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Control Strategies for DFIG based Wind Turbine Systems Frequency Regulating


Affiliations
1 Dept. of State Key Laboratory of Power Transmission, Chongqing University, Chongqing, China
2 Dept. of State Key Laboratory of Power Transmission, Chongqing University, Chongqing, India
 

As the energy crisis worsens and global problems intensify, wind power generation has emerged as one of the most successful and fastest-growing alternatives among some of the different mechanisms. The running of a power plant is continually jeopardized by irregular and malfunctioning circumstances. A conceptual implementation of an innovative solution is suggested for the proper output of a wind turbine power system in a wind-solar hybrid microgrid to track frequency fluctuations caused by various load factors and environmental conditions (MG). As a standard PI controller is used to track frequency, it is coupled with a sophisticated fuzzy logic controller to enhance frequency regulation. The frequency response properties of traditional WTs are tested and distinguished with varying loads and wind speeds. It is claimed that as the wind power speed rises, the power output of the device would deteriorate. The simulation shows that frequency modulation is accomplished in the time allocated. Furthermore, the proposed solution can be implemented into day-to-day applications without making any external modifications.

Keywords

DFIG, PI traditional controller, Droop control coefficient, Inertia control coefficient
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  • Control Strategies for DFIG based Wind Turbine Systems Frequency Regulating

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Authors

Jamshed Ali Shaikh
Dept. of State Key Laboratory of Power Transmission, Chongqing University, Chongqing, China
Umer Farooq
Dept. of State Key Laboratory of Power Transmission, Chongqing University, Chongqing, India
Muhammad Shoaib Bhutta
Dept. of State Key Laboratory of Power Transmission, Chongqing University, Chongqing, China

Abstract


As the energy crisis worsens and global problems intensify, wind power generation has emerged as one of the most successful and fastest-growing alternatives among some of the different mechanisms. The running of a power plant is continually jeopardized by irregular and malfunctioning circumstances. A conceptual implementation of an innovative solution is suggested for the proper output of a wind turbine power system in a wind-solar hybrid microgrid to track frequency fluctuations caused by various load factors and environmental conditions (MG). As a standard PI controller is used to track frequency, it is coupled with a sophisticated fuzzy logic controller to enhance frequency regulation. The frequency response properties of traditional WTs are tested and distinguished with varying loads and wind speeds. It is claimed that as the wind power speed rises, the power output of the device would deteriorate. The simulation shows that frequency modulation is accomplished in the time allocated. Furthermore, the proposed solution can be implemented into day-to-day applications without making any external modifications.

Keywords


DFIG, PI traditional controller, Droop control coefficient, Inertia control coefficient

References