受甲虫爪启发的微型网状攀爬机器人

Hong Wang, Yao Li, Bing Li
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引用次数: 1

摘要

由于其刚度可变的跗关节和跗关节尖端的可伸缩挂钩,甲虫可以在网格表面上平稳行走而不会滑倒或卡在网格表面。在这项研究中,我们发现甲虫会主动弯曲和张开它们的爪子来自由行走。受这种机制的启发,我们设计了一个厘米级的攀爬机器人,配备了一个人工爪子,以与天然甲虫相同的循环方式打开和弯曲。机器人可以在30°的网格表面上自由攀爬而不被卡住,速度为26.18 mm/s(0.3体长/秒),在55度的粗糙斜坡上速度为37.5 mm/s。这是一个厘米级的机器人首次展示,它可以在网格表面上爬行。
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A beetle-claw inspired miniature mesh climbing robot
Beetles can walk smoothly on the meshed surface without slipping or getting stuck in the meshed surface due to its stiffness-variable tarsi and expandable hooks on the tip of tarsi. In this study, we find that beetles bend and open their claws proactively to walk freely. Inspired by the mechanism, we designed a centimeter-scale climbing robot, equipping an artificial claw to open and bend in the same cyclic manner as the natural beetles. The robot can climb freely on the mesh surface of 30° without being stuck at a speed of 26.18 mm/s (0.3 body length per second), and the speed was 37.5 mm/s on the 55-degree rough slop. This is the first demonstration of a centimeter-scale robot that can climb on the mesh surface.
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