IEEE Transactions on Energy Conversion · 2004 · 136 citations · 13 references
Nonlinear ControlMotion ControlFuzzy LogicFuzzy SystemsEngineeringRobust ControlMechatronicsMechanical SystemsInduction Servomotor SystemsAdaptive ControlSystems EngineeringFuzzy RulesCompensation ControllerBusinessVibration ControlFuzzy Control System
An adaptive fuzzy sliding-mode control design method is proposed for induction servomotor system control. The proposed adaptive fuzzy sliding-mode control system is comprised of a fuzzy controller and a compensation controller. The fuzzy controller is the main tracking controller, which is used to approximate an ideal computational controller. The compensation controller is designed to compensate for the difference between the ideal computational controller and the fuzzy controller. A tuning methodology is derived to tune the premise and consequence parts of the fuzzy rules. The online tuning algorithm is derived in the Lyapunov sense; thus, the stability of the control system can be guaranteed. Moreover, to relax the requirement for the uncertain bound in the compensation controller, an estimation mechanism is investigated to observe the uncertain bound, so that the chattering phenomena of the control efforts can be relaxed. To illustrate the effectiveness of the proposed design method, a comparison between a conventional fuzzy control and the proposed adaptive fuzzy sliding-mode control is made. Simulation and experimental results verify that the proposed adaptive fuzzy sliding-mode control design method can achieve favorable control performance with regard to parameter variations and external disturbances.
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Power Electronics and AC Drives
B.L. Jones · Electronics and Power · 1987 · 522 citations
High-power Electronics, Electrical Engineering, Engineering +4