An accurate power control strategy for electromagnetic rotary power controllers
Abstract With the rapid development of active distribution networks, the “petal”‐type distribution network has become the mainstream power supply structure. Power control methods for active distribution networks should be further studied to ensure the safe and reliable power supply of a distribution...
Main Authors: | , , , , , |
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Format: | Article |
Language: | English |
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Wiley
2023-08-01
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Series: | IET Generation, Transmission & Distribution |
Subjects: | |
Online Access: | https://doi.org/10.1049/gtd2.12901 |
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author | Xiangwu Yan Chen Shao Jiaoxin Jia Waseem Aslam Weifeng Peng Ruojia Yang |
author_facet | Xiangwu Yan Chen Shao Jiaoxin Jia Waseem Aslam Weifeng Peng Ruojia Yang |
author_sort | Xiangwu Yan |
collection | DOAJ |
description | Abstract With the rapid development of active distribution networks, the “petal”‐type distribution network has become the mainstream power supply structure. Power control methods for active distribution networks should be further studied to ensure the safe and reliable power supply of a distribution system. An electromagnetic rotary power flow controller (RPFC) is a feasible solution for controlling power in active distribution networks. However, when testing the effectiveness of the PQ decoupled control method for RPFC based on instantaneous reactive power theory, difficulties were encountered with the synchronous control of the rotor position angle of two rotating‐phase transformers, and the accuracy of power control was unsatisfactory. Given this condition, PQ control is improved in three ways. First, the system's periodic oscillation problem is solved via variable speed control. Second, the servo motor‐rotary phase‐shifting transformer synchronous rotation scheme, which reduces power control error and improves stability, is designed. Third, the overshoot phenomenon in power control is improved using the variable‐domain fuzzy proportional‐integral adaptive method. Experimental results show that the proposed advanced control scheme exhibits good dynamic and static performance in power control scenarios and achieves effective improvement in RPFC. |
first_indexed | 2024-03-12T18:01:01Z |
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id | doaj.art-01ad50c8895b4f2393e9296f933e574a |
institution | Directory Open Access Journal |
issn | 1751-8687 1751-8695 |
language | English |
last_indexed | 2024-03-12T18:01:01Z |
publishDate | 2023-08-01 |
publisher | Wiley |
record_format | Article |
series | IET Generation, Transmission & Distribution |
spelling | doaj.art-01ad50c8895b4f2393e9296f933e574a2023-08-02T09:58:23ZengWileyIET Generation, Transmission & Distribution1751-86871751-86952023-08-0117153524354010.1049/gtd2.12901An accurate power control strategy for electromagnetic rotary power controllersXiangwu Yan0Chen Shao1Jiaoxin Jia2Waseem Aslam3Weifeng Peng4Ruojia Yang5Key Laboratory of Distributed Energy Storage and Micro‐Grid of Hebei Province North China Electric Power University BaodingChinaKey Laboratory of Distributed Energy Storage and Micro‐Grid of Hebei Province North China Electric Power University BaodingChinaKey Laboratory of Distributed Energy Storage and Micro‐Grid of Hebei Province North China Electric Power University BaodingChinaDepartment of Electrical Engineering University of Sargodha SargodhaPakistanKey Laboratory of Distributed Energy Storage and Micro‐Grid of Hebei Province North China Electric Power University BaodingChinaKey Laboratory of Distributed Energy Storage and Micro‐Grid of Hebei Province North China Electric Power University BaodingChinaAbstract With the rapid development of active distribution networks, the “petal”‐type distribution network has become the mainstream power supply structure. Power control methods for active distribution networks should be further studied to ensure the safe and reliable power supply of a distribution system. An electromagnetic rotary power flow controller (RPFC) is a feasible solution for controlling power in active distribution networks. However, when testing the effectiveness of the PQ decoupled control method for RPFC based on instantaneous reactive power theory, difficulties were encountered with the synchronous control of the rotor position angle of two rotating‐phase transformers, and the accuracy of power control was unsatisfactory. Given this condition, PQ control is improved in three ways. First, the system's periodic oscillation problem is solved via variable speed control. Second, the servo motor‐rotary phase‐shifting transformer synchronous rotation scheme, which reduces power control error and improves stability, is designed. Third, the overshoot phenomenon in power control is improved using the variable‐domain fuzzy proportional‐integral adaptive method. Experimental results show that the proposed advanced control scheme exhibits good dynamic and static performance in power control scenarios and achieves effective improvement in RPFC.https://doi.org/10.1049/gtd2.12901active distribution networkdual rotary phase shifting transformer speed‐coordinated controlelectromagnetic rotary power flow controllerpower precision controlvariable domain fuzzy proportional‐integral control |
spellingShingle | Xiangwu Yan Chen Shao Jiaoxin Jia Waseem Aslam Weifeng Peng Ruojia Yang An accurate power control strategy for electromagnetic rotary power controllers IET Generation, Transmission & Distribution active distribution network dual rotary phase shifting transformer speed‐coordinated control electromagnetic rotary power flow controller power precision control variable domain fuzzy proportional‐integral control |
title | An accurate power control strategy for electromagnetic rotary power controllers |
title_full | An accurate power control strategy for electromagnetic rotary power controllers |
title_fullStr | An accurate power control strategy for electromagnetic rotary power controllers |
title_full_unstemmed | An accurate power control strategy for electromagnetic rotary power controllers |
title_short | An accurate power control strategy for electromagnetic rotary power controllers |
title_sort | accurate power control strategy for electromagnetic rotary power controllers |
topic | active distribution network dual rotary phase shifting transformer speed‐coordinated control electromagnetic rotary power flow controller power precision control variable domain fuzzy proportional‐integral control |
url | https://doi.org/10.1049/gtd2.12901 |
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