基于斜坐标的压电悬臂梁微宏观双向控制

Yoshitomo Matsumi, Yu Nakajima, Shinnosuke Yamaoka, K. Ohnishi
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引用次数: 1

摘要

本文提出了一种基于斜坐标的压电悬臂梁微宏观双向控制方法。该系统利用反作用力观测器(RFOB)向操作者提供触觉反馈,并考虑了压电悬臂梁的滞后和线性动力学。位置和力的缩放使操作员能够操纵微小物体,并感受到来自物体的轻微反作用力。RFOB可以在没有力传感器的情况下估计反作用力。斜坐标控制是指在主从机器人作动器不同的情况下,如何调整主从机器人的增益比。利用直线电机和压电悬臂进行了实验,验证了该方法的有效性。结果表明,操作者可以感受到作用在从机器人上的反作用力,从机器人的反作用力放大了500倍。位置跟踪精度为±1.1 μm。压电悬臂梁上的力估计误差仅为±0.003 N。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Oblique coordinate based micro-macro bilateral control using a piezoelectric cantilever
In this paper, oblique coordinate based micro-macro bilateral control using a piezoelectric cantilever is proposed. Haptic feedback is provided to an operator through the system utilizing a reaction force observer (RFOB) taking hysteresis and linear dynamics of the piezoelectric cantilever into account. Scaling of the position and the force enables operator to manipulate micro objects, and to feel the slight reaction force from the objects. RFOB makes it possible to estimate the reaction force without force sensors. Oblique coordinate based control indicates how to tune the gain ratio between a master robot and slave robot when the actuator of the master robot is different from that of salve. An experiment is conducted to verify the proposed method by using a linear motor and a piezoelectric cantilever. The results showed that the operator could feel the reaction force applied to the slave robot which was scaled up 500 times. It also showed precise position tracking with the error of ±1.1 μm. The force estimation on the piezoelectric cantilever was achieved with error of only ±0.003 N.
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