水下两栖机器人海底行走机构的研制

Taesik Kim, Seokyong Song, Son-cheol Yu
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引用次数: 3

摘要

本文提出了一种基于单自由度作动器的水陆两栖机器人水下行走机构。对于这种行走机构,我们开发了一种独特的弹簧铰链式桨,使两栖机器人能够在海底行走。我们提出了机器人的简化二维模型。然后,利用桨长、铰长、与障碍物的距离和最大掠角分析了该机构的粗糙地形性能。我们开发了一个实验机器人来测试所提出的行走机构的有效性,我们用这个机器人进行了地面和水箱实验。结果表明,机器人在该机构下行走稳定。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Development of Seabed Walking Mechanism for Underwater Amphibious Robot
In this paper, we proposed an underwater walking mechanism for the underwater amphibious robot that uses one degree of freedom (DOF) actuators. For this walking mechanism, we developed a unique spring-hinge type paddle that enables the amphibious robot to walk on the seabed. We proposed a simplified 2-D model of the robot. Then, we analyzed rough-terrain capability of this mechanism by using following terms: the paddle-length, the hinge-length, the distance to the obstacle, and the maximum sweep angle. We developed an experimental robot for a feasibility test of the effectiveness of proposed walking mechanism, and we performed ground and water tank experiments with this robot. As a result, we confirmed that the robot walked stably with the proposed mechanism.
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