Design of a milli-scale, biomimetic platform for climbing on a rough surface

Hong-Cheol Choi, Gwang-Pil Jung, Kyu-Jin Cho
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引用次数: 3

Abstract

Small multi-legged animals that can climb vertical walls with a rough surface have inspired research on climbing locomotion. Most robots that can climb a rough vertical wall are large and heavy due to the large number of actuators required to produce the complex locomotion. This paper proposes a novel design for a small and lightweight climbing robot that uses a single actuator. To guarantee reliable wall climbing, the contact phase of two tripods should overlap. A quick return leg is designed to enable phase overlap without requiring an extra actuator. Alternating tripods are also designed, and small spines with compliance are modeled based on the pseudo-rigid-body model. Layer-based fabrication is used to reduce weight. The resulting biomimetic platform is 10cm long and 10.8g in weight and can climb up a near-vertical brick wall at a rate of 5.57mm/sec.
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设计一个毫米级的仿生平台,用于在粗糙的表面上攀爬
能够爬上表面粗糙的垂直墙壁的多足小动物激发了对攀爬运动的研究。由于需要大量的执行器来进行复杂的运动,大多数能够爬上粗糙的垂直墙的机器人都又大又重。本文提出了一种新颖的小而轻的单作动器攀爬机器人设计方案。为了保证可靠的爬壁,两个三脚架的接触相位应该重叠。设计了一个快速返回腿,无需额外的执行器即可实现相位重叠。设计了交替三脚架,并基于拟刚体模型建立了具有柔度的小棘模型。基于层的制造用于减轻重量。由此产生的仿生平台长10厘米,重10.8克,可以以5.57毫米/秒的速度爬上近乎垂直的砖墙。
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