Transformer Health Monitoring Using Dissolved Gas Analysis

IF 1.4 Q2 ENGINEERING, MULTIDISCIPLINARY
C. Walker, Ahmad Y. Al Rashdan, V. Agarwal
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引用次数: 0

Abstract

As integral components of any power plant, transformers sup-ply the generated electricity to the grid. However, the trans-former’s cellulose-based paper insulation and the mineral oilin which it is immersed break down over time under stan-dard operating conditions—or more rapidly due to potentialfaults within the system. This technical brief exhibits a col-lection of diagnostic and prognostic techniques that utilitiescan adopted in lieu of labor-intense periodic preventive main-tenance routines. Furthermore, prognostic models have beenincorporated using the latest version of the Institute of Elec-trical and Electronics Engineers (IEEE) standard (IEEE StdC57.104TM-2019) for dissolved gas analysis (DGA), thusexpanding it to include estimation of the time to maintenance.Overall, four different methodologies are explained, each ofwhich aid in determining a transformer’s state of health. Thesemethodologies include the Chendong model, the IEEE C57.91-2011 thermal life consumption model, a diagnostic model forDGA, and a prognostic model for DGA that uses an autore-gressive integrated moving average (ARIMA) model. An ad-ditional improvement for estimating missing system parame-ters from monitoring data (i.e., a tool for parameter estimationutilizing Powell’s method) is presented, enabling the IEEEthermal life consumption model to benefit not only the col-laborating power plant, but also the power industry at large.
利用溶解气体分析进行变压器健康监测
作为任何发电厂的组成部分,变压器向电网提供发电。然而,在标准操作条件下,变压器的纤维素基绝缘纸和浸入其中的矿物油会随着时间的推移而分解,或者由于系统内的潜在故障而更快地分解。本技术简介展示了诊断和预后技术的集合,公用事业公司可以采用这些技术来代替劳动密集型的定期预防性维护程序。此外,使用最新版本的电气和电子工程师协会(IEEE)标准(IEEE StdC57.104TM-2019)纳入了预测模型,用于溶解气体分析(DGA),从而将其扩展到包括维护时间的估计。总的来说,解释了四种不同的方法,每一种方法都有助于确定变压器的健康状态。这些方法包括陈东模型、IEEE C57.91-2011热寿命消耗模型、诊断模型forDGA和使用自回归综合移动平均(ARIMA)模型的DGA预测模型。提出了从监测数据中估计缺失系统参数的额外改进(即利用Powell方法进行参数估计的工具),使ieee热寿命消耗模型不仅有利于合作电厂,而且有利于整个电力工业。
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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来源期刊
CiteScore
2.90
自引率
9.50%
发文量
18
审稿时长
9 weeks
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