Expanding the capabilities of wireless condition monitoring sensors into the containment of pressurized water reactors

C. Kiger, B. Shumaker, W. S. Johnson, H. Hashemian
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Abstract

Aging plants and reduced workforces are causing commercial nuclear power reactors to limit the extent of their predictive maintenance programs to only critical to safety and critical to operation systems. Some sites are even forced into living with a reactive maintenance strategy for all but the most critical systems. This typically leads to significant expense through costly downtime and component unavailability. Advancements in wireless technology have resulted in the implementation of measurement devices on some important systems that have alleviated the condition monitoring and testing burden on maintenance personnel. Through research and development (R&D) sponsored by the Department of Energy (DOE) Small Business Innovation Research (SBIR) program, a wireless condition monitoring application has been identified inside the containment of a pressurized water reactor (PWR) that can benefit from the introduction of wireless technology. The application that has been selected is the use of wireless vibration sensors to monitor the condition of containment cooling fans. The host utility for this project is the Arkansas Nuclear One (ANO) power generating station. Due to the location of the fans within the containment building, maintenance personnel are prevented from manually collecting vibration data frequently enough (e.g., monthly) to determine the health of the equipment. Through the use of wireless sensors, data can be collected once a day to provide a more complete picture of the fans' health with advanced warning of a failing component. This paper will document the efforts of this project to deploy a wireless vibration system at ANO.
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将无线状态监测传感器的功能扩展到压水堆的安全壳中
老化的工厂和减少的劳动力导致商业核反应堆将其预测性维护计划的范围限制在对安全和操作系统至关重要的范围内。有些站点甚至被迫对除最关键系统外的所有系统采用被动维护策略。这通常会通过代价高昂的停机时间和组件不可用而导致巨大的费用。随着无线技术的发展,一些重要的系统中已经安装了测量设备,从而减轻了维护人员的状态监测和测试负担。通过由能源部小企业创新研究(SBIR)项目资助的研究与开发(R&D),已经确定了一种可以从引入无线技术中受益的压水反应堆(PWR)安全壳内的无线状态监测应用。所选择的应用是使用无线振动传感器来监测安全壳冷却风扇的状况。该项目的主机公用事业是阿肯色核能一号(ANO)发电站。由于风机位于安全壳建筑内,维护人员无法频繁(例如每月)手动收集振动数据以确定设备的健康状况。通过使用无线传感器,每天可以收集一次数据,以提供更全面的风扇健康状况,并提前警告故障组件。本文将记录该项目为在ANO部署无线振动系统所做的努力。
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