Synthesis of Hybrid Fuzzy Logic Law for Stable Control of Magnetic Levitation System

N. X. Chiem, Le Tran Thang
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Abstract

In this paper, we present a method to design a hybrid fuzzy logic controller (FLC) for a magnetic levitation system (MLS) based on the linear feedforward control method combined with FLC. MLS has many applications in industry, transportation, but the system is strongly nonlinear and unstable at equilibrium. The fast response linear control law ensures that the ball is kept at the desired point, but does not remain stable at that point in the presence of noise or deviation from the desired position. The controller that combines linear feedforward control and FLC is designed to ensure ball stability and increase the system's fast-response when deviating from equilibrium and improve control quality. Simulation results in the presence of noise show that the proposed control law has a fast and stable effect on external noise. The advantages of the proposed controller are shown through the comparison results with conventional PID and FLC control laws.
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磁悬浮系统稳定控制的混合模糊逻辑律综合
本文提出了一种基于线性前馈控制与模糊控制器相结合的磁悬浮系统混合模糊控制器的设计方法。MLS系统在工业、交通等领域有广泛的应用,但系统具有强非线性和平衡不稳定性。快速响应线性控制律确保球保持在期望的点上,但在存在噪声或偏离期望位置的情况下,在该点上不保持稳定。将线性前馈控制与FLC相结合的控制器保证了球的稳定性,增加了系统偏离平衡时的快速响应,提高了控制质量。仿真结果表明,在存在噪声的情况下,所提出的控制律对外部噪声具有快速稳定的控制效果。通过与传统PID和FLC控制律的比较,证明了所提控制器的优越性。
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