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SHEN Yunge, WANG Deming. Numerical Simulation of Smoke Disaster Caused by Mine Roadway Fire Based on FDS[J]. Safety in Coal Mines, 2020, 51(2): 183-187.
Citation: SHEN Yunge, WANG Deming. Numerical Simulation of Smoke Disaster Caused by Mine Roadway Fire Based on FDS[J]. Safety in Coal Mines, 2020, 51(2): 183-187.

Numerical Simulation of Smoke Disaster Caused by Mine Roadway Fire Based on FDS

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  • Published Date: February 19, 2020
  • Smoke flow is affected by various factors during the roadway fire. To study the law of smoke diffusion and disasters during fire period, the numerical simulation for L-type roadway based on FDS is carried out. Refer to the wind speed specified in the Safety Regulations for Coal Mines, flue gas spread, temperature and CO concentration changes in mine fires at wind speed range of 0.25 m/s to 2.1 m/s under 1.92 MW and 2.7 MW fire source power are simulated. The results show that the fire source power and the wind speed have great influence on the smoke diffusion, and the leeward side exhaust velocity is positively correlated with the fire source heat release rate and wind speed. Due to the existence of critical wind speed, the heat release rate has a different relationship with the backflow of smoke in the windward side. When the wind speed is too low, the flue gas diffusion velocity on the windward side depends on the power of the large fire source; when the wind speed increases to the critical wind speed, the influence of the fire source power on the flue gas reverse flow velocity and distance decreases or even disappears. The temperature of the roadway is consistent with the influence of the fire source power and the wind speed. The temperature decreases from the fire zone of the roadway to both sides, but the temperature of the large fire source power tunnel is higher than that of the low fire source power.
  • [1]
    王德明.矿井通风与安全[M].徐州:中国矿业大学出版社,2007:306-307.
    [2]
    王德明.矿井火灾学[M].徐州:中国矿业大学出版社, 2008:245-246.
    [3]
    邢震.基于FDS的矿井外因火灾数值模拟研究[D].西安:西安科技大学,2013.
    [4]
    林龙沅,陈海焱,颜翠平,等.矿井火灾对巷道通风的影响研究[J].金属矿山,2011,40(5):158-160.
    [5]
    王德明,程远平,周福宝,等.矿井火灾火源燃烧特性的实验研究[J].中国矿业大学学报,2002,31(1):30.
    [6]
    史文芳.矿井火灾烟气流动及温度分布规律数值模拟研究[D].太原:太原理工大学,2013.
    [7]
    蒋军成,王省身.矿井竖巷内火灾燃烧模拟实验研究[J].火灾科学,1998(1):55-59.
    [8]
    张洪杰,丁玉洁,姜学鹏.阻塞物对矿井火灾临界风速影响研究[J].安全与环境学报,2016(6):44-49.
    [9]
    Oka Yasushi,Atkinson Graham T. Control of smokeflow in tunnel fires[J]. Fire Safety Journal,1995, 25 (4): 305.
    [10]
    INOKAErandaperera, CHARLESD Litton. Impact of air velocity on the detection of fires in conveyor belt haulageways[J]. Fire Technology, 2012,48(2):405.
    [11]
    周福宝,王德明.矿井火灾烟流滚退距离的数值模拟[J].中国矿业大学学报,2004,33(5):499-503.
    [12]
    齐庆杰,王欢,董子文,等.矿井胶带运输巷火灾蔓延规律的数值模拟研究[J].中国安全科学学报,2016,26(10):36-41.
    [13]
    苏墨,王飞.矿井胶带火灾模拟与逃生影响因素分析研究[J].中国矿业,2017,26(7):168-172.
    [14]
    杨凯,吕淑然,王超群.基于FDS的木成涧煤矿井下火灾数值模拟[J].安全,2013,34(2):4-7.
    [15]
    许秦坤,周煜琴,林朋,等.基于FDS某铅锌矿矿井火灾数值模拟[J].玻璃,2013,40(12):28-32.
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