Analyses and prevention of coal spontaneous combustion risk in gobs of coal mine during withdrawal period

References

• Bhattacharjee S, Roy P, Ghosh S, Misra S, Obaidat MS. 2012. Wireless sensor network-based fire detection, alarming, monitoring and prevention system for Bord-and-Pillar coal mines. J Syst Software. 85(3):571–581.
   Google Scholar
• Chen A, Hou SH. 2012. Comprehensive fire prevention and control technology for fully mechanized top coal caving mining face in easy spontaneous combustion seam during face equipment withdrawn period. Coal Sci Technol. 9:45–47 + 51.
   Google Scholar
• Cheng WM, Hu XM, Xie J, Zhao YY. 2017. An intelligent gel designed to control the spontaneous combustion of coal: Fire prevention and extinguishing properties. Fuel. 210:826–835.
   Google Scholar
• Gulyaeva T, Arikan F. 2017. Statistical discrimination of global post-seismic ionosphere effects under geomagnetic quiet and storm conditions. Geomat Natural Hazard Risk. 8(2):509–524.
   Google Scholar
• Hao MH, Wei ZY, Lu GL. 2012. Study on rational ventilation and fire prevention technology of fully mechanized top coal caving mining face during powered supports removing. Coal Sci Technol. 6:62–65.
   Google Scholar
• Jennifer MKO, Erika RN, Max LH, James CH, Mark AE, Joseph E, et al. 2018. Gas emissions, tars, and secondary minerals at the Ruth Mullins and tiptop coal mine fires. Int J Coal Geol. 195:304–316.
   Google Scholar
• Jin YF, Guo J, Wen H. 2015. Experimental study on the high temperature lean oxygen oxidation combustion characteristic parameters of coal spontaneous combustion. J China Coal Soc. 40(3):596–602.
   Google Scholar
• Li L, Chen JC, Jiang DY. 2016. Experimental study on temporal variation of high temperature region and index gas of coal spontaneous combustion. J China Coal Soc. 41(2):444–450.
   Google Scholar
• Li L, Qin B, Ma D, Zhuo H, Liang H, Gao A. 2018. Unique spatial methane distribution caused by spontaneous coal combustion in coal mine goafs: an experimental study. Process Safe Environ Protect. 116:199–207.
   Google Scholar
• Liu W, Qin Y. 2017a. A quantitative approach to evaluate risks of spontaneous combustion in longwall gobs based on CO emissions at upper corner. Fuel. 210:359–370.
   Google Scholar
• Liu W, Qin YP, Yang XB. 2014. Experimental study for impact of volatile matter on spontaneous combustion characteristics of coal. J China Coal Soc. 39(5):891–896.
   Google Scholar
• Liu W, Qin YP. 2017b. Multi-physics coupling model of coal spontaneous combustion in longwall gob area based on moving coordinates. Fuel. 188:553–566.
   Google Scholar
• Mishra RK, Bahuguna PP, Singh VK. 2011. Detection of coal mine fire in Jharia coal field using landsat-7 ETM + data. Int J Coal Geol. 86(1):73–78.
   Google Scholar
• Oliveira MLS, da Boit K, Pacheco F, Teixeira EC, Schneider IL, Crissien TJ, Pinto DC, Oyaga RM, Silva LFO. 2018. Multifaceted processes controlling the distribution of hazardous compounds in the spontaneous combustion of coal and the effect of these compounds on human health. Environ Res. 160:562–567.
   Google Scholar
• Peña B, Bartolomé C, Gil A. 2017. Analysis of thermal resistance evolution of ash deposits during co-firing of coal with biomass and coal mine waste residues. Fuel. 194:357–367.
   Google Scholar
• Peña B, Pallarés J, Bartolomé C, Herce C. 2018. Experimental study on the effects of co-firing coal mine waste residues with coal in PF swirl burners. Energy. 157:45–53.
   Google Scholar
• Reisen F, Gillett R, Choi J, Fisher G, Torre P. 2017. Characteristics of an open-cut coal mine fire pollution event. Atmos Environ. 151:140.
   Google Scholar
• Ren WX, Guo Q, Wang ZF. 2016. Application of foam-gel technology for coal spontaneous combustion suppression in coal mines. Nat Hazards. 84(2):1207–1218.
   Google Scholar
• Ren WX, Guo Q, Zuo BZ, Wang ZF. 2016. Design and application of device to add powdered gelling agent to pipeline system for fire prevention in coal mines. J Loss Prevent Process Indus. 41:147–153.
   Google Scholar
• Ren WX, Wang DM. 2012. A new method for reducing the prevalence of pneumoconiosis among coal miners: foam technology for dust control. J. Occup. Environ. Hyg. 9(4):D77–D83.
   Google Scholar
• Ren WX, Wang ZF, Guo Q. 2015. Application of foam-gel technique to control co exposure generated during spontaneous combustion of coal in coal mines. J. Occup. Environ. Hyg. 1545:9624.
   Google Scholar
• Ren WX, Wu BW, Wang DM. 2009. Study on the fire prevention technology of high gassy and easy spontaneous combustion super large underhand mining face. J Mining Safe Eng. 26(2):198–202.
   Google Scholar
• Shi Q, Qin B, Liang H, Gao Y, Bi Q, Qu B. 2018. Effects of igneous intrusions on the structure and spontaneous combustion propensity of coal: a case study of bituminous coal in daxing mine, China. Fuel. 216:181–189.
   Google Scholar
• Song LS, Hao YX. 2008. Comprehensive fire prevention and control technology during dismantling supports in fully-mechanized top coal caving face. J Xi’an Univ Sci Technol. 4:634–637.
   Google Scholar
• Wang DM. 2010. Mine Fires. Xuzhou: China University of Mining & Technology Press.
   Google Scholar
• Wang DM, Xin HH, Qi XY, Dou GL, Zhong XX. 2014. Mechanism and relationship of elementary reaction in spontaneous combustion of coal: the coal oxidation kinetics theory and application. J China Coal Soc. 39(8):1667–1674.
   Google Scholar
• Wen H, Cheng B, Zhai XW. 2014. Technology of spontaneous combustion prevention and control during withdrawing period in lower layered coal mining face. Coal Sci Technol. 4:54–56 + 87.
   Google Scholar
• Xie H, Chun Y, Liu Z, Cheng L. 2002. Drawing back hydraulic powered support from coal mining face on mine fire with local ventilation flow control. Coal Sci Technol. 11:26–28.
   Google Scholar
• Ye Q, Wang GGX, Jia Z, Zheng C. 2017. Experimental study on the influence of wall heat effect on gas explosion and its propagation. Appl Thermal Eng. 118:392–397.
   Google Scholar
• Yu T. 2014. Control mechanism and technology for integrated disaster of gas and coal spontaneous combustion in gob. Hefei: University of Science and Technology of China; pp. 9–21.
   Google Scholar
• Zhang C, Ti ZY, Li ZX. 2012. Loading stress field of goaf and the coupling with other fields. J Yangtze River Sci Res Inst. 29(3):50–54.
   Google Scholar
• Zhang RL, Yang YL, Ma ZL. 1998. Computer simulation in spontaneous-combustion gob’s air flowing field, temperature field and heat-pressure field. J Jiaozuo Inst Technol. 17(4):253–257.
   Google Scholar
• Zhang Y, Lim S, Sharples JJ. 2016. Modelling spatial patterns of wildfire occurrence in south-eastern Australia. Geomat Natural Hazard Risk. 7(6):1800–1816.
   Google Scholar
• Zhou FB. 2012. Study on the coexistence of gas and coal spontaneous combustion (I): disaster mechanism. J China Coal Soc. 37(5):843–849.
   Google Scholar
• Zhou PL. 2017. Research on the spatiotemporal evolvement of coal oxidation heating laws in gob. Xuzhou: University of Science and Technology Beijing.
   Google Scholar