Fast Finite Time Robust-Adaptive Terminal Sliding Mode Approaches for DFIG wind Turbines in the Presence of Unbounded Perturbations
Subject Areas : Electrical EngineeringSeyed Mahyar Mehdizadeh Moghadam 1 , Esmail Alibeiki 2 , alireza khosravi 3
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Keywords: DFIG, Wind turbine, sliding mode, Fast terminal sliding mode, Adaptive control, Parameter uncertainty, External disturbance,
Abstract :
This paper proposes a new approach of Fast Finite Time Terminal Adaptive Sliding Mode (FFTASM) control for perturbed Dual-Feed Induction Generators (DFIG)-based wind turbines which are exposed to unbounded modeling uncertainties and external disturbances. Two separate FFTASM controllers are designed for both turbine and generator sections. The proposed approach can control the maximum power at low wind speeds in Zone II of the Wind Energy Conversion System (WECS), as well as the generated power in the presence of unknown unbounded perturbation in Zone III. Considering the dependence of the modeling uncertainties and external disturbances on respectively the dynamic parameters of the wind turbine and its status, it is assumed that the upper bounds of the sum of the uncertainties and disturbances are unknown nonlinear functions of the wind turbine state variables. These unknown functions are estimated using stable adaptive rules. The fast finite-time stability is proved using Lyapunov's theorem in both turbine and generator sections. Numerical simulations at the end of the paper confirm the correctness of the designed control approached
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