Thermal Accelerated Aging Methods for Magnet Wire: A Review

Lukas L. Korcak, D. F. Kavanagh
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引用次数: 9

Abstract

This paper focuses on accelerated aging methods for magnet wire. Reliability of electrical devices such as coils, motors, relays, solenoids and transformers is heavily dependent on the Electrical Insulation System (EIS). Accelerated aging methods are used to rapidly simulate the conditions in real life, which is typically years (20,000 hours) depending on the operating conditions. The purpose of accelerated aging is to bring lifetime of an EIS to hours, days or weeks. Shortening the lifetime of an EIS to such an extent, allows for the study of the insulation materials behavior as well as investigate ways to estimate the remaining useful life (RUL) for the purpose of predictive maintenance. Unexpected failures in operation processes, where redundancy is not present, can lead to high economical losses, machine downtime and often health and safety risks. Conditions, under which thermal aging methods are generally reported in the literature, typically neglect other factors, owing to the sheer complexity and interdependence of the multifaceted aging phenomena. This paper examines some existing thermal aging tests, which are currently used to obtain data for enamel degradation in order to try to better understand of how the thermal stresses degrade the EIS. Separation of these stresses, which the EIS operate under, can yield a better understanding of how each of the Thermal, the Electrical, the Ambient and the Mechanical (TEAM) stresses behave.
磁线热加速老化方法综述
本文主要研究了电磁线的加速老化方法。诸如线圈、电机、继电器、螺线管和变压器等电气设备的可靠性在很大程度上依赖于电气绝缘系统(EIS)。加速老化方法用于快速模拟现实生活中的条件,根据操作条件,通常为年(20,000小时)。加速老化的目的是将环境影响系统的寿命缩短到几小时、几天或几周。将EIS的使用寿命缩短到这样的程度,可以研究绝缘材料的行为,并研究估计剩余使用寿命(RUL)的方法,以进行预测性维护。在没有冗余的情况下,操作过程中的意外故障可能导致巨大的经济损失、机器停机时间,通常还会带来健康和安全风险。由于多方面老化现象的复杂性和相互依赖性,在文献中普遍报道热老化方法的条件下,通常忽略了其他因素。本文考察了一些现有的热老化试验,这些试验目前用于获得牙釉质降解的数据,以便更好地了解热应力如何降解EIS。EIS在这些应力下工作,分离这些应力可以更好地理解热、电、环境和机械(TEAM)应力的行为。
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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