Effective fault module localization in substation critical equipment: an improved ant colony optimization and back propagation neural network approach

Author:

Wang Wei1,Zhang Jianfei1,Wang Sai1ORCID,Chen Xuewei1

Affiliation:

1. Tangshan Power Supply Company State Grid Jibei Electric Power Co., Ltd Tangshan China

Abstract

AbstractThe rapid development of substations has increased the demand for accurate and fast fault prediction systems. In order to achieve rapid localization and autonomous decision‐making of fault modules and types in substations, the article proposes a fault autonomous localization algorithm based on improved ant colony optimization (IACO) and back propagation neural network (BPNN). The fault data of the substation secondary equipment for training and testing the BPNN model is based on the actual operating equipment of the substation, which can significantly improve the reliability of the model results. In addition, the IACO is used to globally optimize the weights and thresholds of BPNN, and the number of hidden layer nodes in BPNN was analyzed to further improve the accuracy of the established fault prediction algorithm. The test results show that the fault prediction accuracy of the BPNN model optimized by IACO is 93.67%, which is significantly improved compared to the traditional BPNN and BPNN with ant colony optimization method (with an accuracy of 82.98% and 91.04%). The above results effectively demonstrate the high accuracy and effectiveness of the established prediction algorithm in processing data and locating faults, which can improve the maintenance and operational efficiency of substations.

Publisher

Institution of Engineering and Technology (IET)

Subject

General Engineering,Energy Engineering and Power Technology,Software

Reference20 articles.

1. The limiting information capacity of a neuronal link

2. Research on generator fault transient stability prediction method based on artificial neural network;Hui L.;Comput. Technol. Autom.,2022

3. Application of ARIMA algorithm to industrial controller fault prediction;Jian F.;Autom. Instrum.,2022

4. Research on power metering data‐driven power fault prediction method;Microcomput. Appl.,2022

5. Research on wind turbine fault diagnosis based on generative adversarial neural network with association analysis;Hao Yu;J. Shenyang Eng. Inst. (Nat. Sci. Edn.).,2022

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