A Dynamic Equivalent Method for PMSG-WTG Based Wind Farms Considering wind Speeds and Fault Severities
Dongsheng Li, Chen Shen, Ye Liu, Ying Chen, Shaowei Huang

TL;DR
This paper introduces a dynamic equivalent method for PMSG-WTG wind farms that accounts for wind speeds and fault severities, simplifying power system simulations while maintaining accuracy for contingency analysis.
Contribution
It develops a clustering-based dynamic equivalent method considering wind speeds and fault severities, with a segmented ramp rate model for active current recovery, enhancing simulation efficiency.
Findings
The method accurately replicates PMSG-WTG responses in simulations.
It reduces computational complexity of large-scale wind farm modeling.
Verification confirms high efficiency and accuracy of the proposed approach.
Abstract
The dynamic security assessment of power systems needs to scan contingencies in a preselected set through time-domain simulations. With more and more inverter-based-generation, such as wind and solar power generation, integrated into power systems, electro-magnetic transient simulation is adopted. However, the complexity of simulation will increase greatly if inverter-based-generation units are modeled in detail. In order to reduce the complexity of simulation of power systems including large-scale wind farms, it is critical to develop dynamic equivalent methods for wind farms which are applicable to the expected contingency analysis. The dynamic response characteristics of permanent magnet synchronous generator-wind turbine generators (PMSG-WTGs) are not only influenced by their control strategies, but also by the operating wind speeds and the fault severities. Thus, this paper…
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Taxonomy
TopicsWind Turbine Control Systems · Microgrid Control and Optimization · Power Systems and Renewable Energy
MethodsSPEED: Separable Pyramidal Pooling EncodEr-Decoder for Real-Time Monocular Depth Estimation on Low-Resource Settings
