Detecting and Locating Short-Circuit Faults in Electrical Mesh Networks

This paper presents a method for detecting, classifying, and locating short-circuit faults in meshed electrical networks using Artificial Neural Networks (ANNs). The proposed approach is applied to a simulated 220 kV Congolese transmission line model developed in MATLAB/SIMULINK. The system uses voltage and current data as input, which are preprocessed through normalization, and is trained using a supervised backpropagation algorithm within a multilayer perceptron architecture. Designed for developing countries, where real-time fault visualization is often limited by the absence of dispatching centers and budgetary constraints, this solution offers a low-cost, autonomous alternative. It can integrate fault localization technologies, such as GPS or fiber optics. The results demonstrate high accuracy, with a mean square error of 2.3001e−17 for fault detection and 3.5313e−18 for fault classification and localization.

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Publication Details

Journal
Energy and Power Engineering
Published
2025-01-01
DOI
https://doi.org/10.4236/epe.2025.176007
Citations
5
Primary Topic
Power Systems Fault Detection
Type
article
Field-Weighted Citation Impact
6.07
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article

Detecting and Locating Short-Circuit Faults in Electrical Mesh Networks

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5 citations
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Power Systems Fault Detection
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article

Detecting and Locating Short-Circuit Faults in Electrical Mesh Networks

Anedi Oko Ganongo, Mathurin Gogom, Rodolphe Gomba, Nianga-Apila, Gilbert Ganga
article en
5 citations

Abstract

This paper presents a method for detecting, classifying, and locating short-circuit faults in meshed electrical networks using Artificial Neural Networks (ANNs). The proposed approach is applied to a simulated 220 kV Congolese transmission line model developed in MATLAB/SIMULINK. The system uses voltage and current data as input, which are preprocessed through normalization, and is trained using a supervised backpropagation algorithm within a multilayer perceptron architecture. Designed for developing countries, where real-time fault visualization is often limited by the absence of dispatching centers and budgetary constraints, this solution offers a low-cost, autonomous alternative. It can integrate fault localization technologies, such as GPS or fiber optics. The results demonstrate high accuracy, with a mean square error of 2.3001e−17 for fault detection and 3.5313e−18 for fault classification and localization.

Energy and Power EngineeringVol. 17(06)
Marien Ngouabi University (CG)
Climate action
Openalex Percentile: Top 4%
Power Systems Fault Detection
6.07
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