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中国煤炭自燃火灾及防治技术研究现状与发展趋势:综述

Research Status and Development Trend of Coal Spontaneous Combustion Fire and Prevention Technology in China: A Review.

作者信息

Liu Yin, Wen Hu, Chen Changming, Guo Jun, Jin Yongfei, Zheng Xuezhao, Cheng Xiaojiao, Li Dailin

机构信息

College of Safety Science and Engineering, Xi'an University of Science and Technology, Xi'an, 710054 Shaanxi, P. R. China.

Key Laboratory of Western Mine and Hazard Prevention, Ministry of Education of China, Xi'an, 710054 Shaanxi, P. R. China.

出版信息

ACS Omega. 2024 May 9;9(20):21727-21750. doi: 10.1021/acsomega.4c00844. eCollection 2024 May 21.

DOI:10.1021/acsomega.4c00844
PMID:38799345
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC11112570/
Abstract

Coal seam spontaneous combustion fire is not only one of the main forms of the five major mine disasters, but also the main cause of secondary disasters such as mine gas and coal dust explosions. In recent years, with the advancement of mechanization, automation, and intelligent mine construction, spontaneous coal fires in mines have presented a series of new characteristics, and the prevention and control of spontaneous coal fires are also facing new challenges. On the basis of literature research, this paper summarizes and discusses the basic theory of coal spontaneous combustion, monitoring and early warning methods, and prevention and control technology, summarizes the development process of coal spontaneous combustion theory, reviews the research progress of coal spontaneous combustion monitoring and early warning methods and prevention and control technologies, and discusses the future development direction. In terms of the basic theory of spontaneous combustion of coal, from the initial hypothesis of spontaneous combustion of multielement coal to the unified understanding of coal-oxygen composite theory, a complete set of theoretical systems have been established, and a lot of macro and micro studies have been carried out and analyzed from multiple perspectives. In terms of coal spontaneous combustion monitoring and early warning, from the initial single indicator gas early warning to the construction of gas index system, the hierarchical early warning system is studied, and gradually tends to be perfect. With the development of automation and intelligence technology, the monitoring of coal spontaneous combustion disasters has also formed a new monitoring technology with beam tube monitoring as the traditional method, distributed optical fiber, wireless AD hoc network temperature measurement, and a coal spontaneous combustion multiparameter wireless monitoring system. In terms of fire prevention and control, the traditional "prevention" and "treatment" have changed to the "prevention-control-extinction" technical system based on hierarchical early warning, and the focus has gradually shifted to "prevention", and a large number of antifire materials have been developed, including blocking materials and fire-fighting materials. However, the precise inhibition and control of coal spontaneous combustion disasters, the evolution model of coal spontaneous combustion under the conditions of multifactor coupling in the field, the reliability and stability of intelligent monitoring system, the noncontact detection method of fire source, and the collaborative adaptation of multiple prevention and control techniques are not yet clear. In the future development, the mechanism of spontaneous coal combustion and its evolution process and other basic theories should be deeply studied. On the basis of the mechanism optimization early warning method of spontaneous coal combustion process, flame retardant and fire prevention materials should be targeted and developed. On the basis of the spatiotemporal evolution of spontaneous coal combustion, monitoring and monitoring system equipment with high speed, high precision, and high stability should be developed, which should accelerate the realization of accurate dynamic sensing and intelligent early warning of coal spontaneous combustion, and form an active hierarchical collaborative prevention and control system based on the trinity of "prevention-control-extinction" of coal spontaneous combustion. The conclusions and prospects of this paper can be used for reference in the future research direction, and have a certain role in promoting the exchange of research results of coal science and technology workers.

摘要

煤层自燃火灾不仅是煤矿五大灾害的主要形式之一,也是矿井瓦斯、煤尘爆炸等次生灾害的主要诱因。近年来,随着机械化、自动化和智能化矿井建设的推进,煤矿自燃火灾呈现出一系列新特点,自燃火灾防治也面临新挑战。本文在文献研究的基础上,总结探讨了煤炭自燃的基本理论、监测预警方法及防治技术,概述了煤炭自燃理论的发展历程,回顾了煤炭自燃监测预警方法及防治技术的研究进展,并探讨了未来发展方向。在煤炭自燃基本理论方面,从多元煤自燃的初始假设到煤氧复合理论的统一认识,建立了一套完整的理论体系,并从多个角度开展了大量宏观和微观研究与分析。在煤炭自燃监测预警方面,从最初的单一指标气体预警到气体指标体系构建,研究了分级预警系统,且日趋完善。随着自动化和智能化技术的发展,煤矿自燃灾害监测也形成了以束管监测为传统手段、分布式光纤、无线自组网测温以及煤炭自燃多参数无线监测系统等新的监测技术。在火灾防治方面,传统的“防”与“治”转变为基于分级预警的“预防 - 控制 - 灭火”技术体系,重点逐渐向“预防”转移,研发了大量防灭火材料,包括封堵材料和灭火材料。然而,煤炭自燃灾害的精准抑制与控制、现场多因素耦合条件下煤炭自燃的演化模型、智能监测系统的可靠性与稳定性、火源的非接触探测方法以及多种防治技术的协同适配等尚不明晰。在未来发展中,应深入研究煤炭自燃机理及其演化过程等基础理论。基于煤炭自燃过程机理优化预警方法,有针对性地研发阻燃与防火材料。基于煤炭自燃时空演化,研发高速、高精度、高稳定性的监测及监测系统设备,加快实现煤炭自燃的精准动态感知与智能预警,形成基于煤炭自燃“预防 - 控制 - 灭火”三位一体的主动分级协同防治体系。本文的结论与展望可为未来研究方向提供参考,对推动煤炭科技工作者研究成果的交流具有一定作用。

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