Research on Fault Identification of Renewable Energy Plant Outgoing Lines Based on MARS-Net and DT-MobileNetV3

To address the challenges of fault identification in renewable energy plant outgoing lines within “double-high” power systems, this paper proposes a novel parallel dual-channel method that fuses time-series signals and images. On one hand, the fault current signals from the renewable energy plant outgoing lines are acquired and fed into a constructed Multi-scale Adaptive Residual Shrinkage Network (MARS-Net) for one-dimensional temporal feature extraction. On the other hand, one-dimensional fault data is transformed into two-dimensional images via a Relative Angle Matrix (RAM). The generated 2D image data is then input into a network incorporating Dynamic Convolution (D-Conv) and a Transformer-enhanced MobileNetV3 (DT-MobileNetV3) for spatial feature extraction. Finally, feature fusion of the one-dimensional and two-dimensional information is performed to achieve fault type identification. To comprehensively evaluate the method’s performance, this paper designs experiments including noise interference tests, multi-network comparative experiments, ablation studies, comparisons of different 2D transformation methods and data loss. The results demonstrate that the proposed method possesses significant advantages in terms of identification accuracy, noise immunity, data loss tolerance, and generalization capability.

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Publication Details

Journal
Energies
Published
2026-03-11
DOI
https://doi.org/10.3390/en19061404
Primary Topic
Power Systems Fault Detection
Type
article
Field-Weighted Citation Impact
0.00

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Research on Fault Identification of Renewable Energy Plant Outgoing Lines Based on MARS-Net and DT-MobileNetV3

Dingbang Ren, Chao Wu, ChangJian Feng, Hao Wu
Energies
Power Systems Fault Detection
article

Research on Fault Identification of Renewable Energy Plant Outgoing Lines Based on MARS-Net and DT-MobileNetV3

Dingbang Ren, Chao Wu, ChangJian Feng, Hao Wu
article en

Abstract

To address the challenges of fault identification in renewable energy plant outgoing lines within “double-high” power systems, this paper proposes a novel parallel dual-channel method that fuses time-series signals and images. On one hand, the fault current signals from the renewable energy plant outgoing lines are acquired and fed into a constructed Multi-scale Adaptive Residual Shrinkage Network (MARS-Net) for one-dimensional temporal feature extraction. On the other hand, one-dimensional fault data is transformed into two-dimensional images via a Relative Angle Matrix (RAM). The generated 2D image data is then input into a network incorporating Dynamic Convolution (D-Conv) and a Transformer-enhanced MobileNetV3 (DT-MobileNetV3) for spatial feature extraction. Finally, feature fusion of the one-dimensional and two-dimensional information is performed to achieve fault type identification. To comprehensively evaluate the method’s performance, this paper designs experiments including noise interference tests, multi-network comparative experiments, ablation studies, comparisons of different 2D transformation methods and data loss. The results demonstrate that the proposed method possesses significant advantages in terms of identification accuracy, noise immunity, data loss tolerance, and generalization capability.

EnergiesVol. 19(6)
Sichuan University of Science and Engineering (CN)
Sichuan University of Science and Engineering, Sichuan University
Affordable and clean energy
Openalex Percentile: Top 28%
Power Systems Fault Detection
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