Intelligent Wireless Monitoring System for Circuit Breaker Fault Detection

This paper proposes an intelligent wireless monitoring system integrating grey wolf optimization and support vector machine for real-time fault detection in low-voltage circuit breakers. A wireless measurement network collects vibration signals from circuit breakers for feature extraction. An optimized support vector machine model using an improved grey wolf optimization algorithm is developed for fault diagnosis. Experiments demonstrated a 93.2% diagnosis accuracy for the model on single faults. The integrated monitoring system achieved 0.74 AUC, 0.35 F1 score, and 2.8 seconds response time, outperforming other systems. The wireless intelligent monitoring framework enabled efficient fault detection and maintenance for circuit breakers. However, limitations include small dataset size and lack of validation on real breakers. Further research on model optimization and testing on field data will be valuable. In conclusion, this paper proposed and validated an intelligent wireless monitoring system integrating grey wolf optimization and support vector machine for real-time low-voltage circuit breaker fault detection.

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Publication Details

Journal
Tehnicki vjesnik - Technical Gazette
Published
2024-10-31
DOI
https://doi.org/10.17559/tv-20231020001041
Primary Topic
Smart Grid and Power Systems
Type
article
Field-Weighted Citation Impact
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article

Intelligent Wireless Monitoring System for Circuit Breaker Fault Detection

Tehnicki vjesnik - Technical Gazette
Smart Grid and Power Systems
article

Intelligent Wireless Monitoring System for Circuit Breaker Fault Detection

article en

Abstract

This paper proposes an intelligent wireless monitoring system integrating grey wolf optimization and support vector machine for real-time fault detection in low-voltage circuit breakers. A wireless measurement network collects vibration signals from circuit breakers for feature extraction. An optimized support vector machine model using an improved grey wolf optimization algorithm is developed for fault diagnosis. Experiments demonstrated a 93.2% diagnosis accuracy for the model on single faults. The integrated monitoring system achieved 0.74 AUC, 0.35 F1 score, and 2.8 seconds response time, outperforming other systems. The wireless intelligent monitoring framework enabled efficient fault detection and maintenance for circuit breakers. However, limitations include small dataset size and lack of validation on real breakers. Further research on model optimization and testing on field data will be valuable. In conclusion, this paper proposed and validated an intelligent wireless monitoring system integrating grey wolf optimization and support vector machine for real-time low-voltage circuit breaker fault detection.

Tehnicki vjesnik - Technical GazetteVol. 31(6)
Shanghai Electric Apparatus Research Institute (CN)
Openalex Percentile: Top 83%
Smart Grid and Power Systems
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