2020Frontiers in PhysicsOpen access

Adaptive Neural Network Control of Chaotic Fractional-Order Permanent Magnet Synchronous Motors Using Backstepping Technique

Guangming Xue, Funing Lin, Bin Qin

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Abstract

The backstepping technique is greatly effective for the integral-order triangular nonlinear systems. Nevertheless, it is dramatically challenging to implement backstepping technique in the manipulation of fractional-order permanent magnet synchronous motors (FOPMSMs), since the fractional derivatives of the composite functions are deeply complex. In this paper, a fuzzy adaptive backstepping-based control scheme for FOPMSMs on the basis of fractional Lyapunov stability criterion is established. First, we propose a novel adaptive synchronous controller for FOPMSMs by coupling with fuzzy logic systems and backstepping technique. Then, we present a detailed stability analysis in terms of FOPMSMs via the proposed controllers. Finally, a simulation example is given to reveal that the proposed controller can effectively eliminate or restrain the chaos of FOPMSMs, and keep the tracking signals synchronous with the reference signals.

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The backstepping technique is greatly effective for the integral-order triangular nonlinear systems. Nevertheless, it is dramatically challenging to implement backstepping technique in the manipulation of fractional-order permanent magnet synchronous motors (FOPMSMs), since the fractional derivatives of the composite functions are deeply complex. In this paper, a fuzzy adaptive backstepping-based control scheme for FOPMSMs on the basis of fractional Lyapunov stability criterion is established. First, we propose a novel adaptive synchronous controller for FOPMSMs by coupling with fuzzy logic systems and backstepping technique. Then, we present a detailed stability analysis in terms of FOPMSMs via the proposed controllers. Finally, a simulation example is given to reveal that the proposed controller can effectively eliminate or restrain the chaos of FOPMSMs, and keep the tracking signals synchronous with the reference signals.

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Available abstract

The backstepping technique is greatly effective for the integral-order triangular nonlinear systems. Nevertheless, it is dramatically challenging to implement backstepping technique in the manipulation of fractional-order permanent magnet synchronous motors (FOPMSMs), since the fractional derivatives of the composite functions are deeply complex. In this paper, a fuzzy adaptive backstepping-based control scheme for FOPMSMs on the basis of fractional Lyapunov stability criterion is established. First, we propose a novel adaptive synchronous controller for FOPMSMs by coupling with fuzzy logic systems and backstepping technique. Then, we present a detailed stability analysis in terms of FOPMSMs via the proposed controllers. Finally, a simulation example is given to reveal that the proposed controller can effectively eliminate or restrain the chaos of FOPMSMs, and keep the tracking signals synchronous with the reference signals.

Key concepts: Backstepping, Control theory (sociology), Controller (irrigation), Lyapunov stability, Computer science, Fuzzy logic, Permanent magnet synchronous motor, Nonlinear system

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Adaptive Neural Network Control of Chaotic Fractional-Order Permanent Magnet Synchronous Motors Using Backstepping Technique — Research Paper | ScholarLens