Page 64 - Advances In Productive, Safe, and Responsible Coal Mining
P. 64

50                           Advances in Productive, Safe, and Responsible Coal Mining

          [4] Sider H. Safety and productivity in underground coal mining. Rev Econ Stat 2001;225-
             233.
          [5] Rosencrantz H, Edvardsson K, Hansson SO. Vision zero – is it irrational? Trans Res
             2007;41:559–67.
          [6] Peters RH, Kosmoski C. Why miners report (or do not report) safety-relevant information.
             Eng Min J 2014;9:56–8.
          [7] Probst TM, Graso M. Pressure to produce ¼ pressure to reduce accident reporting. Accid
             Anal Prev 2013;59:580–7.
          [8] Fonseca A, McAllister ML, Fitzpatrick P. Measuring what? A comparative anatomy of
             five mining sustainability frameworks. Miner Eng 2013;46/47:180–6.
          [9] MHSC. South African mining industry journey to zero harm, 2003–2013. Gauteng, South
             Africa: South Africa Mine Health & Safety Council (MSHC); 2014.
         [10] Zwetsloot GIJM, Aaltonen M, Wybo J-L, Saari J, Kines P, Op De Beek R. The case for
             research into the zero accident vision. Saf Sci 2013;58:41–8.
         [11] Freese B. Coal: a human history. London, England: Penguin Books; 2004.
         [12] Edmondson JC. Mining in the Later Roman Empire and beyond: continuity or disruption?
             J Roman Stud 1989;79:84–102.
         [13] Davis SJ, Calderia L, Damon Matthews H. Future CO 2 emissions and climate change from
             existing energy infrastructure. Science 2010;329:1330–3.
         [14] Anonymous. Utah Perspectives From the Second Annual Harvesting Energy Summit
             (2007): Outcomes from the “Dialogue Diner” and Stakeholder Panel Sessions. Renewable
             Energy for Rural Economic Development, College of Business, Utah State University;
             2007. DOE/GO-102007-2422.
         [15] Owens JR, Kemp D. Social license and mining: a critical perspective. Res Policy
             2013;38:29–35.
         [16] Hethmon TA, Nelson MG. In: Whole systems design in safety research at the University of
             Utah. Presented at: 35th annual international conference of safety in mines research insti-
             tutes, London, England; 2013.
         [17] Egan MR. Summary of combustion products from mine materials: their relevance to mine
             fire detection. Information Circular 9272: US Department of the Interior, Bureau of Mines;
             1990.
         [18] Paul PS, Maiti J. The role of behavioral factors on safety management in underground
             mines. Saf Sci 2007;45(4):449–71.
         [19] Simpson G, Horberry T, Joy J. Understanding human error in mine safety. New York, NY:
             Ashgate Publishing; 2009.
         [20] Joy J. Risk management integration and decision making in the minerals industry. Pres-
             ented at: Queensland mining industry health and safety conference, Queensland, Austra-
             lia; 2000.
         [21] Wilde GJS. Risk homeostasis theory: an overview. Injury Prev 1998;4:89–91.
         [22] Anonymous. International standard 31,000 risk management – principles & guidelines,
             ISO 31,000: 2009E. Geneva, Switzerland: International Standards Organization (ISO);
             2009.
         [23] NMA. CORESafety safety and health management system. Available from, http://www.
             coresafety.org/National Mining Association (NMA); 2013.
         [24] ICMM. Health and safety critical control management, good practice guide. Available
             from ICMM.org.London, England: International Council on Mining & Metals
             (ICMM); 2015.
         [25] Van Der Werwe JN. The extraction safety factor concept in high-extraction coal mining.
             J South Afr Inst Min Metall 1990;90(11):303–6.
   59   60   61   62   63   64   65   66   67   68   69