A semi-autonomous compound motion pattern using multi-flipper and multi-arm for unstructured terrain traversal

Kui-Ting Chen, Mitsuhiro Kamezaki, Takahiro Katano, Taisei Kaneko, Kohga Azuma, T. Ishida, M. Seki, Ken Ichiryu, S. Sugano
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引用次数: 1

Abstract

Disaster response crawler robot OCTOPUS has four arms and four flippers for better adaptability to disaster environments. To further improve the robot mobility and terrain adaptability in unstructured terrain, we propose a new locomotion control method called compound motion pattern (CMP) for multi-limb robots like OCTOPUS. This hybrid locomotion by cooperating the arms and flippers would be effective to adapt to the unstructured terrain due to combining the advantages of crawling and walking. As a preliminary study on CMP, we proposed a fundamental and conceptual CMP while clarifying problems in constructing CMP, and developed a semi-autonomous control system for realizing the CMP. Electrically-driven OCTOPUS was used to verify the reliability and correctness of CMP. Results of experiments on climbing a step indicate that the proposed control system could obtain relatively accurate terrain information and the CMP enabled the robot to climb the step. We thus confirmed that the proposed CMP would be effective to increase terrain adaptability of robot in unstructured environment, and it would be a useful locomotion method for advanced disaster response robots.
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一种半自主的多肢多臂非结构化地形穿越复合运动模式
为了更好地适应灾害环境,灾难响应履带式机器人OCTOPUS有四条手臂和四个鳍。为了进一步提高机器人在非结构化地形中的机动性和地形适应性,我们针对章鱼机器人等多肢机器人提出了一种新的运动控制方法——复合运动模式(CMP)。由于结合了爬行和行走的优点,这种臂肢和脚蹼配合的混合运动可以有效地适应非结构化地形。作为CMP的初步研究,我们提出了CMP的基本概念,澄清了构建CMP的问题,并开发了实现CMP的半自主控制系统。用电驱动OCTOPUS验证了CMP的可靠性和正确性。攀爬台阶的实验结果表明,该控制系统可以获得较为准确的地形信息,CMP使机器人能够攀爬台阶。研究结果表明,该方法可以有效提高机器人在非结构化环境中的地形适应性,为先进的灾害响应机器人提供一种有效的运动方法。
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