Online Monitoring of Electric Power Box Using Waveguide Sensors

Jaykumar Fultariya, N. Raja, K. Balasubramaniam
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Abstract

Majority of the industrial and domestic fire accidents occur due to electric short circuits. Hence, it is imperative to monitor the condition of electric power box to facilitate preventive maintenance. The key reasons for power box failure are overheating, tripping, and arcing/sparking at the electric joints. This paper reports on the online condition monitoring of electric power box using the waveguide sensing technology. The critical components of the power box are monitored, namely; Miniature Circuit Breaker (MCB), Solid State Relay (SSR), and Contactor. A pair of wire waveguides is designed to monitor overheating as well as the occurrence of tripping in the MCB. While one waveguide functions as an active ultrasound temperature sensor, the other acts as a passive acoustic emission based arcing sensor. During the overheating experiments, the ultrasound sensor precisely measures the temperature gradient along multiple points on the sub-components, with a minimum gauge length of 10–15mm. The perturbation caused due to MCB tripping is successfully captured by the passive acoustic emission sensor and the location of tripping is determined. Both the overheating temperature and tripping signature are detected by the waveguide transducer system. This work has potential application in industrial and commercial establishments to ensure improved reliability and workplace safety.
基于波导传感器的电源箱在线监测
大多数工业和家庭火灾事故都是由电路短路引起的。因此,对电源箱的状态进行监测,便于预防性维护是十分必要的。电源箱故障的主要原因是过热、跳闸和电气接头的电弧/火花。本文报道了利用波导传感技术对电源箱进行在线状态监测的方法。对电源箱的关键部件进行监控,即;微型断路器(MCB),固态继电器(SSR)和接触器。一对导线波导被设计用来监测过热以及MCB中跳闸的发生。其中一个波导作为主动超声温度传感器,另一个作为被动声发射电弧传感器。在过热实验中,超声波传感器精确测量子部件上多个点的温度梯度,最小测量长度为10-15mm。被动式声发射传感器成功捕获了MCB脱扣引起的扰动,并确定了脱扣的位置。通过波导换能器系统检测过热温度和脱扣信号。这项工作有可能应用于工业和商业机构,以确保提高可靠性和工作场所的安全性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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