DCAMamba: Mamba-based Rapid Response DC Arc Fault Detection

Fuente: arXiv
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Hauptverfasser: Wang, Lukun, Zhao, Ruxue, Feng, Wancheng, Sun, Pu, Tian, Chunpeng
Format: Preprint
Veröffentlicht: 2025
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author Wang, Lukun
Zhao, Ruxue
Feng, Wancheng
Sun, Pu
Tian, Chunpeng
author_facet Wang, Lukun
Zhao, Ruxue
Feng, Wancheng
Sun, Pu
Tian, Chunpeng
contents In electrical equipment, even minor contact issues can lead to arc faults. Traditional methods often struggle to balance the accuracy and rapid response required for effective arc fault detection. To address this challenge, we introduce DCAMamba, a novel framework for arc fault detection. Specifically, DCAMamba is built upon a state-space model (SSM) and utilizes a hardware-aware parallel algorithm, designed in a cyclic mode using the Mamba architecture. To meet the dual demands of high accuracy and fast response in arc fault detection, we have refined the original Mamba model and incorporated a Feature Amplification Strategy (FAS), a simple yet effective method that enhances the model's ability to interpret arc fault data. Experimental results show that DCAMamba, with FAS, achieves a 12$\%$ improvement in accuracy over the original Mamba, while maintaining an inference time of only 1.87 milliseconds. These results highlight the significant potential of DCAMamba as a future backbone for signal processing. Our code will be made open-source after peer review.
format Preprint
id arxiv_https___arxiv_org_abs_2503_01264
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle DCAMamba: Mamba-based Rapid Response DC Arc Fault Detection
Wang, Lukun
Zhao, Ruxue
Feng, Wancheng
Sun, Pu
Tian, Chunpeng
Computational Engineering, Finance, and Science
In electrical equipment, even minor contact issues can lead to arc faults. Traditional methods often struggle to balance the accuracy and rapid response required for effective arc fault detection. To address this challenge, we introduce DCAMamba, a novel framework for arc fault detection. Specifically, DCAMamba is built upon a state-space model (SSM) and utilizes a hardware-aware parallel algorithm, designed in a cyclic mode using the Mamba architecture. To meet the dual demands of high accuracy and fast response in arc fault detection, we have refined the original Mamba model and incorporated a Feature Amplification Strategy (FAS), a simple yet effective method that enhances the model's ability to interpret arc fault data. Experimental results show that DCAMamba, with FAS, achieves a 12$\%$ improvement in accuracy over the original Mamba, while maintaining an inference time of only 1.87 milliseconds. These results highlight the significant potential of DCAMamba as a future backbone for signal processing. Our code will be made open-source after peer review.
title DCAMamba: Mamba-based Rapid Response DC Arc Fault Detection
topic Computational Engineering, Finance, and Science
url https://arxiv.org/abs/2503.01264