Christian’s PDF files


• 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. 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).
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• 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.
• 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.
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• 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.
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• 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).
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• 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.
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• 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).
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• 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).
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• 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.
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• 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).
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• 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).
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• 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.
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• 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., 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, 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.
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• 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.
• 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.
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• 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.
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• 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).
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• 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.
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• 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): 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. & 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. & 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.:1–37, 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., 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.
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