Compound manipulation mode for improving task-ability of multi-arm multi-flipper crawler robot

Kui-Ting Chen, Mitsuhiro Kamezaki, Takahiro Katano, Taisei Kaneko, Kohga Azuma, Yusuke Uehara, T. Ishida, M. Seki, Ken Ichiryu, S. Sugano
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Abstract

This paper presents a new manipulation mode for multi-arm and multi-flipper robots to improve the manipulation ability of them. Multi-arm and multi-flipper crawler robots designed for disaster response or other uses are naturally divided into two function parts from the design stage. There are the crawlers and the flippers for robot locomotion tasks, and the arms for manipulation tasks. In this design concept, the flippers and arms are hardly to systematically and actively cooperate with each other, and these control systems cannot fully play the structural features of this kind of robot. To solve this problem, we proposed a compound manipulation mode (CMM) for multi-arm multi-flipper robot. In this control mode, the flippers and arms are controlled as a whole in manipulation tasks, the flippers will support the arms to own bigger manipulation space, to have better manipulation posture and to optimize the position of robot center of gravity (COG) to make sure robot in good stable state. Four arm and four flipper robot OCTOPUS was used as the test platform, and the verification experiments were carried out. The results indicated that CMM control mode can achieve all the proposals, therefore the concept of CMM control mode is successful and useful.
提高多臂多鳍履带机器人任务能力的复合操纵模式
为提高多臂多鳍机器人的操作能力,提出了一种新的多臂多鳍机器人操作模式。多臂多鳍履带机器人从设计阶段就自然地分为两个功能部分,用于灾害响应或其他用途。有用于机器人运动任务的爬行器和鳍状肢,以及用于操作任务的手臂。在这种设计理念中,脚蹼和手臂很难系统主动地相互配合,这些控制系统也不能充分发挥这类机器人的结构特点。为解决这一问题,提出了一种多臂多鳍机器人的复合操作模式。在该控制模式下,在操作任务中,鳍状肢和手臂作为一个整体进行控制,鳍状肢将支持手臂拥有更大的操作空间,具有更好的操作姿态,并优化机器人重心位置,使机器人处于良好的稳定状态。以四臂四鳍机器人OCTOPUS为测试平台,进行了验证实验。结果表明,三坐标测量机控制模式可以实现所有的建议,因此三坐标测量机控制模式的概念是成功的和有用的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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