Enhanced controlling for Vienna Rectifiers Using Sliding Mode and PSO

Sandhya Balasaheb Kumbhar, Swapnil Y Gadgune

Abstract


We propose strategy for Vienna I rectifiers, grounded in sliding mode control (SMC) and formulated within the stationary α-β reference frames. This study explores the relationship between the DC-link neutral point voltage and the AC phase currents. The necessary control voltages for the rectifier are derived directly using a non-linear SMC approach. Theoretically, this allows for precise management of active and reactive power flows without ripple or cross coupling. Additionally, we achieve a fixed switching frequency by applying simplified space vector modulation (SVM), which effectively addresses the complexities involved in designing AC harmonic filters. Our improved strategy features dual closed-loop SMC [1] to enhance transient response during both start up and load variations, while ensuring steady-state stability. Furthermore, we incorporate a particle swarm optimization (PSO) algorithm to refine the sliding surface for active power, thereby increasing overall efficiency.

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References


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