): Beitrag zur Geschichte des Tiroler Erz-Bergbaues in den Jahren 1595–1617. – Veröff. Tiroler Landes-Mus. Ferdinandeum:125–177, 1 Tab.
• Wolfstrigl-Wolfskron, M. R. v. (1903): Die Tiroler Erzbergbaue 1301 – 1665. – 473 p., 15 Tab.; Innsbruck (Wagner).
• Wolkersdorfer, Ch. (1989): Zur Geschichte, Mineralisation und Genese des ehemaligen Bergbaues auf die Blei-Zink Vorkommen SE des Ehrwalder Talkessels (Tirol) mit einer geologischen Kartierung (M 1:10.000) im westlichen Mieminger Gebirge. – 169 p., 85 Abb., 15 Tab., 3 Beil.; Clausthal (Unveröff. Dipl.-Arb. TU Clausthal).
• Wolkersdorfer, Ch. (1990): Ehrwaldit vor 125 Jahren entdeckt. – Außerferner Nachrichten, 7.6.1990:4, 1 Abb.
• Wolkersdorfer, Ch. (1991): Aufschluß an einem Tomahügel des Fernpaßbergsturzes/Tirol. – Jb. Geol. B.-A., 134(2):439–441, 2 Abb.
• Wolkersdorfer, Ch. (1991): Geschichte des Bergbaues im westlichen Mieminger Gebirge/Tirol. – Der Aufschluss, 42(6):359–379, 18 Abb.
• Wolkersdorfer, Ch. (1991): Von Wendelstein nach Wendelstein – Reise in sterbendes Land. – Das Magazin für junge Soldaten, 6(6):22–23, 2 Abb.
• Wolkersdorfer, Ch. (1993): Aktuelle Probleme der Wehrgeologie. – Nachr. Dt. Geol. Ges., 50:146–149, 2 Abb.
• Wolkersdorfer, Ch. (1994): Changes in mine water hydrology during the flooding of an abandoned uranium mine in the Erzgebirge/Saxonia/Germany. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 1:43–55, 8 Abb., 5 Tab.
• Wolkersdorfer, Ch. (1994): Rubus chamaemorus (Multebeere) als Zeigerpflanze am Sæterfjell (Nordland/Norwegen). – Der Aufschluss, 45(2):82–86, 2 Abb., 2 Tab.
• Wolkersdorfer, Ch. (1995): Die Flutung des ehemaligen Uranbergwerks Niederschlema/Alberoda der SDAG Wismut. – Z. geol. Wiss., 23(5/6):795–808, 4 Abb., 6 Tab.
• Wolkersdorfer, Ch. (1996): Hydrogeochemical investigations of an abandoned uranium mine in the Erzgebirge/Germany. – Appl. Geochem., 11(1 & 2):237–241, 4 Abb., 2 Tab.; doi:10.1016/0883-2927(95)00060-7.
• Wolkersdorfer, Ch. (1996): Hydrogeochemische Verhältnisse im Flutungswasser eines Uranbergwerks – Die Lagerstätte Niederschlema/Alberoda. – Clausthaler Geowiss. Diss., 50:1–216, 131 Abb., 61 Tab.
• Wolkersdorfer, Ch. (1998): Vorschlag für eine neue Zitierweise in den Geowissenschaften. – Nachr. Dt. Geol. Ges., 64:32–34.
• Wolkersdorfer, Ch. (2000): Bergbau an der Silberleithe – Geschichte, Mineralisation und Entstehung der Blei-Zink-Vorkommen im westlichen Mieminger Gebirge, 2 edn. – 89 p., 74 Abb., 6 Tab.; Freiberg (Eigenverlag Wolkersdorfer).
• Wolkersdorfer, Ch. (2001): Tracer Tests in Flooded Underground Mines. – In: Seiler, K.-P. & Wohnlich, S. (eds): New Approches Characterizing Groundwater Flow 1. – p. 229–233, 4 Abb., 3 Tab.; Rotterdam (Balkema).
• Wolkersdorfer, Ch. (2002): Mine water tracing. – Spec. Publ. – Geol. Soc. London, 198:47–61, 5 Abb., 6 Tab.; doi:10.1144/GSL.SP.2002.198.01.03.
• Wolkersdorfer, Ch. (2002): Rare Earth Elements (REEs) as Natural Tracers in Mine Water. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 967–974, 2 Abb., 1 Tab.; Heidelberg (Springer).
• Wolkersdorfer, Ch. (2002): Twenty years of the International Mine Water Association Journal – the First Issue. – Mine Water Environ., 21(2):100–101, 3 Abb.; doi:10.1007/s102300200025.
• Wolkersdorfer, Ch. (2003): Tracertest Straßberg/Harz 2003. – Unpubl. Report for Gesellschaft zur Verwahrung und Verwertung von stillgelegten Bergwerksbetrieben mb, H. G. (Report Nr. 03010255). – 21 p., 3 Abb., 6 Tab., 8 Anl.; Freiberg/Sachsen (TU Bergakademie Freiberg – Lehrstuhl für Hydrogeologie).
• Wolkersdorfer, Ch. (2004): Mine Water Literature in ISI’s Science Citation Index Expanded™. – Mine Water Environ., 23(2):96–99, 3 Abb., 3 Tab.; doi:10.1007/s10230-004-0046-y.
• Wolkersdorfer, Ch. (2005): Geologische Verhältnisse des Montafons und angrenzender Gebiete: Montafon: Mensch – Geschichte – Umwelt 1. – 25–55 p., 41 Abb., 1 Tab.; Schruns (Eigenverlag Stand Montafon).
• Wolkersdorfer, Ch. (2005): Mine Water Management and the Water Framework Directive. – 1–8 [CD–ROM] p., 3 Abb., 1 Tab.; Nancy (Proceedings Post-Mining 2005).
• Wolkersdorfer, Ch. (2005): Mine water tracer tests as a basis for remediation strategies. – Chem. Erde, 65(Supp 1):65–74, 3 Abb., 1 Tab.; doi:10.1016/j.chemer.2005.06.003.
• Wolkersdorfer, Ch. (2005): Tracer Tests as a Mean of Remediation Procedures in Mines. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment. – p. 817–822, 1 Abb., 1 Tab.; Heidelberg (Springer); doi:10.1007/3-540-28367-6_84.
• Wolkersdorfer, Ch. (2006): Acid Mine Drainage Tracer Tests. ICARD 2006 7. – p. 2490–2501 [CD–ROM], 5 Abb.; St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06022490.
• Wolkersdorfer, Ch. (2006): Wasser, Quell des Lebens – Hydrogeologische Untersuchungen in Troia. – In: Korfmann, M. O. (ed) Troia – Archäologie eines Siedlungshügels und seiner Landschaft. – p. 329–336, 7 Abb.; Mainz (Zabern).
• Wolkersdorfer, Ch. (2006): Water Management at Abandoned Flooded Underground Mines – Fundamentals – Tracer Tests – Modelling – Water Treatment. – 348 p., 123 Abb., 34 Tab.; Freiberg (unpubl. Habilitation Thesis TU Bergakademie Freiberg).
• Wolkersdorfer, Ch. (2008): Water Management at Abandoned Flooded Underground Mines – Fundamentals, Tracer Tests, Modelling, Water Treatment. – 465 p., 126 Abb., 34 Tab.; Heidelberg (Springer); doi:10.1007/978-3-540-77331-3.
• Wolkersdorfer, Ch. (2009): Hydrochemistry of Mine Water Discharges in the Abandoned Upper Bavarian Pitch Coal Mining District/Germany. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 823–827, 3 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Wolkersdorfer, Ch. (2010): Tracer Test in A Settling Pond – The Passive Mine Water Treatment Plant of the 1 B Mine Pool, Nova Scotia, Canada. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 295–299, Sydney, NS (Cape Breton University Press).
• Wolkersdorfer, Ch. (2011): Mine Water Discharges of the Southern Bavarian Pitch Coal District: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 639–642 p., Aachen (RWTH Aachen University).
• Wolkersdorfer, Ch. (2011): Tracer Test in a Settling Pond – The Passive Mine Water Treatment Plant of the 1 B Mine Pool, Nova Scotia, Canada. – Mine Water Environ., 30(2):105–112, 6 Abb., 1 Tab.; doi:10.1007/s10230-011-0147-3.
• Wolkersdorfer, Ch. (2012): Getting rid of chemical analysis – Mine water management with indicator parameters: International Mine Water Association Symposium. – 505–512 p., 4 Abb., 1 Tab.; Bunbury (Edith Cowan University).
• Wolkersdorfer, Ch. (2012): Wood: Disasters and Minewater (Book Review). – Mine Water Environ., 31(3):233–235, doi:10.1007/s10230-012-0195-3.
• Wolkersdorfer, Ch. (2013): Grubenwasserreinigung – Verfahren und Vorgehensweisen. – Unpubl. Report for Sächsisches Landesamt für Umwelt Landwirtschaft und Geologie (Report Nr. EU Ziel-3-Projekt). – 198 p., 73 Abb., 20 Tab.; Pretoria (Tshwane University of Technology).
• Wolkersdorfer, Ch. (2013): Management von Grubenwasser 3.0 – Blick in die Zukunft. – Wiss. Mitt. Inst. Geol., 44:105–113, 1 Abb.
• Wolkersdorfer, Ch. (2017): Mine Water Hydrodynamics, Stratification and Geochemistry for Mine Closure – The Metsämonttu Zn-Cu-Pb-Au-Ag-Mine, Finland. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 132–139, 3 Abb., 1 Tab.; Lappeenranta (Lappeenranta University of Technology).
• Wolkersdorfer, Ch. (2018): Verlauf der Paläoloisach im Außerfern – Ein Rekonstruktionsversuch. Paper presented at the Geoforum Umhausen, Umhausen. – p. 192–200, 3 Abb., 1 Tab.; Innsbruck.
• Wolkersdorfer, Ch. (2019): Gibt es hydrogeologische Hinweise auf einen Gipskarst am Fernpass? [Is there hydrogeological evidence of a gypsum karst on the Fernpass?]. Paper presented at the Geoforum Umhausen, Umhausen. – p. 99–103; Innsbruck.
• Wolkersdorfer, Ch. (2020): Grubenwasserchemie – Über Grundwasser und Grubenwasser und kleine Tierchen [Chemismus důlních vod – o podzemních a důlních vodách a malých zvířátkách]. – Freib. Forsch.-H., A 935:13–22, 3 Abb.
• Wolkersdorfer, Ch. (2021): Mine Water and the Environment: History Until Volume 40 and the New Cover Design. – Mine Water Environ., 40(3):557–561, doi:10.1007/s10230-021-00794-y.
• Wolkersdorfer, Ch. (2021): Pohl: Economic Geology 2nd Edition (Book Review). – Mine Water Environ., 40(2):553–554, 1 Abb.; doi:10.1007/s10230-020-00738-y.
• Wolkersdorfer, Ch. (2021): Reinigungsverfahren für Grubenwasser [Mine Water Treatment]. – 362 p., 114 Abb., 29 Tab.; Heidelberg (Springer); doi:10.1007/978-3-662-61721-2.
• Wolkersdorfer, Ch. (2021): Valanko et al.: About Water Treatment (Book Review). – Mine Water Environ., 40(3):803–804, doi:10.1007/s10230-021-00763-5.
• Wolkersdorfer, Ch. (2022): Mine Water Treatment – Active and Passive Methods. – 328 p., 115 Abb., 29 Tab.; Heidelberg (Springer); doi:10.1007/978-3-662-65770-6.
• Wolkersdorfer, Ch. (2022): Paleoenvironmental changes in river channel systems in alpine rockslide deposits exemplified by the Fernpass rockslide in the Tyrolian Außerfern District, Austria. – Nat. Sci. Reports, 13 Abb., 3 Tab.; doi:10.1038/s41598-022-25922-8.
• Wolkersdorfer, Ch. (2024): Performance of a Vertical Flow Reactor Treating Acid Mine Drainage of an Abandoned Coal Mine near Carolina, Mpumalanga, South Africa. Paper presented at the 13th International Conference on Acid Rock Drainage (ICARD) 2024, Halifax. – p. 1–10 [electronic file], 7 Abb., 2 Tab.; Westmount (Canadian Institute of Mining, Metallurgy and Petroleum).
• Wolkersdorfer, Ch. (2025): Dobkovičky Quarry – New Borehole locations and Tracer Injection Sites – Final Report. – Unpubl. Report for KÁMEN Zbraslav a. s. | Praha (Report Nr. 2025/01). – 19 p., Pretoria (Acchoda Consulting).
• Wolkersdorfer, Ch. (2025): Hydrodynamic Investigation of a density-stratified Underground Mine – Tracer Test Challenges and Results in the Georgi-Unterbau Mine, Tyrol, Austria. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1011–1016, 1 Abb., 1 Tab.; Braga (International Mine Water Association).
• Wolkersdorfer, Ch. (2025): Obituary Przemysław Bukowski (1959-01-02 – 2025-07-27). – Mine Water Environ., doi:10.1007/s10230-025-01074-9.
• Wolkersdorfer, Ch. (2025): Sahu: Physico-Chemical Analysis of the Mine River Water (Book Review). – Mine Water Environ., 44(4):884–886, 1 Abb.; doi:10.1007/s10230-025-01076-7.
• Wolkersdorfer, Ch. & Baierer, C. (2013): Improving Mine Water Quality by Low Density Sludge Storage in Flooded Underground Workings. – Mine Water Environ., 32(1):3–15, 10 Abb., 4 Tab.; doi:10.1007/s10230-012-0204-6.
• Wolkersdorfer, Ch. & Bantele, M. (2013): Die Oberbayerische Pechkohlenmulde – Hydrogeochemische Untersuchungen der Grubenwässer [The Upper Bavarian Pitch Coal Basin – Hydrogeochemical Investigations of the Mine Waters]. – Grundwasser, 18(3):185–196, 5 Abb., 3 Tab.; doi:10.1007/s00767-013-0230-8.
• Wolkersdorfer, Ch., Blume, C. & Weber, C. (2003): Trace Elements in the Waters of Troy. – Wiss. Mitt. Inst. Geol., 24:91–95, 4 Abb.
• Wolkersdorfer, Ch. & Bowell, R. J. (2004): Contemporary Reviews of Mine Water Studies in Europe. – Mine Water Environ., 23(4):161, doi:10.1007/s10230-004-0059-6.
• Wolkersdorfer, Ch. & Bowell, R. J. (2005): Contemporary Reviews of Mine Water Studies in Europe. – Mine Water Environ., 24(3):1–76, 33 Abb., 21 Tab.; doi:10.1007/s10230-005-0081-3.
• Wolkersdorfer, Ch., Bowell, R. J., O’Sullivan, A. D., Diels, L., Grmela, A., Rapantová, N., Pfeifer, H.-R., Dold, B., Midžić, S., Silajdžić, I., Cabral Pinto, M. M. S. & Silva, M. M. V. G. (2005): Contemporary Reviews of Mine Water Studies in Europe, Part 3. – Mine Water Environ., 24(2):58–76, doi:10.1007/s10230-005-0074-2.
• Wolkersdorfer, Ch., Feldtner, N. & Trebušak, I. (1997): LydiA – A new Method for tracing Mine Water. – Proceedings, 6th International Mine Water Association Congress, Bled, Slovenia, 1:43–55, 3 Abb., 2 Tab.
• Wolkersdorfer, Ch., Feldtner, N. & Trebušak, I. (2002): Mine Water Tracing – A Tool for Assessing Flow Paths in Flooded Underground Mines. – Mine Water Environ., 21(1):7–14, 3 Abb., 3 Tab.; doi:10.1007/s102300200002.
• Wolkersdorfer, Ch. & Forum Bergbau und Wasser (2025): Focus Mine Water – How our Research Findings broaden the Focus. – 43 p., 19 Abb.; Essen (Forum Bergbau und Wasser).
• Wolkersdorfer, Ch. & Forum Bergbau und Wasser (2025): Fokus Grubenwasser – Wie unsere Forschungsergebnisse den Fokus erweitern. – 43 p., 19 Abb.; Essen (Forum Bergbau und Wasser).
• Wolkersdorfer, Ch. & Göbel, J. (2003): Wasser für Troja oder Hektors Wasserbergwerk?: 10 Jahre – Besucherbergwerk Grube Wohlfahrt. – 150–154 p., 7 Abb.; Rescheid (Tagungsband – 6. Internationaler Bergbau-Workshop).
• Wolkersdorfer, Ch. & Göbel, J. (2004): Hydrogeologie der Troianischen Landschaft – Eine Bestandsaufnahme. – Studia Troica, 14:157–167, 9 Abb., 1 Tab.
• Wolkersdorfer, Ch., Göbel, J., Blume, C. & Weber, C. (2004): Hydrogeologische Probenahmestellen in der Troianischen Landschaft. – Studia Troica, 14:169–200, 19 Abb., 2 Tab.
• Wolkersdorfer, Ch., Göbel, J. & Hasche-Berger, A. (2016): Assessing subsurface flow hydraulics of a coal mine water bioremediation system using a multi-tracer approach. – Int. J. Coal Geol., 164:58–68, 9 Abb., 2 Tab.; doi:10.1016/j.coal.2016.03.010.
• Wolkersdorfer, Ch., Göbel, J., Hasche-Berger, A. & Hanneberg, A. (2007): Führer zum Montan-Wanderweg Silberleithe. – 79 p., 128 Abb.; Biberwier (Bergwerksverein Silberleithe Tirol).
• Wolkersdorfer, Ch. & Hasche, A. (2001): Environmental Regulation of Mine Waters in the European Union – D 1 National Case Studies – Germany. ERMITE Final Report – EU R&D Project EVK1-CT-2000-00078. – p. 33, 5 Abb., 5 Tab.; Freiberg (TU Bergakademie Freiberg).
• Wolkersdorfer, Ch. & Hasche, A. (2001): Tracer Test in the abandoned Fluorspar Mine Straßberg/Harz Mountains, Germany. – Wiss. Mitt. Inst. Geol., 16:57–67, 5 Abb., 5 Tab.
• Wolkersdorfer, Ch. & Hasche, A. (2001): Tracer Test in the abandoned Fluorspar Mine Straßberg/Harz Mountains, Germany. – 1–11 [CD–ROM] p., 5 Abb., 5 Tab.; Belo Horizonte (Proceedings IMWA Symposium Belo Horizonte).
• Wolkersdorfer, Ch. & Hasche, A. (2004): Tracer Investigations in flooded mines – The Straßberg/Harz Multitracer Test. – In: Prokop, G., Younger, P. L. & Roehl, K. E. (eds): Conference Papers 35. – p. 45–56, 5 Abb., 5 Tab.; Wien (Umweltbundesamt).
• Wolkersdorfer, Ch., Hasche, A. & Göbel, J. (2003): ERMITE – Grubenwasser in der Europäischen Union. – In: Sroka, A., Löbel, K. H., Klapperich, H., Tondera, D., Meier, G. & Busch, W. (eds): 3. Altbergbau-Kolloquium. – p. 376–381, 1 Abb., 1 Tab.; Essen (Glückauf).
• Wolkersdorfer, Ch., Hasche, A., Göbel, J. & Younger, P. L. (2005): Tracer Test in the Bowden Close Passive Treatment System (UK) – Preliminary Results. – Wiss. Mitt. Inst. Geol., 28:87–92, 7 Abb., 1 Tab.
• Wolkersdorfer, Ch., Hasche, A., Tschapek, J., Veselič, M. & LeBlanc, M. (2002): Scoping Study: Applicability of PIR Systems to mine waters in Eastern and Southern Europe. – 151–159 p., 7 Tab.; Karlsruhe (Proceedings First Image-Train Cluster-Meeting).
• Wolkersdorfer, Ch., Hasche, A., Unger, K. & Wackwitz, T. (2002): Tracer Techniken im Bergbau – Georgi-Unterbau bei Brixlegg/Tirol. – Wiss. Mitt. Inst. Geol., 19:37–43, 4 Abb., 1 Tab.
• Wolkersdorfer, Ch. & Hubert, E. (2015): Establishing a Total Dissolved Solids:Electrical Conductivity ratio for Mine Waters. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–8 [electronic document], Santiago/Chile (Gecamin); doi:10.13140/RG.2.1.3823.2081.
• Wolkersdorfer, Ch. & Kleinmann, R. L. P. (2011): Best Practice of Mine Water Management and Treatment – An International Review. – In: Paul, M. (ed) Nachhaltigkeit und Langzeitaspekte bei der Sanierung von Uranbergbau- und Aufbereitungsstandorten. – p. 255–257, Chemnitz (Wismut GmbH).
• Wolkersdorfer, Ch., Komischke, H., Pester, S. & Hasche-Berger, A. (2013): Hydrodynamics in a flooded underground limestone mine. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology II. – p. 1165–1172, 5 Abb., 1 Tab.; Denver (International Mine Water Association).
• Wolkersdorfer, Ch. & Kubiak, C. (2008): Low Density Sludge Storage in a flooded Underground Mine. – In: Rapantova, N. & Hrkal, Z. (eds): Mine Water Environ. – p. 51–54, 1 Abb., 1 Tab.; Ostrava (VSB – Technical University of Ostrava).
• Wolkersdorfer, Ch. & Kubiak, C. (2008): Low Density Sludge Storage in the Flooded Straßberg/Harz Underground Mine. – Wiss. Mitt. Inst. Geol., 37:149–160, 9 Abb., 2 Tab.
• Wolkersdorfer, Ch. & LeBlanc, J. (2012): Regulations, Legislation, and Guidelines for Artificial Surface Water and Groundwater Tracer Tests in Canada. – Water Qual. Res. J. Canada, 47(1):42–55, 1 Abb., 4 Tab.; doi:10.2166/wqrjc.2012.042.
• Wolkersdorfer, Ch., Lopes, D. V. & Nariyan, E. (2015): Intelligent Mine Water Treatment – Recent International Developments. – In: Paul, M. (ed) Sanierte Bergbaustandorte im Spannungsfeld zwischen Nachsorge und Nachnutzung – WISSYM 2015. – p. 63–68, 2 Abb.; Chemnitz (Wismut GmbH); doi:10.13140/RG.2.1.2441.5849.
• Wolkersdorfer, Ch. & MacSween, J. (2011): A 100 hour pump test in the 1B mine pool of the Sydney Coal Field, Nova Scotia, Canada: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 643–644 p., Aachen (RWTH Aachen University).
• Wolkersdorfer, Ch., Mahlangu, O. T., Wiltschka, K. & Böhm, L. (2025): Analysis, occurrence and removal of polychlorinated biphenyls (PCBs) in mine water – A review. – Environ. Sci. Eur., 37(183):1–37, 7 Abb., 2 Tab.; doi:10.1186/s12302-025-01197-4.
• Wolkersdorfer, Ch. & Melchers, Ch. (2021): Blickfänge – Was Sie über Grubenwasser im Blick haben sollten [Eye-catchers – What you should keep in mind about mine water]. – 24 p., Essen (Forum Bergbau und Wasser).
• Wolkersdorfer, Ch. & Merkel, B. J. (2005): The flooded Freiberg/Sachsen Mining District – Hydrogeochemistry, Hydrodynamics and Environmental Impacts: Mine Water 2005 – Mine Closure. – 185–187 p., 1 Abb., 1 Tab.; Oviedo (University of Oviedo).
• Wolkersdorfer, Ch. & More, K. (2021): Digital technologies for mine water management. – Water & Sanitation Africa, 16(4):34–35.
• Wolkersdorfer, Ch., More, K. S. & Lupankwa, M. (2017): Analoge Modellierung von Tomahügeln [An analogue Toma Hill Model]. Paper presented at the Geoforum Umhausen, Umhausen. – p. 61–69, 3 Abb., 2 Tab.
• Wolkersdorfer, Ch., More, K. S., Mugova, E., Nchabeleng, N. & Sotiralis, A. J. (2024): Hydrogeochemical investigations in the vicinity of the former Havelock asbestos mine near Bulembu, eSwatini (formerly Swaziland). Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 647–651, 4 Abb.; Morgantown (International Mine Water Association).
• Wolkersdorfer, Ch., More, K. S., Mugova, E., Nchabeleng, N. & Sotiralis, A. J. (2025): Hydrogeochemical and hydrogeological baseline study following the mining of asbestos at the Havelock Mine, Bulembu, eSwatini. – J. Afr. Earth Sci.:105533, doi:10.1016/j.jafrearsci.2024.105533.
• Wolkersdorfer, Ch. & Mugova, E. (2020): Temporäre Entwicklung der Dichteschichtung in einem gefluteten Bergwerksschacht eines Gold-Kleinbergbaus in Biberwier/Tirol [Temporary development of density layering in a flooded mine shaft of a small gold mine in Biberwier/Tyrol]. Paper presented at the Geoforum Umhausen, Umhausen. – p. 97–102, 3 Abb., 1 Tab.
• Wolkersdorfer, Ch. & Mugova, E. (2022): Effects of Mining on Surface Water. – In: Irvine, K., Chapman, D. & Warner, S. (eds): The Encyclopedia of Inland Waters 4, 2nd edn. – p. 170–188, 6 Abb., 2 Tab.; Oxford (Elsevier); doi:10.1016/B978-0-12-819166-8.00036-0.
• Wolkersdorfer, Ch. & Mugova, E. (2023): Untersuchungen zum Verständnis von Grubenflutung und der Barrierewirkung von Dichteschichtung. – In: Bock, M., Goerke-Mallet, P., Melchers, Ch., Rudolph, T. & Westermann, S. (eds): 21. Altbergbau-Kolloquium – Tagungsband. – p. 197–204, 2 Abb.; Clausthal (Papierflieger).
• Wolkersdorfer, Ch., Mugova, E., Daga, V. S., Charvet, P. & Vitule, J. R. S. (2022): Effects of Mining on Surface Water – Case Studies. – In: Irvine, K., Chapman, D. & Warner, S. (eds): The Encyclopedia of Inland Waters 4, 2nd edn. – p. 210–224, 6 Abb., 2 Tab.; Oxford (Elsevier); doi:10.1016/B978-0-12-819166-8.00085-2.
• Wolkersdorfer, Ch., Neumann, C. & Hasche-Berger, A. (2007): Hydrodynamics of the flooded Freiberg/Saxony Underground Mine: Water in Mining Environments. – 117–121 p., 3 Abb., 1 Tab.; Cagliari (Mako Edizioni).
• Wolkersdorfer, Ch., Neumann, C. & Hasche-Berger, A. (2007): Tracer Tests in the flooded Himmelfarth Fundgrube Underground Mine (Freiberg/Saxony). – Wiss. Mitt. Inst. Geol., 35:157–162, 3 Abb., 1 Tab.
• Wolkersdorfer, Ch., Nordstrom, D. K., Beckie, R., Cicerone, D. S., Elliot, T., Edraki, M., Valente, T. M., França, S. C. A., Kumar, P., Oyarzún Lucero, R. A. & Soler, A. I. G. (2020): Guidance for the Integrated Use of Hydrological, Geochemical, and Isotopic Tools in Mining Operations. – Mine Water Environ., 39(2):204–228, 7 Abb., 2 Tab., 5 Anl.; doi:10.1007/s10230-020-00666-x.
• Wolkersdorfer, Ch. & Qonya, B. (2017): Passive Mine Water Treatment with a full scale, containerized Vertical Flow Reactor at the abandoned Metsämonttu mine site, Finland. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 109–116, Lappeenranta (Lappeenranta University of Technology).
• Wolkersdorfer, Ch., Roode-Gutzmer, Q., Hanke, C. & Bantele, M. (2026): Auf der Suche nach dem Heiligen Gral – Grubenwasser und kritische Rohstoffe. In: Musolff, A. & Rüsgen, M. (eds) Grundwasser und Wassersicherheit im Wandel, Leipzig, 10.–13.3.2026 2026. Schriftenreihe, vol 6. FH-DGGV e.V., 215–216 S.
• Wolkersdorfer, Ch., Shongwe, L. & Schmidt, C. (2016): Can natural Stratification prevent Pollution by Acid Mine Drainage? Paper presented at the IMWA 2016 – Mining Meets Water – Conflicts and Solutions, Leipzig/Germany. – p. 115–121; Freiberg (TU Bergakademie Freiberg).
• Wolkersdorfer, Ch., Stadler, S., Bretzler, A., Müller, C. & Zedler, C. (2021): Hydrochemical Investigations to locate Homer’s Hot and Cold Springs of Troia (Troy)/Turkey. – Catena, 200:105070/1–105070/10, 9 Abb., 1 Tab.; doi:10.1016/j.catena.2020.105070.
• Wolkersdorfer, Ch., Tamme, S. & Hasche, A. (2003): Natural attenuation of iron rich mine water by a surface brook. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 433–439, 7 Abb.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Wolkersdorfer, Ch. & Thiem, G. (1998): Land Subsidence in north-eastern Saxony (Lusatia)/Germany due to Ground Water Withdrawal: Mine Water and Environmental Impacts 2. – 259–270 p., 3 Abb., 4 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Wolkersdorfer, Ch. & Thiem, G. (1999): Ground Water Withdrawal and Land Subsidence in Northeastern Saxony (Germany). – Mine Water Environ., 18(1):81–92, 3 Abb., 4 Tab.; doi:10.1007/BF02687252.
• Wolkersdorfer, Ch., Trebušak, I. & Feldtner, N. (1997): Development of a Tracer Test in a flooded Uranium Mine using Lycopodium clavatum. – In: Kranjc, A. (ed) Tracer Hydrology 97 – International Symposium of Underground Water Tracing 7. – p. 377–385, 4 Abb., 2 Tab.; Rotterdam (Balkema); doi:10.1201/9781003078142-62.
• Wolkersdorfer, Ch. & von Hünefeld-Mugova, E. (2018): Flow measurement using the salt dilution method at the mine water influenced Tweelopiespruit, Witwatersrand, South Africa. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 1024–1026; (Tshwane University of Technology).
• Wolkersdorfer, Ch. & von Hünefeld-Mugova, E. (2020): Flow Measurement Using the Salt Dilution Method at the Mine Water Influenced Tweelopiespruit, Witwatersrand, South Africa. – In: Kretschmann, J., Goerke-Mallet, P. & Melchers, Ch. (eds): Done for Good 2.0 – Results in Post-Mining Research. – p. 236–239, Bochum (Technische Hochschule Georg Agricola).
• Wolkersdorfer, Ch. & Wackwitz, T. (2004): Antimony Anomalies around abandoned Silver Mines in Tyrol/Austria. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 1. – p. 161–167, 4 Abb., 1 Tab.; Newcastle upon Tyne (University of Newcastle).
• Wolkersdorfer, Ch., Walter, S. & Mugova, E. (2022): Perceptions on mine water and mine flooding – An example from abandoned West German hard coal mining regions. – Resour. Policy, 13 Abb., 10 Tab.; doi:10.1016/j.resourpol.2022.103035.
• Wolkersdorfer, Ch., Worsa-Kozak, M. & Chudy, K. (2023): The Colourful Lakes in Wieściszowice, Sudetes Mountains, Poland – An example of Chemical Variation in Abandoned open pit Pyrite Mine Mine Water. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 540–544, 3 Abb., 1. Tab; (International Mine Water Association).
• Wolkersdorfer, Ch. & Younger, P. L. (2002): Passive Grubenwasserreinigung als Alternative zu aktiven Systemen. – Grundwasser, 7(2):67–77, 7 Abb., 2 Tab.; doi:10.1007/s007670200011.
• Wolkersdorfer, Ch., Younger, P. L. & Bowell, R. (2006): PADRE – Europäische Partnerschaft für die Sanierung saurer Grubenwässer (Partnership for Acid Drainage Remediation in Europe). – Wiss. Mitt. Inst. Geol., 31:213–217, 3 Abb.
• Wolkersdorfer, Ch., Younger, P. L. & Bowell, R. J. (2004): PADRE – Partnership for Acid Drainage Remediation in Europe. – Mine Water Environ., 23(4):181–182, doi:10.1007/s10230-004-0060-0.
• Wollenweber, M. (2010): Bioreaktor reinigt Abwässer kostengünstig. – VDI Nachrichten, 2010–07–30.
• Wollschläger, U., Ilmberger, J., Isenbeck-Schröter, M., Kreuzer, A. M., von Rohden, C., Roth, K. & Schäfer, W. (2007): Coupling of groundwater and surface water at Lake Willersinnweiher: Groundwater modeling and tracer studies. – Aquat. Sci., 69:138–152, 14 Abb., 1 Tab.; doi:10.1007/s00027-006-0825-6.
• Woloshyn, K. S. & Gault, A. G. (2018): Long Term Effectiveness of an Adit Plug – Passive Treatment for Adit Discharge in a Northern Climate. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 763–768; (Tshwane University of Technology).
• Wolowski, K., Uzarowicz, Ł., Solarska, M. & Pawlik-Skowrońska, B. (2013): Diversity of algal communities in acid mine drainages of different physico-chemical properties. – Nova Hedwigia, 97(1-2):117–137, doi:10.1127/0029-5035/2013/0105.
• Woltmann, A. & Frölich, F. (1910): Die Gutehoffnungshütte Oberhausen, Rheinland – Zur Erinnerung an das 100jährige Bestehen 1810-1910. – 177 p., 173 Abb., 23 Taf.
• Wong, C. K. & Malpas, J. (2001): A Geochemical Study of Acid Mine Drainage at the Sia Mine, Cyprus. – Proceedings, 11th Annual V. M. Goldschmidt Conference.
• Wong, M. H. (2003): Ecological restoration of mine degraded soils, with emphasis on metal contaminated soils. – Chemosphere, 50(6):775–780, 4 Tab.
• Wood, A. & Reddy, V. (1998): Acid Mine Drainage as a Factor in the Impacts of Underground Minewater Discharges from Grootvlei Gold Mine: Mine Water and Environmental Impacts 2. – 387–398 p., 2 Abb., 5 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Wood, H. (1994): An Overview of Law and Environment Care Related to Mine Water Pollution. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:779–783.
• Wood, H. (2012): Disasters and Minewater – good practice and prevention. – 127 p., 7 Abb.; London (IWA Publishing).
• Wood, K. (2024): Case Study – The Gladden acid mine drainage (AMD) treatment facility and Fishing Run stream sealing project. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 652–652; Morgantown (International Mine Water Association).
• Wood, M. (1987): In Search of the Trojan War. – 272 p., 146 Abb.; New York (Plume).
• Wood, M. (2005): In Search of the Trojan War. – 320 p., 11 Abb., 3 Tab.; London (BBC Books).
• Wood, M., Beresford, N. & Copplestone, D. (2011): Limit of detection values in data analysis: Do they matter? – Radioprotection, 46(6):S85–S90, 1 Abb., 3 Tab.; doi:10.1051/radiopro/20116728s.
• Wood, P., Somerville, J. & Gibson, I. (1988): Dewatering and Depressurization of a Multi-Aquifer Groundwater System at Loy Yang Open Cut, Victoria, Australia. – Proceedings, 3rd International Mine Water Congress, Melbourne:507–517, 4 Abb.
• Wood, P. J. & Armitage, P. D. (1997): Biological Effects of Fine Sediment in the Lotic Environment. – Environ. Manage., 21(2):203–217, doi:10.1007/s002679900019.
• Wood, P. J. & Dykes, A. P. (2002): The use of salt dilution gauging techniques: ecological considerations and insights. – Water Res., 36(12):3054–3062, doi:10.1016/s0043-1354(01)00519-x.
• Wood, S. C., Younger, P. L. & Robins, N. S. (1999): Long-term changes in the quality of polluted minewater discharges from abandoned underground coal workings in Scotland. – Q. J. Eng. Geol., 32:69–79, 9 Abb., 2 Tab.
• Wood, S. H., Wurts, C., Lane, T. G., Ballenger, N., Shaleen, M. & Totorica, D. (1985): The Borah Peak, Idaho Earthquake of October 28, 1983—Hydrologic Effects. – Earthq. Spectra, 2(1):127–150, doi:10.1193/1.1585305.
• Woods, J. D. (1968): Wave-induced shear instability in the summer thermocline. – J. Fluid Mech., 32(4):791–800, doi:10.1017/S0022112068001035.
• Woods, P. H. (1994): Likely recharge to permanent groundwater beneath future rehabilitated landforms at Ranger uranium mine, northern Australia. – Aust. J. Earth Sci., 41(5):505–508, Refs: 19; illus. incl. table, sketch map; doi:10.1080/08120099408728160.
• Woods, P. H. (2018): The uranium mine life cycle. – In: The Australasian Institute of Mining and Metallurgy (ed) From Start to Finish – A Life-of-Mine Perspective. – p. 351–357, 1 Abb.; Carlton South (The Australasian Institute of Mining and Metallurgy).
• World Bank Group, Dove, M., Lang, Y., Zermoglio, F., Johnston, J. & Sato, M. (2021): Climate Risk Country Profile – South Africa. – 24 p., 18 Abb., 4 Tab.; Washington (World Bank Group).
• World Health Organisation (WHO) (1985): Expert Group Meeting on Health Aspects of the Long-Term Use of Desalinated Water – Manama, Bahrain, 27-31 January 1985. – (Report Nr. WHO-EM/ES/371). – 25 p., Geneva (World Health Organization – Regional Office for the Eastern Mediterranean).
• World Health Organisation (WHO) (2000): Bottled drinking water. In: Fact Sheet 256. Internet Archive: https://web.archive.org/web/20100217153616/http://www.who.int/mediacentre/factsheets/fs256/en/print.html Accessed 2010-02-17.
• World Health Organisation (WHO) (2005): Nutrients in Drinking Water. – 186 p., Geneva (World Health Organization).
• World Health Organisation (WHO) (2006): Protecting groundwater for health: managing the quality of drinking-water sources. – 640 p., London (IWA Publishing).
• World Health Organisation (WHO) (2011): Safe Drinking-water from Desalination. – (Report Nr. WHO/HSE/WSH/11.03). – 28 p., Geneva (World Health Organisation (WHO)).
• World Health Organisation (WHO) (2014): Chrysotile Asbestos. – 44 p., 22 Abb.; Geneva (World Health Organization).
• World Health Organisation (WHO) (2019): Microplastics in drinking-water. – Geneva (World Health Organization).
• World Health Organisation (WHO) (2022): Guidelines for drinking-water quality: Fourth edition incorporating the first and second addenda: 1, 4 edn. – 583 p., Geneva.
• World Health Organization (WHO) (2009): Calcium and Magnesium in Drinking-water – Public health significance. – Geneva (World Health Organization (WHO)).
• World Health Organization (WHO) (2017): Guidelines for Drinking‑water Quality, 4th edn. – Geneva (World Health Organization).
• World Water Assessment Programme (2012): Managing Water under Uncertainty and Risk – The United Nations World Water Development Report 4. – 866 p., Paris (United Nations Educational Scientific and Cultural Organization).
• Wörlen, S., Kistinger, S. & Deissmann, G. (2005): Integration of Life Cycle Assessments in the decision-making process for environmental protection measures and remedial action at active and abandoned mining sites. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment – UMH IV. – p. 601–608, Heidelberg (Springer).
• Worms, S. (1904): Schwazer Bergbau im fünfzehnten Jahrhundert – Ein Beitrag zur Wirtschaftsgeschichte. – 176 p., Wien (Manz).
• Worrall, F. (1999): Chemical Fingerprinting of acid Minewaters: the Use of Rare Earth Elements (REE) Patterns. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 509–511, 3 Abb.; Sevilla (International Mine Water Association).
• Worrall, F. & Pearson, D. G. (2001): The development of acidic groundwaters in coal-bearing strata: Part I. Rare earth element fingerprinting. – Appl. Geochem., 16(13):1465–1480, 12 Abb., 2 Tab.
• Worrall, F. & Pearson, D. G. (2001): Water-rock interaction in an acidic mine discharge as indicated by rare earth element patterns. – Geochim. Cosmochim. Acta, 65(18):3027–3040, 9 Abb., 1 Tab.; doi:10.1016/S0016-7037(01)00662-7.
• Worsa-Kozak, M. (2006): Wahania Zwierciadła Wód Podziemnych na Terenach Zurbanizowanych (Miasto Wrocław). – 156 p., Doctoral thesis, Uniwersytet Wrocławski; Breslau.
• Worsa-Kozak, M. (2025): From deep mineral exploration to mine closure: Why groundwater matters. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 831–836; Braga (International Mine Water Association).
• Worsa-Kozak, M. & Czop, M. (2016): Mine water as a resource – Innovative solutions and concepts for the mine water management in modern mining and mineral exploration. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 9–10, Freiberg (TU Bergakademie Freiberg).
• Worsa-Kozak, M., Zimroz, R., Michalak, A., Wolkersdorfer, Ch., Wyłomańska, A. & Kowalczyk, M. (2020): Groundwater level fluctuation analysis in a semi-urban area using statistical methods and data mining techniques – a case study in Wrocław, Poland. – Appl. Sci., 10(10):3553, 22 Abb.; doi:10.3390/app10103553.
• Worthington, S. R. H. (1999): A comprehensive strategy for understanding flow in carbonate aquifer: Karst Modeling. – 30–37 p., 4 Abb., 5 Tab.; Charles Town (Karst Waters Institute).
• Worthington, S. R. H. & Smart, C. C. (2003): Empirical Determination of Tracer Mass for Sink to Spring Tests in Karst. – Geotechnical Special Publication, 122:287–295, 5 Abb., 1 Tab.; doi:10.1061/40698(2003)26.
• Wortman, A. T. & Bissonnette, G. K. (1985): Injury and Repair of Escherichia Coli damaged by Acid-Mine Water. – Water Res., 19(10):1291–1297.
• Wortman, A. T. & Bissonnette, G. K. (1988): Metabolic Processes Involved in Repair of Escherichia-Coli -Cells Damaged by Exposure to Acid-Mine Water. – Appl. Environ. Microbiol., 54(8):1901–1906.
• Wortman, A. T., Voelz, H., Lantz, R. C. & Bissonnette, G. K. (1986): Effect of Acid-Mine Water on Escherichia Coli – Structural Damage. – Curr. Microbiol., 14(1):1–5.
• Wörz, E. (1878): Exposé über den Bergbau-Betrieb bei Silberleiten & Feigenstein Biberwier. – 19 p., 1 Abb., 3 Tab.; Innsbruck (Wagner).
• Wright, G., Misstear, B., Gallagher, V., Suilleabhain, D. O. & O´Connor, P. (1999): Avoca Mines: Uncontrolled Acid Mine Drainage in Ireland. – In: International Mine Water, A. & Rubio, R. F. (eds): Mine, Water & Environment II. – p. 551–556, 2 Abb., 1 Tab.; Sevilla (International Mine Water Association).
• Wright, J. A., Yang, H., Rivett, U. & Gundry, S. W. (2012): Public perception of drinking water safety in South Africa 2002-2009: a repeated cross-sectional study. – BMC Public Health, 12:556, doi:10.1186/1471-2458-12-556.
• Wright, J. B., Nilsen, D. N., Hundley, G. & Galvan, G. J. (1995): Field-Test of liquid Emulsion Membrane Technique for Copper Recovery from Mine Solutions. – Miner. Eng., 8(4-5):549–556, 2 Abb., 2 Tab.
• Wright, L. T. (1906): Controlling and extinguishing fires in pyritous mines. – Eng. Min. J., 81:171–172.
• Wright, T., Pearce, S., Hertrijana, J., Henin, L. & Hidyat, M. (2021): Using Geological Analogues And Proxies To Better Determine AMD Risk. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 624–630; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Wrobel, J.-P. (1970): Hydrogeologische Untersuchungen im Einzugsgebiet der Loisach zwischen Garmisch-Partenkirchen und Eschenlohe/Obb. – Bayer. Akad. Wiss., Math.-nat. Kl., Abh., N. F., 146:1–87, 38 Abb., 23 Tab., 3 Anl.
• Wrobel, J.-P. (1980): Wechselbeziehungen zwischen Baggerseen und Grundwasser in gut durchlässigen Schottern. – Das Gas- und Wasserfach – Wasser, Abwasser, 121:165–173, 14 Abb., 2 Tab.
• Wrobel, M., Rüde, T. R. & Wohnlich, S. (2000): Small scale mining in the area of the Choapa river, Central Chile: an environmental risk? – Proceedings, 7th International Mine Water Association Congress:195–203, 5 Abb.
• Wrubel, F. (1883): Sammlung bergmännischer Sagen. – Freiberg (Graz & Gerlach).
• Wrucke, C. T. (1995): Serpentine- and Carbonate-Hosted Asbestos Deposits (Models 8d, 18e; Page, 1986; Wrucke and Shride, 1986). – In: du Bray, E. A. (ed) Preliminary compilation of descriptive geoenvironmental mineral deposit models Open-File Report 95-831. – p. 39–46, Denver (U.S. Geological Survey).
• Wu, C. C., Huang, C. & Lee, D. J. (1997): Effects of polymer dosage on alum sludge dewatering characteristics and physical properties. – Colloid Surf. A-Physicochem. Eng. Asp., 122(1):89–96, 4 Abb., 3 Tab.
• Wu, H. & Chen, S. (1987): Studying and Controlling Mine Water in Xishmen Iron Mine. – Int. J. Mine Water, 6(4):15–30, 7 Abb., 2 Tab.
• Wu, J., Zhai, X. & Shen, S. (2014): Stability Analysis on Fault Zone Based on Mining Experiment Reducing of Coal Pillar ·. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 504–509, Xuzhou (International Mine Water Association).
• Wu, J. C. (2001): Minerals Yearbook – Area Reports International: The Mineral Industry of Thailand. – 26.1–26.11 p., 2 Tab.; Reston (U.S. Geol Survey).
• Wu, L., Lu, X., Fu, X., Wu, L. & Liu, H. (2017): Gold Nanoparticles dotted Reduction Graphene Oxide Nanocomposite Based Electrochemical Aptasensor for Selective, Rapid, Sensitive and Congener-Specific PCB77 Detection. – Sci. Rep., 7(1):5191, doi:10.1038/s41598-017-05352-7.
• Wu, L. Y., Bai, H. B. & Ma, D. (2021): Prediction and Prevention of Water Inrush Hazards from Bed Separation Space. – Mine Water Environ., 40(3):657–670, doi:10.1007/s10230-020-00748-w.
• Wu, M., Ye, Y., Hu, N., Wang, Q. & Tan, W. (2022): Visualization Analysis and Progress of Mine Water Inrush Disaster-Related Research. – Mine Water Environ., 41(3):599–613, doi:10.1007/s10230-022-00876-5.
• Wu, Q. (2021): China’s Relationship with IMWA. – Mine Water Environ., 40(4):811–812, doi:10.1007/s10230-021-00815-w.
• Wu, Q., Dong, D. L., Shi, Z. H., Wu, X., Sun, W. D., Ye, G. J., Li, S. W. & Liu, J. T. (2000): Optimum combination of water drainage, water supply and eco- environment protection in coal-accumulated basin of North China. – Sci. China Ser. D-Earth Sci., 43(2):122–131, 2 Abb., 1 Tab.
• Wu, Q., Fan, S., Zhou, W. & Liu, S. (2013): Application of the Analytic Hierarchy Process to Assessment of Water Inrush: A Case Study for the No. 17 Coal Seam in the Sanhejian Coal Mine, China. – Mine Water Environ., 32(3):229–238, 8 Abb., 1 Tab.; doi:10.1007/s10230-013-0228-6.
• Wu, Q., Guo, X. M., Shen, J. J., Xu, S., Liu, S. Q. & Zeng, Y. F. (2017): Risk Assessment of Water Inrush from Aquifers Underlying the Gushuyuan Coal Mine, China. – Mine Water Environ., 36(1):96–103, doi:10.1007/s10230-016-0410-8.
• Wu, Q., Liu, S. & Zeng, Y. (2016): The progress of the mine water prevention and control on basic principles in China. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 122–126, Freiberg (TU Bergakademie Freiberg).
• Wu, Q., Liu, Y., Zhou, W., Li, B., Zhao, B., Liu, S., Sun, W. & Zeng, Y. (2015): Evaluation of Water Inrush Vulnerability from Aquifers Overlying Coal Seams in the Menkeqing Coal Mine, China. – Mine Water Environ., 34(3):258–269, doi:10.1007/s10230-014-0313-5.
• Wu, Q., Mu, W., Xing, Y., Qian, C., Shen, J., Wang, Y. & Zhao, D. (2017): Source discrimination of mine water inrush using multiple methods: a case study from the Beiyangzhuang Mine, Northern China. – Bull. Eng. Geol. Environ.:1–14, doi:10.1007/s10064-017-1194-1.
• Wu, Q., Yu, S., Mu, W., Ma, J., Liu, S., Zeng, Y. & Liu, H. (2019): Hydraulic-economic Optimal Management Model of Mine Water Resources: an Example is Suancigou Coal Mine in Western China. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 320–325; Perm, Russia (Perm State University).
• Wu, Q., Zeng, Y. & Liu, S. (2014): Predictions of Groundwater Inrush into Coal Mines and Size-limited Structures in China. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 443–446, Xuzhou (International Mine Water Association).
• Wu, Q., Zhang, X. Y., Zhao, Y. W., Li, P. T., Yao, Y., Du, Z. L., Xu, H. & Wang, X. (2022): Numerical Simulation of Inrush Water Spreading Through a Mine: A Case Study of the Beixinyao Mine, Shanxi Province, China. – Mine Water Environ., 41(2):487–503, doi:10.1007/s10230-021-00841-8.
• Wu, T. & Qin, J. (2018): Experimental Study of a Tailings Impoundment Dam Failure Due to Overtopping. – Mine Water Environ., 37(2):272–280, doi:10.1007/s10230-018-0529-x.
• Wu, W.-L., Deng, X.-L., Zhou, S.-J., Liang, H., Yang, X.-F., Wen, J., Li, X.-M., Zhang, C.-Z., Zhang, Y.-H. & Zou, F. (2018): Levels, congener profiles, and dietary intake assessment of polychlorinated dibenzo-p-dioxins/dibenzofurans and dioxin-like polychlorinated biphenyls in beef, freshwater fish, and pork marketed in Guangdong Province, China. – Sci. Total Environ., 615:412–421, doi:10.1016/j.scitotenv.2017.09.273.
• Wu, Y. (2005): Groundwater recharge estimation in Table Mountain Group aquifer systems with a case study of Kammanassie area. – 281 p., PhD, University of the Western Cape; Cape Town.
• Wu, Y., Duan, Z. & Sun, B. (2014): Main Hydrogeological Problems and Some New Water Prevention and Controlling Technologyin Northern Anhui Mining Area. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 484–490, Xuzhou (International Mine Water Association).
• Wu, Y., Duan, Z., Sun, B. & Hu, R. (2015): Mine Water Disaster Issues of Carboniferous and Permian Coalfields at Eastern China and Their Technical Countermeasures – A Case Study on Wanbei Mining Areas. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Wu, Y. & Gibson, C. E. (1996): Mechanisms controlling the water chemistry of small lakes in Northern Ireland. – Water Res., 30(1):178–182.
• Wu, Y., Lin, Y. & Pan, G. (2013): Discrimination of bursting water source by hydrochemical and stable isotope method. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 911–916, 2 Abb., 1 Tab.; Golden (International Mine Water Association).
• Wu, Y. S., Lu, G. P., Zhang, K. & Bodvarsson, G. S. (2005): A Mountain-scale Model for Characterizing Unsaturated flow and Transport in Fractured Tuffs of Yucca Mountain. – Vadose Zone J., 3(3):796–805, doi:10.2136/vzj2004.0796.
• Wu, Y. S., Pan, L. H., Zhang, W. & Bodvarsson, G. S. (2002): Characterization of flow and Transport Processes Within the Unsaturated zone of Yucca Mountain, Nevada, Under Current and Future Climates. – J. Contam. Hydrol., 54(3-4):215–247.
• Wu, Y. S. & Pruess, K. (2000): Numerical Simulation of Non-isothermal Multiphase Tracer Transport in Heterogeneous Fractured Porous Media. – Adv. Water Resour., 23(7):699–723.
• Wu, Z., Cui, F. & Nie, J. (2022): Surface Soil Water Content Before and After Coal Mining and its Influencing Factors—A Case Study of the Daliuta Coal Mine in Shaanxi Province, China. – Mine Water Environ., 41(3):790–801, doi:10.1007/s10230-022-00879-2.
• Wuana, R. A. & Okieimen, F. E. (2011): Heavy Metals in Contaminated Soils: A Review of Sources, Chemistry, Risks and Best Available Strategies for Remediation. – ISRN Ecology, 2011:1–20, doi:10.5402/2011/402647.
• Wüest, A. (2001): Mikrostrukturen der Temperatur als Tracer für Turbulenz und Mischung. – EAWAG news – Eidgenössische Anstalt für Wasserversorgung, Abwasserreinigung und Gewässerschutz, 52:16–17, 2 Abb., 1 Tab.
• Wüest, A. & Gloor, M. (1998): Bottom Boundary Mixing: The Role of Near- Sediment Density Stratification: Physical Processes in Lakes and Oceans – Coastal and Estuarine Studies 54. – 485–502 p., 10 Abb.; Washington (American Geophysical Union).
• Wüest, A. & Lorke, A. (2009): Small-Scale Turbulence and Mixing: Energy Fluxes in Stratified Lakes. – In: Likens, G. E. (ed) Encyclopedia of Inland Waters. – p. 628–635, Oxford (Academic Press); doi:10.1016/B978-012370626-3.00084-3.
• Wüest, A., Piepke, G. & Van Senden, D. C. (2000): Turbulent kinetic energy balance as a tool for estimating vertical diffusivity in wind‐forced stratified waters. – Limnol. Oceanogr., 45(6):1388–1400, doi:10.4319/lo.2000.45.6.1388.
• Wüest, A., van Senden, D. C., Imberger, J., Piepke, G. & Gloor, M. (1996): Comparison of diapycnal diffusivity measured by tracer and microstructure techniques. – Dyn. Atmos. Oceans, 24(1–4):27–39, 5 Abb., 2 Tab.; doi:10.1016/0377-0265(95)00408-4.
• Wührer, T. (1994): Die militärischen Aufnahmen von Tirol in den Jahren 1801–1805 und 1816–1821. – Veröff. Tiroler Landes-Mus. Ferdinandeum, 74:113–134.
• Wulff, H. E. (1968): The Qanats of Iran. – Scientific American, 218(4):94–105, 8 Abb.
• Wüllner, K., Vogelbacher, A., Kraus, K.-H., Neumann, A., Pharion, H., Schindele, K. & Weise, A. (2004): Hochwasser Naturereignis und Gefahr: SpektrumWasser 1, 2 edn. – München (Bayerisches Landesamt für Wasserwirtschaft).
• Wunderlich, E. (1914): Eibsee- und Fernpaßbergsturz und ihre Beziehungen zum Lermooser Becken. – Mitt. Dt.-Österr. Alpenver., 1913(23):333–334.
• Wunderlich, T., Oppelt, L., Ebel, T., Grab, T. & Fieback, T. (2023): Abandoned Mines As A Source Of Heat And Cold For Quarter Solutions. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 545–551; (International Mine Water Association).
• Wunsch, D. R. & Dinger, J. S. (1998): Predicting ground-water movement in large mine-spoil areas in the Appalachian Plateau. – Abstracts with Programs – Geological Society of America, 30(4):67.
• Wunsch, D. R., Dinger, J. S. & Graham, C. D. R. (1999): Predicting ground-water movement in large mine-spoil areas in the Appalachian Plateau. – Int. J. Coal Geol., 41(1-2):73–106, 17 Abb., 2 Tab.
• Würfel, F., Röpke, A., Lutz, J. & Krause, R. (2010): Prähistorische Siedlungsdynamik und Landschaft in einer inneralpinen Siedlungskammer – Archäologische, geoarchäologische, archäometallurgische und archäobotanische Untersuchungen im Montafon in Vorarlberg (Österreich). – Archäologisches Korrespondenzblatt, 40(4):503–523, 17 Abb., 1 Tab.
• Wurm, A. (1921): Über die neu aufgedeckten Erbendorfer Blei-Zinkerzgänge und ihre Bedeutung für die Altersstellung der oberpfälzer und oberfränkischen Erzgänge. – Geogn. Jh., 34:103–112, 6 Abb.
• www.waterhistory.org (2003): Qanats. – 7 p., 4 Abb.; (www.waterhistory.org).
• Wyatt, L., Moorhouse, A. M. L. & Watson, I. (2015): Response to Increasing Rainfall and High Rainfall Events at Wheal Jane, Cornwall, UK. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–10 [electronic document], Santiago/Chile (Gecamin).
• Wyatt, L. M., Cropper, J. & Watson, I. A. (2021): Spatial and Temporal Changes of Physico-Chemistry Aspects of Mine Water, Due to Post-Closure Water Management. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 637–637; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Wyatt, L. M., Leyland, J. & Watson, I. A. (2023): Long-Term Mine Water Management Of Abandoned Coal Mines In The United Kingdom: Almost 30 Years Of Process, Experience, and Lessons Learned. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 552–557; (International Mine Water Association).
• Wyatt, L. M., Leyland, J. & Watson, I. A. (2023): Pumping Borehole For Saline Mine Water in Whitburn, North East England: Problems and Novel Resolution. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 558–563; (International Mine Water Association).
• Wyatt, L. M., Moorhouse, A. M. L. & Watson, I. A. (2013): Full scale pilot test of a novel technology to remediate alkaline coal mine water using high-surface media at Acomb Mine Water Treatment Scheme, UK. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 749–753, 4 Abb., 2 Tab.; Golden (International Mine Water Association).
• Wyatt, L. M., Moorhouse, A. M. L. & Watson, I. A. (2014): Evolution in Tidal Related Hydrogeochemisty at a Long-term Coal Mine Water Pumping and Treatment Scheme, Former Frances Colliery, Scotland. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 9–13, Xuzhou (International Mine Water Association).
• Wyatt, L. M., Moorhouse, A. M. L., Watson, I. A. & Kershaw, S. (2013): Methodology for assessing water pollution and risks associated with abandoned lead-zinc mining at Wanlockhead and Leadhills, southwest Scotland, UK. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1173–1178, 4 Abb.; Golden (International Mine Water Association).
• Wyatt, L. M., Watson, I. & Sawyer, T. (2011): 15 years of mine water analysis and developments in monitoring of abandoned coal mines in the United Kingdom: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 645–648 p., Aachen (RWTH Aachen University).
• Wyatt, L. M., Watson, I. A., Gallagher, S. & Grantham, J. (2021): Assessment of the Constraints on Sustainable Urban Drainage Systems Due to Rising Mine Water and Mine Water Management. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 631–636; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Wyatt, L. M., Watson, I. A. & Moorhouse, A. M. (2018): Adaptive Mine Water Treatment: Modelling To Long-term Management. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 769–774; Pretoria (Tshwane University of Technology).
• Wyche, N. L., Eilu, P., Koppström, K., Kortelainen, V. J., Niiranen, T. & Välimaa, J. (2015): Chapter 5.2 – The Suurikuusikko Gold Deposit (Kittilä Mine), Northern Finland. – In: Maier, W. D., Lahtinen, R. & O’Brien, H. (eds): Mineral Deposits of Finland. – p. 411–433, Amsterdam (Elsevier); doi:10.1016/B978-0-12-410438-9.00016-9.
• Wycisk, P., Gossel, W. & Fabritius, H. (2005): Geologische 3D-Modellierung und ihre Anwendungsmöglichkeiten in Bergbau- und Industriefolgelandschaften. – Wiss. Mitt. Inst. Geol., 28:163–170, 5 Abb.
• Wyman, S. & Harmon, M. (2013): Management of Mine Water Quality Data from Permitting to Compliance to Closure. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 83–88, 1 Abb., 1 Tab.; Golden (International Mine Water Association).
• Wysocka, M., Chałupnik, S., Chmielewskal, I., Janson, E., Radziejowski, W. & Sarnolej, K. (2019): Natural Radioactivity in Polish Coal Mines: An Attempt to Assess the Trend of Radium Release into the Environment. – Mine Water Environ., 38(3):581–589, doi:10.1007/s10230-019-00626-0.
• Wysowska, E., Wiewiórska, I. & Kicińska, A. (2022): Minerals in tap water and bottled waters and their impact on human health. – Desalination and Water Treatment, 259:133–151, doi:10.5004/dwt.2022.28437.
• Xavier, A. G. (1990): Environmental-Biochemical Aspects of Heavy Metals in Acid Mine Water. – Int. J. Mine Water, 9(1-4):43–55, 2 Tab.
• Xia, C., Lam, J. C. W., Wu, X., Xie, Z. & Lam, P. K. S. (2012): Polychlorinated biphenyls (PCBs) in marine fishes from China: Levels, distribution and risk assessment. – Chemosphere, 89(8):944–949, doi:10.1016/j.chemosphere.2012.06.048.
• Xia, J., Engstrom, D. R. & Ito, E. (1997): Geochemistry of ostracode calcite: Part 2. The effects of water chemistry and seasonal temperature variation on Candona rawsoni. – Geochim. Cosmochim. Acta, 61(2):383–391.
• Xia, J., Ito, E. & Engstrom, D. R. (1997): Geochemistry of ostracode calcite: Part I. An experimental determination of oxygen isotope fractionation. – Geochim. Cosmochim. Acta, 61(2):377–382.
• Xiangshend, C., Zhaohui, C. & Xiaogang, L. (1998): Cl-C Grouting Technique Development and its Application in Shaft Sinking in China: Mine Water and Environmental Impacts 1. – 149–153 p., 6 Abb., 2 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Xie, H. J., Li, J., Dong, Y., Li, G. Y. & Han, Z. H. (2021): Fast Fisher Discrimination of Water-Rich Burnt Rock Based on DC Electrical Sounding Data. – Mine Water Environ., 40(2):539–546, doi:10.1007/s10230-020-00747-x.
• Xie, P., Li, W., Yang, D. & Jiao, J. (2018): Hydrogeological Model for Groundwater Prediction in the Shennan Mining Area, China. – Mine Water Environ., 37(3):505–517, doi:10.1007/s10230-017-0490-0.
• Xingpu, L. & Jiansen, S. (1985): A Study of Pretreatment Grouting Technology at working Face in an auxiliarity Shaft Hunaghuai Coal Mine. – Proceedings, 2nd International Mine Water Association Congress, 1:425–432, 2 Abb., 1 Tab.
• Xingwang, Z. & Shuqing, L. (1988): Testing Rig for Fracture Grouting. – Proceedings, 3rd International Mine Water Congress, Melbourne:625–632, 3 Abb., 5 Tab.
• Xu, B., Yin, S., Zhang, X. & Wu, J. (2014): Research on Stability of Waterproof Coal Pillar in Steep Seam under Aquifers. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 248–251, Xuzhou (International Mine Water Association).
• Xu, C. Y., Schwartz, F. W. & Traina, S. J. (1997): Treatment of acid-mine water with calcite and quartz sand. – Environ. Eng. Sci., 14(3):141–152, doi:10.1089/ees.1997.14.141.
• Xu, C. Y. & Singh, V. P. (2005): Evaluation of three complementary relationship evapotranspiration models by water balance approach to estimate actual regional evapotranspiration in different climatic regions. – J. Hydrol., 308(1-4):105–121, 8 Abb., 4 Tab.; doi:10.1016/j.jhydrol.2004.10.024.
• Xu, D. (1987): Mine Water Control in China’s Karst Aquifers. – Int. J. Mine Water, 6(2):37–48, 8 Abb., 1 Tab.
• Xu, D., Peng, S., Xiang, S., He, Y. & Xu, L. (2016): Mechanisms on Mine Water Loss Based on a Theory of Mining-Fractures Development Pattern. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 108–114, Freiberg (TU Bergakademie Freiberg).
• Xu, D., Peng, S., Xiang, S., Liang, M. & Liu, W. (2016): The Effects of Caving of a Coal Mine’s Immediate Roof on Floor Strata Failure and Water Inrush. – Mine Water Environ., 35(3):337–349, doi:10.1007/s10230-015-0368-y.
• Xu, D., Shao, D., Nie, J., Chen, H. & Wu, B. (2014): Groundwater Inrush from Coal Seam Floors Controlled by Faults. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 110, Xuzhou (International Mine Water Association).
• Xu, H., Yin, S., Liu, M. & Wu, J. (2014): Application of Fuzzy Comprehensive Evaluation Method to Analysis of Water Inflow Prediction in Wellbore. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 252–260, Xuzhou (International Mine Water Association).
• Xu, J. (2014): Macro Forecast of Mine Water Disaster in Deep Mining in Northern China. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 535, Xuzhou (International Mine Water Association).
• Xu, J., Liu, S., Wang, B., Zhang, P. & Gui, H. (2012): Electrical Monitoring Criterion for Water Flow in Faults Activated by Mining. – Mine Water Environ., 31(3):172–178, 10 Abb.; doi:10.1007/s10230-012-0184-6.
• Xu, J., Wu, L., Chen, W. & Chang, A. C. (2008): Simultaneous determination of pharmaceuticals, endocrine disrupting compounds and hormone in soils by gas chromatography–mass spectrometry. – J. Chromatogr. A, 1202:189–195, doi:10.1016/j.chroma.2008.07.001.
• Xu, J. Y., Gui, H. R., Chen, J. Y., Li, C., Li, Y., Zhao, C. Z. & Guo, Y. (2022): Hydrogeochemical Characteristics and Formation Mechanisms of the Geothermal Water in the Qingdong Coal Mine, Northern Anhui Province, China. – Mine Water Environ., 41(4):1015–1026, doi:10.1007/s10230-022-00895-2.
• Xu, K., Dai, G., Duan, Z. & Xue, X. (2018): Hydrogeochemical Evolution of an Ordovician Limestone Aquifer Influenced by Coal Mining: A Case Study in the Hancheng Mining Area, China. – Mine Water Environ., 37(2):238–248, doi:10.1007/s10230-018-0519-z.
• Xu, L., Basheer, C. & Lee, H. K. (2007): Developments in single-drop microextraction. – J. Chromatogr. A, 1152:184–192, doi:10.1016/j.chroma.2006.10.073.
• Xu, L., Zhang, X., Gao, J., Wei, G. & Shang, X. (2008): Closure of Underground Mine of Lincang Uranium Mine. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium, Mining and Hydrogeology. – p. 215–220, Berlin (Springer); doi:10.1007/978-3-540-87746-2_29.
• Xu, P., Drewes, J. E., Heil, D. & Wang, G. (2008): Treatment of brackish produced water using carbon aerogel-based capacitive deionization technology. – Water Res., 42(10–11):2605–2617, doi:10.1016/j.watres.2008.01.011.
• Xu, Q., Yao, Q., Wang, F., Ma, J., Shang, X., Xiao, L. & Kong, F. (2024): Tracer Test Method to Confirm Hydraulic Connectivity Between Goafs in a Coal Mine. – Mine Water Environ., 43(1):104–116, doi:10.1007/s10230-024-00972-8.
• Xu, S. Y., Zhang, Y. B., Shi, H., Zhang, Z. X. & Chen, J. F. (2020): Impacts of Aquitard Properties on an Overlying Unconsolidated Aquifer in a Mining Area of the Loess Plateau: Case Study of the Changcun Colliery, Shanxi. – Mine Water Environ., 39(1):121–134, doi:10.1007/s10230-019-00649-7.
• Xu, W., Trappe, W. & Zhang, Y. (2008): Defending Wireless Sensor Networks from Radio Interference through Channel Adaptation. – ACM Trans. Sensor Network, 4(4):18.1–18.34, 12 Abb.; doi:10.1145/1387663.1387664.
• Xu, X. & Zhu, X. (2004): Treatment of refectory oily wastewater by electro-coagulation process. – Chemosphere, 56(10):889–894.
• Xu, Y. & Beekman, H. E. (2003): Groundwater Recharge Estimation in Southern Africa: UNESCO IHP Series 64. – 207 p., 106 Abb., 12 Tab.; Cape Town (UNESCO Paris).
• Xu, Y., Du, M. & Luo, Y. (2019): Using Water Injection to Prevent Shaft Failure in the Jining No. 3 Coal Mine, China. – Mine Water Environ., 38(1):60–71, doi:10.1007/s10230-018-00576-z.
• Xu, Y., Lay, J. P. & Korte, F. (1988): Fate and Effects of Xanthates in Laboratory Fresh-Water Systems. – Bull. Environ. Contam. Toxicol., 41(5):683–689, doi:10.1007/Bf02021019.
• Xu, Y., Li, J., Gu, W. & Liu, S. (2014): Shaft-lining Non-mining Fracture Multi-factor Forecasting Evaluation System Research. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 497–503, Xuzhou (International Mine Water Association).
• Xu, Y., Luo, Y., Li, J., Li, K. & Cao, X. (2018): Water and Sand Inrush During Mining Under Thick Unconsolidated Layers and Thin Bedrock in the Zhaogu No. 1 Coal Mine, China. – Mine Water Environ., 37(2):336–345, doi:10.1007/s10230-018-0539-8.
• Xu, Y. & van Tonder, G. J. (2000): Estimation of recharge using a revised CRD method. – Water SA, 27(3):341–343, 3 Abb.; doi:10.4314/wsa.v27i3.4977.
• Xu, Y., van Tonder, G. J., van Wyk, B. & van Wyk, E. (1998): Recharge-incorporated approximate solution to tracer experiments under pumping conditions. – Water SA, 24(1):1–4.
• Xu, Y. C., Zhang, E. M., Luo, Y. Q., Zhao, L. & Yi, K. (2020): Mechanism of Water Inrush and Controlling Techniques for Fault-Traversing Roadways with Floor Heave Above Highly Confined Aquifers. – Mine Water Environ., 39(2):320–330, doi:10.1007/s10230-020-00670-1.
• Xu, Z. & Sun, Y. (2016): Forecasting the water disaster for coal mining under sea area in the Beizao Coalmine, Shandong Province, China. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 1117–1123, Freiberg (TU Bergakademie Freiberg).
• Xu, Z. & Sun, Y. (2019): Influence of Karst Collapse Column on Coal Mine Safety Mining – A Case Study of the Yangjian Mine in Shuozhou Mining Area, Shanxi Province, China. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 394–400; Perm, Russia (Perm State University).
• Xu, Z., Sun, Y., Gao, S., Zhao, X., Duan, R., Yao, M. & Liu, Q. (2018): Groundwater Source Discrimination and Proportion Determination of Mine Inflow Using Ion Analyses: A Case Study from the Longmen Coal Mine, Henan Province, China. – Mine Water Environ., 37(2):385–392, doi:10.1007/s10230-018-0512-6.
• Xu, Z., Sun, Y. & Zhang, M. (2018): The Safety Management of Adjacent Coalmines after Mine Closure- A Case Study of a Closed Coalmine in Xuzhou Mining District, China. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 74–79; (Tshwane University of Technology).
• Xu, Z., Yuan, H., Lu, W., Han, Y. & Xiong, S. (2025): Experimental Study on the Damage Mechanism of Coal Pillars in Abandoned Mines under Immersion Conditions. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 398–402; Braga (International Mine Water Association).
• Xue, L. (2014): Integrated Water System Planning in Urban Area. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 786–789, Xuzhou (International Mine Water Association).
• Xue, W.-D., Zhu, Z.-H., Zou, L.-X. & Zhang, G.-F. (2004): Theoretic calculation on thermodynamic character for SCF CO₂. – Chinese Journal of Atomic and Molecular Physics, 21(2):295–300, 5 Abb., 4 Tab.
• Xue, X.-y., Cheng, R., Shi, L., Ma, Z. & Zheng, X. (2017): Nanomaterials for water pollution monitoring and remediation. – Environ. Chem. Lett., 15:23–27, doi:10.1007/s10311-016-0595-x.
• Xue, Y., Zhu, S. & Qiu, H. (2023): Refinement Study on the Water-Inrush Risk of Close-Distance Thin Coal Seam Mining with Pressure in the Lower Coal Seam. – Mine Water Environ., 42(4):670–686, doi:10.1007/s10230-023-00965-z.
• Yadav, A. K., Singh, L., Mohanty, A., Satya, S. & Sreekrishnan, T. R. (2012): Removal of various pollutants from wastewater by electrocoagulation using iron and aluminium electrode. – Desalin. Water. Treat., 46(1-3):352–358, 4 Abb., 1 Tab.; doi:10.1080/19443994.2012.677560.
• Yager, D. B., Johnson, R. H., Rockwell, B. W., Caine, J. S. & Smith, K. S. (2013): A GIS and statistical approach to identify variables that control water quality in hydrothermally altered and mineralized watersheds, Silverton, Colorado, USA. – Environ. Earth Sci., 70(3):1057–1082, doi:10.1007/s12665-013-2229-y.
• Yager, R. M., Misut, P. E., Langevin, Christian D. & Parkhurst, D. L. (2009): Brine Migration from a Flooded Salt Mine in the Genesee Valley, Livingston County, New York: Geochemical Modeling and Simulation of Variable-Density Flow. – U.S. Geol. Surv. Prof. Pap., 1767:1–51, 27 Abb., 7 Tab.
• Yaghmour, F., Samara, F. & Alam, I. (2020): Analysis of polychlorinated biphenyls, polycyclic aromatic hydrocarbons and organochlorine pesticides in the tissues of green sea turtles, Chelonia mydas, (Linnaeus, 1758) from the eastern coast of the United Arab Emirates. – Mar. Pollut. Bull., 160:111574, doi:10.1016/j.marpolbul.2020.111574.
• Yagüe Ballester, A. & Fernandez-Rubio, R. (1978): Analisis por ordenador de los bombeos en la mina Llano (Teruel, Espana). Paper presented at the El agua en la mineria y trabajos subterraneos – Water in Mining and Underground Works – SIAMOS-78, Granada. – p. 971–988; Maracena (Asociación Nacional de lngenieros de Minas).
• Yakovlev, Y. O., Yermakov, V. M. & Ulyts'kiy, O. A. (2019): Ekologichni naslidky zatoplennya kameri atomnogo vybukhu shakhty “Yunkom” (Tsentral’niy Donbas) [Ecological Consequences Atomic Explosion Chamber Flooding of Mine “Yuncom” (Central Donbas)]. – Mineral'ni Resursi Ukraini, 2019(1):38–44, doi:10.31996/mru.2019.1.38-44.
• Yakovleva, E. V., Polyakova, S., Mishlanova, S., Alekseeva, L., Gritsenko, E., Khayrulina, E., Lane, J. & Erzikova, E. (2019): International Teleconference Project «Environmental Issues of the World» in Teaching English to Geoscience Students. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 765–769; Perm, Russia (Perm State University).
• Yakovleva, N. P., Alabaster, T. & Petrova, P. G. (2000): Natural resource use in the Russian North: a case study of diamond mining in the Republic of Sakha. – Environ. Manage. Health, 11(4):318–336, doi:10.1108/09566160010372743.
• Yalala, B. N., Petrik, L., Balfour, G., Vadapalli, R. & Hendry, B. A. (2009): Comparative Adsorption of Major Cations from Brines by Ion Exchange Processing using Amberlite 252-rfh Resins and Amidoxime Fibres. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 657–665, 9 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Yalçıner, A. C., Alpar, B., Altınok, Y., Özbay, İ. & Imamura, F. (2002): Tsunamis in the Sea of Marmara: Historical documents for the past, models for the future. – Mar. Geol., 190(1):445–463, doi:10.1016/S0025-3227(02)00358-4.
• Yaltırak, C. (2002): Tectonic evolution of the Marmara Sea and its surroundings. – Mar. Geol., 190(1/2):493–529, 15 Abb.; doi:10.1016/S0025-3227(02)00360-2.
• Yaltırak, C. & Alpar, B. (2002): Kinematics and evolution of the northern branch of the North Anatolian Fault (Ganos Fault) between the Sea of Marmara and the Gulf of Saros. – Mar. Geol., 190(1/2):351–366, 8 Abb.; doi:10.1016/S0025-3227(02)00354-7.
• Yaltırak, C., Alpar, B., Sakinç, M. & Yüce, H. (2000): Origin of the Strait of Çanakkale (Dardanelles): regional tectonics and the Mediterranean-Marmara incursion. – Mar. Geol., 164:139–156, 10 Abb.; doi:10.1016/S0025-3227(99)00134-6.
• Yaltırak, C., Alpar, B. & Yüce, H. (1998): Tectonic elements controlling the evolution of the Gulf of Saros (northeastern Aegean Sea, Turkey). – Tectonophysics, 300(1-4):227–248, 9 Abb.; doi:10.1016/S0040-1951(98)00242-X.
• Yaltırak, C., İşler, E. B., Aksu, A. E. & Hiscott, R. N. (2012): Evolution of the Bababurnu Basin and shelf of the Biga Peninsula: Western extension of the middle strand of the North Anatolian Fault Zone, Northeast Aegean Sea, Turkey. – J. Asian Earth Sci., 57:103–119, doi:10.1016/j.jseaes.2012.06.016.
• Yamatomi, J. (1997): Proposal for Mine Developments and Operations in Harmony with Environmental Protection. – 25 p., 4 Abb.; Tokyo (First Environmental Cooperation Workshop for Sustainable Development on Mining Activities).
• Yan, N. D., Gunn, J. M. & W (1999): Acid rain – perspectives on lake recovery. – Journal of Aquatic Ecosystem Stress & Recovery, 6(3):207–216, 5 Abb.
• Yan, Y., Gao, J., Wu, J. & Li, B. (2014): Effects of Inorganic and Organic Acids on Heavy Metals Leaching in Contaminated Sediment. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 406–410, Xuzhou (International Mine Water Association).
• Yan, Z.-g., Zhang, H.-r. & Du, P.-j. (2006): Application of SVM in Analyzing the Headstream of Gushing Water in Coal Mine. – J. China Univ. of Mining & Tech., 16(4):433–438, 1 Abb., 7 Tab.
• Yang, B., Sheng, J., Hatcher, B. G. & Petrie, B. (2007): Numerical study of circulation and temperature-salinity distributions in the Bras d’Or Lakes. – Ocean Dynamics, 57:245–268, 22 Abb., 2 Tab.; doi:10.1007/s10236-007-0120-7.
• Yang, B., Sui, W. & Duan, L. (2017): Risk Assessment of Water Inrush in an Underground Coal Mine Based on GIS and Fuzzy Set Theory. – Mine Water Environ., 36(4):617–627, doi:10.1007/s10230-017-0457-1.
• Yang, B., Yang, T. H. & Hu, J. (2021): Numerical Simulation of Non-Darcy Flow Caused by Cross-Fracture Water Inrush, Considering Particle Loss. – Mine Water Environ., 40(2):466–478, doi:10.1007/s10230-021-00762-6.
• Yang, B., Yuan, J., Duan, L. & Liu, Q. (2019): Using GIS and Fractal Theory to Evaluate Degree of Fault Complexity and Water Yield. – Mine Water Environ., 38(2):261–267, doi:10.1007/s10230-018-0563-8.
• Yang, C., Deng, Y. & Wang, Z. (2005): Application of Surface Pre-grouting for Shaft Sinking with Freezing In the Aquifer Formations: Mine Water 2005 – Mine Closure. – 521–523 p., 1 Tab.; Oviedo (University of Oviedo).
• Yang, C. & Li, G. (2009): Underground Treatment of Flooded Fully Mechanized Mining Face. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 330–336, 2 Abb., 1 Tab; Pretoria (Document Transformation Technologies).
• Yang, C., Liu, S. D. & Wu, R. X. (2017): Quantitative Prediction of Water Volumes Within a Coal Mine Underlying Limestone Strata Using Geophysical Methods. – Mine Water Environ., 36(1):51–58, doi:10.1007/s10230-016-0394-4.
• Yang, C. & Wang, Z. (2003): Upward-pumping and downward-drainage water draining (UDWD) method and raised-bore drilling technology (CBT) – New techniques employed in shaft construction. – In: Nel, P. J. L. (ed) Mine Water Environ. – p. 465–475, 3 Abb., 4 Tab.; Johannesburg (Proceedings 8th International Mine Water Association Congress).
• Yang, C. & Wang, Z. (2005): Surface Pre-grouting and Freezing for Shaft Sinking in Aquifer Formations. – Mine Water Environ., 24(4):209–212, 2 Abb., 2 Tab.
• Yang, D., Fan, R., Greet, C. & Priest, C. (2020): Microfluidic Screening to Study Acid Mine Drainage. – Environ. Sci. Technol., 54(21):14000–14006, doi:10.1021/acs.est.0c02901.
• Yang, J. E., Skousen, J. G., Ok, Y.-S., Yoo, K.-Y. & Kim, H.-J. (2006): Reclamation of Abandoned Coal Mine Waste in Korea using Lime Cake By-Products. – Mine Water Environ., 25(4):227–232, 5 Abb., 4 Tab.; doi:10.1007/s10230-006-0137-z.
• Yang, K. & Xing, B. (2010): Adsorption of Organic Compounds by Carbon Nanomaterials in Aqueous Phase – Polanyi Theory and its Application. – Chem. Rev., 110:5989–6008, doi:10.1021/cr100059s.
• Yang, L., Steefel, C. I., Marcus, M. A. & Bargar, J. R. (2005): Kinetics of Fe(II)-Catalyzed Transformation of 6-line Ferrihydrite under Anaerobic Flow Conditions. – Environ. Sci. Technol., 44(14):5469–5475, doi:10.1021/es1007565.
• Yang, P., Yang, W., Nie, Y., Saleem, F., Ma, R., Li, R. & Lu, F. (2022): Predicting the Height of the Water-conducting Fractured Zone Based on a Multiple Regression Model and Information Entropy in the Northern Ordos Basin, China. – Mine Water Environ., 41(1):225–236, doi:10.1007/s10230-021-00805-y.
• Yang, S., Wu, P., Zhang, R. & Dong, H. (2011): 有氧垂直折流式反应池处理煤矿酸性废水 [Treatment of acid mine drainage using aerobic baffled vertical flow reactor]. – 环境工程学报 [Chin. J. Environ. Eng.], 5(4):789–794.
• Yang, W. & Yang, C. (2011): Creative Grouting Method Used in Blocking Water Inflow in a Shaft Wall: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 129–132 p., Aachen (RWTH Aachen University).
• Yang, X., Rahman, M. T., Kameda, T., Masaki, Y., Saito, Y., Kumagai, S. & Yoshioka, T. (2020): Investigation of Sludge Volume from Abandoned Mine Wastewater Treatment by Layered Double Hydroxides: A Case Study Targeting As and Fe. – Mine Water Environ., 39(4):881–887, doi:10.1007/s10230-020-00697-4.
• Yang, X. J., Gu, Z. M. & Fane, A. G. (1999): Extraction and group separation of rare earths by a combined extraction/electrostatic pseudo liquid membrane from simulated rare earths mine water. – Materials Science Forum, 315-3:275–281, 2 Abb., 4 Tab.
• Yang, Y., Chen, T. H., Li, P., Xie, Q. Q. & Zhan, X. M. (2017): Cu Removal from Acid Mine Drainage by Modified Pyrite: Batch and Column Experiments. – Mine Water Environ., 36(3):371–378, doi:10.1007/s10230-016-0421-5.
• Yang, Y., Xie, Q., Liu, X. & Wang, J. (2015): Occurrence, distribution and risk assessment of polychlorinated biphenyls and polybrominated diphenyl ethers in nine water sources. – Ecotoxicology and Environmental Safety, 115:55–61, doi:10.1016/j.ecoenv.2015.02.006.
• Yang, Y., Yang, H., Wu, J., Jie, J. & Zheng, Q. (2014): Underground Drilling and Packer Test in Fault F16 of Wugou Coal Mine. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 587–592, Xuzhou (International Mine Water Association).
• Yang, Y., Yue, J., Li, J. & Yang, Z. (2018): Mine Water Inrush Sources Online Discrimination Model Using Fluorescence Spectrum and CNN. – IEEE Access, 6:47828–47835, 9 Abb., 3 Tab.; doi:10.1109/ACCESS.2018.2866506.
• Yang, Z., Huang, P. & Ding, F. (2020): Groundwater Hydrogeochemical Mechanisms and the Connectivity of Multilayer Aquifers in a Coal Mining Region. – Mine Water Environ., 39(4):808–822, doi:10.1007/s10230-020-00716-4.
• Yang, Z., Lv, H., Xu, Z. & Wang, X. (2022): Source discrimination of mine water based on the random forest method. – Sci Rep, 12(1):19568, doi:10.1038/s41598-022-24037-4.
• Yang, Z.-h., Xu, H.-y., Zeng, G.-m., Luo, Y.-l., Yang, X., Huang, J., Wang, L.-k. & Song, P.-p. (2015): The behavior of dissolution/passivation and the transformation of passive films during electrocoagulation: Influences of initial pH, Cr(VI) concentration, and alternating pulsed current. – Electrochimica Acta, 153:149–158, doi:10.1016/j.electacta.2014.11.183.
• Yanosky, T. M. & Kappel, W. M. (1997): Effects of solution mining of salt on wetland hydrology as inferred from tree rings. – Water Resour. Res., 33(3):457–470, doi:10.1029/96WR03688.
• Yao, C., Wu, L. G., Yang, J. H., Xiao, L. X., Liu, X. F., Jiang, Q. H. & Zhou, C. B. (2021): Influences of Tailings Particle Size on Overtopping Tailings Dam Failures. – Mine Water Environ., 40(1):174–188, doi:10.1007/s10230-020-00725-3.
• Yao, Q., Yu, L., Shan, C., Xia, Z., Chen, N., Xie, H. & Zhu, L. (2023): Experimental Study on the Mechanical Damage and Deformation Failure of Water-bearing Coal Samples. – Mine Water Environ., 42(2):251–265, doi:10.1007/s10230-023-00933-7.
• Yao, Q. L., Tang, C. J., Xia, Z., Xu, Q., Wang, W. N., Wang, X. H. & Chong, Z. H. (2021): Experimental Study of Coal Sample Damage in Acidic Water Environments. – Mine Water Environ., 40(4):1003–1015, doi:10.1007/s10230-021-00811-0.
• Yao, T., He, C., Zhang, P., Gao, H. & Zhou, C. (2013): Distribution and Sources of Polychlorinated Biphenyls (PCBs) and Organochlorine Pesticides (OCPs) in Surface Waters of Jinzhou Bay in China. – Procedia Environmental Sciences, 18:317–322, doi:10.1016/j.proenv.2013.04.041.
• Yao, X., Yao, L. & Wang, X. (2014): Locating and Intercepting Water-conducting Channels by Multiple Ways in Coal Mine. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 112, Xuzhou (International Mine Water Association).
• Yapp, C. J. (2000): Climatic implications of surface domains in arrays of delta D and delta 18O from hydroxyl minerals; goethite as an example. – Geochim. Cosmochim. Acta, 64(12):2009–2025, Refs: 55; illus. incl. 2 tables.
• Yasir, M. W., Siddique, M. B. A., Shabbir, Z., Ullah, H., Riaz, L., Nisa, W. U., Shafeeq Ur, R. & Shah, A. A. (2021): Biotreatment potential of co-contaminants hexavalent chromium and polychlorinated biphenyls in industrial wastewater: Individual and simultaneous prospects. – Sci Total Environ, 779:146345, doi:10.1016/j.scitotenv.2021.146345.
• Yasutaka, T., Furukawa, H., Kuroki, K. & Fujita, T. (2024): Development of an un-powered remote monitoring system of mine waste water. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 655–659; Morgantown (International Mine Water Association).
• Yazdi, A., Tsai, L. C., Rezaee, M., Gore, S. & Salowitz, N. (2023): Low Flow Rate Measurement and Leak Detection for Health Monitoring of Water Equipment. 10th European Workshop on Structural Health Monitoring (EWSHM), Univ Palermo, Dept Engn, Palermo, ITALY, Jul 04–07 2022. Lecture Notes in Civil Engineering. 963–971 S.
• Ye, C., Gong, Q.-M., Lu, F.-P. & Liang, J. (2007): Adsorption of uraemic toxins on carbon nanotubes. – Sep. Purif. Technol., 58:2–6, doi:10.1016/j.seppur.2007.07.003.
• Yeats, P. A., Dalziel, J. A. & Milligan, T. G. (1998): Water Chemistry Measurements associated with Mine Water Discharge into Coastal Waters of Nova Scotia. – Canadian Technical Report of Fisheries and Aquatic Sciences, 2242:28, 8 Abb., 4 Tab.
• Yefimochkina, E. (2004): Hydrochemische Untersuchungen an Sicker- und Grubenwässern des Freiberger Bergbaureviers und ihre ökologische Bewertun. – 126 p., 95 Abb., 7 Tab.; Freiberg (Unveröff. Dipl.-Arb. TU Bergakademie Freiberg).
• Yeh, S.-J. & Jenkins, C. R. (1971): Disposal of Sludge from Acid Mine Water Neutralization. – J. Water Pollut. Control Fed., 43(4):679–688, 12 Abb., 4 Tab.
• Yeheyis, M. B., Shang, J. Q. & Yanful, E. K. (2009): Long-term evaluation of coal fly ash and mine tailings co-placement – A site-specific study. – J. Environ. Manage., 91(1):237–244, 7 Abb., 2 Tab.; doi:10.1016/j.jenvman.2009.08.010.
• Yelpaala, K. & Ali, S. H. (2005): Multiple scales of diamond mining in Akwatia, Ghana: addressing environmental and human development impact. – Resour. Policy, 30(3):145–155, doi:10.1016/j.resourpol.2005.08.001.
• Yelpatyevsky, P. V. (1995): Factors controlling metal content of mining waters. – In: Kharaka, Y. K. & Chudaev, O. V. (eds): Water-Rock Interaction 8. – p. 901–904, 2 Abb.; Rotterdam (Balkema).
• Yendell, A. & Byrne, P. (2021): Emerging Opportunities for Improving Legacy Metal Mine Water Pollution Driven by Changing Regulatory Environments and Outputs of Novel Fieldwork in the Southern Uplands of Scotland. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 638–644; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Yiantzi, E., Psillakis, E., Tyrovola, K. & Kalogerakis, N. (2010): Vortex-assisted liquid–liquid microextraction of octylphenol, nonylphenol and bisphenol-A. – Talanta, 80:2057–2062, doi:10.1016/j.talanta.2009.11.005.
• Yibas, B. (2020): Oxidation Processes and Formation of Acid Mine Drainage from Gold Mine Tailings: A South African Perspective. – In: Fosso-Kankeu, E., Wolkersdorfer, Ch. & Burgess, J. (eds): Recovery of Byproducts from Acid Mine Drainage Treatment. – p. 73–95, 11 Abb., 5 Tab.; Salem (Scrivener); doi:10.1002/9781119620204.ch4.
• Yibas, B., Netshitungulwana, R., Novhe, O., Mengistu, H., Sakala, E., Thomas, A. & Nyabeze, P. K. (2013): A holistic approach towards best management practices of mine pollution impacts using a catchment area strategy, South Africa. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 1179–1184, 3 Abb.; Golden (International Mine Water Association).
• Yibas, B., Pulles, W., Lorentz, S., Maiyana, B. & Nengovhela, C. (2012): Oxidation process and hydrology of tailings dams: Implication for acid mine drainage from TSFs management – The Witwatersrand experience, South Africa: International Mine Water Association Symposium. – 245–256 p., Bunbury (Edith Cowan University).
• Yibas, B., Pulles, W. & Nengovhela, C. (2010): Kinetic Development of Oxidation Zones in Tailings Dams with Specific Reference to the Witwatersrand Gold Mine Tailings Dams. – (Report Nr. 1554/1/10). – 87 p., Pretoria (Water Research Commission).
• Yigitbas, E., Mirici, A., Gonlugur, U., Bakar, C., Tunc, I. O., Sengun, F. & Isikoglu, O. (2015): Evaluation of asbestos exposure in Dumanli village (Canakkale, Turkey) from a medical geology viewpoint; an inter-disciplinary study. – Bulletin of the Mineral Research and Exploration Institute of Turkey = Bulletin of the Mineral Research and Exploration, 151:247–258.
• Yih, C.-s. (1980): Stratified flows: Applied mathematics and mechanics, 2d edn. – xvii, 418 p. p., New York (Academic Press).
• Yihdego, Y. & Paffard, A. (2017): Predicting Open Pit Mine Inflow and Recovery Depth in the Durvuljin soum, Zavkhan Province, Mongolia. – Mine Water Environ., 36(1):114–123, doi:10.1007/s10230-016-0419-z.
• Yıldırım, İ. & Özcan, H. (2007): Determination of pesticide residues in water and soil resources of Troia (Troy). – Fresenius Environ. Bull., 16(1):63–70, 2 Abb., 5 Tab.
• Yilmaz, H., Oyman, T., Arehart, G. B., Colakoglu, A. R. & Billor, Z. (2007): Low-sulfidation type Au–Ag mineralization at Bergama, Izmir, Turkey. – Ore Geol. Rev., 32(1):81–124, doi:10.1016/j.oregeorev.2006.10.007.
• Yilmaz, H., Sonmez, F. N., Akay, E., Şener, A. K. & Tezel Tufan, S. (2013): Low-sulfidation epithermal Au-Ag mineralization in the Sındırgı District, Balıkesir Province, Turkey. – Turk. J. Earth Sci., 22(4):485–522, 24 Abb., 7 Tab.; doi:10.3906/yer-1204-10.
• Yılmaz, Y. (1997): Geology of Western Anatolia: Active Tectonics of Northwestern Anatolia – the MARMARA Poly-Project, a Multidisciplinary Approach by Space-Geodesy, Geology, Hydrogeology, Geothermics and Seismology. – 31–50 p., 8 Abb., 1 Tab.; Zürich (vdf Hochschulverl. an der ETH Zürich).
• Yılmaz, Y. (2003): Seismotectonics and Geology of Troia and Surrounding Areas, Northwestern Anatolia. – In: Pernicka, E. & Uerpmann, H. P. (eds): Troia and the Troad – Scientific Approaches. – p. 55–75, 11 Abb., 1 Tab.; Berlin (Springer); doi:10.1007/978-3-662-05308-9_5.
• Yim, G. J., Bhattacharya, J., Cheong, Y. W., Ji, S. W., Choi, Y. S., Min, J. S. & Park, S. W. (2007): Some hydraulic and geochemical Characteristics of Waste Dumps at the abandoned Imgi Pyrophyllite Mine, Korea: Water in Mining Environments. – 123–126 p., 3 Abb., 2 Tab.; Cagliari (Mako Edizioni).
• Yim, G. J., Cheong, Y. W., Hong, J. H. & Hur, W. (2014): The role of each compartment in a two-compartment vertical flow reactor for ferruginous mine water treatment. – Water Res., 62(10):11–19, doi:10.1016/j.watres.2014.05.016.
• Yim, G. J., Cheong, Y. W., Min, D. S. & Ji, S. W. (2010): Effects of capillary zone on water movement in soil column with tailings. Paper presented at the Mine Water and Innovative Thinking – International Mine Water Association Symposium, Sydney, NS. – p. 607–611; (Cape Breton University Press).
• Yin, H., Feng, Q., Dong, F., Zhou, W., Li, Y., Cheng, W., Wang, Y. & Guo, Q. (2024): Potential Analysis of Fault Hydraulic Conductivity During the Mining of Two Very Close Coal Seams. – Mine Water Environ., 43(4):675–690, doi:10.1007/s10230-024-01012-1.
• Yin, H., Wei, J., Lefticariu, L., Guo, J., Xie, D., Li, Z. & Zhao, P. (2016): Numerical Simulation of Water Flow from the Coal Seam Floor in a Deep Longwall Mine in China. – Mine Water Environ., 35(2):243–252, doi:10.1007/s10230-016-0385-5.
• Yin, H. C., Zhang, G. Z., Wu, Q., Cui, F. P., Yan, B. C., Yin, S. X., Soltanian, M. R., Thanh, H. V. & Dai, Z. X. (2024): Transfer Learning with Transformer-Based Models for Mine Water Inrush Prediction: A Multivariate Analysis Using Sparse and Imbalanced Monitoring Data. – Mine Water Environ., 43(4):707–726, doi:10.1007/s10230-024-01011-2.
• Yin, L. M., Ma, K., Chen, J. T., Xue, Y. C., Wang, Z. Q. & Cui, B. Q. (2019): Mechanical Model on Water Inrush Assessment Related to Deep Mining Above Multiple Aquifers. – Mine Water Environ., 38(4):827–836, doi:10.1007/s10230-019-00623-3.
• Yin, R., Feng, X., Hurley, J. P., Krabbenhoft, D. P., Lepak, R. F., Hu, R., Zhang, Q., Li, Z. & Bi, X. (2016): Mercury Isotopes as Proxies to Identify Sources and Environmental Impacts of Mercury in Sphalerites. – Sci. Rep., 6:18686, doi:10.1038/srep18686.
• Yin, R., Feng, X. & Meng, B. (2013): Stable Mercury Isotope Variation in Rice Plants (Oryza sativa L.) from the Wanshan Mercury Mining District, SW China. – Environ. Sci. Technol., 47(5):2238–2245, doi:10.1021/es304302a.
• Yin, S. & Li, W. (2014): Geothermic Mine Water Forming Mechanism and Integrated Preventive Technologies in Wutongzhuang Mine Area, China. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 666–670, Xuzhou (International Mine Water Association).
• Yin, S.-X., Xu, B., Xu, H. & Xia, X.-X. (2014): The application of chemical tracer experiments on exploring the mine water filling conditions. – Journal of China Coal Society, 39(1):129–134.
• Yoder, M. F. & Kisaalita, W. S. (2011): Iron specificity of a biosensor based on fluorescent pyoverdin immobilized in sol-gel glass. – J. Biol. Eng., 5(4):1–12, 9 Abb., 2 Tab.; doi:10.1186/1754-1611-5-4.
• Yogananda, C. S. & Einstein, A. (2000): The cause of the formation of meanders in the courses of rivers and of the so-called Baer’s law. – Resonance, 5(3):105–108, doi:10.1007/BF02839006.
• Yolcubal, I., Doğrul Demiray, A., Çiftçi, E. & Sangu, E. (2023): Role of Secondary Sulfate Minerals on Metal Recycling in an Abandoned Copper Deposit: Kuvarshan (Artvin), Northeastern Turkey. – Mine Water Environ., 42(4):560–577, doi:10.1007/s10230-023-00956-0.
• Yoon, S., Jang, H., Yun, S.-T. & Kim, D.-M. (2018): Investigating the Status of Mine Hazards in North Korea Using Satellite Pictures. – Journal of the Korean Society of Mineral and Energy Resources Engineers, 55(6):564–575, doi:10.32390/ksmer.2018.55.6.564.
• Yoshida, Z., Meguro, Y., Iso, S., Ougiyanagi, J., Tomioka, O., Enokida, Y. & Yamamoto, I. (2002): Supercritical Carbon Dioxide Fluid Leaching (SFL) of Uranium from Solid Wastes Using HNO₃S-tributylphosphate (TBP) Complex as a Reactant. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 187–191, 1 Abb.; Heidelberg (Springer).
• Young, D. A. (1979): Methane and ventilation studies in coal mining in the Sydney Coalfield, Nova Scotia. – 173 p., 66 Abb., 20 Tab.; Montreal (unpubl. Masters Thesis McGill University).
• Young, E. F. & Steinman, H. E. (1967): Coal mine drainage treatment. – Purdue Univ., Eng. Bull., Ext. Ser., 52(3):477–491, 15 Abb., 7 Tab.
• Young, J. C. O. C. (1996): Removal of Iron Oxide Deposits from Mine Water Pipelines in the Geothermal Energy System in Springhill, Nova Scotia. – (Report Nr. SMUAFRC-96-03). – p.
• Young, J. E. (1992): Mining the earth: Worldwatch Paper 109. – 53 p., 1 Abb., 7 Tab.; Washington (Worldwatch Institute).
• Young, K. J. (1995): Development and Application of Advanced Emulsion Hydraulic Fluids. – SAE Trans., 104:19–26, doi:10.4271/951196.
• Young, P. (1996): The “new science” of wetland restoration. – Environ. Sci. Technol., 30(7):292A–296A.
• Young, R. A. (1993): The Rietveld Method: Monographs on crystallography 5. – 298 p., Oxford (Oxford University Press).
• Younger, P. & Sapsford, D. (2004): Evaluating the potential impact of opencast coal mining on water quality (Groundwater Regulations 1998) – An assessment framework for Scotland. – 75 p., 9 Abb., 8 Tab.; (Scottish Environment Protection Agency (SEPA)).
• Younger, P. L. (1993): Possible Environmental Impact of the Closure of two Collieries in County Durham. – Water Environ. Manage., 7(5):521–531, 2 Abb., 3 Tab.
• Younger, P. L. (1995): Hydrogeochemistry of minewaters flowing from abandoned coal workings in County Durham. – Q. J. Eng. Geol., 28(4):S101–S113, 4 Abb., 4 Tab.; doi:10.1144/GSL.QJEGH.1995.028.S2.02.
• Younger, P. L. (1997): The longevity of minewater pollution – a basis for decision-making. – Sci. Total Environ., 194-195:457–466, 5 Abb.; doi:10.1016/S0048-9697(96)05383-1.
• Younger, P. L. (1998): Adit Hydrology in the Long-Term: Observations from the Pb-Zn Mines of Nothern England: Mine Water and Environmental Impacts 2. – 347–356 p., 4 Abb., 2 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Younger, P. L. (1998): Design, construction and initial operation of full-scale compost-based passive systems for treatment of coal mine drainage and spoil leachate in the UK. Paper presented at the Mine Water and Environmental Impacts, Johannesburg. – p. 413–424, 5 Abb., 2 Tab.; (Proceedings International Mine Water Association Symposium).
• Younger, P. L. (1998): Proceedings of CIWEM Conference on “Minewater Treatment Using Wetlands” (Abstract). – Water Environ. Manage., 12(1):68–69, doi:10.1111/j.1747-6593.1998.tb00150.x.
• Younger, P. L. (1999): The scientific and engineering context of the Quaking Houses community wetland. – In: Kemp, P. & Griffiths, J. (eds): Quaking Houses. Art, Science and The Community – A collaborative approach to water pollution. – p. 109–118, Charlbury (Jon Carpenter).
• Younger, P. L. (2000): The adoption and adaptation of passive treatment technologies for mine waters in the United Kingdom. – Mine Water Environ., 19(2):84–97, 5 Abb., 1 Tab.; doi:10.1007/BF02687257.
• Younger, P. L. (2000): Holistic remedial strategies for short- and long-term water pollution from abandoned mines. – Trans. Inst. Min. Metall. Sect. A, 109:A210–A218, 5 Abb., 1 Tab.; doi:10.1179/mnt.2000.109.3.210.
• Younger, P. L. (2000): Nature and practical implications of heterogeneities in the geochemistry of zinc-rich, alkaline mine waters in an underground F-Pb mine in the UK. – Appl. Geochem., 15(9):1383–1397, 5 Abb., 4 Tab.; doi:10.1016/S0883-2927(00)00010-X.
• Younger, P. L. (2000): Pilot-Scale Passive Treatment of Acidic Mine Drainage Using a Downward-Flow, Reducing and Alkalinity Producing System (RAPS) at Bowden Close, County Durham, UK. – Unpubl. Report for Cdent & Durham County, C. 21 p., 10 Abb., 5 Tab.; Newcastle upon Tyne (University of Newcastle upon Tyne).
• Younger, P. L. (2000): Predicting temporal changes in total iron concentrations in groundwaters flowing from abandoned deep mines: a first approximation. – J. Contam. Hydrol., 44:47–69, 5 Abb., 3 Tab.; doi:10.1016/S0169-7722(00)00090-5.
• Younger, P. L. (2001): Mine water pollution in Scotland: nature, extent and preventative strategies. – Sci. Total Environ., 265(1-3):309–326, 7 Abb., 3 Tab.; doi:10.1016/S0048-9697(00)00673-2.
• Younger, P. L. (2001): Passive Treatment of European Mine Waters: the European Commission’s ’PIRAMID’ Project. – 1–10 [CD–ROM] p., 2 Tab.; Belo Horizonte (Proceedings IMWA Symposium Belo Horizonte).
• Younger, P. L. (2002): Coalfield closure and the water environment in Europe. – Trans. Inst. Min. Metall. Sect. A, 111:A201–A209, 1 Abb., 5 Tab.
• Younger, P. L. (2002): Deep mine hydrogeology after closure – insights from the UK. – In: Merkel, B. J., Planer-Friedrich, B. & Wolkersdorfer, Ch. (eds): Uranium in the Aquatic Environment. – p. 25–40, 1 Abb., 2 Tab.; Heidelberg (Springer); doi:10.1007/978-3-642-55668-5_3.
• Younger, P. L. (2002): The importance of pyritic roof strata in aquatic pollutant release from abandoned mines in a major, oolitic, berthierine-chamosite-siderite iron ore field, Cleveland, UK. – Spec. Publ. – Geol. Soc. London, 198:251–266, 2 Abb., 3 Tab.; doi:10.1144/GSL.SP.2002.198.01.16.
• Younger, P. L. (2002): Mine waste or mine voids: which is the most important long-term source of polluted mine drainage? – United Nations Environment Programme [UNEP], Mineral Resources Forum, paper Nov-Dec 2002:12.
• Younger, P. L. (2002): Mine Water Pollution from Kernow to Kwazulu-Natal: Geochemical Remedial Options and their Selection in Practice. – Geoscience in south-west England, 10:255–266, 8 Abb., 3 Tab.
• Younger, P. L. (2003): Frazer’s Grove: the life and death of the last great Weardale fluorspar mine. – In: Fairbairn, R. A. (ed) Fluorspar in the North Pennines. – p. 47–72, 6 Abb., 3 Tab.; Durham (Friends of Killhope).
• Younger, P. L. (2004): Environmental impacts of coal mining and associated wastes – a geochemical perspective. – Spec. Publ. – Geol. Soc. London, 236:169–209, 6 Abb., 7 Tab.; doi:10.1144/GSL.SP.2004.236.01.12.
• Younger, P. L. (2004): “Making water”: the hydrogeological adventures of Britain’s early mining engineers. – Spec. Publ. – Geol. Soc. London, 225:121–157, 4 Abb., 2 Tab.; doi:10.1144/GSL.SP.2004.225.01.09.
• Younger, P. L. (2005): Westfield pit lake, Fife (Scotland): the evolution and current hydrogeological dynamics of Europe’s largest bituminous coal pit lake: Mine Water 2005 – Mine Closure. – 281–287 p., 3 Abb., 2 Tab.; Oviedo (University of Oviedo).
• Younger, P. L. (2007): Groundwater in the Environment – An introduction. – 318 p., zahlr. Abb., zahlr. Tab.; Oxford (Blackwell).
• Younger, P. L. (2008): Towards Regulatory Criteria for Discharging Iron-rich Mine Water into the Sea. – Mine Water Environ., 27(1):56–61, 1 Tab.; doi:10.1007/s10230-007-0027-z.
• Younger, P. L. (2010): Water Management Issues in the Underground Gasification of Coal and the Subsequent Use of the Voids for Long-Term Carbon Dioxide Storage. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 67–71, Sydney, NS (Cape Breton University Press).
• Younger, P. L. (2010): Where There is no pH Meter: Estimating the Acidity of Mine Waters by Visual Inspection. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 407–411, Sydney, NS (Cape Breton University Press).
• Younger, P. L. (2011): Hydrogeological and Geomechanical Aspects of Underground Coal Gasification and its direct Coupling to Carbon Capture and Storage. – Mine Water Environ., 30(2):127–140, 2 Abb., 4 Tab.; doi:10.1007/s10230-011-0145-5.
• Younger, P. L. (2013): Hydrogeological challenges in a low-carbon economy. – Q. J. Eng. Geol. Hydrogeol., 47(1):7–27, doi:10.1144/qjegh2013-063.
• Younger, P. L. (2016): A simple, low-cost approach to predicting the hydrogeological consequences of coalfield closure as a basis for best practice in long-term management. – Int. J. Coal Geol., 164:25–34, doi:10.1016/j.coal.2016.06.002.
• Younger, P. L. (2017): Lost for words: an Ignatian encounter with divine love in aggressive brain cancer. – The Way, 56(3):7–17.
• Younger, P. L. & Adams, R. (1999): Predicting Mine Water Rebound. – 109 p., 32 Abb., 88 Tab.; Bristol (Environment Agency); doi:10.13140/2.1.4805.5681.
• Younger, P. L. & Banwart, S. A. (2002): Time-scale issues in the remediation of pervasively-contaminated groundwaters at abandoned mines sites. – In: Oswald, S. E. & Thornton, S. F. (eds): Groundwater Quality: Natural and Enhanced Restoration of Groundwater Pollution, IAHS Publication 275. – p. 585–591, 4 Abb.; Wallingford (IAHS Press).
• Younger, P. L., Banwart, S. A. & Hedin, R. S. (2002): Mine Water – Hydrology, Pollution, Remediation. – 464 p., Dordrecht (Kluwer); doi:10.1007/978-94-010-0610-1.
• Younger, P. L. & Bradley, K. F. (1994): Application of Geochemical Mineral Exploration Techniques to the Cataloguing of Problematic Discharges from Abandoned Mines in North-East England. – Proceedings, 5th International Mine Water Congress, Nottingham, U.K., 2:857–871, 5 Abb., 2 Tab.
• Younger, P. L., Coulton, R. H. & Froggatt, E. C. (2005): The Contribution of Science to Risk-Based Decision-Making: Lessons from the Development of Full-Scale Treatment Measures for Acidic Mine Waters at Wheal Jane, UK. – Sci. Total Environ., 338(1-2):137–154, 3 Abb., 3 Tab.; doi:10.1016/j.scitotenv.2004.09.014.
• Younger, P. L., Curtis, T. P., Jarvis, A. & Pennell, R. (1997): Effective Passive Treatment of Aluminium-Rich, Acidic Colliery Spoil Drainage using a Compost Wetland at Quaking Houses, County Durham. – Water Environ. Manage., 11:200–208, 7 Abb., 3 Tab.; doi:10.1111/j.1747-6593.1997.tb00116.x.
• Younger, P. L. & Harbourne, K. J. (1995): “To Pump or Not to Pump” – Cost-Benefit Analysis of Future Environmental Management Options for the Abandoned Durham Coalfield. – Water Environ. J., 9(4):405–415, 5 Abb., 7 Tab.; doi:10.1111/j.1747-6593.1995.tb00958.x.
• Younger, P. L., Jayaweera, A., Elliot, A., Wood, R., Amos, P., Daugherty, A. J., Martin, A., Bowden, L., Aplin, A. C. & Johnson, D. B. (2003): Passive treatment of acidic mine waters in subsurface-flow systems – exploring RAPS and permeable reactive barriers. – Land Contam. Reclam., 11(2):127–135, 3 Abb., 2 Tab.; doi:10.2462/09670513.806.
• Younger, P. L., Jayaweera, A. & Wood, R. (2004): A full-scale reducing and alkalinity-producing system (RAPS) for the passive treatment of acidic, aluminium-rich mine site drainage at Bowden Close, County Durham. – 1–13 p., 5 Abb., 3 Tab.; London (Proceedings of the CL:AIRE Annual Project Conference Imperial College).
• Younger, P. L. & LaPierre, A. B. (2000): “Uisge Mèinne” – Mine Water hydrogeology in the Celtic lands, from Kernow (Cornwall, UK) to Ceap Breattain (Cape Breton, Canada). – Spec. Publ. – Geol. Soc. London, 182:35–52, 7 Abb., 2 Tab.
• Younger, P. L. & Mayes, W. M. (2015): The Potential Use of Exhausted Open Pit Mine Voids as Sinks for Atmospheric CO₂: Insights from Natural Reedbeds and Mine Water Treatment Wetlands. – Mine Water Environ., 34(1):112–120, doi:10.1007/s10230-014-0293-5.
• Younger, P. L. & Robins, N. S. (2002): Challenges in the characterisation and prediction of the hydrogeology and geochemistry of mined ground. – Spec. Publ. – Geol. Soc. London, 198:1–16, 1 Abb., 2 Tab.; doi:10.1144/GSL.SP.2002.198.01.01.
• Younger, P. L. & Robins, N. S. (2002): Mine Water Hydrogeology and Geochemistry. – Spec. Publ. – Geol. Soc. London, 198:396, doi:10.1144/GSL.SP.2002.198.01.01.
• Younger, P. L. & Sapsford, D. J. (2006): Acid Drainage Prevention Guidelines for Scottish Opencast Coal Mining: the Primacy of the Conceptual Model. Paper presented at the ICARD 2006, St. Louis. – p. 2558–2570 [CD–ROM], 1 Abb., 1 Tab.; (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)).
• Younger, P. L., Wolkersdorfer, Ch., Bowell, R. J. & Diels, L. (2006): Partnership for Acid Drainage Remediation in Europe (PADRE) – Building a better Future founded on Research and best Practice: ICARD 2006 7. – 2571–2574 [CD–ROM] p., St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06022571.
• Youyu, W. (1987): The karstic Sinking-Columns in Permo-Carboniferous Coal Fields of North China: Hydrogeology of Coal Basins. – 421–427 p., 3 Abb.; Kraków (Wydawnictwo Akademii Górnico-Hutniczej).
• Yu, C., Warrick, A. W. & Conklin, M. H. (1999): A moment method for analyzing breakthrough curves of step inputs. – Water Resour. Res., 35(11):3567–3572, doi:10.1029/1999WR900225.
• Yu, J., Chang, J., Zhou, S., Xing, X. & Zhou, X. (2014): A Real-Time Process and Continuous Comparison System of Mining Transient Electromagnetic Prospecting Method for Disastrous Water. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 341–344, Xuzhou (International Mine Water Association).
• Yu, J.-G., Yue, B.-Y., Wu, X.-W., Liu, Q., Jiao, F.-P., Jiang, X.-Y. & Chen, X.-Q. (2016): Removal of mercury by adsorption: a review. – Environ. Sci. Pollut. Res., 23(6):5056–5076, 8 Abb., 2 Tab.; doi:10.1007/s11356-015-5880-x.
• Yu, M.-H., Tsunoda, H. & Tsunoda, M. (2012): Environmental toxicology – Biological and health effects of pollutants, 3rd edn. – 375 p., Boca Raton (CRC Press); doi:10.1201/b11677.
• Yu, P. (1994): Surface Subsidence in the Karst Mining Area in China. – Mine Water Environ., 13(2):21–25, 2 Tab.; doi:10.1007/BF02915536.
• Yu, Q. & Yang, G. (2014): Fast Numerical Method to Calculate Mine Water Yield. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 69–72, Xuzhou (International Mine Water Association).
• Yu, Z. B., Zhu, S. Y., Guan, Y. Z. & Hu, D. X. (2019): Feasibility of Modifying Coal Pillars to Prevent Sand Flow Under a Thick Loose Layer of Sediment and Thin Bedrock. – Mine Water Environ., 38(4):817–826, doi:10.1007/s10230-019-00622-4.
• Yuan, S. & Han, G. (2020): Combined Drilling Methods to Install Grout Curtains in a Deep Underground Mine: A Case Study in Southwest China. – Mine Water Environ., 39(4):902–909, doi:10.1007/s10230-020-00701-x.
• Yuan, S. & Han, G. (2023): Assessing the Effectiveness of Tailings Pond Seepage Remediation Using the Four Dimensions of “Point-Line-Surface-Body”: A Case Study. – Mine Water Environ., 42(4):687–696, doi:10.1007/s10230-023-00955-1.
• Yuan, S. C., Sui, W. H., Han, G. L. & Duan, W. Q. (2022): An Optimized Combination of Mine Water Control, Treatment, Utilization, and Reinjection for Environmentally Sustainable Mining: A Case Study. – Mine Water Environ., 41(3):828–839, doi:10.1007/s10230-022-00886-3.
• Yücel, D. Ş. & Baba, A. (2013): Geochemical Characterization of Acid Mine Lakes in Northwest Turkey and Their Effect on the Environment. – Arch. Environ. Contam. Toxicol., 64(3):357–376, doi:10.1007/s00244-012-9843-7.
• Yue, J., Liu, Z., Zhang, H. & Yue, L. (2014): Geoelectromagnetic Methods of Coal Mine Groundwater Monitoring. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 307, Xuzhou (International Mine Water Association).
• Yule, C. M., Boyero, L. & Marchant, R. (2010): Effects of sediment pollution on food webs in a tropical river (Borneo, Indonesia). – Mar. Freshw. Res., 61(2):204–213, doi:10.1071/mf09065.
• Yulin, Y. & Huanjie, X. (1985): Development of Ammonium as a Chemical Grouting Material. – Int. J. Mine Water, 4(3):43–54, 9 Abb., 4 Tab.; doi:10.1007/BF02551568.
• Yungwirth, G., Austin, E., Preene, M., Corcoran, F. & Birch, J. (2017): Aquifer Reinjection Scheme for Excess Mine Water: Design Methodology and Outcomes. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 389–395, Lappeenranta (Lappeenranta University of Technology).
• Yungwirth, G., Coleman, T., Norwood, W. J., Dama-Fakir, P., Bruton, M., Ali, N. & Singh, G. (2023): ESG & Mine Water: A Procedural Approach to Support Setting Water Savings Targets in the Mining Sector. Paper presented at the IMWA 2023 – Y Dyfodol | The Future, Newport, Wales, UK. – p. 564–569; (International Mine Water Association).
• Yungwirth, G., Nazaruk, S., Redfern, H., Booth, T., Cammack, J., Singh, G., Buckwalter-Davis, M., Digges La Touche, G., Sweetman, R., Smith, J. & Bewick, R. (2025): Mine Water and Rock Engineering – A Winning Partnership in Cave Mining. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 221–226; Braga (International Mine Water Association).
• Yungwirth, G., Preene, M., Dobr, M. & Forero Garcia, F. (2013): Practical Application and Design Considerations for Fully Grouted Vibrating Wire Piezometers in Mine Water Investigations. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 229–236, 3 Abb., 1 Tab.; Golden (International Mine Water Association).
• Yungwirth, G., Simone, B., Capstick, S., Lanzani, M., Singh, G., Russell, A., Phanouvong, P., Mazzoni, L., Jerome, E., MacIsaac-Sun, M. & Cline, E. (2025): ESG and Mine Water Stewardship – A benchmarking approach to targeted investment and project decision making. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 248–253; Braga (International Mine Water Association).
• Yurdakok-Dikmen, B., Kuzukiran, O., Filazi, A. & Kara, E. (2015): Measurement of selected polychlorinated biphenyls (PCBs) in water via ultrasound assisted emulsification–microextraction (USAEME) using low-density organic solvents. – J. Water Health, 14(2):214–222, doi:10.2166/wh.2015.177.
• Yurkevich, N., Olenchenko, V., Bortnikova, S., Saeva, O. & Korneeva, T. (2021): Cyanides, Arsenic, and Noble Metals in Abandoned Gold Ore Cyanidation Tailings and Surface Waters in a Permafrost Region (Transbaikal Territory, Russia). – Mine Water Environ., 40(4):943–955, doi:10.1007/s10230-021-00828-5.
• Yusof, A. M., Misni, M. & Wood, A. K. H. (1997): Determination of inorganic selenium species by neutron activation analysis in aquatic species after preconcentration with ammonium pyrrolidinecarbodithionate. – J. Radioanal. Nucl. Chem., 216(1):59–63.
• Yüzer, E. (1997): Hydrogeology of Northwestern Turkey: Active Tectonics of Northwestern Anatolia – the MARMARA Poly-Project, a Multidisciplinary Approach by Space-Geodesy, Geology, Hydrogeology, Geothermics and Seismology. – 125–137 p., 2 Abb., 10 Anh.; Zürich (vdf Hochschulverl. an der ETH Zürich).
• Zaal, S. & Sheridan, C. (2015): Permeable Concrete with Bio-Reactive Layers to Target Heavy Metals and Sulfates in Acid Mine Drainage. – In: Brown, A., et al. (eds): Agreeing on solutions for more sustainable mine water management. – p. 1–9 [electronic document], Santiago/Chile (Gecamin).
• Zablocki, O., van Zyl, L. J., Kirby, B. & Trindade, M. (2017): Diversity of dsDNA Viruses in a South African Hot Spring Assessed by Metagenomics and Microscopy. – Viruses, 9(11) 2 Abb., 3 Tab.; doi:10.3390/v9110348.
• Zabora, V. V. (1988): Exclusion of Residual Water Manifestations in Mine Working. – Proceedings, 3rd International Mine Water Congress, Melbourne:601–613, 4 Abb.
• Zachara, J. M., Fredrickson, J. K., Li, S.-M., Kennedy, D. W., Smith, S. C. & Gassman, P. L. (1998): Bacterial reduction of crystalline Fe3+ oxides in single phase suspensions and subsurface materials. – Am. Mineral., 683:1426–1443, 17 Abb., 7 Tab.; doi:10.2138/am-1998-11-1232.
• Zachara, J. M., Kukkadapu, R. K., Fredrickson, J. K., Gorby, Y. A. & Smith, S. C. (2002): Biomineralization of Poorly Crystalline Fe(III) Oxides by Dissimilatory Metal Reducing Bacteria (DMRB). – Geomicrobiol. J., 19:179–207, 10 Abb., 3 Tab.; doi:10.1080/01490450252864271.
• Zachariáš, J. & Hübst, Z. (2012): Structural evolution of the Roudný gold deposit, Bohemian Massif: a combination of paleostress analysis and review of historical documents. – J. Geosci., 57(2):87–103, doi:10.3190/jgeosci.117.
• Zacs, D., Rjabova, J., Viksna, A. & Bartkevics, V. (2015): Method development for the simultaneous determination of polybrominated, polychlorinated, mixed polybrominated/chlorinated dibenzo-p-dioxins and dibenzofurans, polychlorinated biphenyls and polybrominated diphenyl ethers in fish. – Chemosphere, 118:72–80, doi:10.1016/j.chemosphere.2014.06.032.
• Zahoor, A., Mao, G., Jia, X., Xiao, X. & Chen, J. L. (2022): Global research progress on mining wastewater treatment: a bibliometric analysis. – Environ. Sci. Adv., 1(2):92–109, doi:10.1039/D2VA00002D.
• Zaidenvarg, V. E. & Tverdokhlebov, V. F. (1999): Hydraulic and geological Aspects of Coal Mines Closures in Russia. – In: Fernández Rubio, R. (ed) Mine, Water & Environment I. – p. 47–49, 3 Abb.; Sevilla (International Mine Water Association).
• Zaidi, S. H., Shanker, R. & Dogra, R. K. S. (1973): Experimental infective pneumoconiosis: Effect of asbestos dust and Candida albicans infection on the lungs of rhesus monkeys. – Environm. Res., 6(3):274–286, doi:10.1016/0013-9351(73)90040-6.
• Zaitsev, G., Mettänen, T. & Langwaldt, J. (2008): Removal of ammonium and nitrate from cold inorganic mine water by fixed-bed biofilm reactors. – Miner. Eng., 21(1):10–15, doi:10.1016/j.mineng.2007.08.014.
• Zakiewicz, T. (2011): The South African measurement system and its origin. – PositionIT, April/May:29–31, 1 Abb., 1 Tab.
• Žáková, Z. (1996): Constructed wetlands in the Czech Republic – Survey of the research and practical use. – Water Sci. Technol., 33(4-5):303–308.
• Zales, C. R. & Colosi, J. C. (1998): An Exercise Where Students Demonstrate the Meaning of “Not Statistically Significantly Different”. – The American Biology Teacher, 60(8):596–600, 4 Abb., 2 Tab.
• Zamberlan da Silva, M. E., Santana, R. G., Guilhermetti, M., Filho, I. C., Endo, E. H., Ueda-Nakamura, T., Nakamura, C. V. & Dias Filho, B. P. (2008): Comparison of the bacteriological quality of tap water and bottled mineral water. – Int. J. Hyg. Environ. Health, 211(5-6):504–9, doi:10.1016/j.ijheh.2007.09.004.
• Zamzow, K. & Chambers, D. (2017): Independent investigation of reclamation at exploration drill holes at the remote Pebble copper prospect, Alaska. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 204–211, Lappeenranta (Lappeenranta University of Technology).
• Zamzow, K. & Miller, G. (2017): Closed loop for AMD treatment waste. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 1103–1110, Lappeenranta (Lappeenranta University of Technology).
• Zamzow, K., Tsukamoto, T. K. & Miller, G. C. (2007): Biodiesel Waste Fluid as an inexpensive Carbon Source for Bioreactors treating acid Mine Drainage (California-Nevada, United States): Water in Mining Environments. – 295–298 p., 5 Abb.; Cagliari (Mako Edizioni).
• Zamzow, K. L., Tsukamoto, T. K. & Miller, G. C. (2006): Waste from Biodiesel Manufacturing as an Inexpensive Carbon Source for Bioreactors Treating Acid Mine Drainage. – Mine Water Environ., 25(3):163–170, 4 Abb., 3 Tab.; doi:10.1007/s10230-006-0128-0.
• Zandonda, I. H. M. (1993): Industrial Pollution of the Kafue River. Paper presented at the First African Symposium on Mine Drainage and Environment Protection from Mine Waste Water Disposal, Chililabombwe. – p. 415–424, 2 Tab.; Chililabombwe (Konkola Division).
• Zandvoort, M. H., van Hullebusch, E. D., Lens, P. N. L. & Lettinga, G. (2004): Cobalt and Nickel Retention Capacity of anaerobic granular Sludge in methanol-fed UASB Reactors. – In: Jarvis, A. P., Dudgeon, B. A. & Younger, P. L. (eds): mine water 2004 – Proceedings International Mine Water Association Symposium 2. – p. 135–139, 2 Abb., 3 Tab.; Newcastle upon Tyne (University of Newcastle).
• Zanetti, C. S. A., Vasconcelos, F. d. M., Sousa, R. G. & Silva, M. A. (2018): A new approach To Validate A Mixing Zone Study Of A Gold Mine Effluent. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 493–497; (Tshwane University of Technology).
• Zangerl, C. & Prager, C. (2005 [2003]): Multidisziplinäre Prozessanalyse instabiler Hänge. Paper presented at the Geoforum Umhausen, Umhausen. – p. 129–141, 6 Abb., 1 Tab.
• Zangerl, C., Prager, C., Brandner, R., Brückl, E., Eder, S., Fellin, W., Tentschert, E., Poscher, G. & Schönlaub, H. (2008): Methodischer Leitfaden zur Prozessorientierten Bearbeitung von Massenbewegungen. – Geo.Alp, 5:1–51, 38 Abb.
• Zangger, E. (1993): Plato’s Atlantis Account – A distorted recollection of the Trojan War. – Oxf. J. Archaeol., 12(1):77–87, doi:10.1111/j.1468-0092.1993.tb00283.x.
• Zangger, E. (2016): The Luwian Civilization – The missing Link in the Aegean Bronze Age. – 293 p., Istanbul (Zero Prodüksiyon).
• Zangger, E., Mutlu, S. & Müller, F. (2016): Die Luwier – Bindeglied zwischen Mykenern und Hethitern. – Mitteilungen aus dem Heinrich-Schliemann-Museum Ankershagen,(10/11):53–89, 10 Abb., 2 Tab.
• Zani, C., Magoni, M., Speziani, F., Leonardi, L., Orizio, G., Scarcella, C., Gaia, A. & Donato, F. (2019): Polychlorinated biphenyl serum levels, thyroid hormones and endocrine and metabolic diseases in people living in a highly polluted area in North Italy: A population-based study. – Heliyon, 5(6):e01870, doi:10.1016/j.heliyon.2019.e01870.
• Zaniboni, L., Dino, G. A., Lasagna, M., Horta Ribeiro Antunes, I. M. & De Luca, D. A. (2025): Post-mining water-soil interaction in Au-mine area: Piedmont region (NW Italy) case studies. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 732–738; Braga (International Mine Water Association).
• Zanke, U. (2013): Hydraulik für den Wasserbau, 3rd edn. – Berlin (Springer); doi:10.1007/978-3-642-05489-1.
• Zänker, H., Moll, H., Richter, W., Brendler, V., Hennig, C., Reich, T., Kluge, A. & Hüttig, G. (2002): The colloid chemistry of acid rock drainage solution from an abandoned Zn–Pb–Ag mine. – Appl. Geochem., 17(5):633–648, doi:10.1016/S0883-2927(01)00126-3.
• Zänker, H., Ulrich, K.-U., Opel, K. & Brendler, V. (2007): The Role of Colloids in Uranium Transport: a Comparison of nuclear Waste Repositories and abandoned Uranium Mines: Water in Mining Environments. – 127–131 p., 4 Abb.; Cagliari (Mako Edizioni).
• Zanko, L. M., Wittle, J. K. & Pamukcu, S. (2020): Case study: Electrochemical Geo-Oxidation (ECGO) treatment of Massachusetts New Bedford Harbor sediment PCBs. – Electrochim. Acta, 354:136690, doi:10.1016/j.electacta.2020.136690.
• Zanzari, A. R., Caboi, R., Cidu, R., Cristini, A., Fanfani, L. & Zuddas, P. (1995): Hydrogeochemistry in the abandoned mining area of Tafone Graben (Italy): Environmental implications: Water-Rock Interaction 8. – 905–908 p., 5 Abb.; Rotterdam u.a. (Balkema).
• Zaporozec, A. (1972): Graphical Interpretation of Water-Quality Data. – Ground Water, 10(2) 16 Abb., 1 Tab.
• Zarfl, C. (2005): Modellierung von Arsen in der Mulde. – Beiträge des Instituts für Umweltsystemforschung der Universität Osnabrück, 30:1–66, 22 Abb., 4 Tab.
• Zarfl, C., Klasmeier, J. & Matthies, M. (2006): Modellierung von Arsen in der Mulde. – Hydrol. Wasserbewirtsch., 50(4):169–177, 7 Abb., 2 Tab.
• Zarfl, C. & Matthies, M. (2010): Are marine plastic particles transport vectors for organic pollutants to the Arctic? – Mar. Pollut. Bull., 60:1810–1814, doi:10.1016/j.marpolbul.2010.05.026.
• Záruba, Q. & Mencl, V. c. (1982): Landslides and their control: Developments in geotechnical engineering, 2nd edn. – 324 p., Amsterdam (Elsevier).
• Zaval, F. J. & Robins, J. D. (1973): Water infiltration control to achieve mine water pollution control – a feasibility study: EPA-14010-HHG. – 185 p., Washington, DC (U.S. Government Print. Office).
• Zaw, M. & Emett, M. T. (2002): Arsenic removal from water using advanced oxidation processes. – Toxicol. Lett., 133(1):113–118, 4 Abb.
• Zawadzki, E. A. (1967): Acid Mine Drainage Research at Bituminous Coal Research, Inc. – Society of Mining Engineers at AIME, preprint, 67F346:1–12, 1 Abb.
• Zawadzki, W. & Chorley, D. (2014): Grouted-in Pressure Transducers: Implications for Hydrogeological Testing and Monitoring in Bedrock. – Mine Water Environ., 33(3):289–292, 3 Abb.; doi:10.1007/s10230-014-0261-0.
• Zdechlik, R., Różkowski, K. & Śledzik, M. (2022): Influence of Long-Term Mine Activity on Hydraulic Relations between Separate Hydrogeological Units – New Aspects of Regional Water Circulation Assessment. – Energies, 15(13) doi:10.3390/en15134647.
• Zechendorf, U. (2004): Webbasierte Geodienste der Landesvermessung Sachsen. – Wiss. Mitt. Inst. Geol., 25:65–71, 11 Abb.
• Zeebe, R. E. & Gladrow-Wolf, D. (2003): CO₂ in Sea Water – Equilibrium, Kinetics, Isotopes: Elsevier Oceanography Series, 2nd edn. – 346 p., Amsterdam (Elsevier).
• Zehenter, J. (1893): Die Mineralquellen Tirols mit vorzüglicher Berücksichtigung ihrer chemischen Zusammensetzung auf Grund der vorhandenen Daten. – Z. d. Ferdinandeums f. Tirol u. Vorarlberg, 37(3):1–141.
• Zeibig, S. & Hartmann, O. (2005): Erfassung der Schächte des Kali- und Steinsalzbergbaus in Deutschland. – Kali Steinsalz, 1:38–43, 6 Abb., 1 Tab.
• Zeiler, M., Golze, R. & Weber, M. (2022): Die Grube Landeskrone bei Wilnsdorf, Kr. Siegen-Wittgenstein. – In: Garner, J., Weber, M. & Zeiler, M. (eds): 23. Internationaler Bergbau- & Montanhistorik-Workshop Wilnsdorf/Siegerland. – p. 9–27, Clausthal-Zellerfeld (Papierflieger).
• Zeißler, K.-O., Nindel, K. & Hertwig, T. (2005): Hydrochemical Aspects of the Flooding of the Mine Königstein – A Water Mixing Model for Recognizing the Influence of Groundwater by Contaminated Water. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment. – p. 713–719, 4 Abb.; Heidelberg (Springer).
• Zeitler, J. P. (1997): Demographische Klischees und archäologische Widersprüche – das spätbronzezeitliche Gräberfeld von Wendelstein: Demographie der Bronzezeit, 36 edn. – 125–133 p., 6 Abb., 1 Tab.; Espelkamp (Leidorf).
• Żelazny, M. (2005): Cechy fizykochemiczne opadów atmosferycznych. – In: Żelazny, M. (ed) Dynamika związków biogennych w wodach opadowych, powierzchniowych i podziemnych w zlewniach o różnym użytkowaniu na Pogórzu Wiśnickim. – p. 63–100, 11 Abb., 11 Tab.; Kraków (Instytut Geografii i Gospodarki Przestrzennej Uniwersytetu Jagiellońskiego).
• Zellweger, G. W. & Maura, W. S. (1991): Calculation of conservative-tracer and flume discharge measurements on a small mountain stream. – Water Resour. Investig. Rep., WRI 91-4034:434–437, 3 Abb.
• Zeman, J. (2022): Vývoj Důlních vod Rosicko-Oslavanské Uhelné Pánve v Průběhu Třiceti let od Počátku Zatápění [Development of Mine Water in the Rosice-Oslavany Coal Basin Over Thirty Years since the Start of Flooding]. Paper presented at the Geochémia 2022, Piestany, 30 Nov – 2 Dec 2022. – 8 Abb.; Bratislava (Statny geologicky ustav Dionyza Stura).
• Zeman, J., Cerník, M. & Šupíková, I. (2009): Dynamic Model of Long Term Geochemical Evolution of Mine Water after Mine Closure and Flooding. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 828–836, 4 Abb., 2 Tab; Pretoria (Document Transformation Technologies).
• Zeman, J., Černík, M. & Šupíková, I. (2008): Stratifikace důlních vod po zatopení dolů, její příčiny a důsledky [Stratification of mine waters after flooding of mines, its causes and consequences]. Těžba a její dopady na životní prostředí II. – p. 37–40, Chrudim (Vodní zdroje Ekomonitor).
• Zeman, J., Kupka, D., Bártová, Z. & Hagarová, L. (2022): Chemizmus Banskej Vody zo Šachty Gabriela v Nižnej Slanej a Návrh Technológií na jej Úpravu [Chemistry of mine water from the Gabriela shaft in Nižná Slaná and proposal of technologies for its treatment]. Paper presented at the Geochémia 2022, Piestany, 30 Nov – 2 Dec 2022. – p. 118–121, 7 Abb., 1 Tab.; Bratislava (Statny geologicky ustav Dionyza Stura).
• Zeman, J., Šupíková, I. & Cerník, M. (2008): Mine Water Stratification at Abandoned Mines and its Geochemical Model. – Proceedings, 10th International Mine Water Association Congress:183–186, 4 Abb.
• Zendelska, A., Golomeova, M., Golomeov, B. & Krstev, B. (2019): Removal of Zinc Ions from Acid Aqueous Solutions and Acid Mine Drainage Using Zeolite-Bearing Tuff. – Mine Water Environ., 38(1):187–196, doi:10.1007/s10230-018-0560-y.
• Zeng, S., Gan, N., Weideman-Mera, R., Cao, Y., Li, T. & Sang, W. (2013): Enrichment of polychlorinated biphenyl 28 from aqueous solutions using Fe3O4 grafted graphene oxide. – Chem. Eng. J., 218:108–115, doi:10.1016/j.cej.2012.12.030.
• Zeng, Y., Du, X., Lian, H., Liu, D. & Tan, X. (2022): An Analog Model Study on Water–Sand Mixture Inrush Mechanisms During the Mining of Shallow Coal Seams. – Mine Water Environ., 41(2):428–436, doi:10.1007/s10230-022-00870-x.
• Zeng, Y., Pang, Z., Wu, Q., Zhang, Y., Du, X., Liu, S., Hua, Z., Lv, Y. & Wang, L. (2022): Study of Water-Controlled and Environmentally Friendly Coal Mining Models in an Ecologically Fragile Area of Northwest China. – Mine Water Environ., 41(3):802–816, doi:10.1007/s10230-022-00871-w.
• Zeng, Y., Wu, Q., Liu, S., Zhai, Y., Lian, H. & Zhang, W. (2018): Evaluation of a coal seam roof water inrush: case study in the Wangjialing coal mine, China. – Mine Water Environ., 37(1):174–184, doi:10.1007/s10230-017-0459-z.
• Zepp, H., Kasielke, T. & Hohn, U. (2016): Biomassepark Hugo – Beispiel für die Transformation der Stadtlandschaft Ruhr. – Veröff. Dt. Bergbau-Mus. Bochum, 217:115–122.
• Zermeño-Eguia Liz, J. A., Jan-Roblero, J., de la Serna, J. Z.-D., de León, A. V.-P. & Hernández-Rodríguez, C. (2009): Degradation of polychlorinated biphenyl (PCB) by a consortium obtained from a contaminated soil composed of Brevibacterium, Pandoraea and Ochrobactrum. – World J. Microbiol. Biotechnol., 25:165–170, doi:10.1007/s11274-008-9875-3.
• Zgórska, A., Trząski, L. & Wiesner, M. (2016): Environmental risk caused by high salinity mine water discharges from active and closed mines located in the Upper Silesian Basin (Poland). – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 85–92, Freiberg (TU Bergakademie Freiberg).
• Zhai, P. & Li, N. (2023): Predicting the Height of the Hydraulic Fracture Zone Using a Convolutional Neural Network. – Mine Water Environ., 42(3):500–512, doi:10.1007/s10230-023-00950-6.
• Zhai, X., Shen, S., Wu, J. & Han, D. (2014): Drainage Evaluation of Limestone Aquifer Based on Visual Modflow. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 95–99, Xuzhou (International Mine Water Association).
• Zhai, Y. L., Li, L. & Chapuis, R. P. (2021): Analytical, Numerical and Experimental Studies on Steady-State Seepage Through 3D Rockfill Trapezoidal Dikes. – Mine Water Environ., 40(4):931–942, doi:10.1007/s10230-021-00798-8.
• Zhan, G. & Duex, T. (2010): Hydrologic evaluation of post-closure flooding and dewatering of the Homestake Mine. – Min. Eng., 62(4):64–68, 5 Abb.
• Zhan, G., Haggarty, S. & Ludwick, W. (2012): Hydrological Evaluation of Gold Leach Pad Rinsing. – Mine Water Environ., 31(4):307–311, 4 Abb., 5 Tab.; doi:10.1007/s10230-012-0193-5.
• Zhan, G., Keller, J., Milczarek, M. & Giraudo, J. (2014): 11 Years of Evapotranspiration Cover Performance at the AA Leach Pad at Barrick Goldstrike Mines. – Mine Water Environ., 33(3):195–205, 11 Abb., 6 Tab.; doi:10.1007/s10230-014-0268-6.
• Zhan, G., Lattin, D., Keller, J. & Milczarek, M. (2019): 20 Years of Evapotranspiration Cover Performance of the Leach Pads at Richmond Hill Mine. – Mine Water Environ., 38(2):402–409, doi:10.1007/s10230-019-00592-7.
• Zhan, G., Milczarek, M., Keller, J. & Giraudo, J. (2013): The AA leach pad cover design – a successful reclamation project at a Nevada gold mine. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 237–242, 4 Abb.; Golden (International Mine Water Association).
• Zhan, W. J., Nathan, R., Buckley, S. & Hocking, A. (2020): Climate Change Adaptation in BHP’s Queensland Mine Water Planning and Hydrologic Designs. Paper presented at the Mine Water Solutions, Christchurch, New Zealand. – p. 231–236; (International Mine Water Association).
• Zhang, C. (1985): Research and Application of new Grouting Materials in China Coal Industry. – Proceedings, 2nd International Mine Water Association Congress, 1:341–352, 7 Abb., 1 Tab.
• Zhang, C., Feng, Y., Liu, Y.-w., Chang, H.-q., Li, Z.-j. & Xue, J.-m. (2017): Uptake and translocation of organic pollutants in plants: A review. – Journal of Integrative Agriculture, 16(8):1659–1668, doi:10.1016/S2095-3119(16)61590-3.
• Zhang, C., Jia, S., Bai, Q. S., Zhang, H. W., Chen, Y. H. & Jiao, Y. (2021): CFD-DEM Coupled Simulation of Broken Rock Mass Movement During Water Seepage in an Underground Goaf Reservoir. – Mine Water Environ., 40(4):1048–1060, doi:10.1007/s10230-021-00826-7.
• Zhang, C. & Zhang, S. (1996): A robust-symmetric mean: A new way of mean calculation for environmental data. – GeoJournal, 40(1/2):209–212.
• Zhang, C., Zhang, X., Li, Q. & Wu, L. (2019): Numerical Study of Bubble Breakup in Fractal Tree-Shaped Microchannels. – Int. J. Mol. Sci., 20(21) doi:10.3390/ijms20215516.
• Zhang, D. & Liu, Q. (2014): Research on Monitoring and Warning System for Mine Water Disaster. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 346, Xuzhou (International Mine Water Association).
• Zhang, D., Sui, W. & Liu, J. (2018): Overburden Failure Associated with Mining Coal Seams in Close Proximity in Ascending and Descending Sequences Under a Large Water Body. – Mine Water Environ., 37(2):322–335, doi:10.1007/s10230-017-0502-0.
• Zhang, F. & Zhang, Z. (2021): Influence of Coal Mining on Water Environment and Ecology in the Yellow River Basin. Paper presented at the Mine Water Management for Future Generations, Cardiff, Wales, United Kingdom. – p. 645–650; (Natural Resources Wales, The Coal Authority, Welsh Government, Cardiff University).
• Zhang, F. D. (2023): Dynamic Monitoring and an Early Warning Model of a Floor Water Disaster: A Case Study. – Mine Water Environ., 42(1):158–169, doi:10.1007/s10230-023-00925-7.
• Zhang, G. & Chanson, H. (2016): Gabion Stepped Spillway: Interactions between Free-Surface, Cavity, and Seepage Flows. – J. Hydraul. Eng., 142(5):06016002–1–5, doi:10.1061/(ASCE)HY.1943-7900.0001120.
• Zhang, G. & Chanson, H. (2016): Hydraulics of the Developing Flow Region of Stepped Spillways. I: Physical Modeling and Boundary Layer Development. – J. Hydraul. Eng., 142(7):04016015–1–8, doi:10.1061/(asce)hy.1943-7900.0001138.
• Zhang, G. & Chanson, H. (2016): Hydraulics of the Developing Flow Region of Stepped Spillways. II: Pressure and Velocity Fields. – J. Hydraul. Eng., 142(7):04016016–1–9, 8 Abb., 2 Tab.; doi:10.1061/(asce)hy.1943-7900.0001136.
• Zhang, G. & Chanson, H. (2016): Interaction between free-surface aeration and total pressure on a stepped chute. – Experimental Thermal and Fluid Science, 74:368–381, doi:10.1016/j.expthermflusci.2015.12.011.
• Zhang, G. L., Yuan, S. C., Sui, W. H. & Qian, Z. W. (2020): Experimental Investigation of the Pressure and Water Pressure Responses of an Inclined Shaft Wall During Grouting. – Mine Water Environ., 39(2):256–267, doi:10.1007/s10230-020-00675-w.
• Zhang, H., Liu, Q., Liu, Y. & Song, M. (2014): Study on the Application Range of R in the Formulas of Mine Water Inflow. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 100–106, Xuzhou (International Mine Water Association).
• Zhang, H., Wang, Y., Yang, R. & Ye, R. (2018): Modeling the Effects of Phosphate Mining on Groundwater at Different Stages of Mine Development. – Mine Water Environ., 37(3):604–616, doi:10.1007/s10230-018-0510-8.
• Zhang, H. & Yao, D. (2020): The Bayes Recognition Model for Mine Water Inrush Source Based on Multiple Logistic Regression Analysis. – Mine Water Environ., 39(4):888–901, doi:10.1007/s10230-020-00699-2.
• Zhang, H., Yu, J. & Zhou, S. (2014): Spatial Distribution of As, Cr, Pb, Cd, Cu, and Zn in the Water and Sediment of a River Impacted by Gold Mining. – Mine Water Environ., 33(3):206–216, 6 Abb., 3 Tab.; doi:10.1007/s10230-013-0254-4.
• Zhang, H. T., Xu, G. Q., Chen, X. Q., Mabaire, A., Zhou, J. S., Zhang, Y. X., Zhang, G. & Zhu, L. (2020): Groundwater Hydrogeochemical Processes and the Connectivity of Multilayer Aquifers in a Coal Mine with Karst Collapse Columns. – Mine Water Environ., 39(2):356–368, doi:10.1007/s10230-020-00667-w.
• Zhang, J., Chen, L., Hou, X., Ren, X., Li, J. & Chen, Y. (2022): Hydrogeochemical Processes of Carboniferous Limestone Groundwater in the Yangzhuang Coal Mine, Huaibei Coalfield, China. – Mine Water Environ., 41(2):504–517, doi:10.1007/s10230-022-00861-y.
• Zhang, J., Daughney, S., Plikas, T., Gunnewiek, L., Miller, T., Lagace, A. & Yaschyshyn, D. (2009): Optimization of Settling Pond Effluent Quality. – 1–10 [electronic document] p., 6 Abb., 1 Tab.; Skellefteå (Proceedings Securing the Future 2009 & 8th ICARD).
• Zhang, J., Guo, L. L., Mu, W. P., Liu, S. Q. & Zhao, D. X. (2021): Water-inrush Risk through Fault Zones with Multiple Karst Aquifers Underlying the Coal Floor: A Case Study in the Liuzhuang Coal Mine, Southern China. – Mine Water Environ., 40(4):1037–1047, doi:10.1007/s10230-021-00799-7.
• Zhang, J., Jiang, H., Deng, X. & Ju, F. (2014): Prediction of the Height of the Water-Conducting Zone Above the Mined Panel in Solid Backfill Mining. – Mine Water Environ., 33(4):317–326, doi:10.1007/s10230-014-0310-8.
• Zhang, J., Wang, X., Ma, L. & Zhou, J. (2025): Key drivers of metal removal in constructed wetlands treating acid mine drainage revealed by machine learning. Paper presented at the International Mine Water Association Conference – Time to Come, Braga, Portugal; Oviedo/Uviéu, Spain. – p. 1035–1041; Braga (International Mine Water Association).
• Zhang, J. X., Sun, Q., Li, M. & Zhao, X. (2019): The Mining-Induced Seepage Effect and Reconstruction of Key Aquiclude Strata During Backfill Mining. – Mine Water Environ., 38(3):590–601, doi:10.1007/s10230-019-00614-4.
• Zhang, K., Cao, B., Lin, G. & Zhao, M. D. (2017): Using Multiple Methods to Predict Mine Water Inflow in the Pingdingshan No. 10 Coal Mine, China. – Mine Water Environ., 36(1):154–160, doi:10.1007/s10230-015-0381-1.
• Zhang, K. & Zou, G. (2014): Mechanism of Water Inrush from Coal Floor Fracture in YongXia Mining Area Simulated by Numerical Simulation. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 606–613, Xuzhou (International Mine Water Association).
• Zhang, M., Chen, L. W., Yao, D. X., Hou, X. W., Zhang, J., Qin, H., Ren, X. X. & Zheng, X. (2022): Hydrogeochemical Processes and Inverse Modeling for a Multilayer Aquifer System in the Yuaner Coal Mine, Huaibei Coalfield, China. – Mine Water Environ., 41(3):775–789, doi:10.1007/s10230-022-00851-0.
• Zhang, M. & Wang, H. (2013): Simultaneous Removal of Copper, Zinc, and Sulfate from Coal Mine Waste in a Laboratory SRB Bioreactor Using Lactate or Ethanol as Carbon Sources. – Mine Water Environ., 32(4):314–320, 6 Abb., 1 Tab.; doi:10.1007/s10230-013-0233-9.
• Zhang, M. J., Yuan, X. Z., Guan, D. J., Liu, H., Zhang, G. X., Wang, K. H., Zhou, L. L., Wu, S. K. & Sun, K. (2019): Eco-exergy Evaluation of New Wetlands in the Yanzhou Coalfield Subsidence Areas Using Structural-Dynamic Modelling. – Mine Water Environ., 38(4):746–756, doi:10.1007/s10230-019-00628-y.
• Zhang, N., He, H., Guo, X., Han, J. & Li, H. (2019): Discussion on the concept and definition of mine water. – IOP Conf. Ser. Earth Environ. Sci., 300:022021 (1–6), 2 Tab.; doi:10.1088/1755-1315/300/2/022021.
• Zhang, Q. (2014): Application of Extenics Classification to Coal Mine Floor Water Inrush Risk Evaluation. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 109, Xuzhou (International Mine Water Association).
• Zhang, Q. & Lopez, D. L. (2019): Use of Time Series Analysis to Evaluate the Impacts of Underground Mining on the Hydraulic Properties of Groundwater of Dysart Woods, Ohio. – Mine Water Environ., 38(3):566–580, doi:10.1007/s10230-019-00619-z.
• Zhang, R., Hedrich, S., Römer, F., Goldmann, D. & Schippers, A. (2020): Bioleaching of cobalt from Cu/Co-rich sulfidic mine tailings from the polymetallic Rammelsberg mine, Germany. – Hydrometallurgy, 197:105443, doi:10.1016/j.hydromet.2020.105443.
• Zhang, S., Sun, W. & Guo, W. (2017): Development and Application of Series Physical Simulation Test Equipment for Water Inrush in Coal Mine. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 28–35, Lappeenranta (Lappeenranta University of Technology).
• Zhang, S., Zhang, D., Wang, Z. & Chen, M. (2018): Influence of Stress and Water Pressure on the Permeability of Fissured Sandstone Under Hydromechanical Coupling. – Mine Water Environ., 37(4):774–785, doi:10.1007/s10230-018-0540-2.
• Zhang, S. C., Guo, W. J., Li, Y. Y., Sun, W. B. & Yin, D. W. (2017): Experimental Simulation of Fault Water Inrush Channel Evolution in a Coal Mine Floor. – Mine Water Environ., 36(3):443–451, doi:10.1007/s10230-017-0433-9.
• Zhang, S. J., Du, W. F., Chen, L., Li, N. & Gao, P. Q. (2023): Spatial-Temporal Distribution and Factors Influencing the Soil Vadose Zone Water Content in Mining-Area Grasslands. – Mine Water Environ., 42(3):449–459, doi:10.1007/s10230-023-00944-4.
• Zhang, T., Zhao, Y. X., Gan, Q., Nie, X. D., Zhu, G. P. & Hu, Y. (2019): Investigations into Mining-Induced Stress-Fracture-Seepage Field Coupling in a Complex Hydrogeology Environment: A Case Study in the Bulianta Colliery. – Mine Water Environ., 38(3):632–642, doi:10.1007/s10230-019-00609-1.
• Zhang, T. J., Pang, M. K., Ji, X. & Pan, H. Y. (2021): Dynamic Response of a Non-Darcian Seepage System in the Broken Coal of a Karst Collapse Pillar. – Mine Water Environ., 40(3):713–721, doi:10.1007/s10230-021-00760-8.
• Zhang, X., He, X., Wei, M., Li, F., Hou, P. & Zhang, C. (2019): Magnetic Flocculation Treatment of Coal Mine Water and a Comparison of Water Quality Prediction Algorithms. – Mine Water Environ., 38(2):391–401, doi:10.1007/s10230-019-00590-9.
• Zhang, X. X. (2021): Model-based Seismic Imaging and Analysis of Karst Water Hazards in Coal Mining. – Mine Water Environ., 40(2):426–432, doi:10.1007/s10230-020-00749-9.
• Zhang, X. Z., Boyer, D. L. & Fernando, H. J. S. (1997): Turbulence-induced rectified flows in rotating fluids. – J. Fluid Mech., 350:97–118, doi:10.1017/S0022112097006812.
• Zhang, Y. & Cao, S. G. (2021): Control of Water-Flowing Fracture Development with Solid Backfill Mining: Designing a Backfill Body Compression Ratio for Water Resources Protection. – Mine Water Environ., 40(4):877–890, doi:10.1007/s10230-021-00821-y.
• Zhang, Y., Charlet, L. & Schindler, P. W. (1992): Adsorption of protons, Fe(II) and Al(III) on lepidocrocite (γ-FeOOH). – Colloids Surf., 63(3):259–268, doi:10.1016/0166-6622(92)80247-Y.
• Zhang, Y., Douglas, G. B., Pu, L., Zhao, Q., Tang, Y., Xu, W., Luo, B., Hong, W., Cui, L. & Ye, Z. (2017): Zero-valent iron-facilitated reduction of nitrate: Chemical kinetics and reaction pathways. – Sci. Total Environ., 598:1140–1150, doi:10.1016/j.scitotenv.2017.04.071.
• Zhang, Y. & Lee, H. K. (2013): Low-density solvent-based vortex-assisted surfactant-enhanced-emulsification liquid-liquid microextraction combined with gas chromatography-mass spectrometry for the fast determination of phthalate esters in bottled water. – J. Chromatogr. A, 1274:28–35, doi:10.1016/j.chroma.2012.12.017.
• Zhang, Y. & Li, F. (2022): Prediction of Water Inrush from Coal Seam Floors Based on the Effective Barrier Thickness. – Mine Water Environ., 41(1):168–175, doi:10.1007/s10230-022-00846-x.
• Zhang, Y. J. (2021): Mechanism of Water Inrush of a Deep Mining Floor Based on Coupled Mining Pressure and Confined Pressure. – Mine Water Environ., 40(2):366–377, doi:10.1007/s10230-020-00743-1.
• Zhang, Y.-Z., Kemper, C., Bakke, A. & Haugland, R. P. (1998): Novel Flow Cytometry Compensation Standards: Internally Stained Fluorescent Microspheres with Matched emission Spectra and Long-Term Stability. – Cytometry, 33:244–248, 5 Abb.
• Zhang, Z.-L., Gao, Y.-F., Wu, J. & Wei, S.-M. (2013): Discussion on the technical system of solid prevention and-control on mine flooding. – Journal of China Coal Society, 38(3):378–383.
• Zhao, B., Jacobs, P. & Schwegler, F. (2009): Geochemical Assessment of the Potential Impact of Durban Navigation Colliery Dumps on the Environment, South Africa. – In: Water Institute of Southern Africa & International Mine Water Association (eds): Proceedings, International Mine Water Conference. – p. 206–212, 2 Abb; Pretoria (Document Transformation Technologies).
• Zhao, B. Z., Chen, J., Zhang, J. B., Xin, X. L. & Hao, X. Y. (2013): How different long-term fertilization strategies influence crop yield and soil properties in a maize field in the North China Plain. – J. Plant Nutr. Soil. Sc., 176(1):99–109, doi:10.1002/jpln.201200076.
• Zhao, C., Hu, W. & Jin, D. (2014): Fluid-solid Coupling Analysis the Hydrogeological Parameters under the Influence of Confined Water Pressure and Mining Disturbance. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 536–540, Xuzhou (International Mine Water Association).
• Zhao, C., Hu, W. & Jin, D. (2017): Quantitative Evaluation Mining Impact on Unconsolidated Aquifers In Western China’s Inner Mongolia-Shaanxi mine Region. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 524–531, Lappeenranta (Lappeenranta University of Technology).
• Zhao, C., Jin, D., Geng, J. & Sun, Q. (2019): Numerical Simulation of the Groundwater System for Mining Shallow Buried Coal Seams in the Ecologically Fragile Areas of Western China. – Mine Water Environ., 38(1):158–165, doi:10.1007/s10230-018-0551-z.
• Zhao, D., Guo, Y., Xie, D. & Chen, L. (2014): The Micro-heterogeneity Characteristic of the Marine Shale Reservoirs and Its Impacts on Water and Gas in Reservoir – a Case Study of Longmaxi Formation and Wufeng Formation Shales in Chongqing Area. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 757–760, Xuzhou (International Mine Water Association).
• Zhao, F. & Sillanpää, M. (2017): A Comparative Study on the Rare Earth Elements Recovery of Cross-linked Cellulose Adsorbents and Capacitive Deionization with Cellulose Derived Graphene as Electrode Materials. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy II. – p. 947–955, Lappeenranta (Lappeenranta University of Technology).
• Zhao, G. J., Wang, H., Khezri, B., Webster, R. D. & Pumera, M. (2013): Influence of real-world environments on the motion of catalytic bubble-propelled micromotors. – Lab on a Chip, 13(15):2937–2941, doi:10.1039/c3lc50446h.
• Zhao, H.-Z., Yang, W., Zhu, J. & Ni, J.-R. (2009): Defluoridation of drinking water by combined electrocoagulation: Effects of the molar ratio of alkalinity and fluoride to Al(III). – Chemosphere, 74(10):1391–1396.
• Zhao, J. (1997): Prediction of water levels in an abandoned granite quarry in Singapore. – Q. J. Eng. Geol., 30(3):281–288, Refs: 6; illus. incl. geol. sketch maps; doi:10.1144/gsl.qjeg.1997.030.p3.08.
• Zhao, L. & Cui, R. (2014): Application of Multi-parameter Lithological Seismic Inversion to Identify Limestone Aquifer. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 326–329, Xuzhou (International Mine Water Association).
• Zhao, L. & Wang, X. (2014): Adsorption Kinetics of Ammonium Ion onto Unconsolidated Geothermal Reservoir Medium. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 420–423, Xuzhou (International Mine Water Association).
• Zhao, L., Zhang, L., Sun, Y. F., Wang, M. S., Zhang, Q., Luo, S. H. & Li, J. L. (2020): The Release of Dissolved Organic Matter and Inorganic Nitrogen from Coal Gangue of Different Geologic Ages in North China. – Mine Water Environ., 39(1):93–102, doi:10.1007/s10230-019-00645-x.
• Zhao, S., Zou, L., Tang, C. Y. & Mulcahy, D. (2012): Recent developments in forward osmosis: Opportunities and challenges. – J. Membr. Sci., 396:1–21, 15 Abb., 2 Tab.; doi:10.1016/j.memsci.2011.12.023.
• Zhao, X., Zhang, B., Liu, H., Chen, F., Li, A. & Qu, J. (2012): Transformation characteristics of refractory pollutants in plugboard wastewater by an optimal electrocoagulation and electro-Fenton process. – Chemosphere, 87(6):631–637, doi:10.1016/j.chemosphere.2012.01.054.
• Zhao, X., Zhang, B., Liu, H. & Qu, J. (2011): Simultaneous removal of arsenite and fluoride via an integrated electro-oxidation and electrocoagulation process. – Chemosphere, 83(5):726–730.
• Zhao, Y., Luo, S., Wang, Y., Wang, W., Zhang, L. & Wan, W. (2017): Numerical Analysis of Karst Water Inrush and a Criterion for Establishing the Width of Water-resistant Rock Pillars. – Mine Water Environ., 36(4):508–519, doi:10.1007/s10230-017-0438-4.
• Zhao, Z. & Zong, Y. (2014): An N-Shortest-Paths Algorithm Implemented with Bidirectional Search. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 614–617, Xuzhou (International Mine Water Association).
• Zhdanov, S. & Kolpakov, V. (2019): Implementation of slope drainage system for optimal slope design at Anfisa open pit, Khabarovsk Territory, Russian Federation. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 570–576; Perm, Russia (Perm State University).
• Zheng, B., Zang, L., Li, W., Li, H., Wang, H., Zhang, M. & Song, X. (2019): Quantitative analysis of asbestos in drinking water and its migration in mice using fourier-transform infrared spectroscopy and inductively coupled plasma optical emission spectrometry. – Anal. Chim. Acta., 1058:29–38, doi:10.1016/j.aca.2018.12.022.
• Zheng, J., Xu, R. & Zhang, C. (1998): Ground Advanced Grouting Technique in Xuandong No.2 Mine: Mine Water and Environmental Impacts 1. – 155–160 p., 1 Abb., 5 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Zheng, Z., Liu, R. T. & Zhang, Q. S. (2019): Numerical Simulation and Risk Assessment of Water Inrush in a Fault Zone that Contains a Soft Infill. – Mine Water Environ., 38(3):667–675, doi:10.1007/s10230-019-00621-5.
• Zhiteneva, V., Brune, J., Mischo, H., Weyer, J. & Simon, A. (2016): Water quality of Reiche Zeche teaching mine Freiberg Saxony Germany. Paper presented at the SME Annual Meeting, Phoenix, 21–24 Feb. 2016. – p. 1–5, 17 Abb.
• Zhiteneva, V., Brune, J., Mischo, H., Weyer, J., Simon, A. & Lipson, D. (2016): Reiche Zeche Mine Water Geochemistry. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 443–444, Freiberg (TU Bergakademie Freiberg).
• Zhong, W. H. (1982): A new Method of Mine Drainage Prediction using Unit Static Resource Method. – Int. J. Mine Water, 1(3):23–31, 1 Abb., 3 Tab.; doi:10.1007/BF02504829.
• Zhong, X. Y., Wu, Q., Tang, B., Wang, Y. C., Chen, J. B. & Zeng, Y. F. (2024): Hydrogeochemical Mechanisms and Hydraulic Connection of Groundwaters in the Dongming Opencast Coal Mine, Hailar, Inner Mongolia. – Mine Water Environ., 43(1):28–40, doi:10.1007/s10230-023-00963-1.
• Zhongling, M. (1988): Karst Water Gushing in Mines. – Proceedings, 3rd International Mine Water Congress, Melbourne:87–92, 1 Abb., 3 Tab.
• Zhou, H., Liu, X., Gao, X., Wang, Y., Ye, L., Wu, J. & Xiang, M. (2025): Soil pH and total phosphorus regulate bacterial community assembly in slope restoration areas of the Tibetan Plateau’s metal mining areas. – Environ. Res., 275:121432, doi:10.1016/j.envres.2025.121432.
• Zhou, J. (2014): Discussion on Hydrogeological Factors of Waste Backfilling in Abandoned Coal Mines. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 736–740, Xuzhou (International Mine Water Association).
• Zhou, J., Sun, J. & Zhang, F. (1993): Origin of Mine Water by Using Environmental Isotope Techniques in Water-Logged Coal Mines, Pingdingshan, China. – Mine Water Environ., 12(1-4):63–69, 2 Abb., 6 Tab.; doi:10.1007/BF02914800.
• Zhou, L., Chen, X., Zhao, F. & Sun, H. (2014): Heavy Metal Tolerance and Iron Reduction Rate of Acidiphilium Cryptum JF-5. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 675–678, Xuzhou (International Mine Water Association).
• Zhou, Q., Herrera, J. & Hidalgo, A. (2018): The Numerical Analysis of Fault-Induced Mine Water Inrush Using the Extended Finite Element Method and Fracture Mechanics. – Mine Water Environ., 37(1):185–195, doi:10.1007/s10230-017-0461-5.
• Zhou, Q. L., Liu, H. H., Bodvarsson, G. S. & Oldenburg, C. M. (2003): Flow and Transport in Unsaturated Fractured Rock: Effects of Multiscale Heterogeneity of Hydrogeologic Properties. – J. Contam. Hydrol., 60(1-2):1–30.
• Zhou, R., Guo, Z., Xiao, Y., Cui, D., Mao, W. & Yang, J. (2014): The Technology for Underground Treatment of Coal Mine Drainage Used as Process Water: a Case Study of Jining No.3 Colliery. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 658–661, Xuzhou (International Mine Water Association).
• Zhou, T., Li, Y. & Lim, T.-T. (2010): Catalytic hydrodechlorination of chlorophenols by Pd/Fe nanoparticles: Comparisons with other bimetallic systems, kinetics and mechanism. – Sep. Purif. Technol., 76(2):206–214, doi:10.1016/j.seppur.2010.10.010.
• Zhou, W., Zoeckler, J., Bailey, S. & Kim, M. (2024): Abandoned Mine Pools: a Threat to the Environment or a Water Resource for Beneficial Uses. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 660–661; Morgantown (International Mine Water Association).
• Zhou, W. F. (1997): The formation of sinkholes in karst mining areas in China and some methods of prevention. – Environ. Geol., 31(1-2):50–58, 7 Abb., 1 Tab.
• Zhou, W. F. & Li, G. Y. (2001): Geological Barrier – a Natural rock Stratum for Preventing Confined Karst Water from Flowing into Mines in North China. – Environ. Geol., 40(8):1003–1009, doi:10.1007/s002540100289.
• Zhou, X. (2014): Key Technology for Grouting behind Wall of Single-formation Shaft Wall in the Surface Soil Segment of Waste Shaft. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 225–229, Xuzhou (International Mine Water Association).
• Zhou, Y., Short, M. D., Li, J., Schumann, R. C., Smart, R. S. C., Gerson, A. R. & Qian, G. (2017): A Potential Strategy For Sustainable Control Of Acid Generation From Pyrite Oxidation. Paper presented at the IMWA 2017 – Mine Water & Circular Economy, Lappeenranta. – p. 1341–1347; (Lappeenranta University of Technology).
• Zhou, Y., Zwahlen, F. & Wang, Y. X. (2011): The ancient Chinese notes on hydrogeology. – Hydrogeol. J., 19(5):1103–1114, doi:10.1007/s10040-010-0682-1.
• Zhou, Z., Dong, S., Wang, H., Jin, D., Wang, X., Li, D., Dong, X., Shang, H., Dong, Y. & Chen, S. (2022): Dynamic Characteristics of Water Inflow from a Coal Mine’s Roof Aquifer. – Mine Water Environ., 41(3):764–774, doi:10.1007/s10230-022-00873-8.
• Zhu, C. & Nordstrom, D. K. (2022): Flying Blind: Geochemical Modeling and Thermodynamic Data Files. – Groundwater, 60(6):699–700, doi:10.1111/gwat.13223.
• Zhu, G., Wu, X., Yu, S., Qian, C., Dong, Y., Zhang, C. & Wu, C. (2018): Surface Water Control for Mining Thick, Relatively Shallow Coal Seams in the Loess Area of Western China. – Mine Water Environ., 37(3):442–455, doi:10.1007/s10230-018-0517-1.
• Zhu, H., Derksen, R. C., Krause, C. R., Fox, R. D., Brazee, R. D. & Ozkan, H. E. (2005): Fluorescent Intensity of Dye Solutions under Different pH Conditions. – J. ASTM Intern., 2(6):1–7, 3 Abb., 2 Tab.; doi:10.1520/JAI12926.
• Zhu, K., Jiang, B., Chen, Z. & Yang, G. (2014): Study on the Influence of Hydrodynamic Conditions on CBM Wells Productivity. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 761–765, Xuzhou (International Mine Water Association).
• Zhu, K., Wang, F., Chen, Z. & Song, X. (2014): Influence on the Movement Law of Soil Water due to Coal Mining. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 424–428, Xuzhou (International Mine Water Association).
• Zhu, S., Guan, E., Hou, H., Zhou, K., Yang, C. & Peng, G. (2014): Characteristics of Deformation and Destruction to the Mining Roadway Floor of “Three-soft” Thick Coal Seam by Field Measurement. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 213–220, Xuzhou (International Mine Water Association).
• Zhu, T. G., Li, W. P., Wang, Q. Q., Hu, Y. B., Fan, K. F. & Du, J. F. (2020): Study on the Height of the Mining-Induced Water-Conducting Fracture Zone Under the Q(2l) Loess Cover of the Jurassic Coal Seam in Northern Shaanxi, China. – Mine Water Environ., 39(1):57–67, doi:10.1007/s10230-020-00656-z.
• Zhu, Y., Merkel, B. J., Stober, I. & Bucher, K. (2003): The Hydrogeochemistry of Arsenic in the Clara Mine, Germany. – Mine Water Environ., 22(3):110–117, 6 Abb.; doi:10.1007/s10230-003-0011-1.
• Zhu, Y. W. S. & Zhang, T. (2018): Permeability of the Coal Seam Floor Rock Mass in a Deep Mine Based on In-situ Water Injection Tests. – Mine Water Environ., 37(4):724–733, doi:10.1007/s10230-018-0524-2.
• Zhuang, J.-M. (2009): Acidic Rock Drainage Treatment – A Review. – Recent Pat. Chem. Eng.:238–252, 10 Abb., 3 Tab.; doi:10.2174/2211334710902030238.
• Zhuiykov, S. (2012): Solid-state sensors monitoring parameters of water quality for the next generation of wireless sensor networks. – Sens. Actuator B-Chem., 161(1):1–20, 16 Abb., 6 Tab.; doi:10.1016/j.snb.2011.10.078.
• Zhuozhi, O., Gao, L. & Yao, S. (2019): Concentrations, Possible Sources and Influence Factors of Dissolved Polychlorinated Biphenyls in the Water of Yangzhuang Coal Mining Subsidence Area, China. – Water Resour., 46(2):278–285, doi:10.1134/s0097807819020192.
• Žibret, G. & Žebre, M. (2018): Use of Robotics and Automation for Mineral Prospecting and Extraction. Paper presented at the Joint Conference of UNEXMIN, ¡VAMOS! and RTM Projects, Bled. – p. 57; (Geological Survey of Slovenia).
• Ziegenbalg, G. (1999): In-situ remediation of heavy metal contaminated soil or rock formations and sealing of water inflows by directed and controlled crystallization of natural occurring mineral. – In: Fernández Rubio, R. (ed) Mine, Water & Environment II. – p. 667–672, 11 Abb.; Sevilla (International Mine Water Association).
• Ziegenbalg, G. (2005): A novel technology for sealing and immobilization – the use of precipitation processes from supersaturated solutions. – In: Merkel, B. J. & Hasche-Berger, A. (eds): Uranium in the Environment. – p. 449–458, 8 Abb.; Heidelberg (Springer).
• Ziegenbalg, G. (2008): Directed and Controlled Crystallisation of Slightly Soluble Minerals – a New Technology to Seal Water Inflows and to Immobilise Contaminants. – Proceedings, 10th International Mine Water Association Congress:55–58.
• Ziegenbalg, M. (1993): An interdisciplinary cooperation – painters of landscape, cartographers, surveyors of land and mountain in the Renaissance. – Histoire & Mesure, 8(3-4):313–324, 2 Abb.; doi:10.3406/hism.1993.1598.
• Ziegler, M. (2010): Bodenbewegung infolge Grundwasserabsenkung bzw. -wiederanstieg. Paper presented at the Bergschadensforum 2010, Niederzier. – p. 15–25, 20 Abb.; Niederzier (RWE Power).
• Ziegler, W. & Middleton, H. (2011): Analysis of mine water origins using geochemistry, Tritium isotopes and algae: Mine Water – Managing the Challenges – 11th International Mine Water Association Congress. – 133–138 p., Aachen (RWTH Aachen University).
• Ziehr, H. (1957): Uranvorkommen in Bayern. – Atom-Wirtschaft, 6(2):193–196, 3 Abb., 2 Tab.
• Ziehr, H. (1983): Zur Geschichte des Steinkohlenbergbaues in Stockheim/Nordostbayern. – Der Aufschluss, 34(12):541–547, 3 Abb.
• Zielke-Olivier, J. & Vermeulen, P. D. (2016): Fine Ash Leaching in Tailings Dams – An Impact on the Underlying Aquifers? – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 353–360, Freiberg (TU Bergakademie Freiberg).
• Zielke-Olivier, J. S. & Vermeulen, P. D. (2019): Developing A Risk Assessment For Local Groundwater Degradation By Mine Waste Storage Facilities. Paper presented at the Mine Water – Technological and Ecological Challenges (IMWA 2019), Perm, Russia. – p. 711–716; Perm, Russia (Perm State University).
• Zielke-Olivier, J. S. D. R. & Vermeulen, D. (2018): An Integrated Approach To Evaluate The Hydrogeological Setting Around A Water-filled Quarry In A Mining Environment. Paper presented at the IMWA 2018 – Risk to Opportunity, Pretoria. – p. 775–781; (Tshwane University of Technology).
• Zielke-Olivier, J. S. D. R. & Vermeulen, P. D. (2017): Utilizing Geophysics As A Delineation Tool For Groundwater Flow Paths And Contaminants Along A Graben. – In: Wolkersdorfer, Ch., Sartz, L., Sillanpää, M. & Häkkinen, A. (eds): IMWA 2017 – Mine Water & Circular Economy I. – p. 320–327, Lappeenranta (Lappeenranta University of Technology).
• Ziemkiewicz, P. & O’Neal, M. (2010): Selenium leaching kinetics and in-situ control. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 611–615, Sydney, NS (Cape Breton University Press).
• Ziemkiewicz, P., Peckham, D. & Kehoe, A. (2010): Evaluating the effects of moving to a low maintenance ARD control strategy at the Victoria Junction coal tailings sit. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 523–527, Sydney, NS (Cape Breton University Press).
• Ziemkiewicz, P. F. (2006): Groundwater Effects of Coal Combustion By-Product Placement in Coal Mines: Flue Gas Desulfurization (FGD) By-Products at Coal Mines and Responses to the National Academy of Sciences Final Report “Managing Coal Combustion Residues in Mines” – A Technical Interactive Forum (Proceedings). – 59–67 p., 4 Tab.; Alton (U.S. Department of the Interior).
• Ziemkiewicz, P. F. & Ashby, J. C. (2007): Wet FGD Placement at the Mettiki Mine in Maryland. – Proceedings, West Virginia Surface Mine Drainage Task Force Symposium, 28:elektronische Resource 7 Seiten, 2 Abb., 2 Tab.
• Ziemkiewicz, P. F., O’Neal, M. & Lovett, R. J. (2011): Selenium leaching kinetics and in-situ control. – Mine Water Environ., 30(2):141–150, 9 Abb., 3 Tab.; doi:10.1007/s10230-011-0154-4.
• Ziemkiewicz, P. F. & Skousen, J. G. (2024): Integrated treatment of acid mine drainage and rare earth critical materials production. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 662–662; Morgantown (International Mine Water Association).
• Ziemkiewicz, P. F., Skousen, J. G., Brant, D. L., Sterner, P. L. & Lovett, R. J. (1997): Acid mine drainage treatment with armored limestone in open limestone channels. – J. Environ. Qual., 26(4):560–569, 9 Abb., 7 Tab.; doi:10.2134/jeq1997.00472425002600040013x.
• Ziemkiewicz, P. F., Skousen, J. G. & Simmons, J. (2001): Cost Benefit Analysis of Passive Treatment Systems. Paper presented at the West Virginia Surface Mine Drainage Task Force Symposium. – p. 127–143, 4 Abb., 9 Tab.
• Ziemkiewicz, P. F., Skousen, J. G. & Simmons, J. (2003): Long-term Performance of Passive Acid Mine Drainage Treatment Systems. – Mine Water Environ., 22(3):118–129, 1 Abb., 7 Tab.; doi:10.1007/s10230-003-0012-0.
• Zierenberg, R. A. & Shanks, W. C., III (1988): Isotopic studies of epigenetic features in metalliferous sediment, Atlantis II Deep, Red Sea. – Can. Mineral., 26:737–753.
• Zijlstra, J. J. P., Bellò, V., Collu, L., Faux, D. & Ruggeri, R. (2007): Passive Treatment of AMD with a Filter of cemented porous Pellets of transformed Red Mud: Water in Mining Environments. – 299–303 p., 2 Abb., 2 Tab.; Cagliari (Mako Edizioni).
• Zilberchmidt, M. G., Agafonov, J. F., Dmitriev, A. P. & Spirt, M. J. (2006): Schutz der Hydrosphäre vor der negativen Einwirkung von hochschwefelhaltigen Deponien der Kohlengewinnungs- und Aufbereitungsabgänge. – Wiss. Mitt. Inst. Geol., 31:189–194, 6 Abb., 2 Tab.
• Zimmermann, J. T. & Hibbard, D. G. (2024): Abandoned coal mine mitigation in artesian conditions. Paper presented at the West Virginia Mine Drainage Task Force Symposium & 15th International Mine Water Association Congress, Morgantown, WV, USA. – p. 663–669; Morgantown (International Mine Water Association).
• Zimmermann, U., Münnich, K. O., Roether, W., Kreutz, W., Schubach, K. & Siegel, O. (1966): Tracers determine movement of soil moisture and evapotranspiration. – Science, 152:346–347, doi:10.1126/science.152.3720.346.
• Zimroz, R., Hutter, M., Mistry, M., Stefaniak, P., Walas, K. & Wodecki, J. (2019): Why Should Inspection Robots be used in Deep Underground Mines? – In: Widzyk-Capehart, E., Hekmat, A. & Singhal, R. (eds): Proceedings of the 27th International Symposium on Mine Planning and Equipment Selection - MPES 2018. – p. 497–507, 6 Abb.; Cham (Springer); doi:10.1007/978-3-319-99220-4_42.
• Zinchenko, D., Schauer, P. J., Migchelbrink, J., Liang, H. C., Tamburini, J. R., Nketia, M., Rolston, N., Hatley, J., Lau, T. & Willis, J. (2013): Evaluation of High-Rate Clarification for Water Treatment at a Uranium Mine – A Case Study. – In: Brown, A., Figueroa, L. & Wolkersdorfer, Ch. (eds): Reliable Mine Water Technology. – p. 755–760, 2 Abb., 1 Tab.; Golden (International Mine Water Association).
• Zinck, J. M. M. (2005): Review of Disposal, Reprocessing and Reuse Options for Acidic Drainage Treatment Sludge: MEND Report 3.42.3. – 61 p., 18 Abb., 1 Tab.; Ottawa (Mine Environment Neutral Drainage (MEND) Program).
• Zinck, J. M. M. (2006): Disposal, reprocessing and reuse options for acidic drainage treatment sludge: ICARD 2006 7. – 2602–2617 p., 2 Abb.; St. Louis (Proceedings 7th International Conference on Acid Rock Drainage (ICARD)); doi:10.21000/JASMR06022604.
• Zinck, J. M. M. & Aubé, B. C. (2000): Optimization of lime treatment processes. – CIM Bulletin, 93(1043):98–105, 4 Abb., 3 Tab.
• Zinck, J. M. M. & Aubé, B. C. (2010): Overcoming Active Treatment Challenges. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 199–203, Sydney, NS (Cape Breton University Press).
• Zinck, J. M. M., Fiset, J.-F. & Griffith, W. (2010): Stability of Treatment Sludge in Various Disposal Environments: A Multi-Year Leaching Study. – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 527–531, Sydney, NS (Cape Breton University Press).
• Zinck, J. M. M., Wilson, J. L., Chen, T. T., Griffith, W., Mikhail, S. & Turcotte, A. M. (1997): Characterization and Stability of Acid Mine Drainage Sludge: MEND Report 3.42.2a. – 73 p., 16 Abb., 6 Tab.; Ottawa (Mine Environment Neutral Drainage (MEND) Program).
• Zincken, C. F. (1867): Die Physiographie der Braunkohle: Die Braunkohle und ihre Verwendung 1. – 818 p., 49 Abb., 3 Taf.; Leipzig (Krüger).
• Zingales, R. (2005): From Masurium to Trinacrium: The Troubled Story of Element 43. – J. Chem. Educ., 82(2):221, doi:10.1021/ed082p221.
• Zingelmann, M., Bittner, A., Winker, F., Muresan, M., Ellerton, J. & Harck, T. (2016): Cumulative Groundwater Impact of Mining in the Kalahari Manganese Field and the Need for a Strategic Environmental Assessment Approach. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 43–44, Freiberg (TU Bergakademie Freiberg).
• Zingg, T. (1935): Beitrag zur Schotteranalyse – Die Schotteranalyse und ihre Anwendung auf die Glattalschotter. – Schweiz. Mineralog. Petrogr. Mitt., 15(1):39–140, 20 Abb., 16 Tab.
• Zinsser, F. G. (1921): Wood Preservative Which Makes Putrescible Matter Stable, Strengthens Timber, Making It Fire Resistant. – Coal Age, 20(20):793–796, 2 Abb., 1 Tab.
• Zipf, R. K. & Mark, C. (1997): Design Methods to Control Violent Pillar Failures in Room-and-Pillar Mines. – Trans. Inst. Min. Metall. Sect. A-Min. Ind., 106:A124–A132.
• Zippel, B., Tittel, H. & von Tümpling jr., W. (2001): Sampling Method for the Determination of Total Inorganic Carbon (TIC) in Strongly Acidic Waters. – Acta Hydrochim. Hydrobiol., 29(5):309–312, 1 Abb., 2 Tab.; doi:10/bswtct.
• Zipper, C. E. & Skousen, J. (2021): Appalachia’s Coal-Mined Landscapes. – doi:10.1007/978-3-030-57780-3.
• Zipper, C. E. & Skousen, J. G. (2010): Influent Water Quality Affects Performance of Passive Treatment Systems for Acid Mine Drainage. – Mine Water Environ., 29(2):135–143, 5 Abb., 4 Tab.; doi:10.1007/s10230-010-0101-9.
• Žižek, F. (1910): Die Kinderarbeit in Österreich auf Grund amtlichen Quellenmaterials. – Zeitschrift für Kinderschutz und Jugendfürsorge, 2(1/2):27–32, 4 Tab.
• Zizka, L. & Halir, J. (2010): Groundwater flowing in the forefield of the CSA mine (North Bohemian Brown Coal Basin in the Czech Republic). – In: Wolkersdorfer, Ch. & Freund, A. (eds): Mine Water and Innovative Thinking – International Mine Water Association Symposium. – p. 449–453, Sydney, NS (Cape Breton University Press).
• Zmazek, B., Vaupotič, J., Živičic, M., Premru, U. & Kobal, I. (2000): Radon Monitoring for Earthquake Prediction in Slovenia. – Fizika B, 9:111–118, 2 Abb.
• Zodrow, E. L. (1991): A coal-sulfur model for Sydney Coalfield (Upper Carboniferous), Nova Scotia, Canada. – Atlantic Geology, 27:127–142, 3 Abb., 12 Tab.; doi:10.4138/1728.
• Zodrow, E. L. (2005): Colliery and surface hazards through coal-pyrite oxidation (Pennsylvanian Sydney Coalfield, Nova Scotia, Canada). – Int. J. Coal Geol., 64(1/2):145–155, 7 Abb., 3 Tab.; doi:10.1016/j.coal.2005.03.013.
• Zodrow, E. L., Banerjee, S. K. & Jessome, D. R. (1987): Uranium content and distribution in whole-coal samples, Sydney coalfield (Upper carboniferous), Nova Scotia, Canada. – Int. J. Coal Geol., 8(3):299–303, 3 Abb., 1 Tab.; doi:10.1016/0166-5162(87)90037-1.
• Zodrow, E. L. & McCandlish, K. (1978): Hydrated sulfates in the Sydney Coalfield, Cape Breton, Nova Scotia. – Can. Mineral., 16(1):17–22, 4 Abb., 1 Tab.
• Zodrow, E. L., Wiltshire, J. & McCandlish, K. (1979): Hydrated sulfates in the Sydney coalfield of Cape Breton, Nova Scotia; II, Pyrite and its alteration products. – Can. Mineral., 17(1):63–70, 6 Abb., 6 Tab.
• Zöldföldi, J. (2011): 5000 Years Marble History in Troia and the Troad – Petroarchaeological Study on the Provenance of White Marbles in West Anatolia. – 288 p., PhD Thesis, Eberhard Karls Universität Tübingen, 112 Abb., 13 Tab.; Tübingen.
• Zongo, I., Merzouk, B., Palm, K., Wethe, J., Maiga, A. H., Leclerc, J.-P. & Lapicque, F. (2012): Study of an electrocoagulation (EC) unit for the treatment of industrial effluent of Ouagadougou, Burkina Faso. – Adv. Appl. Sci. Res., 3(1):572–582, 7 Abb., 2 Tab.
• Zorn, S. (2018): Despite our best intentions: Papua New Guinea’s Ok Tedi mine and the limits of expert advice. – Miner. Econ., 31(1-2):13–21, doi:10.1007/s13563-017-0111-1.
• Zörner, R. (1904): Die Absatzverhältnisse der Königlichen Saarbrücker Steinkohlengruben in den letzten 20 Jahren (1884–1903): Der Steinkohlenbergbau des Preussischen Staates in der Umgebung von Saarbrücken IV. – 54 p., 4 Taf.; Berlin (Springer); doi:10.1007/978-3-642-92462-0.
• Zötl, J. & Goldbrunner, J. E. (1993): Die Mineral- und Heilwässer Österreichs – Geologische Grundlagen und Spurenelemente. – 329 p., Heidelberg (Springer).
• Zötl, J. G. (2001): Badgastein Spa of Austria: Springs and Bottled Waters of the World – Ancient History, Source, Occurence, Quality and Use. – 230–233 p., 6 Abb., 1 Tab.; Berlin (Springer).
• Zou, G., Wu, Y., Zhang, J. & Hao, X. (2014): P-wave Attenuation Attribute Forecast Water-rich Region of Deep Limestone. – In: Sui, W., Sun, Y. & Wang, C. (eds): An Interdisciplinary Response to Mine Water Challenges. – p. 321, Xuzhou (International Mine Water Association).
• Zoumis, T. & Calmano, W. (1998): Development of geochemical Barriers for a natural Demobilization of Heavy Metals from Mine Waters: Mine Water and Environmental Impacts 2. – 325–328 p., 2 Abb., 2 Tab.; Johannesburg (Proceedings International Mine Water Association Symposium).
• Zoumis, T. & Calmano, W. (2000): Development of fly ash granules for heavy metal removal from mine waters. – Proceedings, 7th International Mine Water Association Congress:492–504, 13 Abb., 3 Tab.
• Zoumis, T., Calmano, W. & Förstner, U. (2000): Demobilization of heavy metals from mine waters. – Acta Hydrochim. Hydrobiol., 28(4):212–218, 7 Abb., 4 Tab.; doi:10/dstsff.
• Zschiedrich, K., Pietsch, T. & Kuyumcu, M. (2017): Meeting Technical, Ecological, and Social Challenges in the Decommissioning of Potash Mines in Eastern Germany. – Mining Rep., 153(3):238–252, 23 Abb.
• Zschiedrich, K., Scholz, E. & Benthaus, F.-C. (2016): Rehabilitation of water ressources induced by large scale mining in Germany. – In: Drebenstedt, C. & Paul, M. (eds): IMWA 2016 – Mining Meets Water – Conflicts and Solutions. – p. 4–5, Freiberg (TU Bergakademie Freiberg).
• Zschocke, K., Preuschen, E., Pittioni, R., Firbas, F., Kisser, J. & Netolitzky, F. (1932): Das urzeitliche Bergbaugebiet von Mühlbach-Bischofshofen. – Materialien zur Urgeschichte Österreichs, 6:1–287, 19 Abb., 28 Taf., 6 Kart.
• Zuber, A., Grabczak, J. & Garlicki, A. (2000): Catastrophic and dangerous inflows to salt mines in Poland as related to the origin of water determined by isotope methods. – Environ. Geol., 39(3-4):299–311, 10 Abb., 5 Tab.; doi:10.1007/s002540050009.
• Zuber, A., Grabczak, J. & Kolonko, M. (1979): Environmental and artificial tracers for investigating leakages into salt mines: Isotope Hydrology 1978 I. – 45–63 p., 10 Abb., 2 Tab.; Wien (International Atomic Energy Agency).
• Zuber, A., Małoszewski, P., Stichler, W. & Herrmann, A. (1986): Tracer Relations in Variable Flow. – In: Morfis, A. & Paraskevopoulou, P. (eds): 5th International Symposium on underground water tracing. – p. 355–360, 2 Abb., 1 Tab.; Athens (Institute of Geology and Mineral Exploration).
• Zuber, A., Weise, S. M., Osenbrück, K., Grabczak, J. & Ciezkowski, W. (1995): Age and recharge area of thermal waters in Ladek Spa (Sudeten, Poland) deduced from environmental isotope and noble gas data. – J. Hydrol., 167(1-4):327–349, 6 Abb., 4 Tab.
• Zuccato, E., Calvarese, S., Mariani, G., Mangiapan, S., Grasso, P., Guzzi, A. & Fanelli, R. (1999): Level, sources and toxicity of polychlorinated biphenyls in the Italian diet. – Chemosphere, 38(12):2753–2765, doi:10.1016/S0045-6535(98)00477-9.
• Zuhuang, C. & Huixin, S. (1985): A method for water resources evaluation for prediction of mine water inflows and for comprehensive utilization of mine water. – Proceedings, 2nd International Mine Water Association Congress, 1:599–603.
• Zulkifli, S. N., Rahim, H. A. & Lau, W.-J. (2018): Detection of contaminants in water supply: A review on state-of-the-art monitoring technologies and their applications. – Sens. Actuator B-Chem., 255:2657–2689, doi:10.1016/j.snb.2017.09.078.
• Żurek, R., Diakiv, V., Szarek-Gwiazda, E., Kosiba, J. & Wojtal, A. Z. (2018): Unique Pit Lake Created in an Opencast Potassium Salt Mine (Dombrovska Pit Lake in Kalush, Ukraine). – Mine Water Environ., 37(3):456–469, doi:10.1007/s10230-018-0527-z.
• Zurkirchen, J. (1995): Als unser Silber noch aus dem Montafon kam. – Bludenzer Geschichtsblätter, 24-26:373–377, 2 Abb.
• Zvimba, J. N., Mulopo, J., Bologo, L. T. & Mathye, M. (2012): An evaluation of waste gypsum-based precipitated calcium carbonate for acid mine drainage neutralization. – Water Sci. Technol., 65(9):1577–1582, doi:10.2166/wst.2012.049.
• Zvirin, Y. (1979): The Effect of dissipation on free convection loops. – Int. J. Heat Mass Transfer, 22(11):1539–1546, 5 Abb.; doi:10.1016/0017-9310(79)90133-9.
• Zvirin, Y. & Greif, R. (1979): Transient behavior of natural circulation loops: two vertical branches with point heat source and sink. – Int. J. Heat Mass Transfer, 22(4):499–504, 6 Abb.
• Zvirin, Y., Shitzer, A. & Bartal-Bornstein, A. (1978): On the stability of the natural circulation solar heater. Paper presented at the 6th Int Heat Transfer Conf, Toronto. – p. 141–145; (Hemisphere).
• Zycha, A. (1907): Zur neuesten Literatur über die Wirtschafts- u. Rechtsgeschichte des deutschen Bergbaues I. – Vierteljahrschrift für Sozial- u. Wirtschaftsgeschichte, 5(1/2):238–292.
• Zycha, A. (1908): Zur neuesten Literatur über die Wirtschafts- u. Rechtsgeschichte des deutschen Bergbaues II. – Vierteljahrschrift für Sozial- u. Wirtschaftsgeschichte, 6(1):85–133.
• Zycha, A. (1908): Zur neuesten Literatur über die Wirtschafts- u. Rechtsgeschichte des deutschen Bergbaues III. – Vierteljahrschrift für Sozial- u. Wirtschaftsgeschichte, 6(2):232–276.
• Żyłka, R. (1970): Geological dictionary – Slownik geologiczny – Geologisches Wörterbuch – English, Polish, Russian, French, German –1439 p., Warschau (Wydawn. Geologiczne).
• Дуров, С. А. (1949): Треугольная форма графического выражения результатов водных анализов и применение ее к классификации природных вод [Dreiecksformen für die graphische Darstellungen von Wasseranalysen und ihre Anwendung auf die Klassifizierung natürlicher Gewässer]. – Гидрохимические материалы, 17:54–60.