LArcNet: Lightweight Neural Network for Real-Time Series AC Arc Fault Detection

Detecting series ac arc faults in diverse residential loads is challenging due to variations in load characteristics and noise. While traditional artificial intelligence-based algorithms can be effective, they often involve high computational complexity, limiting their real-time implementation on resource-constrained edge devices. This article introduces lightweight arc fault detection network (LArcNet), a novel, lightweight, and rapid-response algorithm for series ac arc fault detection. LArcNet combines a teacher–student knowledge distillation approach with an efficient convolutional neural network architecture to achieve high accuracy with minimal computational demand. This streamlined yet robust design makes LArcNet ideally suited for resource-constrained embedded systems, achieving an arc fault detection accuracy of 99.31%. The model is optimized and converted into TensorFlow Lite format to reduce size and latency, enabling deployment on low-power embedded devices such as the Raspberry Pi and the STM32 microcontrollers. Test results demonstrate LArcNet's inference times of just 0.20 ms on the Raspberry Pi 4B and 3 ms on the STM32H743ZI2, surpassing other leading models in operational speed while maintaining competitive accuracy in arc fault detection.

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Publication Details

Journal
IEEE Open Journal of Industry Applications
Published
2024-12-25
DOI
https://doi.org/10.1109/ojia.2024.3522364
Citations
3
Primary Topic
Electrical Fault Detection and Protection
Type
article
Field-Weighted Citation Impact
0.63
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article

LArcNet: Lightweight Neural Network for Real-Time Series AC Arc Fault Detection

Tiefu Zhao, Yao Wang, Kamal Chandra Paul, Chen Chen
3 citations
IEEE Open Journal of Industry Applications
Electrical Fault Detection and Protection
0.63
article

LArcNet: Lightweight Neural Network for Real-Time Series AC Arc Fault Detection

Tiefu Zhao, Yao Wang, Kamal Chandra Paul, Chen Chen
article en
3 citations

Abstract

Detecting series ac arc faults in diverse residential loads is challenging due to variations in load characteristics and noise. While traditional artificial intelligence-based algorithms can be effective, they often involve high computational complexity, limiting their real-time implementation on resource-constrained edge devices. This article introduces lightweight arc fault detection network (LArcNet), a novel, lightweight, and rapid-response algorithm for series ac arc fault detection. LArcNet combines a teacher–student knowledge distillation approach with an efficient convolutional neural network architecture to achieve high accuracy with minimal computational demand. This streamlined yet robust design makes LArcNet ideally suited for resource-constrained embedded systems, achieving an arc fault detection accuracy of 99.31%. The model is optimized and converted into TensorFlow Lite format to reduce size and latency, enabling deployment on low-power embedded devices such as the Raspberry Pi and the STM32 microcontrollers. Test results demonstrate LArcNet's inference times of just 0.20 ms on the Raspberry Pi 4B and 3 ms on the STM32H743ZI2, surpassing other leading models in operational speed while maintaining competitive accuracy in arc fault detection.

IEEE Open Journal of Industry ApplicationsVol. 6
University of North Carolina at Charlotte (US), University of Central Florida (US), Hebei University of Technology (CN)
Climate action
Openalex Percentile: Top 30%
Electrical Fault Detection and Protection
0.63
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