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2012 International Symposium on Safety Science and Technology Cause and countermeasure way of rubble fires occurred after 2011 Great earthquake of Japan

机译:2012年国际安全科学技术研讨会2011年日本大地震后发生瓦砾火灾的原因和对策

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This paper seeks for cause and countermeasure way of fires of huge amount of nibble which were produced after 2011great earthquake of Japan. In 2011,we experienced many fires caused with rubbles which were produced from destroyed houses by the Great earthquake and tsunami in March11,2011, in Japan. Rubble includes various organic materials, and sometimes causes fires, which is used for fuel of power plants, or energy sources. It is very difficult to extinguish fire of such biomass fuel made from rubble in outdoor storage facilities. Here current studies for safety handling of these materials and proposed an evaluation method, is introduced, which is to use high sensitive calorimeters. And cause investigation work and countermeasure method, conducted by author is introduced. Our results regarding cause of tires are: initial of heat generation and fire are mostly by fermentation^ and then oxidation process started after micro organism dead by high temperature, up to about 60℃. High sensitive calorimeters can detect small heat generation between room temperature and 80℃,due to fermentation or other causes. This heat generation sometimes initiated a real fire even outdoor, and produced some combustible gas. With understanding this process we recommend countermeasure way against such fires, to release heat from the pile, and prevent air entrainment into the pile to stop fermentation.
机译:本文探讨了2011年日本大地震后产生的大量轻咬火的原因及对策。 2011年,我们经历了许多由瓦砾造成的火灾,这些瓦砾是由2011年3月11日日本大地震和海啸摧毁的房屋所致。瓦砾包括各种有机材料,有时会引起火灾,该火灾被用作发电厂的燃料或能源。在室外存储设施中扑灭由瓦砾制成的这种生物质燃料是非常困难的。这里介绍了目前对这些材料的安全处理的研究,并提出了一种评估方法,即使用高灵敏量热仪。并介绍了作者进行的原因调查工作及对策方法。我们关于轮胎成因的结果是:最初的发热和着火主要是通过发酵^,然后微生物在高温(高达约60℃)下死亡后才开始氧化过程。高灵敏度的热量计可以检测到室温和80℃之间由于发酵或其他原因产生的少量热量。这种热量的产生有时甚至在室外引起了一场大火,并产生了一些可燃气体。了解了此过程后,我们建议采取对策来防止此类火灾,从堆中释放热量,并防止夹带空气阻止发酵。

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