An improved VSG control strategy based on transient electromagnetic power compensation

被引:0
|
作者
Changwei Gao
Wei Wang
Chongyang Huang
Weiqiang Zheng
机构
[1] Liaoning Institute of Science and Technology,College of Electrical and Automation Engineering
[2] Shenyang University of Technology,School of Electrical Engineering
[3] Yingkou Power Supply Company,undefined
来源
Scientific Reports | / 13卷
关键词
D O I
暂无
中图分类号
学科分类号
摘要
Virtual synchronous generator (VSG) not only increases the inertia of grid-connected system, but also brings the problem of active power oscillation under grid disturbance. Therefore, VSG control strategy and system model order reduction method with transient electromagnetic power compensation are proposed. The closed-loop active power small signal model of the system is established, and the influence of transient electromagnetic power compensation on the power stability of VSG is analyzed based on root locus method. By removing the items which have little influence on the stability of the system in the small signal model, the order is reduced to obtain the equivalent second-order model of the system. According to the second-order model, the quantitative design criteria of the system parameters are given. The proposed transient electromagnetic power compensation strategy not only increases the transient equivalent damping of the system, but also does not affect the primary frequency modulation characteristics and will not cause large overshoot of the output active power. The experimental results are consistent with the theoretical analysis, which testify the effectiveness and correctness of the system control strategy and the model reduction method.
引用
收藏
相关论文
共 50 条
  • [21] Autonomous transient power management strategy based on improved droop control for DC microgrid
    Pokharel, Kabindra
    Li, Weilin
    Sapkota, Sonee
    Zhang, Yusen
    Zhao, Hongwei
    Saleem, Umar
    ELECTRICAL ENGINEERING, 2022, 104 (06) : 4321 - 4334
  • [22] VSG SECONDARY FREQUENCY MODULATION CONTROL STRATEGY BASED ON TRANSIENT DERIVATIVE POLARITY SECTIONAL OPTIMIZATION
    Wang X.
    Liu M.
    Zhao X.
    Jiang W.
    Taiyangneng Xuebao/Acta Energiae Solaris Sinica, 2024, 45 (04): : 416 - 422
  • [23] Improved VSG Transient Damping Strategy for Improving Grid Voltage Support Capability
    Piao, Zhengguo
    Fei, Dingding
    Hu, Changbin
    Luo, Shanna
    2024 IEEE 2ND INTERNATIONAL CONFERENCE ON POWER SCIENCE AND TECHNOLOGY, ICPST 2024, 2024, : 276 - 281
  • [24] Parametric adaptive inverter VSG control strategy with transient damping characteristics
    Chen, Yixuan
    Wang, Yanping
    Wang, Qiang
    IEICE ELECTRONICS EXPRESS, 2024, 21 (05):
  • [25] VSG Multi-Machine Parallel Power Decoupling Strategy Based on Improved Virtual Impedance
    Gao, Yu
    Wang, Yin-Qing
    Kong, Xiao-Long
    Guo, Fei
    Jin, Yao-Yang
    Xne, Meng-Yuan
    IAENG International Journal of Computer Science, 2023, 50 (04)
  • [26] Adaptive Parameter Control Strategy of VSG for Improving System Transient Stability
    Fan Wei
    Yan Xiangwu
    Hua Tianqi
    2017 IEEE 3RD INTERNATIONAL FUTURE ENERGY ELECTRONICS CONFERENCE AND ECCE ASIA (IFEEC 2017-ECCE ASIA), 2017, : 2053 - 2058
  • [27] Reactive power compensation system electromagnetic transient simulation
    Yue Long
    Lu Tiecheng
    Guo Ting
    Zeng Xiaoyi
    Xie Wenbing
    Su Ziming
    2011 ASIA-PACIFIC POWER AND ENERGY ENGINEERING CONFERENCE (APPEEC), 2011,
  • [28] Adaptive Virtual Inertia Control Strategy of VSG for Micro-Grid Based on Improved Bang-Bang Control Strategy
    Li, Jin
    Wen, Buying
    Wang, Huaiyuan
    IEEE ACCESS, 2019, 7 : 39509 - 39514
  • [29] Control of transient power compensation for virtual impedance VSG in Quasi-Z-source photovoltaic grid integration system
    Chen, Yan
    Tang, Honglin
    Wang, Kai
    Lin, Jian
    Tang, Yuwei
    ELECTRIC POWER SYSTEMS RESEARCH, 2025, 238
  • [30] Secondary Frequency Regulation Control Strategy of MMC-MTDC Converter Based on Improved VSG
    Chen J.
    Zeng Q.
    Xin Y.
    Wang Z.
    Li G.
    Dianwang Jishu/Power System Technology, 2020, 44 (04): : 1428 - 1436