Varying Heat Release Rates per Unit Area – The Impact in Underground Mines

[1] De Rosa M.I. 2004 Analysis of mine fires for all US metal/non-metal mining categories, 1990–2001. NIOSH Search in Google Scholar

[2] Hansen R. 2018 Fire statistics from the mining industry in New South Wales, Queensland and Western Australia. Brisbane: The University of Queensland Search in Google Scholar

[3] Svenska Gruvföreningen 1985 Alternativ till utrymningsväg från gruva och annan underjordsanläggning. Svenska Gruvföreningen Search in Google Scholar

[4] Hansen R., Ingason H. 2013 Full scale fire experiments with mining vehicles in an underground mine. Research report SiST 2013:2. Västerås: Mälardalen University Search in Google Scholar

[5] Hansen R. (2015) Analysis of methodologies for calculating the heat release rates of mining vehicle fires in underground mines. Fire Safety Journal, vol 71, pp 194-216 Search in Google Scholar

[6] Wachowicz J. 1997 Heat release rate in evaluation of conveyor belts in full-scale fire tests. Fire and Materials, vol. 21, pp 253-257 Search in Google Scholar

[7] Numajiri F., Furukawa K. 1998 Short Communication: Mathematical Expression of Heat Release Rate Curve and Proposal of ‘Burning Index. Fire and Materials, vol. 22, pp. 39–42 Search in Google Scholar

[8] National Fire Protection Association 2018 NFPA 92, standard for smoke control systems, 2018 edn. NFPA, Quincy Search in Google Scholar

[9] Hansen R. 2021 Design Fire Scenarios Involving Non-Fire Resistant Conveyor Belts – Numerical Study. International Journal of Mining, Materials, and Metallurgical Engineering, vol 7, pp 1-15 Search in Google Scholar

[10] Janssens M.L. 1991 Measuring rate of heat release by oxygen consumption. Fire Technology, vol 27, pp 234–249 Search in Google Scholar

[11] Hansen R. 2010 Site inventory of operational mines – fire and smoke spread in underground mines. University of Mälardalen, MdH SiST 2010:1, Västerås, Sweden Search in Google Scholar

[12] Janssens M. 1991 Piloted ignition of wood: A review. Fire and Materials, vol 15, pp 151-167 Search in Google Scholar

[13] Zhong L., Zhou T., Wang J. 2017 Flammability properties of typical aviation functional oils. IOP Conference Series: Materials Science and Engineering 241 012037 Search in Google Scholar

[14] Chen X., Lu S., Li C., Zhang J., Liew K.M. 2014 Experimental study on ignition and combustion characteristics of typical oils. Fire and Materials, vol 38, pp 409-417 Search in Google Scholar

[15] Ingason H., Wickström U. 2007 Measuring incident radiant heat flux using the plate thermometer. Fire Safety Journal, vol 42, pp 161-166 Search in Google Scholar

[16] Arvidson M., Ingason H. 2005 Measurement of the efficiency of a water spray system against diesel oil pool and spray fires. SP Fire Technology, SP Report 2005:33, Swedish National Testing and Research Institute Search in Google Scholar

[17] Ingason H., Hammarström R. 2010 Fire test with a front wheel loader rubber tyre. SP Fire Technology, SP Report 2010:64 Search in Google Scholar

[18] Mealy C., Benfer M., Gottuk D. 2011 A Study of the Parameters Influencing Liquid Fuel Burning Rates. Fire Safety Science, vol 10, pp 945-958 Search in Google Scholar

[19] Ohlemiller T., Shaub W. 1988 Products of wood smolder and their relation to wood-burning stoves. NBSIR 88-3767. Washington, DC: National Bureau of Standards Search in Google Scholar

[20] Hansen R. 2022 Reviewing conditions on a mining vehicle for possible ignition and fire behaviour – flammable and combustible liquids. The University of Queensland, Brisbane Search in Google Scholar

[21] Martínez J.D., Puy N., Murillo R., García T., Navarro M.V., Mastral A.M. 2013 Waste tyre pyrolysis – A review. Renewable and Sustainable Energy Reviews, vol 23, pp 179-213 Search in Google Scholar

[22] Babrauskas V. 2003 Ignition Handbook. Fire Science Publishers, Issaquah Search in Google Scholar

[23] Janowska G., Kucharska-Jastrząbek A., Rybiński P., Wesołek D., Wójlik I. 2010 Flammability of diene rubbers. Journal of Thermal Analysis and Calorimetry, vol 102, pp 1043-1049 Search in Google Scholar

[24] Totten G.E., De Negri V.J. 2011 Handbook of hydraulic fluid technology. CRC Press, London Search in Google Scholar

[25] Deleanu L., Georgescu C., Ciortan S., Solea L.C. 2015 Flammability of emulsions on hot surfaces. Industrial Lubrication and Tribology, vol 67, pp 434-440 Search in Google Scholar

[26] Shaw A., Epling W., McKenna C., Weckman B. 2010 Evaluation of the Ignition of Diesel Fuels on Hot Surfaces. Fire Technology, vol 46, pp 407–423 Search in Google Scholar

[27] Severy D.M., Blaisdell D.M., Kerkhoff J.F. 1974 Automotive collision fires. In: Proc. 18^th Stapp Car Crash Conf., Society of Automotive Engineers, Warrendale PA, pp. 113–199 Search in Google Scholar

[28] Lönnermark A., Kristensen P., Helltegen M., Bobert M. 2008 Fire Suppression and Structure Protection for Cargo Train Tunnels: Macadam and Hotfoam. ISTSS Search in Google Scholar

[29] White D., Beyler C.L., Fulper C., Leonard J. 1997 Flame spread on aviation fuels. Fire Safety Journal, vol 28, pp 1-31 Search in Google Scholar

[29] Hottel H.C. 1931 Radiant heat transmission between surfaces separated by non-absorbing media. Trans. ASME, vol 53, pp 265-273 Search in Google Scholar

[31] Chung B.T.F. 1972 Radiation shape factors from plane point sources. Journal of Heat Transfer, vol 94, pp 328-330 Search in Google Scholar

[32] Hansen R. 2019 Design of fire scenarios for Australian underground hard rock mines – Applying data from full-scale fire experiments. Journal of Sustainable Mining, vol 18, pp 163-173 Search in Google Scholar

[33] Babrauskas V., Grayson S.J. 1992 Heat Release in Fires. Chapman and Hall, London Search in Google Scholar

[34] Cox G. 1995 Combustion fundamentals of fire. Academic Press, London Search in Google Scholar

[35] Sparrow E.M. 1962 A new and simpler formulation for radiative angle factors. Journal of Heat Transfer, vol. 85, pp. 81-88 Search in Google Scholar

[36] Axelsson J., Van Hees P., Blomqvist P. 2002 Cable Fire in Difficultly Accessible Areas. SP Report 2002:12, Swedish National Testing and Research Institute Search in Google Scholar

[37] National Fire Protection Association 2021 NFPA 204, standard for smoke and heat venting, 2021 edn. NFPA, Quincy Search in Google Scholar