Two‐stage power control method of rotary power flow controller for flexible interconnection of distribution network

Author:

Shao Chen1,Yan Xiangwu1,Siddique Abubakar2,Aslam Waseem3ORCID,Jia Jiaoxin1ORCID,Xie Wenqiang4ORCID,Alqahtani Salman A.5ORCID,Alamri Atif M.6

Affiliation:

1. College of Mechanical and Electrical Engineering Agricultural University of Hebei Baoding Hebei China

2. Department of Electrical & Biomedical Engineering Khwaja Fareed University of Engineering & Information Technology (KFUEIT) Rahim Yar Khan Pakistan

3. Department of Electrical, Electronics and Computer Systems University of Sargodha (UOS) Sargodha Punjab Pakistan

4. Jiangsu Electric Power Research Institute Co., LTD. Nanjing China

5. Department of Computer Engineering, College of Computer and Information Sciences King Saud University Riyadh Saudi Arabia

6. Software Engineering Department, College of Computer and Information Sciences King Saud University Riyadh Saudi Arabia

Abstract

AbstractWith the rapid development of active distribution network construction, flexible interconnected distribution networks have become the mainstream power supply structure. To ensure the safe power supply of the distribution system, power control methods suitable for flexible interconnected distribution networks should be further studied. The electromagnetic rotating power flow controller (RPFC) is a feasible solution for power control in distribution networks. This paper first constructs an RPFC steady‐state power decoupling control model based on instantaneous reactive power theory. However, it is difficult to achieve stable power control due to the difficulty of coordinated control of the rotor position angle of the rotating phase transfer transformer. On this basis, the servo motor's two‐stage speed control and speed coordination scheme are used to achieve stable and error‐free control of the two rotor angles, meeting the power regulation requirements of high precision, high reliability, and fast response. A 380 V/40 kVA RPFC prototype and experimental platform were developed, and power regulation and power equalization experiments were conducted. The results indicate that the proposed control scheme can regulate at the second level. Control accuracy is maintained within 4%, showing good dynamic and static performance. This meets the requirements for flexible closed‐loop operation in the interconnected distribution network.

Funder

King Saud University

Publisher

Institution of Engineering and Technology (IET)

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