Applying Model Studies to Support the Monitoring of Methane Hazard during the Process of Underground Coal Mining

IF 1.9 Q3 ENGINEERING, INDUSTRIAL Production Engineering Archives Pub Date : 2023-08-28 DOI:10.30657/pea.2023.29.37
M. Tutak, Jarosław Brodny, P. Małkowski, Wes Grebski
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Abstract

Abstract The process of underground mining is one of the most complex and hazardous activities. In order to maintain the continuity and efficiency of this process, it is necessary to take measures to reduce this hazard. The paper addresses this issue by presenting a developed methodology for using model studies and numerical simulations to support the process of monitoring methane hazards. Its basis is the developed model of the region of underground mining exploitation along with the ventilation phenomena occurring in it. To develop it, the ANSYS Fluent program was used, based on the finite volume method classified as computational fluid mechanics. The model reflects both the geometries and physical and chemical phenomena occurring in the studied area, as well as the auxiliary ventilation equipment used during operation. The research was conducted for two variants of methane emissions from goaf zones, the first of which concerned the actual state of the mining area, and the second of which concerned increased methane emissions from these goaf zones. The purpose of the study was to determine the distribution of methane concentrations in the most dangerous part of the studied area, which is the intersection of the longwall and the tailgate, as well as the distribution of ventilation air flow velocities affecting them. The studies for both variants made it possible to determine places particularly exposed to the occurrence of dangerous concentrations of methane in this region. The methodology developed represent a new approach to studying the impact of methane emissions from goaf zones into mine workings.
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应用模型研究支持煤矿井下开采过程中甲烷危害监测
地下开采过程是最复杂、最危险的开采活动之一。为了保持这一过程的连续性和效率,有必要采取措施减少这一危害。本文通过提出一种使用模型研究和数值模拟来支持监测甲烷危害过程的开发方法来解决这一问题。其依据是地下开采区域及其通风现象的发达模型。基于计算流体力学的有限体积法,利用ANSYS Fluent软件进行了数值模拟。该模型既反映了研究区域内发生的几何和物理化学现象,也反映了运行过程中使用的辅助通风设备。研究了采空区甲烷排放的两种变化,第一种变化与采空区的实际状态有关,第二种变化与采空区甲烷排放的增加有关。研究的目的是确定研究区域中最危险的部分,即长壁和尾门的交汇处的甲烷浓度分布,以及影响它们的通风气流速度的分布。对这两种变体的研究使得确定该地区特别容易出现危险甲烷浓度的地方成为可能。所开发的方法代表了研究采空区甲烷排放对矿山工作影响的新途径。
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来源期刊
Production Engineering Archives
Production Engineering Archives Engineering-Industrial and Manufacturing Engineering
CiteScore
6.10
自引率
13.00%
发文量
50
审稿时长
6 weeks
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