Modeling of SCIG-Based Variable Speed Wind Turbine in Power Factor Control Mode for Load Flow Analysis
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Submitted Nov 23, 2021
Published Dec 15, 2021
Published Dec 15, 2021
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As they are more efficient in extracting wind energy, variable speed wind power plants (WPPs) are currently replacing the fixed speed WPPs. One possible way to achieve a variable speed WPP is by using a squirrel cage induction generator (SCIG) with full-scale power electronic converter (PEC). In fact, as its cost is relatively lower, the application of SCIG-based variable speed WPP is gaining popularity nowadays. To be able to perform proper analyses (including the load flow analysis) of an electric power system, valid and accurate modeling of the system components is very important. This paper discusses the steady state model of SCIG-based variable speed WPP in power factor control mode for a load flow analysis of an electric power distribution system. The model was developed based on formulas that calculate the turbine mechanical power input and WPP electrical power output. Integration of the proposed model in load flow analysis is also discussed and presented in this paper.
Keywords: SCIG, variable speed, wind turbine, load flow analysis, electric power distribution system
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How to Cite
[1]
Gianto, R. and Elbani, A. 2021. Modeling of SCIG-Based Variable Speed Wind Turbine in Power Factor Control Mode for Load Flow Analysis. European Journal of Electrical Engineering and Computer Science. 5, 6 (Dec. 2021), 43–48. DOI:https://doi.org/10.24018/ejece.2021.5.6.378.
