基于动态系统和柔性控制的机器人加工方法

Mingqi Feng, Jinxing Yang, Yinhui Xie, Jun Li, Yong Yang, Hao-hao He
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引用次数: 0

摘要

针对加工过程中刀具与工件接触不稳定的问题,提出了一种基于速度调制和阻抗控制算法的力控制策略。在工业机器人的许多应用场景中,都需要一定程度的接触力。因此,力控制组件可以保证机器人在预定轨迹上保持稳定的接触力,并在快速变化的环境中做出反应。位置控制器用于调节机器人的运动。在运动过程中,位置控制器结合基于速度的阻抗控制可以补偿控制器和机器人的不确定性,同时在速度调制子空间中控制机器人的速度,减小接触时的激振力,从而减小接触超调量,提高工件的加工精度。通过非接触到接触过渡实验的评估表明,该控制器可以实现低的接触振动和可靠的位置/力控制。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Robot Machining Method Bases on Dynamic System and Compliant Control
This paper proposes a force control strategy based on velocity modulation and impedance control algorithm to address unstable contact problem between the tool and workpiece in machining. In many application scenarios of industrial robots, contact force is required to some extent. Therefore, a force control component guarantees that robot can maintain stable contact force with the predetermined trajectory and react in the rapidly changing environment. The position controller is used to adjust the movement of the robot. During movement, position controller combined with speed-based impedance control can compensate for the uncertainty of controller and robot Meanwhile, the velocity of the robot is controlled in the velocity modulation subspace to reduce the vibration force in contact, thus the contact overshoot decreases and the machining accuracy of the workpiece is improved. Evaluations through non-contact to contact transition experiment indicates that low contact vibration and reliable position/force control can be achieved by this proposed controller.
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