New correlation features for dissolved gas analysis based transformer fault diagnosis based on the maximal information coefficient

Abstract Online monitoring of gases dissolved in transformer oil is widely applied. Improving the performance of dissolved gas analysis (DGA)‐based fault diagnosis methods by exploring new features of time‐series data has become an appealing topic. In this study, a new type of correlation features b...

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Main Authors: Yongliang Liang, Zhongyi Zhang, Ke‐Jun Li, Yu‐Chuan Li
Format: Article
Language:English
Published: Wiley 2022-04-01
Series:High Voltage
Online Access:https://doi.org/10.1049/hve2.12136
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author Yongliang Liang
Zhongyi Zhang
Ke‐Jun Li
Yu‐Chuan Li
author_facet Yongliang Liang
Zhongyi Zhang
Ke‐Jun Li
Yu‐Chuan Li
author_sort Yongliang Liang
collection DOAJ
description Abstract Online monitoring of gases dissolved in transformer oil is widely applied. Improving the performance of dissolved gas analysis (DGA)‐based fault diagnosis methods by exploring new features of time‐series data has become an appealing topic. In this study, a new type of correlation features between characteristic gases was extracted from time‐series data based on the maximal information coefficient (MIC), and a fuzzy inference system was established. After the introduction of the principle of the MIC and a method for calculating the MIC‐based correlation features, the dominant symptom features that can be used to classify fault types were extracted through the receiver operating characteristic curve. Then, fuzzy rules were learnt, and a fuzzy inference system was designed. In addition, to improve the feasibility of the method, the Newton interpolation method was used for adaptation to the existing sampling cycle. The diagnostic results of the test data show that the proposed method has excellent performance and outperforms some prevailing traditional rule‐based methods as well as some artificial intelligent methods. The results also show that by exploring new correlation features from time‐series data based on the MIC, the performance of DGA‐based methods can be improved.
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spelling doaj.art-4b584815c99e400380dcaf5191b8e6792022-12-22T02:45:42ZengWileyHigh Voltage2397-72642022-04-017230231310.1049/hve2.12136New correlation features for dissolved gas analysis based transformer fault diagnosis based on the maximal information coefficientYongliang Liang0Zhongyi Zhang1Ke‐Jun Li2Yu‐Chuan Li3School of Electrical Engineering Shandong University Jinan ChinaSchool of Electrical Engineering Shandong University Jinan ChinaSchool of Electrical Engineering Shandong University Jinan ChinaDepartment of Electrical & Electronic Engineering Imperial College London South Kensington Campus London UKAbstract Online monitoring of gases dissolved in transformer oil is widely applied. Improving the performance of dissolved gas analysis (DGA)‐based fault diagnosis methods by exploring new features of time‐series data has become an appealing topic. In this study, a new type of correlation features between characteristic gases was extracted from time‐series data based on the maximal information coefficient (MIC), and a fuzzy inference system was established. After the introduction of the principle of the MIC and a method for calculating the MIC‐based correlation features, the dominant symptom features that can be used to classify fault types were extracted through the receiver operating characteristic curve. Then, fuzzy rules were learnt, and a fuzzy inference system was designed. In addition, to improve the feasibility of the method, the Newton interpolation method was used for adaptation to the existing sampling cycle. The diagnostic results of the test data show that the proposed method has excellent performance and outperforms some prevailing traditional rule‐based methods as well as some artificial intelligent methods. The results also show that by exploring new correlation features from time‐series data based on the MIC, the performance of DGA‐based methods can be improved.https://doi.org/10.1049/hve2.12136
spellingShingle Yongliang Liang
Zhongyi Zhang
Ke‐Jun Li
Yu‐Chuan Li
New correlation features for dissolved gas analysis based transformer fault diagnosis based on the maximal information coefficient
High Voltage
title New correlation features for dissolved gas analysis based transformer fault diagnosis based on the maximal information coefficient
title_full New correlation features for dissolved gas analysis based transformer fault diagnosis based on the maximal information coefficient
title_fullStr New correlation features for dissolved gas analysis based transformer fault diagnosis based on the maximal information coefficient
title_full_unstemmed New correlation features for dissolved gas analysis based transformer fault diagnosis based on the maximal information coefficient
title_short New correlation features for dissolved gas analysis based transformer fault diagnosis based on the maximal information coefficient
title_sort new correlation features for dissolved gas analysis based transformer fault diagnosis based on the maximal information coefficient
url https://doi.org/10.1049/hve2.12136
work_keys_str_mv AT yongliangliang newcorrelationfeaturesfordissolvedgasanalysisbasedtransformerfaultdiagnosisbasedonthemaximalinformationcoefficient
AT zhongyizhang newcorrelationfeaturesfordissolvedgasanalysisbasedtransformerfaultdiagnosisbasedonthemaximalinformationcoefficient
AT kejunli newcorrelationfeaturesfordissolvedgasanalysisbasedtransformerfaultdiagnosisbasedonthemaximalinformationcoefficient
AT yuchuanli newcorrelationfeaturesfordissolvedgasanalysisbasedtransformerfaultdiagnosisbasedonthemaximalinformationcoefficient