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高校地质学报 ›› 2026, Vol. 32 ›› Issue (05): 689-704.DOI: 10.16108/j.issn1006-7493.2025054

• • 上一篇    下一篇

“感—传—算—控”一体化架构下的煤矿安全开采光纤监测研究与应用

程 刚1,2,3,郭雨苗1,曹德胜1*,施 斌2,蔡田露3   

  1. 1. 应急管理大学 计算机科学与信息安全学院,北京 101601;
    2. 南京大学 地球科学与工程学院,南京 210023;
    3. 江苏省地质调查研究院 自然资源部地裂缝地质灾害重点实验室,南京 210028
  • 出版日期:2026-10-20 发布日期:2026-10-20

Research and Application of Fiber Optic Monitoring for Safe Coal Mine Exploitation under an Integrated “Sensing-ransmission-Computation-Control” Architecture

CHENG Gang1,2,3,GUO Yumiao1,CAO Desheng1*,SHI Bin2,CAI Tianlu3   

  1. 1. School of Computer Science and Information Security, University of Emergency Management, Beijing 101601, China;
    2. School of Earth Sciences and Engineering, Nanjing University, Nanjing 210023, China;
    3. Geological Survey of Jiangsu Province Key Laboratory of Earth Fissures Geological Disaster, Ministry of Natural Resources, Nanjing 210028, China
  • Online:2026-10-20 Published:2026-10-20

摘要: 煤炭作为中国基础能源,长期以来在保障能源安全与社会稳定发展中具有不可替代的地位。由于中国煤层地质条件
复杂,随着开采深度与规模的不断扩大,对煤矿深部开采中的冒顶、突水、冲击地压等地质灾害安全监测提出了新要求。该研究首先阐述了当前煤矿安全监测领域各类主要研究方法的优缺点。其次对比分析了主流DFOS技术原理与性能优缺点,从感测光缆(器)选型和监测系统工作流程两大方面,介绍了基于DFOS的煤矿安全开采监测流程;并详细介绍DFOS技术在煤矿采动覆岩变形监测、井筒变形监测、煤矿温度与火灾监测、采空区地层变形监测和煤矿微震监测等方面的应用实效。最后,基于DFOS技术提出“感—传—算—控”一体化技术体系,并从多源感知、可靠传输、高效计算和风险防控四个维度对该技术体系进行系统性剖析。在此基础上,开展了朱仙庄矿注浆帷幕工程实践应用,验证了一体化技术体系在复杂地质条件下帷幕稳定性的实时监测预警与风险防控方面的可行性与准确性,为中国煤矿全生命周期安全提供了可推广的技术应用示范。

关键词: “感—传—算—控”一体化, 煤矿安全监测, 分布式光纤感测技术, 时空连续信息感知, 智能监测预警

Abstract:

As China’s foundational energy source, coal has long played an irreplaceable role in safeguarding national energy security and supporting social stability. Given China’s complex coal‑seam geological conditions, the continuous expansion of mining depth and scale has raised new requirements for the safety monitoring of deep‑mining geological hazards, including roof collapse, water inrush, and rock burst. This study first elaborates on the strengths and limitations of major research methods currently adopted in the field of coal‑mine safety monitoring. Subsequently, it presents a comparative analysis of the principles  and performance characteristics of mainstream Distributed Fiber Optic Sensing (DFOS) technologies. On this basis, the workflow for DFOS‑enabled coal‑mine safety monitoring is outlined, with emphasis on two critical links: sensing cable (sensor) selection and monitoring system workflows. The study further illustrates the practical performances of DFOS technology across five typical application scenarios: mining‑induced overburden deformation monitoring, shaft deformation monitoring, coal‑mine temperature and fire hazard monitoring, goaf‑stratum deformation monitoring, and coal‑mine microseismic monitoring. Finally, an integrated “Sensing-Transmission-Computation-Control” technical system is proposed based on DFOS technology. This system is systematically analyzed from four dimensions: multi‑source sensing, reliable transmission, efficient computation, and risk control. Guided by this framework, a field application was implemented in the grouting curtain project at the Zhuxianzhuang Coal Mine. The results varify the feasibility and accuracy of this integrated system for the real-time monitoring, early warning, and risk control of curtain stability under complex geological conditions. This work offers a replicable technical reference for guaranteeing full‑lifecycle safety within China’s coal‑mining sector.

Key words: integrated “Sensing-Transmission-Computation-Control”, coal-mine safety monitoring, distributed fiber optic
sensing,
spatio-temporal continuous information perception, intelligent monitoring and early warning

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