Some Remarks on Fire Damp and Safety Lamps
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Mine Rescue Team Training: Metal and Nonmetal Mines (MSHA 3027, Formerly IG 6)
Mine Rescue Team Training Metal and Nonmetal Mines U.S. Department of Labor Mine Safety and Health Administration National Mine Health and Safety Academy MSHA 3027 (Formerly IG 6) Revised 2008 Visit the Mine Safety and Health Administration website at www.msha.gov CONTENTS Introduction Your Role as an Instructor Overview Module 1 – Surface Organization Module 2 – Mine Gases Module 3 – Mine Ventilation Module 4 – Exploration Module 5 – Fires, Firefighting, and Explosions Module 6 – Rescue of Survivors and Recovery of Bodies Module 7 – Mine Recovery Module 8 – Mine Rescue Training Activities Introduction Throughout history, miners have traveled underground secure in the knowledge that if disaster strikes and they become trapped in the mine, other miners will make every possible attempt to rescue them. This is the mine rescue tradition. Today’s mine rescue efforts are highly organized operations carried out by groups of trained and skilled individuals who work together as a team. Regulations require all underground mines to have fully-trained and equipped professional mine rescue teams available in the event of a mine emergency. MSHA’s Mine Rescue Instruction Guide (IG) series is intended to help your mine to meet mine rescue team training requirements under 30 CFR Part 49. The materials in this series are divided into self-contained units of study called “modules.” Each module covers a separate subject and includes suggestions, handouts, visuals, and text materials to assist you with training. Instructors and trainers may wish to use these materials to either supplement existing mine rescue training, or tailor a program to fit their mine-specific training needs. -
The Largest Fatal Accident in Scottish Coal in the Nationalised Era. Scottish Labour History, 54, Pp
Gibbs, E. and Phillips, J. (2019) Remembering Auchengeich: the largest fatal accident in Scottish coal in the nationalised era. Scottish Labour History, 54, pp. 47-57. This is the author’s final accepted version. There may be differences between this version and the published version. You are advised to consult the publisher’s version if you wish to cite from it. http://eprints.gla.ac.uk/210374/ Deposited on: 19 February 2020 Enlighten – Research publications by members of the University of Glasgow http://eprints.gla.ac.uk 1 Remembering Auchengeich: the largest fatal accident in Scottish coal in the nationalised era Ewan Gibbs and Jim Phillips The largest fatal accident in the post-Second World War Scottish coal industry took place on 18 September 1959, when 47 men were killed at Auchengeich Colliery in Moodiesburn, North Lanarkshire. On the sixtieth anniversary, we pay tribute to the Auchengeich miners, who died as a result of carbon monoxide poisoning arising from a large underground fire. This short note analyses the catastrophe within the longer history of underground dangers in the mining industry in Scotland. The nationalisation of coal mining in 1947 and stronger union voice in workplaces made mining much safer. Coal industry data summarised in this note shows that the rate of death underground roughly halved from the 1930s to the 1950s, but the calamitous losses at Auchengeich, nevertheless, demonstrated that mining remained a perilous occupation for the mass of workers engaged in underground work. Significant shortcomings in National Coal Board (NCB) management contributed directly to the loss of life at the colliery. -
Instruction Guide Series IG7
Advanced Mine Rescue Training Coal Mines U.S. Department of Labor Mine Safety and Health Administration National Mine Health and Safety Academy Instruction Guide Series IG7 Revised 2 0 1 3 Visit the Mine Safety and Health Administration website at www.msha.gov CONTENTS Introduction Your Role as an Instructor Overview Module 1 – Surface Organization Module 2 – Mine Gases Module 3 – Mine Ventilation Module 4 – Exploration Module 5 – Fires, Firefighting, and Explosions Module 6 – Rescue of Survivors and Recovery of Bodies Module 7 – Mine Recovery Page Intentionally Left Blank Introduction Throughout history, miners have traveled underground secure in the knowledge that if disaster strikes and they become trapped in the mine, other miners will make every possible attempt to rescue them. This is the mine rescue tradition. Today’s mine rescue efforts are highly organized operations carried out by groups of trained and skilled individuals who work together as a team. Underground coal mine rescue team members must be trained according to the requirements under 30 CFR 49.18. Under Section 49.18(b)(4), this training must consist of advanced mine rescue training and procedures, as prescribed by MSHA's Office of Educational Policy and Development (EPD). This guide is designed to be used with the material in IG-7a, Advanced Skills Training, and both guides are needed to satisfy the advanced mine rescue training requirement. This guide is divided into self-contained units of study called “modules.” Each module covers a separate subject and includes suggestions, handouts, visuals, and text materials to assist you with training. Since regulations, policy and mining technology can change, be sure to check for information that could supersede this material. -
Monarch Mine Issue
SUPERIOR HISTORICAL COMMISSION SUPERIOR HISTORIAN VOLUME 4, ISSUE 2 FALL/WINTER 2006 DECEMBER, 2006 DEATH AND “One of these mornings you’re The roster of the lost men is as follows: DEVASTATION IN THE going to see the Monarch blow,” Tom Stevens, Louisville DEPTHS: THE disaster survivor Nick Del Pizzo Ray Bailey, Broomfield once said to his sister. Oscar Baird, Rickard’s Camp MONARCH MINE Tony Di Santis, Louisville EXPLOSION oil and grease machinery, test for Steve Davis, Louisville gases, and get the mules ready and in Kester Novingger, Broomfield Eight Die, One Never Found place for the day shift. Leland Ward, Monarch Camp in 1936 Disaster The rescue teams were hampered Joe Jaramillo, Monarch Camp in their attempts to rescue the “Some of the men were discovered Constant, short shrieks of a mine stranded miners due to the presence seated on the floor of the mine, their steam whistle broke the silence of a of the “after damp” or “black damp,” a equipment at their side, their faces crisp winter’s morning January 20, deadly mix of carbon dioxide and turned toward their lamps, as if to 1936. It was a sound no one connected nitrogen. Rescuers didn’t want to risk watch the flame burn out with the with coal mining ever wanted to hear making the disaster worse, but eight creeping presence of carbon dioxide, because it signaled an emergency and men remained unaccounted for. the black damp,” is the description by probable disaster in the mine. Officials, family, friends, and fellow author Phyllis Smith. Tragically, the The word spread that there had miners milled about the mine entrance, body of Joe Jaramillo was never found. -
Explosive Mine Gases and Dusts
DEPARTMENT OF THE INTERIOR UNITED STATES GEOLOGICAL SURVEY GEORGE OTIS SMITH, DIRECTOR 383 NOTES ON EXPLOSIVE MINE GASES AND DUSTS WITH SPECIAL REFERENCE TO EXPLOSIONS IN THE MONONGAH, DARK, AND NAOMI COAL MINES BY ROLLIN THOMAS CHAMBERLIN WASHINGTON GOVERNMENT PRINTING OFFICE 1909 CONTENTS. Page. Introduction.............................................................. 5 Character of the report................................................. 5 Explosions studied.................................................... 6 Gases found in the mines.................................................. 7 Methods of collecting. ................................................... 7 Analyses............................................................. 8 Methane............................................................... 9 After damp....... T ................................................... 11 Deficiency of oxygen.......................--...--..- ------ ---- - -- 15 Possible conditions of gas in coal........................................... 1.6 Liberation of gas by crushing coal........................................... 17 Plan of experiments.................................................... 17 Method of crushing.................................:.................. 18 Detailed results....................................................... 18 Gases from coal bottled in a vacuum......................................... 24 Vacuum bottles....................................................... 24 Volume of gas..................'.............................. -
The Prevention and Control of Fire and Explosion in Mines
Deep Mined Coal Industry Advisory Committee The Mining Association of the United Kingdom . The prevention and control of fire and explosion in mines INTRODUCTION This information and guidance was prepared, in consultation with the Health and Safety Executive (HSE), by a working group representative of all sides of the mining industry. It represents what members of the working group consider to be good practice. Members of the working group on the prevention and control of fire and explosion in mines …………………………………………………………………………………….. Mr S Denton HM Inspector of Mines, HSE, Chairman Mr A Allsop Union of Democratic Mineworkers Mr M Davies Tower Colliery Limited Mr P Fenner UK Coal Mining Limited Mr D Flack Federation of Independent Mines Dr P Holmes British Gypsum Limited Mr S Hunneyball TES Bretby Limited Dr B Jones Mines Rescue Service Limited Mr S Mills British Gypsum Limited Mr G Robinson Cleveland Potash Limited Mr N Rowley Cleveland Potash Limited Mr E Ruck UK Coal Mining Limited Mr R Young British Association of Colliery Management Mr G Goodlad HM Principal Inspector of Engineering in Mines, HSE Mr R Leeming HM Inspector of Mines, HSE Mr M Williams HM Inspector of Mechanical Engineering in Mines, HSE Mr R Gates HSE, Working Group Secretary Papers only ……………………………………………………………………………………… Mr R Fenton The Mining Association of the United Kingdom Mr I Lavery National Union of Mineworkers 2 CONTENTS PAGES INTRODUCTION.......................................................................................................................... -
Fugitive Carbon Based Gases Blasting Related Or Not
Fugitive Carbon Based Gases Blasting Related or Not Kenneth K. Eltschlager Mining Engineer Office of Surface Mining Reclamation and Enforcement Pittsburgh, PA Marcia Harris Chemical Engineer National Institute for Occupational Safety and Health Pittsburgh, PA Fred Baldassare Hydrogeologist Pennsylvania Department of Environmental Protection Pittsburgh, PA Abstract Surface mine blasting was recently investigated as a potential source of high concentrations of stray gases found in nearby residences of western Pennsylvania. In one incident carbon monoxide was detected in a home and in the other, high concentrations of carbon dioxide were found in a home. Both carbon monoxide and carbon dioxide are by-products of blasting. However, other potential sources of these gases may also exist in a residential setting. In each case, gas chromatography (GC) and carbon isotopic analyses were used to define atmospheric concentrations inside the homes, and to determine the source of a stray gas. Molecular and isotopic analyses provide geochemical evidence as to the origin and source of the stray gas. This paper discusses elements of a stray gas investigation and the analyses necessary to identify the source of a stray gas. Introduction Elevated concentrations of various gases have long been known to be dangerous to underground miners. Prior to active mine ventilation, stagnant mine atmospheres allowed gases to accumulate, sometimes to lethal levels. Common terms were associated with their detrimental effect and continue to be used today. Black damp is caused by an oxygen deficient atmosphere and is often a result of carbon dioxide (CO2) displacing oxygen. White damp is caused by elevated levels of carbon monoxide (CO). -
Handbook for Methane Control in Mining
IC 9486 Information Circular/2006 TM Handbook for Methane Control in Mining Department of Health and Human Services Centers for Disease Control and Prevention National Institute for Occupational Safety and Health Information Circular 9486 Handbook for Methane Control in Mining By Fred N. Kissell, Ph.D. DEPARTMENT OF HEALTH AND HUMAN SERVICES Centers for Disease Control and Prevention National Institute for Occupational Safety and Health Pittsburgh Research Laboratory Pittsburgh, PA June 2006 ORDERING INFORMATION Copies of National Institute for Occupational Safety and Health (NIOSH) documents and information about occupational safety and health are available from NIOSH–Publications Dissemination 4676 Columbia Parkway Cincinnati, OH 45226–1998 FAX: 513–533–8573 Telephone: 1–800–35–NIOSH (1–800–356–4674) e-mail: [email protected] Website: www.cdc.gov/niosh This document is in the public domain and may be freely copied or reprinted. ————————————————————— Disclaimer: Mention of any company or product does not constitute endorsement by the National Institute for Occupational Safety and Health (NIOSH). In addition, citations to Web sites external to NIOSH do not constitute NIOSH endorsement of the sponsoring organizations or their programs or products. Furthermore, NIOSH is not responsible for the content of these Web sites. DHHS (NIOSH) Publication No. 2006–127 CONTENTS Page About this handbook ......................................................................... 1 Acknowledgments ........................................................................... 1 Chapter 1.—Facts about methane that are important to mine safety, by F. N. Kissell ........................ 3 Chapter 2.—Sampling for methane in mines and tunnels, by F. N. Kissell ............................... 27 Chapter 3.—Methane control at continuous miner sections, by F. N. Kissell, C. D. Taylor, and G. V. -
Gases Found in Coal Mines
1 Miners’ Circular 14 DEPARTMENT OF THE INTERIOR FRANKLIN K. LANE, SECRETARY BUREAU OF MINES VAN. H. MANNING, DIRECTOR GASES FOUND IN COAL MINES BY GEORGE A. BURRELL AND FRANK M. SEIBERT UNIVERSITY O ICHIGAN 3 9015 07756 960 WASHINGTON GOVERNMENT PRINTING OFFICE 1916 Digitized by e Third edition. June, 1915. .First edition issued in April,1914• 2 Digitized by e CONTENTS. Page. Introduction 5 The gases of the air 5 Oxygen and nitrogen 6 Carbon dioxide 6 Changes in air after it enters a coal mine 7 Changes in the proportions of oxygen and carbon dioxide 7 Changes in the percentage of water vapor 8 Addition of “ gas ” (methane) to mine air 9 The dangerous mine gases or “ damps ” 9 Fire damp 10 Diffusion of methane 11 Explosibility of mixtures of methane and air 11 Odor of fire damp 12 Effect of breathing methane 13 Black damp 13 Effects produced on men and lights by black damp 33 Effect of black damp on atmosphere containing fire damp 34 Lack of oxygen in mine air 14 Effect on the flame of ordinary lights 14 Effect on the flame of the acetylene lamp 14 Effect of breathing mine air low in oxygen 14 Acetylene 15 Explosibility of acetylene 15 Poisonous properties of acetylene 36 Properties of calcium carbide 16 Carbon dioxide and its effect on man 16 Impurities in mine air 36 Effects of warm, moist, and still air on man 17 Choke damp 17 Afterdamp 37 White damp, or carbon monoxide 38 Explosive properties IS Poisonous effects of carbon monoxide 1 39 Use of birds and mice 19 Effect on man of small proportions of carbon monoxide— 19 * Other gases in mine air 20 Gases produced by blasting 20 Summary 20 Publications on mine accidents and methods of mining 21 3 Digitized by e % Digitized by e GASES FOUND IN COAL MINES. -
Management of Coal Dust Explosions in United States' Coal Mines Using Bag Type Passive Explosion Barriers
Scholars' Mine Masters Theses Student Theses and Dissertations Spring 2018 Management of coal dust explosions in United States' coal mines using bag type passive explosion barriers Jay Robert Schafler Follow this and additional works at: https://scholarsmine.mst.edu/masters_theses Part of the Explosives Engineering Commons Department: Recommended Citation Schafler, Jay Robert, "Management of coal dust explosions in United States' coal mines using bag type passive explosion barriers" (2018). Masters Theses. 7782. https://scholarsmine.mst.edu/masters_theses/7782 This thesis is brought to you by Scholars' Mine, a service of the Missouri S&T Library and Learning Resources. This work is protected by U. S. Copyright Law. Unauthorized use including reproduction for redistribution requires the permission of the copyright holder. For more information, please contact [email protected]. i MANAGEMENT OF COAL DUST EXPLOSIONS IN UNITED STATES’ COAL MINES USING BAG TYPE PASSIVE EXPLOSION BARRIERS by JAY ROBERT SCHAFLER A THESIS Presented to the Faculty of the Graduate School of the MISSOURI UNIVERSITY OF SCIENCE AND TECHNOLOGY In Partial Fulfillment of the Requirements for the Degree MASTER OF SCIENCE IN EXPLOSIVES ENGINEERING 2018 Approved by Dr. Catherine E. Johnson, Advisor Dr. Braden Lusk Dr. Kyle Perry ii © 2018 Jay Robert Schafler All Rights Reserved iii ABSTRACT The most significant and powerful hazard that exists in an underground coal mine is a coal dust explosion. A coal dust explosion has the potential to propagate throughout a mine resulting in massive damage to the mine and equipment, as well as tragic loss of life. An assessment of current global regulations and practices uncovered four main control methods utilized to prevent coal dust explosions in coal mines world-wide. -
Coal Dust Explosions and Their Prevention
Scholars' Mine Masters Theses Student Theses and Dissertations 1960 Coal dust explosions and their prevention Surya Narayan Roychowdhury Follow this and additional works at: https://scholarsmine.mst.edu/masters_theses Part of the Mining Engineering Commons Department: Recommended Citation Roychowdhury, Surya Narayan, "Coal dust explosions and their prevention" (1960). Masters Theses. 2797. https://scholarsmine.mst.edu/masters_theses/2797 This thesis is brought to you by Scholars' Mine, a service of the Missouri S&T Library and Learning Resources. This work is protected by U. S. Copyright Law. Unauthorized use including reproduction for redistribution requires the permission of the copyright holder. For more information, please contact [email protected]. I .,..., i l I COAL DUST EXPLOSIONS AND THEIR PREVENTION. BY SURYYA NARAYAN ROYCHOWDHURY A THESIS Submitted to the faculty of the SCHOOL OF MINES AND METALLURGY OF THE UNIVERSITY OF MISSOURI in partial fulfillment of the work required for the Degree of MASTER OF SCIENCE in MINING ENGINEERING Rolla, Missouri 1960 Approved by • {Advisor) i ABSTRACT The purpose of this study is to review the various causes of coal dust explosions and to sunnnarize the preventive measures through which it may be possible to minimize the hazards of coal dust explo sions. The properties of coal dust which have an important influence on its explosibility are: fineness, purity, percentage of volatile matter, dryness, age and degree of oxidation, lifting velocities and dispersability, and its static electrification. Explosibility of coal dust has been studied in laboratories, in explosion galleries and in an experimental coal mine. The data and results obtained from the tests showed that finely pulverized coal dust has a lower explosive limit of 0.035 to 0.08 ounces per cubic foot. -
Coal-Mine Accidents: Their and Prevention
WTnn^ Bulletin No. 333 Series Q, Fuels, 7 DEPARTMENT OF THE INTERIOR UNITED STATES GEOLOGICAL SURVEY GEORGE OTIS SMITH, DIRECTOR COAL-MINE ACCIDENTS: THEIR AND PREVENTION A PRELIMINARY STATISTICAL REPORT BY CLARENCE HALL AND WALTER O. SNELL1NG WITH INTRODUCTION liY JOSEPH A. HOLMES IN CHATCGE OF TECHNOLOGIC ERANCH WASHINGTON GOVERNMENT PRINTING OFFICE 1907 CONTENTS. Page. Introduction, by Joseph A. Holmes.................... .................... 3 Statistics relating to accidents in coal mines.......................I......... 5 Fatal accidents in the United States.................................... 5 Number of men killed for each thousand employed..................... 5 Increase in the United States...................................... 5 Decrease in European countries..........'.......................... 6 Protective legislation .......................................... 6 Belgium..................................................... 6 Great Britain................................................. 7 Prussia...................................................... 7 France ...................................................... 7 Comparative summary............................................ 8 Causes of mine accidents.............................................. 8 Fatal accidents from falls of roof ami coal........................... 8 Fatal accidents from gas and dust explosions....................... 10 Fatal accidents from other causes.................................. 11 Number of men killed for each million tons of coal produced...........