A novel partial discharge localization method for GIL based on the 3D optical signal irradiance fingerprint and bagging‐KELM

Abstract Partial discharge (PD) is one of the main reasons that endanger the safe operation of power equipment. The effective detection and localization of PD in a gas‐insulated transmission line (GIL) is essential for timely finding the insulation defects to improve maintenance efficiency. Therefor...

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Main Authors: Yiming Zang, Yong Qian, Xiaoli Zhou, Antian Xu, Gehao Sheng, Xiuchen Jiang
Format: Article
Language:English
Published: Wiley 2021-08-01
Series:IET Generation, Transmission & Distribution
Online Access:https://doi.org/10.1049/gtd2.12173
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spelling doaj-b8cb30f01ead461bb43c49fe6d408c0d2021-07-14T13:20:11ZengWileyIET Generation, Transmission & Distribution1751-86871751-86952021-08-0115152240224910.1049/gtd2.12173A novel partial discharge localization method for GIL based on the 3D optical signal irradiance fingerprint and bagging‐KELMYiming Zang0Yong Qian1Xiaoli Zhou2Antian Xu3Gehao Sheng4Xiuchen Jiang5Department of Electrical Engineering Shanghai Jiao Tong University 800 Dongchuan Road, Minhang Shanghai 200240 ChinaDepartment of Electrical Engineering Shanghai Jiao Tong University 800 Dongchuan Road, Minhang Shanghai 200240 ChinaDepartment of Light Sources and Illuminating Engineering Fudan University 220 Handan Road, Yangpu Shanghai 200433 ChinaDepartment of Light Sources and Illuminating Engineering Fudan University 220 Handan Road, Yangpu Shanghai 200433 ChinaDepartment of Electrical Engineering Shanghai Jiao Tong University 800 Dongchuan Road, Minhang Shanghai 200240 ChinaDepartment of Electrical Engineering Shanghai Jiao Tong University 800 Dongchuan Road, Minhang Shanghai 200240 ChinaAbstract Partial discharge (PD) is one of the main reasons that endanger the safe operation of power equipment. The effective detection and localization of PD in a gas‐insulated transmission line (GIL) is essential for timely finding the insulation defects to improve maintenance efficiency. Therefore, this paper proposes a method based on the three‐dimensional optical signal irradiance fingerprint and bagging‐kernel extreme learning machine (Bagging‐KELM), which introduces optical simulation into the PD localization. Using a simulation model with the same size and optical sensor arrangement as the experimental GIL, optical simulation signals emitted from different PD sources are collected. Principal component analysis is used to extract the signal features to construct optical PD fingerprints that correspond to PD source locations. This paper builds all the simulated PD fingerprints into a PD fingerprint database. Afterwards, the Bagging‐KELM is used to match PD optical fingerprints detected on site with the fingerprint database to identify the location of the PD sources. The experimental results show that the average localization error of this method is 0.93 cm, with 93.75% of the errors being less than 1.5 cm. The proposed method has better performance than the traditional KELM and BPNN, which can achieve precise PD localization in GIL.https://doi.org/10.1049/gtd2.12173
collection DOAJ
language English
format Article
sources DOAJ
author Yiming Zang
Yong Qian
Xiaoli Zhou
Antian Xu
Gehao Sheng
Xiuchen Jiang
spellingShingle Yiming Zang
Yong Qian
Xiaoli Zhou
Antian Xu
Gehao Sheng
Xiuchen Jiang
A novel partial discharge localization method for GIL based on the 3D optical signal irradiance fingerprint and bagging‐KELM
IET Generation, Transmission & Distribution
author_facet Yiming Zang
Yong Qian
Xiaoli Zhou
Antian Xu
Gehao Sheng
Xiuchen Jiang
author_sort Yiming Zang
title A novel partial discharge localization method for GIL based on the 3D optical signal irradiance fingerprint and bagging‐KELM
title_short A novel partial discharge localization method for GIL based on the 3D optical signal irradiance fingerprint and bagging‐KELM
title_full A novel partial discharge localization method for GIL based on the 3D optical signal irradiance fingerprint and bagging‐KELM
title_fullStr A novel partial discharge localization method for GIL based on the 3D optical signal irradiance fingerprint and bagging‐KELM
title_full_unstemmed A novel partial discharge localization method for GIL based on the 3D optical signal irradiance fingerprint and bagging‐KELM
title_sort novel partial discharge localization method for gil based on the 3d optical signal irradiance fingerprint and bagging‐kelm
publisher Wiley
series IET Generation, Transmission & Distribution
issn 1751-8687
1751-8695
publishDate 2021-08-01
description Abstract Partial discharge (PD) is one of the main reasons that endanger the safe operation of power equipment. The effective detection and localization of PD in a gas‐insulated transmission line (GIL) is essential for timely finding the insulation defects to improve maintenance efficiency. Therefore, this paper proposes a method based on the three‐dimensional optical signal irradiance fingerprint and bagging‐kernel extreme learning machine (Bagging‐KELM), which introduces optical simulation into the PD localization. Using a simulation model with the same size and optical sensor arrangement as the experimental GIL, optical simulation signals emitted from different PD sources are collected. Principal component analysis is used to extract the signal features to construct optical PD fingerprints that correspond to PD source locations. This paper builds all the simulated PD fingerprints into a PD fingerprint database. Afterwards, the Bagging‐KELM is used to match PD optical fingerprints detected on site with the fingerprint database to identify the location of the PD sources. The experimental results show that the average localization error of this method is 0.93 cm, with 93.75% of the errors being less than 1.5 cm. The proposed method has better performance than the traditional KELM and BPNN, which can achieve precise PD localization in GIL.
url https://doi.org/10.1049/gtd2.12173
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