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Design and Implementation of a Novel Robot Foot with High-adaptability and High-adhesion for Heavy-load Walking Robots

机译:一种新型机器人脚的设计与实现,具有高适应性和高粘连的重载行走机器人

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Due to special advantages of legged robots, research on the legged robots has been becoming a hot topic in recent years. However, study on the foot system is relatively limited, so far there is no foot that can adapt to all terrain. On the basis of investigation of the state-of-the-art of legged robots, this study presents a novel foot structure for the legged robots, design of the foot system with high- adaptability and large-adhesion is carried out to adapt extreme road conditions and the complex terrain conditions, such as mountains and swamps. The anti-skid cone, footpad, elastic skeleton, limit rubber ring, lower support, bionic Achilles tendon, cross joint, upper support, wrist buffer and other parts are designed. Based on Recurdyn dynamic analysis software, a virtual foot simulation platform for heavy load-bearing robot is developed, which consists of physical model for foot, control model, terrain module and foot-ground interaction module, and the simulation for the large load-bearing robot is realized. the simulation results show that the new foot can adapt to various terrain conditions, provide sufficient adhesion, improve the driving stability of the foot robots. Finally, combine prototype implementation, the design method of each part of the foot system is described in detail, and the bearing capacity of the foot system on different pavement is analyzed.
机译:由于腿机器人的特殊优势,近年来,对腿机器人的研究一直成为一个热门话题。然而,对脚踏系统的研究相对有限,到目前为止没有足够的脚,可以适应所有地形。在对腿机器人最先进的调查的基础上,本研究提出了一种新的脚踏结构,用于腿机器人,具有高适应性和大粘连的脚踏系统的设计,以适应极端道路条件和复杂的地形条件,如山脉和沼泽。设计了防滑锥,脚板,弹性骨架,限制橡胶环,更低的支撑,仿生桥肌腱,交叉关节,上支撑,手腕缓冲和其他部件。基于Recurdyn动态分析软件,开发了一种用于重载机器人的虚拟脚踏仿真平台,由脚踏,控制模型,地形模块和脚踏互动模块的物理模型组成,以及大承重的仿真机器人实现了。仿真结果表明,新脚可以适应各种地形条件,提供足够的粘合,提高脚机器人的驱动稳定性。最后,结合原型实现,详细描述了脚系统的每个部分的设计方法,分析了脚系统在不同路面上的承载力。

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