动态操作:不能抓球

G. Batz, Arhan Yaqub, Haiyan Wu, K. Kuhnlenz, D. Wollherr, M. Buss
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引用次数: 44

摘要

如今,大多数工业机器人仍然采用忽视或最小化任务动态影响的策略。然而,有些任务本质上是动态的,只能通过考虑其动态方面来完成。我们解决球捕捉作为一个突出的和广泛研究的例子,为这样的任务。本文采用了一种特殊的方法来完成这项任务:非抓握,即没有形式或力闭合抓握的抓握。根据跟踪球的速度,提出了两种不同的接球方法:第一,在初始接触时接球。第二,在随后的接触中接住最初反弹后的球。对于这两种方法,用递归最小二乘算法预测球的轨迹。在接触点选择中采用动态可操纵性度量。一旦球和末端执行器之间的永久接触建立,基于力/扭矩反馈的平衡控制被应用。采用六自由度工业机器人对两种方法进行了实验验证。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Dynamic manipulation: Nonprehensile ball catching
Most industrial robots nowadays still employ strategies that neglect or minimize the effects of task dynamics. Some tasks, however, are intrinsically dynamic and can only be accomplished by considering their dynamic aspects. We address ball catching as a prominent and widely studied example for such a task. The paper follows a special approach to accomplish the task: the nonprehensile catching, which means catching without a form- or force-closure grasp. Depending on the tracked ball velocity, two different catching methods are proposed: First, catching of the ball during the initial contact. Second, catching the ball after an initial rebounce during the subsequent contact. For both approaches, the ball trajectory is predicted with a recursive least squares algorithm. The dynamic manipulability measure is used for the contact point selection. Once a permanent contact between ball and end effector is established, a balancing control based on force/torque feedback is applied. Both methods are experimentally validated using a six DoF industrial robot.
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