Fractional Order Sliding Mode Speed Control of Feedback Linearized Induction Motor

IF 1.7
Yeshiwas Fetene, Dereje Shibeshi
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引用次数: 5

Abstract

Abstract Induction machines have of late become the most popular workhorses in the industry replacing DC machines because of their advantages, such as reduced cost, reliability and the absence of commutators, which make them adapt to unfavourable conditions with lower maintenance requirement. However, higher-order models of AC machines, nonlinearities in model equations, uncertainties in parameters and load disturbances make induction motors difficult to control than that of DC motors. In this paper, a robust control strategy considering the recent advances in technology is proposed employing input-output feedback linearization for the exact decoupling of electromagnetic torque and rotor flux using fractional-order sliding mode controller (SMC) for the outer speed loop. The sliding mode observer is also designed to extract the rotor flux from the DC input voltage of the inverter and stator current measurements. Finally, a comparison between the commonly used proportional integral and derivative (PID) controller and the proposed fractional-order SMCs is made and the conclusion is reached.
反馈线性化感应电动机的分数阶滑模速度控制
近年来,感应电机以其成本低、可靠性高、无需换向器等优点,以较低的维护要求适应恶劣的环境,成为取代直流电机的最受欢迎的工业主力。然而,交流电机的高阶模型、模型方程的非线性、参数的不确定性和负载的扰动使得感应电机比直流电机更难控制。本文提出了一种考虑最新技术进展的鲁棒控制策略,采用分数阶滑模控制器(SMC)对外转速环采用输入输出反馈线性化实现电磁转矩和转子磁链的精确解耦。设计了滑模观测器,从逆变器的直流输入电压和定子电流测量中提取转子磁链。最后,将常用的比例积分与导数(PID)控制器与所提出的分数阶SMCs进行了比较,得出结论。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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