压电驱动纳米逆激器抗扰性能研究

Wei Wei, Pengfei Xia, Min Zuo
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引用次数: 1

摘要

研究了压电作动器驱动的纳米逆变器的自抗扰控制。磁滞降低了纳米电极的精度,甚至破坏了其稳定性。为了提高纳米定位平台的闭环性能,采用了自抗扰控制(ADRC)。设计了四阶扩展状态观测器来获取系统输出、系统输出的一阶导数和二阶导数以及总扰动。通过控制律补偿总扰动,保证系统性能。基于已确定的纳米定位阶段模型,进行了仿真。数值结果验证了自抗扰控制在高精度定位中的能力。
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On Disturbance Rejection of Piezo-actuated Nanopositioner
This paper concentrates on the active disturbance rejection control of a nanopositioner driven by a piezoelectric actuator. Hysteresis reduces the accuracy or even breaks the stability of a nanopositioner. For the purpose of improving the closed-loop performance of a nanopositioning stage, active disturbance rejection control (ADRC) is utilized. Fourth order extended state observer is designed to get system output, first and second derivative of system output, and the total disturbance. System performance can be guaranteed by compensating total disturbance via control law. Based on an identified model of a nanopositioning stage, simulations have been performed. Numerical results have been presented to confirm the ability of ADRC in high-precision positioning.
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