Fault Location and Restoration of Microgrids via Particle Swarm Optimization

This aim of this work was to develop an integrated fault location and restoration approach for microgrids (MGs). The work contains two parts. Part I presents the fault location algorithm, and Part II shows the restoration algorithm. The proposed algorithms are implemented by particle swarm optimizat...

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Main Authors: Wei-Chen Lin, Wei-Tzer Huang, Kai-Chao Yao, Hong-Ting Chen, Chun-Chiang Ma
Format: Article
Language:English
Published: MDPI AG 2021-07-01
Series:Applied Sciences
Subjects:
Online Access:https://www.mdpi.com/2076-3417/11/15/7036
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author Wei-Chen Lin
Wei-Tzer Huang
Kai-Chao Yao
Hong-Ting Chen
Chun-Chiang Ma
author_facet Wei-Chen Lin
Wei-Tzer Huang
Kai-Chao Yao
Hong-Ting Chen
Chun-Chiang Ma
author_sort Wei-Chen Lin
collection DOAJ
description This aim of this work was to develop an integrated fault location and restoration approach for microgrids (MGs). The work contains two parts. Part I presents the fault location algorithm, and Part II shows the restoration algorithm. The proposed algorithms are implemented by particle swarm optimization (PSO). The fault location algorithm is based on network connection matrices, which are the modifications of bus-injection to branch-current and branch-current to bus-voltage (<i>BCBV</i>) matrices, to form the new system topology. The backward/forward sweep approach is used for the prefault power flow analysis. After the occurrence of a fault, the voltage variation at each bus is calculated by using the Z<sub>bus</sub> modification algorithm to modify Z<sub>bus</sub>. Subsequently, the voltage error matrix is computed to search for the fault section by using PSO. After the allocation of the fault section, the multi-objective function is implemented by PSO for optimal restoration with its constraints. Finally, the IEEE 37-bus test system connected to distributed generations was utilized as the sample system for a series simulation and analysis. The outcomes demonstrated that the proposed optimal algorithm can effectively solve fault location and restoration problems in MGs.
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spelling doaj.art-a232c15bc8a1490c80e503d08d338f302023-11-22T05:23:27ZengMDPI AGApplied Sciences2076-34172021-07-011115703610.3390/app11157036Fault Location and Restoration of Microgrids via Particle Swarm OptimizationWei-Chen Lin0Wei-Tzer Huang1Kai-Chao Yao2Hong-Ting Chen3Chun-Chiang Ma4Department of Industrial Education and Technology, National Changhua University of Education, No. 2, Shida Rd., Changhua 500, TaiwanDepartment of Industrial Education and Technology, National Changhua University of Education, No. 2, Shida Rd., Changhua 500, TaiwanDepartment of Industrial Education and Technology, National Changhua University of Education, No. 2, Shida Rd., Changhua 500, TaiwanDepartment of Industrial Education and Technology, National Changhua University of Education, No. 2, Shida Rd., Changhua 500, TaiwanDepartment of Industrial Education and Technology, National Changhua University of Education, No. 2, Shida Rd., Changhua 500, TaiwanThis aim of this work was to develop an integrated fault location and restoration approach for microgrids (MGs). The work contains two parts. Part I presents the fault location algorithm, and Part II shows the restoration algorithm. The proposed algorithms are implemented by particle swarm optimization (PSO). The fault location algorithm is based on network connection matrices, which are the modifications of bus-injection to branch-current and branch-current to bus-voltage (<i>BCBV</i>) matrices, to form the new system topology. The backward/forward sweep approach is used for the prefault power flow analysis. After the occurrence of a fault, the voltage variation at each bus is calculated by using the Z<sub>bus</sub> modification algorithm to modify Z<sub>bus</sub>. Subsequently, the voltage error matrix is computed to search for the fault section by using PSO. After the allocation of the fault section, the multi-objective function is implemented by PSO for optimal restoration with its constraints. Finally, the IEEE 37-bus test system connected to distributed generations was utilized as the sample system for a series simulation and analysis. The outcomes demonstrated that the proposed optimal algorithm can effectively solve fault location and restoration problems in MGs.https://www.mdpi.com/2076-3417/11/15/7036fault locationservice restorationparticle swam optimizationmicrogridpower flowshort-circuit fault
spellingShingle Wei-Chen Lin
Wei-Tzer Huang
Kai-Chao Yao
Hong-Ting Chen
Chun-Chiang Ma
Fault Location and Restoration of Microgrids via Particle Swarm Optimization
Applied Sciences
fault location
service restoration
particle swam optimization
microgrid
power flow
short-circuit fault
title Fault Location and Restoration of Microgrids via Particle Swarm Optimization
title_full Fault Location and Restoration of Microgrids via Particle Swarm Optimization
title_fullStr Fault Location and Restoration of Microgrids via Particle Swarm Optimization
title_full_unstemmed Fault Location and Restoration of Microgrids via Particle Swarm Optimization
title_short Fault Location and Restoration of Microgrids via Particle Swarm Optimization
title_sort fault location and restoration of microgrids via particle swarm optimization
topic fault location
service restoration
particle swam optimization
microgrid
power flow
short-circuit fault
url https://www.mdpi.com/2076-3417/11/15/7036
work_keys_str_mv AT weichenlin faultlocationandrestorationofmicrogridsviaparticleswarmoptimization
AT weitzerhuang faultlocationandrestorationofmicrogridsviaparticleswarmoptimization
AT kaichaoyao faultlocationandrestorationofmicrogridsviaparticleswarmoptimization
AT hongtingchen faultlocationandrestorationofmicrogridsviaparticleswarmoptimization
AT chunchiangma faultlocationandrestorationofmicrogridsviaparticleswarmoptimization