The virtual prototype design and simulation of crab walking gaits inspired crawling and barrier-crossing parallel mechanism

Ma Zheng, Li Kai, Xiao-Guang Hu
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Abstract

In recent years, biomimetic robotics has emerged as a promising field that draws inspiration from nature to develop innovative and efficient robots. In this study, we have designed a biorobot capable of crawling and barrier-crossing, inspired by the walking gaits of crabs. Firstly, we analyzed the motion of an individual crab leg to determine the required degrees of freedom for crawling and barrier-crossing. Then, we utilize the screw theory to synthesize the mechanism of a single branch. Finally, we select a suitable parallel mechanism configuration for this research. Simulation analysis is conducted to test the variations in actuation at different driving points under various pose states. We observe stability in changes in driving points with respect to the retraction angle of the leg, indicating excellent obstacle overcoming capabilities possessed by this robot.
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受螃蟹行走步态启发的爬行与越障并行机制的虚拟原型设计与仿真
近年来,仿生机器人技术已成为一个前景广阔的领域,它从大自然中汲取灵感,开发出创新、高效的机器人。在这项研究中,我们受螃蟹行走步态的启发,设计了一种能够爬行和越障的生物机器人。首先,我们分析了单个螃蟹腿的运动,以确定爬行和越障所需的自由度。然后,我们利用螺旋理论合成单支机构。最后,我们为本研究选择了合适的并联机构配置。我们进行了仿真分析,以测试不同姿势状态下不同驱动点的驱动力变化。我们观察到驱动点的变化与腿的缩回角度有关,具有稳定性,这表明该机器人具有出色的越障能力。
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