Excitation inrush current identification method based on CNN-BiLSTM

Due to improvements in transformer core material processes, the accuracy of traditional excitation inrush current detection methods has gradually decreased, leading to issues with incorrect operation of transformer differential protection. To address this problem, a CNN-BiLSTM-based excitation inrush current detection model has been proposed. First, various transformer simulation models were constructed using the PSCAD simulation platform, and instantaneous current data were collected from these models to form the dataset for the detection model. Next, the CNN-BiLSTM detection model was developed and trained on the MATLAB platform. Finally, comparative experiments were conducted using different models. The results indicate that the CNN-BiLSTM neural network achieves higher accuracy in identifying excitation inrush currents, as well as fault currents, compared to other fault detection methods. This demonstrates the model’s superior generalization performance and fitting capability.

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Publication Details

Published
2024-09-20
DOI
https://doi.org/10.1109/epee63731.2024.10875416
Primary Topic
Non-Destructive Testing Techniques
Type
article
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article

Excitation inrush current identification method based on CNN-BiLSTM

Hongfeng Zhao, Jian Wang, Jing Yang, Chuang Gao
Non-Destructive Testing Techniques
article

Excitation inrush current identification method based on CNN-BiLSTM

Hongfeng Zhao, Jian Wang, Jing Yang, Chuang Gao
article en

Abstract

Due to improvements in transformer core material processes, the accuracy of traditional excitation inrush current detection methods has gradually decreased, leading to issues with incorrect operation of transformer differential protection. To address this problem, a CNN-BiLSTM-based excitation inrush current detection model has been proposed. First, various transformer simulation models were constructed using the PSCAD simulation platform, and instantaneous current data were collected from these models to form the dataset for the detection model. Next, the CNN-BiLSTM detection model was developed and trained on the MATLAB platform. Finally, comparative experiments were conducted using different models. The results indicate that the CNN-BiLSTM neural network achieves higher accuracy in identifying excitation inrush currents, as well as fault currents, compared to other fault detection methods. This demonstrates the model’s superior generalization performance and fitting capability.

Inner Mongolia Electric Power (China) (CN), Xinjiang University (CN)
Openalex Percentile: Top 73%
Non-Destructive Testing Techniques
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Excitation inrush current identification method based on CNN-BiLSTM — Hongfeng Zhao, Jian Wang, et al. · (2024) | TGRS Research Map | TGRS