先进的地下矿井随需通风诊断系统

Wisam Farjow, Mohamed Daoud, Xavier N Fernando
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引用次数: 5

摘要

从中国和哥伦比亚的矿井坍塌到智利的矿工被困,最近世界范围内发生了一系列矿难事件,在这些事件之后,强大可靠的地下通信网络的重要性再次变得明显起来。一个可靠的井下通信网络不仅有利于矿井的日常作业,而且有助于挽救许多生命。然而,由于矿山的特殊性,设计可靠、稳健的地下网络一直是一个难题。这些极端和恶劣的矿山条件需要特殊的通信系统,如漏电馈线,通过地球(TTE)和无线网状网络。虽然TTE用于灾后恢复和定位被困矿工,无线网络用于感知矿井状况,但泄漏馈线系统可以被认为是日常操作中最常用的通信系统。它承载语音、视频和数据;然而,漏电馈电系统不可靠,问题难以诊断。本文介绍了一种新型的先进的诊断系统,该系统具有随需通风的能力,可以增强泄漏馈线;该系统不仅可以监测连接到漏水馈线的所有地下节点。它还将允许从地面上的控制室进行远程编程,并在基础设施能够自我监控的意义上监测泄漏馈线的损失。按需通风是该系统的另一个优点,因为它将根据连接在泄漏馈线上的传感器收集的数据来操作地下矿井通风机。这将提供巨大的电力节省,因为通风风扇约占矿井电力消耗的60%。本文介绍了该系统,并给出了仿真结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Advanced diagnostic system with ventilation on demand for underground mines
After a series of recent world wide mine tragedies, ranging from collapsing mines in China and Colombia to trapped miners in Chile, the importance of robust and reliable underground communication networks has become evident once again. A reliable underground communication network in mines will not only facilitate the day to day operations but will also help save many lives. However, designing reliable and robust underground network has always been a challenge due to the special nature of mines. These extreme and harsh mine conditions require special communication systems like leaky feeders, Through The Earth (TTE), and wireless mesh networks. While TTE is used in case of disaster recovery and locating trapped miners and wireless mesh is used for sensing the mine conditions, the leaky feeder system can be considered the most popular communication system used for daily operations. It carries voice, video, and data; however, the leaky feeder system is not reliable and problems are hard to diagnose. This paper describes a novel advanced diagnostic system with a ventilation on demand capability that enhances leaky feeders; this system will not only allow monitoring of all underground nodes connected to the leaky feeder. It will also allow remote programming from the control room above ground and monitoring the losses in the leaky feeder in the sense that the infrastructure will be able to monitor itself. Ventilation on demand is another advantage of this system as it will operate the underground mine ventilation fans depending on data collected from sensors attached to the leaky feeder. This will provide huge power savings since ventilation fans are responsible for about 60% of power consumption in mines. The system is described here along with simulation results proving its performance.
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