Complex Variable Design for Power Control of Grid-Forming Inverter

The analysis and design of the grid-forming (GFM) power loop and decoupling control can be challenging due to the coupled high-order system, where active and reactive power controls are typically designed separately using a dual-input-dual-output model. In this letter, we introduce a complex-power-phase-angle (CPPA) model, formulated as a single-input-single-output system for grid-forming inverters. Subsequently, a complex power controller is designed. The proposed control framework allows for the unification of active and reactive power decoupling control through an order-reduced complex transfer function, enhancing the dynamic performance of GFM power control. The robustness and advantages of this method are validated through comprehensive simulation and experimental results.

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Publication Details

Journal
IEEE Transactions on Sustainable Energy
Published
2025-01-27
DOI
https://doi.org/10.1109/tste.2025.3533971
Citations
5
Primary Topic
Power Systems and Renewable Energy
Type
article
Field-Weighted Citation Impact
2.66
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article

Complex Variable Design for Power Control of Grid-Forming Inverter

Zhixiang Zou, Dale Li, Qinran Hu, Xiangjun Quan et al.
5 citations
IEEE Transactions on Sustainable Energy
Power Systems and Renewable Energy
2.66
article

Complex Variable Design for Power Control of Grid-Forming Inverter

Zhixiang Zou, Dale Li, Qinran Hu, Xiangjun Quan, Wei Gu, Zaijun Wu, Huiyu Miao
article en
5 citations

Abstract

The analysis and design of the grid-forming (GFM) power loop and decoupling control can be challenging due to the coupled high-order system, where active and reactive power controls are typically designed separately using a dual-input-dual-output model. In this letter, we introduce a complex-power-phase-angle (CPPA) model, formulated as a single-input-single-output system for grid-forming inverters. Subsequently, a complex power controller is designed. The proposed control framework allows for the unification of active and reactive power decoupling control through an order-reduced complex transfer function, enhancing the dynamic performance of GFM power control. The robustness and advantages of this method are validated through comprehensive simulation and experimental results.

IEEE Transactions on Sustainable EnergyVol. 16(3)
China Electric Equipment Group (China) (CN), Shanghai Electric (China) (CN), Southeast University (CN)
Affordable and clean energy
Openalex Percentile: Top 11%
Power Systems and Renewable Energy
2.66
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