Improving Real-Time Methane Monitoring in Longwall Coal Mines Through System Response Characterization of a Multi-Nodal Methane Detection Network

B. Cappellini
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Abstract

Methane released from coal during underground mining operations imposes a significant threat to the workers safety and consequently limits production. This paper introduces a method for the monitoring of methane emissions that are released during longwall coal mining operations. Furthermore, it describes the methodology used to test and develop the system’s response characteristics for improved measurement accuracy. The Methane Watchdog System (MWS) is a multi-nodal network of sensors currently under development to improve the safety and productivity during mining operations. The MWS consists of 10 compact sampling units designed to be integrated within the current roof support equipment of mines. Each unit contains an array of sensors to continuously monitor the environmental conditions which include methane concentration, temperature, pressure, and relative humidity. Reduced one-dimensional (1-D) modeling studies provided a useful tool to simulate the longwall mining environment. From the 1-D studies, multiple scenarios were constructed to generate temporal methane distributions that were the result of ventilation and production patterns. Model results were extracted from the proposed MWS sampling locations and used to demonstrate its usefulness and effectiveness within the laboratory setting. The resulting outputs from the system were then used to develop a signal reconstruction technique, which effectively sharpened response times and improved real time measurement accuracy.
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基于多节点甲烷检测网络的系统响应特性改进长壁煤矿甲烷实时监测
煤在地下开采过程中释放的甲烷对工人的安全造成了严重威胁,从而限制了生产。本文介绍了一种长壁煤矿开采过程中甲烷排放的监测方法。此外,它还描述了用于测试和开发系统响应特性以提高测量精度的方法。甲烷监测系统(MWS)是一个多节点传感器网络,目前正在开发中,旨在提高采矿作业期间的安全性和生产率。MWS由10个紧凑的采样单元组成,旨在集成在当前矿山的顶板支护设备中。每个单元都包含一系列传感器,以连续监测环境条件,包括甲烷浓度、温度、压力和相对湿度。简化一维(1-D)建模研究为模拟长壁开采环境提供了一个有用的工具。从一维研究中,构建了多个场景来生成通风和生产模式导致的甲烷时间分布。从建议的MWS采样位置提取模型结果,并用于在实验室环境中证明其有用性和有效性。然后,该系统的输出结果被用于开发信号重建技术,该技术有效地缩短了响应时间,提高了实时测量精度。
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