面向设计的栅格成型vscs单回路电压控制的耗散率增强

Shan He, Frede Blaabjerg
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引用次数: 0

摘要

考虑到控制延迟和电网阻抗变化较大造成的谐波稳定性,电网侧电流前馈是提高成网变流器电压控制耗散率的有效方法。然而,设计的lc -滤波器谐振频率和滤波器参数偏差严重影响变换器输出阻抗的耗散特性。为了填补这一空白,提出了一种面向设计的控制方案,采用三个前馈变量,即变流器侧电流、电容器电流和电容器电压。因此,不仅可以在奈奎斯特频率下实现耗散率,而且可以增强耗散率对lc滤波器参数偏差的鲁棒性。此外,lc滤波器的谐振频率可以不考虑临界频率而自由设计。最后,通过仿真验证了所提方法的有效性。
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Design-Oriented Dissipativity Enhancement for Single-Loop Voltage Control of Grid-FormingVSCs
In light of harmonic stability caused by the control delay and the wide-varied grid impedance, grid-side current feedforward is an effective method to enhance the dissipativity for voltage control of grid-forming converters. However, the dissipative characteristic of converter output impedance is seriously affected by the designed LC-filter resonance frequency and the filter parameters deviation. To fill this gap, a design-oriented control scheme is proposed using three variables feedforward, i.e., converter-side current, capacitor current, and capacitor voltage. As a result, not only the dissipativity can be achieved below Nyquist frequency, but also the dissipativity robustness against the LC-filter parameter deviation is enhanced. Besides, the LC-filter resonance frequency can be designed freely without considering the critical frequency. Finally, the proposed method is validated through the simulation.
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