MTL-TBARNet: a multi-task learning method for transmission line fault diagnosis based on adaptive threshold residual denoising and residual attention mechanisms

Abstract Rapid and accurate fault diagnosis is essential for ensuring the stable operation of transmission systems. However, the effectiveness of data-driven models in practical applications is greatly constrained by sample scarcity and noise interference. Furthermore, most current methods rely on separate models for fault classification and location, which fail to exploit the inherent correlation between these tasks. In view of this, we propose a multi-task fault diagnosis framework called MTL-TBARNet which integrates the multi-task learning integrated transformer, bidirectional gated recurrent unit (BIGRU), adaptive threshold residual denoising (ATRD), and residual attention mechanism (RAM) network. This framework integrates ATRD and the RAM, and utilizes the BIGRU and the Transformer encoder to perform classification tasks and location tasks respectively. The ATRD realizes threshold-based denoising by dynamically calculating thresholds and fuses the original input features through residual connections, which can retain the effective information of the original input while eliminating noise. The RAM can focus on the key features of small samples and alleviate the overfitting problem by using the Dropout layer. The experimental verification results show that in the face of different numbers of small samples and scenarios with high noise levels, the MTL-TBARNet exhibits better accuracy and stronger stability compared with the comparison algorithms. Meanwhile, the experimental results verify that the designed ATRD has excellent denoising performance and the designed RAM possesses outstanding performance in the context of small samples.

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Publication Details

Journal
Measurement Science and Technology
Published
2025-03-24
DOI
https://doi.org/10.1088/1361-6501/adc473
Citations
2
Primary Topic
Power Systems Fault Detection
Type
article
Field-Weighted Citation Impact
2.43
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article

MTL-TBARNet: a multi-task learning method for transmission line fault diagnosis based on adaptive threshold residual denoising and residual attention mechanisms

Q Wang, Zhen Jia, Liangliang WANG, Zhaoheng Liu et al.
2 citations
Measurement Science and Technology
Power Systems Fault Detection
2.43
article

MTL-TBARNet: a multi-task learning method for transmission line fault diagnosis based on adaptive threshold residual denoising and residual attention mechanisms

Q Wang, Zhen Jia, Liangliang WANG, Zhaoheng Liu, Peng Xu
article en
2 citations

Abstract

Abstract Rapid and accurate fault diagnosis is essential for ensuring the stable operation of transmission systems. However, the effectiveness of data-driven models in practical applications is greatly constrained by sample scarcity and noise interference. Furthermore, most current methods rely on separate models for fault classification and location, which fail to exploit the inherent correlation between these tasks. In view of this, we propose a multi-task fault diagnosis framework called MTL-TBARNet which integrates the multi-task learning integrated transformer, bidirectional gated recurrent unit (BIGRU), adaptive threshold residual denoising (ATRD), and residual attention mechanism (RAM) network. This framework integrates ATRD and the RAM, and utilizes the BIGRU and the Transformer encoder to perform classification tasks and location tasks respectively. The ATRD realizes threshold-based denoising by dynamically calculating thresholds and fuses the original input features through residual connections, which can retain the effective information of the original input while eliminating noise. The RAM can focus on the key features of small samples and alleviate the overfitting problem by using the Dropout layer. The experimental verification results show that in the face of different numbers of small samples and scenarios with high noise levels, the MTL-TBARNet exhibits better accuracy and stronger stability compared with the comparison algorithms. Meanwhile, the experimental results verify that the designed ATRD has excellent denoising performance and the designed RAM possesses outstanding performance in the context of small samples.

Measurement Science and TechnologyVol. 36(4)
Xi'an University of Architecture and Technology (CN), Northwestern Polytechnical University (CN)
Openalex Percentile: Top 13%
Power Systems Fault Detection
2.43
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