面向开发一种人类友好的动力辅助机器人来操纵重物:特别关注机动性和物体表面摩擦

S. Rahman, R. Ikeura, Haoyong Yu
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引用次数: 3

摘要

开发了一种与人协同操作物体的动力辅助机器人系统。机器人动力学和控制中包含了重量感知。对机器人进行了不同条件下的仿真。确定了物体垂直升降和水平操纵的最佳机动条件。确定了实际重量和感知重量之间的心理物理关系,并分析了单手和双手举起物体的负载力和运动特征。在此基础上,提出了一种新的控制方案,减小了电梯的过载力和加速度,从而提高了单手动和双手动升降系统的性能。还分析了机器人降低物体的运动。提出了一种前馈摩擦模型,研究了人的手与物体表面的摩擦对重量感知和载荷力的影响。这一发现可用于开发对人类友好的助力机器人,用于在工业中操纵重物。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Towards developing a human-friendly power assist robot for manipulating heavy objects: special focus on manoeuvrability and object’s surface friction
A power assist robot system was developed for manipulating objects in cooperation with human. Weight perception was included in robot dynamics and control. The robot was simulated for different conditions. Optimum manoeuvrability conditions for vertical lifting and horizontal manipulation of objects were determined. Psychophysical relationships between actual and perceived weights were determined, and load forces and motion features were analysed for unimanual and bimanual lifting of objects. Then a novel control scheme was implemented that reduced the excessive load forces and accelerations, and thus improved the system performances for unimanual and bimanual lifts. Motions were also analysed for lowering objects with the robot. A feed-forward friction model was introduced that addressed the effects of friction between human’s hand and object’s surfaces on weight perception and load force. The findings can be used to develop human-friendly power assist robots for manipulating heavy objects in industries.
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