Line fault cause identification feature quantity preference based on quantum genetic algorithm and support vector machine

Currently, intelligent analysis methods are widely used to identify the causes of transmission line faults. However, when the number of input feature dimensions is high, issues such as feature redundancy, interference from invalid features, and overfitting in model training can arise. This paper introduces a fault cause feature selection method that integrates quantum genetic algorithms with support vector machines. By constructing a feature selection model using quantum encoding, this method utilizes quantum rotation gates and probability amplitude adjustments to efficiently search for feature subsets, thereby retaining key identification information while reducing the input dimensionality. Experiments show that this method can reduce the required feature dimensions for identifying causes of faults like lightning strikes and wind-induced biases by 52.1%, and improve classification accuracy by 3.1%. This provides more accurate and effective input feature support for improving the accuracy of fault cause identification using intelligent methods.

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Publication Details

Journal
IET conference proceedings.
Published
2026-02-19
DOI
https://doi.org/10.1049/icp.2025.3956
Primary Topic
Power Systems Fault Detection
Type
article
Field-Weighted Citation Impact
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article

Line fault cause identification feature quantity preference based on quantum genetic algorithm and support vector machine

Lie Zhang, Jiangwen Meng, Rang Li, Peng Guo
IET conference proceedings.
Power Systems Fault Detection
article

Line fault cause identification feature quantity preference based on quantum genetic algorithm and support vector machine

Lie Zhang, Jiangwen Meng, Rang Li, Peng Guo
article en

Abstract

Currently, intelligent analysis methods are widely used to identify the causes of transmission line faults. However, when the number of input feature dimensions is high, issues such as feature redundancy, interference from invalid features, and overfitting in model training can arise. This paper introduces a fault cause feature selection method that integrates quantum genetic algorithms with support vector machines. By constructing a feature selection model using quantum encoding, this method utilizes quantum rotation gates and probability amplitude adjustments to efficiently search for feature subsets, thereby retaining key identification information while reducing the input dimensionality. Experiments show that this method can reduce the required feature dimensions for identifying causes of faults like lightning strikes and wind-induced biases by 52.1%, and improve classification accuracy by 3.1%. This provides more accurate and effective input feature support for improving the accuracy of fault cause identification using intelligent methods.

IET conference proceedings.Vol. 2025(38)
North China Electric Power University (CN)
Openalex Percentile: Top 51%
Power Systems Fault Detection
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