基于颗粒干扰的柔性足部的摩擦和阻尼

Simon Hauser, P. Eckert, Alexandre Tuleu, A. Ijspeert
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引用次数: 29

摘要

从目前四足机器人的简单足部设计转向更受生物启发的方法,一种新颖的足部设计在四足机器人Oncilla上实现。这些脚模仿狗和猫的软爪垫,具有高牵引力和柔软的底层组织。它们由包裹在柔性膜中的颗粒状介质组成,可以设置为不同的压力/真空条件。通过对机器人进行概念验证测试,完成了摩擦力、阻尼和变形等一般性能的测试。这些包括平地运动以及不同倾斜度的斜坡上升。通过与旧脚的对比试验,表明新脚具有高摩擦和强阻尼性能。此外,平地运动的速度与机器人在保持所需小跑步态的前提下,前脚的最大速度相当。这些都是有腿运动很有前途的方面。颗粒介质的干扰先前已被用于创建一个通用的抓手,在未来也开辟了机会,用脚在运动和简单的物体操作(虽然操作没有测试在这里)。
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Friction and damping of a compliant foot based on granular jamming for legged robots
Moving away from simple foot designs of current quadruped robots towards a more bio-inspired approach, a novel foot design was implemented on the quadruped robot Oncilla. These feet mimic soft paw-pads of dogs and cats with high traction and soft underlying tissue. Consisting of a granular medium enclosed in a flexible membrane, they can be set to different pressure/vacuum conditions. Tests of general properties such as friction force, damping and deformation were completed by proof of concept tests on the robot. These included flat ground locomotion as well as ascending a slope with different inclination. Comparison tests with the previous feet were performed as well, showing that the new feet have a high friction and strong damping properties. Additionally, the speed of flat ground locomotion is comparable to the maximum speed of the robot with the previous feet while retaining the desired trotting gait. These are promising aspects for legged locomotion. The jamming of granular media previously has been used to create a universal gripper which in the future also opens up opportunities to use the feet both in locomotion and simple object manipulation (although the manipulation is not tested here).
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