Experimental behaviour analysis for optimally controlled standalone DFIG system

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TitreExperimental behaviour analysis for optimally controlled standalone DFIG system
Type de publicationJournal Article
Year of Publication2019
AuteursSoued S, Chabani MSaci, Becherif M, Benchouia MToufik, Ramadan HSaad, Betka A, Golea A, Zouzou SEddine
JournalIET ELECTRIC POWER APPLICATIONS
Volume13
Pagination1462-1473
Date PublishedOCT
Type of ArticleArticle
ISSN1751-8660
Mots-clésABC-PI controllers, artificial bee colony algorithm, asynchronous generators, conventional PI controller, direct voltage control, dynamic behaviour, dynamic performance, experimental behaviour analysis, Experimental validation, grey Wolf optimiser, GWO-PI, induction generator control system, load operation, machine control, MATLAB, MATLAB-Simulink numerical simulations, metaheuristic optimisation techniques, optimal control, optimal gains, optimally controlled standalone DFIG system, PI control, power generation control, proportional-integral regulator, robust control, robust independent control, robust stability, rotor current regulation, rotors, stator voltage amplitude, stators, step voltage variation, Voltage control, Wind Energy Conversion System, Wind power
Résumé

Metaheuristic optimisation techniques such as the Grey Wolf optimiser (GWO) and artificial bee colony (ABC) algorithms have been developed for enhancing the dynamic behaviour of wind energy conversion system. The stand-alone doubly fed induction generator (DFIG) control system based on the direct voltage control is experimentally validated for the robust independent control of the stator voltage amplitude and the consequent rotor current regulation. The GWO and ABC are used for selecting the optimal gains of the proportional-integral (PI) regulator to improve the dynamic performance and the robust stability of the DFIG system in the presence of step voltage variation and sudden load operation. Through, MATLAB (TM)/Simulink numerical simulations, the dynamic performances of the GWO-PI and ABC-PI applied to stand-alone DFIG systems are compared with the conventional PI controller under different disturbances. Using a 3 kW DFIG test bench DSPACE DS1104 card prototype, the experimental validation justifies the superiority of proposed novel GWO-PI and ABC-PI controllers over the conventional PI control in terms of steady-state errors, maximum overshoots, settling time and rise time.

DOI10.1049/iet-epa.2018.5648