Bionic Quadruped Robot for Mars Surface Exploration

Long Qiao, Guangming Chen, L. Richter, A. Ji
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Abstract

Mars surface exploration has attracted significant attention of scientists for exploiting new resources and space. To perform explorations on Mars surface, various structures of planetary rovers have been proposed. The Mars surface contains loose granular materials and various sizes of rocks. Traditional wheeled, crawler and legged structures of Mars rovers are mainly designed to walk on granular materials terrain, which are incapable of adapting to rocky surfaces. To improve the adaptations for both granular and rocky surfaces, this paper introduces a quadruped legged robot inspired by the locomotion of desert animal lizard that can walk on granular and rocky surfaces. The main feature is that the structure of the proposed robot possesses bionic multi-toe foot and flexible active spine. To verify the robot locomotion, kinematics on foot, leg and spine of the quadruped robot are analyzed. Furthermore, robot motions are analytically predicted with respect to two types of gaits. Combining control framework for adapting to both granular and rocky surfaces, a prototype of Mars robot has been manufactured. Experimental tests demonstrated that the bionic robot can walk on granular surfaces, and can also climb on rocky surface using the multi-joint toe with claw. Therefore, this bionic quadruped robot can have higher adaptability for Mars surface environment.
火星表面探测仿生四足机器人
火星表面探测已经引起了科学家们的极大关注,因为它可以开发新的资源和空间。为了在火星表面进行探测,人们提出了各种行星探测器的结构。火星表面含有松散的颗粒状物质和各种大小的岩石。传统的火星车轮式、履带式和腿式结构主要用于在颗粒状材料地形上行走,无法适应岩石表面。为了提高对颗粒和岩石表面的适应性,本文以沙漠动物蜥蜴的运动为灵感,设计了一种可以在颗粒和岩石表面行走的四足足机器人。该机器人的主要特点是具有仿生多趾足和柔性活动脊柱。为了验证机器人的运动,对四足机器人的足部、腿部和脊柱进行了运动学分析。此外,对两种步态类型的机器人运动进行了分析预测。结合适应颗粒和岩石表面的控制框架,制作了火星机器人样机。实验测试表明,仿生机器人可以在颗粒状表面行走,也可以利用多关节趾爪在岩石表面攀爬。因此,该仿生四足机器人对火星表面环境具有更高的适应性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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