Equipment monitoring for temperature related failures using thermography cameras

Y. Wang, T. Hazel, Ronny Hjornevik, Oyvind Fjeld
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引用次数: 2

Abstract

The requirement of protecting critical infrastructure such as electrical, oil and gas to prevent catastrophic failure is imperative for maintaining the functions of today's society. The U.S. government is putting in place programs and laws such as NERC [12] and FERC [13] to ensure that these critical infrastructures have monitoring solutions. Traditional monitoring methods require measurements of preselected points and sometimes can only be done once a while. The proposed method is to use a thermography camera to remotely measure temperatures. A camera can provide 24/7 monitoring and understanding of equipment performance over time. This information allows for scheduled maintenance and shut down. A temperature failure point can also be spotted and measured remotely without someone on site. This paper describes the thermal characterization and calibration process developed to turn a standard long wave infrared (LWIR) camera into a thermography camera. Thermography camera is capable of reading absolute temperatures remotely from the image. The factors which can affect temperature accuracy and methods developed to mitigate these factors are also described in this paper. The lab and field test results showed temperature accuracy was achieved by customer requirements. This solution has been chosen by Norwegian electrical substations, and its case study is included.
使用热成像摄像机监测与温度有关的故障
保护电力、石油和天然气等关键基础设施以防止灾难性故障的要求对于维持当今社会的功能是必不可少的。美国政府正在制定NERC[12]和FERC[13]等计划和法律,以确保这些关键基础设施拥有监控解决方案。传统的监测方法需要测量预先选定的点,有时只能做一次。提出的方法是使用热像仪远程测量温度。摄像头可以提供24/7全天候监控和了解设备性能。该信息允许定期维护和关闭。温度故障点也可以在没有人在场的情况下远程发现和测量。本文描述了将标准长波红外(LWIR)相机转变为热成像相机的热表征和校准过程。热成像仪能够从图像中读取绝对温度。本文还介绍了影响温度精度的因素以及为减轻这些因素而开发的方法。实验室和现场测试结果表明,温度精度达到了客户的要求。该解决方案已被挪威变电站选择,并包括其案例研究。
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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