Large-Signal Impedance-Based Modeling and Mitigation of Resonance of Converter-Grid Systems

Large-signal impedance of grid-connected converters can be used to predict resonance-generated distortions in converter-grid systems. Note that the large-signal impedance of a network represents its impedance response for different magnitudes of perturbation injected at its terminals. This paper pre...

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Veröffentlicht in:IEEE transactions on sustainable energy 2019-07, Vol.10 (3), p.1439-1449
Hauptverfasser: Shah, Shahil, Koralewicz, Przemyslaw, Gevorgian, Vahan, Wallen, Robb, Jha, Kapil, Mashtare, Dale, Burra, Rajni, Parsa, Leila
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container_issue 3
container_start_page 1439
container_title IEEE transactions on sustainable energy
container_volume 10
creator Shah, Shahil
Koralewicz, Przemyslaw
Gevorgian, Vahan
Wallen, Robb
Jha, Kapil
Mashtare, Dale
Burra, Rajni
Parsa, Leila
description Large-signal impedance of grid-connected converters can be used to predict resonance-generated distortions in converter-grid systems. Note that the large-signal impedance of a network represents its impedance response for different magnitudes of perturbation injected at its terminals. This paper presents large-signal impedance-based modeling and mitigation of resonance of grid-connected voltage source converters. Challenges of large-signal modeling because of the inapplicability of the small-signal approximation are addressed by leveraging the dominating influence of hard nonlinearities (such as pulsewidth modulation saturation and limiters) over soft nonlinearities (such as Park's transformations and phase-locked loop (PLL)) in shaping the large-signal behavior of the converter. The paper develops large-signal gains of hard nonlinearities using different types of describing functions. The paper shows that the large-signal impedance of a voltage source converter (VSC) can be shaped to reduce resonance-generated distortions by inserting limiters in the control system of the VSC. Developed large-signal impedance models are validated using numerical simulations of a VSC with dq current control and PLL. Large-signal impedance measurements of a commercial 1 MW VSC-based inverter and a medium-voltage doubly-fed induction generator with approximate 4 MW rating are presented to experimentally demonstrate the influence of the injected perturbation magnitude on the impedance response.
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The paper shows that the large-signal impedance of a voltage source converter (VSC) can be shaped to reduce resonance-generated distortions by inserting limiters in the control system of the VSC. Developed large-signal impedance models are validated using numerical simulations of a VSC with dq current control and PLL. 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Challenges of large-signal modeling because of the inapplicability of the small-signal approximation are addressed by leveraging the dominating influence of hard nonlinearities (such as pulsewidth modulation saturation and limiters) over soft nonlinearities (such as Park's transformations and phase-locked loop (PLL)) in shaping the large-signal behavior of the converter. The paper develops large-signal gains of hard nonlinearities using different types of describing functions. The paper shows that the large-signal impedance of a voltage source converter (VSC) can be shaped to reduce resonance-generated distortions by inserting limiters in the control system of the VSC. Developed large-signal impedance models are validated using numerical simulations of a VSC with dq current control and PLL. 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Challenges of large-signal modeling because of the inapplicability of the small-signal approximation are addressed by leveraging the dominating influence of hard nonlinearities (such as pulsewidth modulation saturation and limiters) over soft nonlinearities (such as Park's transformations and phase-locked loop (PLL)) in shaping the large-signal behavior of the converter. The paper develops large-signal gains of hard nonlinearities using different types of describing functions. The paper shows that the large-signal impedance of a voltage source converter (VSC) can be shaped to reduce resonance-generated distortions by inserting limiters in the control system of the VSC. Developed large-signal impedance models are validated using numerical simulations of a VSC with dq current control and PLL. 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1949-3037
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recordid cdi_osti_scitechconnect_1501670
source IEEE Electronic Library (IEL)
subjects Computer simulation
Converters
Describing functions
Distortion
Doubly fed induction generators
Electric potential
Impedance
impedance analysis
Impedance measurement
Induction generators
Large-signal modeling
Mathematical analysis
Mitigation
Perturbation
Perturbation methods
Phase locked loops
Phase locked systems
Phase transitions
Power conversion
POWER TRANSMISSION AND DISTRIBUTION
Resonance
Voltage
voltage source converters
wind power-plant stability
title Large-Signal Impedance-Based Modeling and Mitigation of Resonance of Converter-Grid Systems
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