Research on a Novel Fault Identification and Rapid Location Method for Low-Voltage Distribution Lines

Fault diagnosis on low-voltage distribution lines is often limited by inaccurate classification, delayed localization, and sensitivity to interference. This study develops a fault-identification and rapid-location method that combines multisource feature analysis with Internet of Things (IoT) sensing. Short-circuit, grounding, and open-circuit faults are first characterized using line measurements. A wavelet-transform and random-forest model then classifies the fault type, while an improved weighted-centroid algorithm uses data from deployed IoT sensor nodes to estimate its position. The method was evaluated in simulations and on an operating line. Across these tests, fault-identification accuracy exceeded 95%, location error remained within 5m, and response time was below 2s. These results satisfy the stated engineering requirements for fault handling on low-voltage distribution lines.

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Publication Details

Journal
International Journal of Energy
Published
2026-10-30
DOI
https://doi.org/10.54097/hdxzsf79
Primary Topic
Power Systems Fault Detection
Type
article
Field-Weighted Citation Impact
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article

Research on a Novel Fault Identification and Rapid Location Method for Low-Voltage Distribution Lines

Zongyan Xue, Ning Shao
5 links
International Journal of Energy
Power Systems Fault Detection
article

Research on a Novel Fault Identification and Rapid Location Method for Low-Voltage Distribution Lines

Zongyan Xue, Ning Shao
article en

Abstract

Fault diagnosis on low-voltage distribution lines is often limited by inaccurate classification, delayed localization, and sensitivity to interference. This study develops a fault-identification and rapid-location method that combines multisource feature analysis with Internet of Things (IoT) sensing. Short-circuit, grounding, and open-circuit faults are first characterized using line measurements. A wavelet-transform and random-forest model then classifies the fault type, while an improved weighted-centroid algorithm uses data from deployed IoT sensor nodes to estimate its position. The method was evaluated in simulations and on an operating line. Across these tests, fault-identification accuracy exceeded 95%, location error remained within 5m, and response time was below 2s. These results satisfy the stated engineering requirements for fault handling on low-voltage distribution lines.

International Journal of EnergyVol. 10(3)
Inner Mongolia Electric Power (China) (CN)
Industry, innovation and infrastructure
Openalex Percentile: Top 18%
Power Systems Fault Detection
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