SURFACE COAL MINING Characteristics of Mining in Mountainous Areas of Kentucky and West Virginia
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Underground Hard-Rock Mining: Subsidence and Hydrologic Environmental Impacts
Technical Report on Underground Hard-Rock Mining: Subsidence and Hydrologic Environmental Impacts By Steve Blodgett, M.S. and James R. Kuipers, P.E. Center for Science in Public Participation Bozeman, MT February 2002 Abstract: Subsidence and hydrology impacts occur at every underground mining operation bringing about changes to surface landforms, ground water and surface water. Although the same impacts to mining operations, man-made surface structures and other features are relatively well known and studied, the environmental impacts related to subsidence and hydrology at underground mines are not well known and have not been extensively described. This report examines the occurrence and environmental impacts of subsidence and effects on hydrology at underground hard-rock metal mines in the U.S. and abroad. Technical and scientific literature is cited on the cause and effect of underground mining on surface landforms and water resources. Existing laws and recommended regulatory provisions to address these impacts are discussed. Conclusions about subsidence and hydrologic impacts at underground hard-rock metal mines are provided along with recommendations for addressing those impacts. Case studies are provided from copper, molybdenum, silver and other hard-rock mines where significant subsidence and hydrology-related environmental impacts have occurred. The Center for Science in Public Participation (CSP2) is a non-profit organization dedicated to providing professional technical assistance to public interest groups; state, tribal and federal governments; and industry. This report has been published with financial support from various foundations and individuals, and from the Mineral Policy Center and Amigos Bravos. The opinions contained in this study are those of the authors and are based solely upon their own scientific and technical knowledge and expertise. -
Mining's Toxic Legacy
Mining’s Toxic Legacy An Initiative to Address Mining Toxins in the Sierra Nevada Acknowledgements _____________________________ ______________________________________________________________________________________________________________ The Sierra Fund would like to thank Dr. Carrie Monohan, contributing author of this report, and Kyle Leach, lead technical advisor. Thanks as well to Dr. William M. Murphy, Dr. Dave Brown, and Professor Becky Damazo, RN, of California State University, Chico for their research into the human and environmental impacts of mining toxins, and to the graduate students who assisted them: Lowren C. McAmis and Melinda Montano, Gina Grayson, James Guichard, and Yvette Irons. Thanks to Malaika Bishop and Roberto Garcia for their hard work to engage community partners in this effort, and Terry Lowe and Anna Reynolds Trabucco for their editorial expertise. For production of this report we recognize Elizabeth “Izzy” Martin of The Sierra Fund for conceiving of and coordinating the overall Initiative and writing substantial portions of the document, Kerry Morse for editing, and Emily Rivenes for design and formatting. Many others were vital to the development of the report, especially the members of our Gold Ribbon Panel and our Government Science and Policy Advisors. We also thank the Rose Foundation for Communities and the Environment and The Abandoned Mine Alliance who provided funding to pay for a portion of the expenses in printing this report. Special thanks to Rebecca Solnit, whose article “Winged Mercury and -
CORONAQUARRY Surface Mining Permit & Revised Reclamation Plan
CORONAQUARRY Surface Mining Permit & Revised Reclamation Plan City of Corona Permit No. 93-01 State of California Mine ID No. 91-33-0027 Prepared for: 500 North Brand Avenue, Suite 500 Glendale, CA 91203 Prepared by: RGP Planning & Development Services 8921 Research Drive Irvine, CA 92618 Submi ed to: City of Corona Community Development Department 400 South Vicen a Avenue Corona, CA 92882 March 2013 CORONA QUARRY Surface Mining Permit & Revised Reclamation Plan City of Corona Permit 93-01 State of California Mine ID No. 91-33-0027 Prepared For: Vulcan Materials Company, West Region 500 North Brand Avenue, Suite 500 Glendale, CA 91203 (818) 553-8800 Prepared By: RGP Planning & Development Services 8921 Research Drive Irvine, CA 92618 (949) 450-0171 Submitted To: City of Corona Community Development Department 400 S. Vicentia Ave. Corona, CA 92882 (951) 736-2262 March 2013 Table of Contents 1.0 General Project Information ......................................................................................... 6 1.1 Purpose and Scope ............................................................................................................ 6 1.2 Entitlement History ............................................................................................................ 6 1.3 Objectives of Amended Project ......................................................................................... 10 1.4 PCC-Quality Aggregate Regional Needs Assessment ............................................................ 11 1.5 Comparison of 1989 -
Backfilling of Open-Pit Metallic Mines1
BACKFILLING OF OPEN-PIT METALLIC MINES1 Stephen M. Testa,2 and James S. Pompy Abstract: Thirty years ago, the Congress of the United States required that coal mines be backfilled as a routine element of reclamation when it passed the Surface Mining Control and Reclamation Act. Until recently, that concept has not been generally applied to non-coal surface mines. In 2003, California’s State Mining and Geology Board (Board) evaluated reclamation of open pit metallic mines in the state and determined that they were not being reclaimed, despite California’s Surface Mining and Reclamation Act of 1975 (SMARA). As a result, the Board issued regulations for the backfilling of open-pit metallic mines. The need for such regulation reflected several issues. Open-pit metallic mineral mines often create very large excavations. In addition, metallic mineral mines that employ the cyanide heap leach method for mineral segregation and collection frequently generate very large leach piles which create long term soil and groundwater contamination conditions. It is the intent of SMARA that completed mine sites present no additional dangers to the public health and safety, and that the mined lands are returned to an alternate, useful condition. To date, no large, open pit metallic mines in California have been returned to the conditions contemplated by SMARA, and these sites continue to pose significant environmental problems. The goal of the Board’s regulations was to require mining companies to address the problems identified above and to take responsibility for cleaning up their mine sites after the completion of surface mining operations, and return them to a condition that allows alternative uses and avoids environmental harms, thereby meeting the purpose and intent of SMARA. -
Coal Mine Water Pollution: an Acid Problem with Murky Solutions J
Kentucky Law Journal Volume 64 | Issue 3 Article 3 1976 Coal Mine Water Pollution: An Acid Problem With Murky Solutions J. T. Begley Appalachian Research and Defense Fund of Kentucky John Philip Williams East Tennessee Research Corporation Follow this and additional works at: https://uknowledge.uky.edu/klj Part of the Environmental Law Commons, and the Water Law Commons Right click to open a feedback form in a new tab to let us know how this document benefits you. Recommended Citation Begley, J. T. and Williams, John Philip (1976) "Coal Mine Water Pollution: An Acid Problem With Murky Solutions," Kentucky Law Journal: Vol. 64 : Iss. 3 , Article 3. Available at: https://uknowledge.uky.edu/klj/vol64/iss3/3 This Symposium Article is brought to you for free and open access by the Law Journals at UKnowledge. It has been accepted for inclusion in Kentucky Law Journal by an authorized editor of UKnowledge. For more information, please contact [email protected]. Coal Mine Water Pollution: an Acid Problem With Murky Solutions By J. T. BEGLEY* and JOHN PHILIP WILLIAMS** I. INTRODUCTION Since 1973 the American public has been bombarded by news of the "energy crisis" and the need for "national energy independence." This public awareness of energy needs has spurred the creation of a new federal agency, the Federal En- ergy Administration (FEA), which has initiated "Project Inde- pendence," a national program designed to achieve energy in- dependence for the United States in the 1980's.1 In speeches throughout the country, FEA officials have declared that to achieve this goal our country must double its annual coal pro- duction. -
Surface Mining Methods and Equipment - J
CIVIL ENGINEERING – Vol. II - Surface Mining Methods and Equipment - J. Yamatomi and S. Okubo SURFACE MINING METHODS AND EQUIPMENT J. Yamatomi and S. Okubo University of Tokyo, Japan Keywords: Mining method, surface mining, open pit mining, open cast mining, placer mining, solution mining, leaching, stripping ratio, mining machinery, excavation, cutting, grading, loading, ditching Contents 1. Surface Mining Methods 1.1.Classification of Surface Mining Methods 1.2. Open Pit vs. Underground Mining Methods 1.3. Open Pit Mining 1.4. Open Cast Mining 1.5. Placer Mining 1.6 Solution Mining 2. Surface Mining Machinery Glossary Bibliography Biographical Sketches Summary This chapter deals with surface mining. Section 1 presents an overview of surface mining methods and practices as commonly employed in modern surface mining operations. The description includes a comparison of the advantages and disadvantages of surface and underground mining as well as brief explanations of open pit, open cast, placer, and solution mining operations. Section 2 describes surface mining equipment with particular focus on relatively large machines such as bucket wheel excavators, large shovels and draglines. 1. Surface Mining Methods UNESCO – EOLSS After a mineral deposit has been discovered, delineated, and evaluated, the most appropriate mining method is selected based on technical, economic, and environmentally accountable considerations. The first step in selecting the most appropriate miningSAMPLE method is to compare the CHAPTERS economic efficiency of extraction of the deposit by surface and underground mining methods. This section reviews surface mining methods and practices. 1.1. Classification of Surface Mining Methods Extraction of mineral or energy resources by operations exclusively involving personnel working on the surface without provision of manned underground operations is referred to as surface mining. -
EPA's National Hardrock Mining Framework
EPA’s National Hardrock Mining Framework U.S. Environmental Protection Agency Office of Water (4203) 401 M Street, SW Washington, DC 20460 HARDROCK MINING FRAMEWORK September 1997 September 1997 HARDROCK MINING FRAMEWORK Table of Contents 1.0 Purpose and Organization of the Framework ...................................1 1.1 Purpose of the Hardrock Mining Framework ..............................1 1.2 Why Develop an EPA National Mining Framework Now? ....................1 1.2.1 Need For Program Integration ...................................1 1.2.2 The Environmental Impacts of Mining .............................1 1.3 Goals of EPA’s Mining Framework .....................................3 1.4 Guide to the Framework ..............................................3 2.0 Current Status ..........................................................3 2.1 Overview of Regulatory Framework for Mining ............................3 2.2 EPA Statutory Authority .............................................4 2.3 Partnerships .......................................................6 3.0 Improving How We Do Business ...........................................7 3.1 Key Considerations .................................................7 3.2 Recommendations ..................................................8 4.0 Implementation Actions .................................................10 4.1 Putting the Framework into Action .....................................10 4.2 Next Steps .......................................................11 5.0 Introduction to the Appendices -
Kentucky Ground-Water Quality
KENTUCKY GROUND-WATER QUALITY By James L. Kiesler, Lloyd H. Woosley, Jr., and Robert W. Davis U.S. Geological Survey Open-File Report 87-0727 DEPARTMENT OF THE INTERIOR DONALD PAUL MODEL, Secretary U.S. GEOLOGICAL SURVEY Dallas L. Peck, Director - For additional information: For sale by: Chief Hydrologist U.S. Geological Survey U.S. Geological Survey Books and Open-File Reports Section 407 National Center Federal Center Reston, VA 22092 Box 25425 Denver, Colorado 80225 Use of trade names in this report is for descriptive purposes only and does not constitute endorsement by the U.S. Geological Survey FOREWORD This report contains summary information on ground-water quality in one of the 50 States, Puerto Rico, the Virgin Islands, or the Trust Territories of the Pacific Islands, Saipan, Guam, and American Samoa. The material is extracted from the manuscript of the 1986 National Water Summary, and with the exception of the illustrations, which will be reproduced in multi-color in the 1986 National Water Summary, the format and content of this report is identical to the State ground-water-quality descriptions to be published in the 1986 National Water Summary. Release of this information before formal publication in the 1986 National Water Summary permits the earliest access by the public. Contents Ground-Water Quality .................................................. 1 Water-Quality in Principal Aquifers ...................................... 1 Background Water Quality ......................................... 1 Alluvial Aquifer .............................................. 2 Tertiary and Cretaceous Aquifers ............................... 2 Pennsylvanian Aquifer System ................................. 2 Mississippian Aquifer System .................................. 2 Ordovician Aquifer System .................................... 2 Effects of Land Use on Water Quality ................................ 3 Waste Management and Chemical Storage ..................... 3 Mineral Development ........................................ -
Endangered Species Act Section 7 Consultation Final Programmatic
Endangered Species Act Section 7 Consultation Final Programmatic Biological Opinion and Conference Opinion on the United States Department of the Interior Office of Surface Mining Reclamation and Enforcement’s Surface Mining Control and Reclamation Act Title V Regulatory Program U.S. Fish and Wildlife Service Ecological Services Program Division of Environmental Review Falls Church, Virginia October 16, 2020 Table of Contents 1 Introduction .......................................................................................................................3 2 Consultation History .........................................................................................................4 3 Background .......................................................................................................................5 4 Description of the Action ...................................................................................................7 The Mining Process .............................................................................................................. 8 4.1.1 Exploration ........................................................................................................................ 8 4.1.2 Erosion and Sedimentation Controls .................................................................................. 9 4.1.3 Clearing and Grubbing ....................................................................................................... 9 4.1.4 Excavation of Overburden and Coal ................................................................................ -
Title:Kentucky Coal, Reclamation And
Kentucky Coal, Reclamation and Subsidence Title: Kentucky Coal, Reclamation and Subsidence Level: Secondary Day/Time: One class period or Homework assignment KERA Goals:1.2, 5.3, 6.3 Background Information: Every day, Kentuckians benefit from one of the coal industry’s most notable, environmentally significant achievements – the successful reclamation of mined lands. And chances are, they do not even know it. That is because most of the reclamation achieved by the coal industry is "invisible." Reclamation means returning the land to its original condition or other productive use. Unless there is a sign or other form of identification nearby, it is difficult to tell that a reclaimed site was once an active coal mine. Careful mining of our land benefits people in two ways: as a source of plentiful and reasonably priced coal and as reclaimed, productive, attractive and useful areas. Whether turned into a state park, a housing development, wildlife preserves or simply returned to productive farmland, reclaimed sites represent the coal industry’s commitment to a sound environment. Even though coal production has increased substantially over the past decade, the impact of this activity on the environment has been minimal. In Kentucky, coal is mined by one of two methods– surface mining or underground mining. Surface mining is the extraction of coal by first removing the soil, rock and other materials lying above the natural deposits. Underground mining is the extraction of coal by underground excavation of the coal deposits. For underground mining, special effort is devoted to constructing the mine and the mining plan in such a way that undesirable surface effect are minimized. -
Kentucky Geological Survey Earth ResourcesOur Common Wealth
Kentucky Geological Survey Earth ResourcesOur Common Wealth Annual Report 19992000 Annual Report 19992000 Cover Illustrations 2 1 3 4 6 5 7 À Quartz-pebble conglomerate from Cumberland Falls. Photo by Stephen Greb. Á Portion of geologic map of Harrodsburg 30 x 60 minute quadrangle, by Thomas Sparks, Garland Dever, and Warren Anderson. Â Karst landscape in central Kentucky. Photo by Deanna Davis, Barrys Photography. Ã Polished core from the CambrianOrdovician Knox Group in Cumberland County. Photo by Lyle VanHorne and Patrick Gooding. Ä Kentucky agate. Photo by Collie Rulo. Å Sandstone bluff in Carter Caves State Park. Photo by Douglas Reynolds Jr. Æ Big South Fork of the Cumberland River, McCreary County. Photo by Brandon Nuttall. Earth ResourcesOur Common Wealth Kentucky Geological Survey Annual Report 19992000 228 Mining and Mineral Resources Building University of Kentucky Lexington, KY 40506-0107 859.257.5500 fax 859.257.1147 www.uky.edu/KGS Project Manager and Writer: Carol Ruthven Editor: Margaret Luther Smath Designer: Collie Rulo Contents 1 Directors Desk 2 Energy and Minerals for Our Economy 8 Clean Air and Water for Our Quality of Life 14 Helping Our Communities Become Resistant to Natural Disasters 18 Enhancing Access to Geologic Maps and Data for Our Citizens 22 Upholding a Tradition of Quality Public Service 25 Mentoring Future Geologists 27 Recognizing Excellence in Research and Public Service 28 New Publications 30 Active Research Projects 32 Staff Roster State Geologists 18382000 1838: William W. Mather, State Geologist. No organizational structure. 183953: No organizational structure; no State Geologist. 185460: First Survey. David Dale Owen, State Geologist, 185457; Robert Peter, State Chemist, supervised the activities of the office from 185760. -
Overview of Underground Mining Business
IR-DAY2018 1 Komatsu IR-DAY 2018 Overview of Underground mining business September 14th, 2018 Masayuki Moriyama Senior Executive Officer President, Mining Business Division Chairman, Komatsu Mining Corp. IR-DAY2018 Various Mineral Resources 2 • Mineral resources are generated through several geologic effects. • Coal is usually categorized as Soft Rock, while other minerals such as Ferrous and Non-Ferrous are called as Hard Rock. # Generation of deposits Major Mineral Resources Platinum, Chromium, Magmatic deposit Titanium, Magnetite Generated Hard Igneous ① from Rock rock Magma Gold, Copper, Silver, Lead, Zinc, Hydrothermal Tin, Tungsten, deposit Molybdenum, Uranium Sedimentation/Weathering/ Erosion Sedime Hematite, Nickel, ② ntary Boxite, Lithium, etc rock Geothermal effect/Crustal rising Soft Rock *1 ③ Coal - ※1 Coal is not defined as “rock” in geological respect. Generation process of IR-DAY2018 Mineral Resources (1/2) 3 • Minerals derived from magma were generated in the depths of underground. 1) In case deposits exist beneath and relatively near from ground level, Open Pit Mining/Strip Mining methods are adopted. 2) In case deposits exist in the depths below geological formations, Underground Mining methods are adopted. 3) Open pit mines might shift to underground methods as they get deeper. 1.Magmatic deposit 2.Hydrothermal deposit 1) Typical minerals: 1) Typical minerals: Platinum, Chromium, Titanium, Gold, Copper, Silver, Lead, Zinc, Tin, Magnetite, etc. Tungsten, Molybdenum, Uranium, etc. 2) Generation process 2) Generation process ・In case Magma is slowly cooled, ・Hydrothermal mineral solution melted metal sulfide (containing Platinum, (containing metal elements) had been Chromium, Titanium or others) had been pushed up by high vapor pressure, separated and concentrated by specific precipitated and filled chasms in and gravity and generated deposit.