Partial Discharge (PD) Signal Recognition in Fiber-Optic Acoustic Emission Using a Lightweight Attention Mechanism (ECA)

Partial discharge (PD) is a primary cause of insulation degradation in electrical equipment. Consequently, the investigation of PD signals is of paramount importance for enhancing the safe operation of power devices. This paper delves into the principles of four typical PD signals and designs experiments to simulate four common PD mechanisms: corona discharge, spark discharge, floating discharge, and surface discharge. Utilizing the latest fiber-optic acoustic emission system, we construct an experimental platform for PD signal acquisition, capturing acoustic emission signals under various voltage gradients. These signals are then denoised using a wavelet threshold algorithm. Subsequently, the denoised acoustic emission signals are segmented into training set samples. Based on the ResNet model, we incorporate an ELU activation function to enhance the model and introduce both CA and ECA attention mechanisms. Through extensive comparative experiments, we select the most effective model. The experimental results demonstrate that the ELU activation function significantly improves the model’s recognition performance. Additionally, the ECA attention module, added after stage13, exhibits excellent recognition capabilities for the four typical PD signals, achieving an accuracy rate of 98%.

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Publication Details

Journal
IEEE Access
Published
2025-01-01
DOI
https://doi.org/10.1109/access.2025.3582870
Primary Topic
Advanced Fiber Optic Sensors
Type
article
Field-Weighted Citation Impact
0.00

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article

Partial Discharge (PD) Signal Recognition in Fiber-Optic Acoustic Emission Using a Lightweight Attention Mechanism (ECA)

Yang Feng, Peng Jiang, Dong Yuhan, Liu Guole
IEEE Access
Advanced Fiber Optic Sensors
article

Partial Discharge (PD) Signal Recognition in Fiber-Optic Acoustic Emission Using a Lightweight Attention Mechanism (ECA)

Yang Feng, Peng Jiang, Dong Yuhan, Liu Guole
article en

Abstract

Partial discharge (PD) is a primary cause of insulation degradation in electrical equipment. Consequently, the investigation of PD signals is of paramount importance for enhancing the safe operation of power devices. This paper delves into the principles of four typical PD signals and designs experiments to simulate four common PD mechanisms: corona discharge, spark discharge, floating discharge, and surface discharge. Utilizing the latest fiber-optic acoustic emission system, we construct an experimental platform for PD signal acquisition, capturing acoustic emission signals under various voltage gradients. These signals are then denoised using a wavelet threshold algorithm. Subsequently, the denoised acoustic emission signals are segmented into training set samples. Based on the ResNet model, we incorporate an ELU activation function to enhance the model and introduce both CA and ECA attention mechanisms. Through extensive comparative experiments, we select the most effective model. The experimental results demonstrate that the ELU activation function significantly improves the model’s recognition performance. Additionally, the ECA attention module, added after stage13, exhibits excellent recognition capabilities for the four typical PD signals, achieving an accuracy rate of 98%.

IEEE AccessVol. 13
Northeast Petroleum University (CN)
Natural Science Foundation of Heilongjiang Province
Affordable and clean energy
Openalex Percentile: Top 87%
Advanced Fiber Optic Sensors
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Partial Discharge (PD) Signal Recognition in Fiber-Optic Acoustic Emission Using a Lightweight Attention Mechanism (ECA) — Yang Feng, Peng Jiang, et al. · IEEE Access (2025) | TGRS Research Map | TGRS