A Spherical Mobile Robot Driven by Eccentric Pendulum and Self-stabilizing by Flywheel*

Han Mao, Aibin Zhu, Yao Tu, Zheng Zhang, Dangchao Li, Yulin Zhang, Zhifu Guo
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引用次数: 2

Abstract

Aiming at the problem of insufficient stability of the existing spherical robot, a spherical robot driven by eccentric pendulums and self-stabilizing by flywheel is proposed in this paper. The robot is driven by the gravity shift of the pendulum and its stability is improved by flywheels rotating at high speed. This paper designed the structure of the robot and established a three-dimensional model in SolidWorks. After finishing the spherical robot prototype, its motion performance is verified by experiment. According to the experimental results, the maximum climbing angle of the spherical robot driven only by the eccentricity of the gravity pendulum is 7°, and the stability can be significantly improved when the flywheel is enabled. With fast braking of the flywheel, the robot can climb over the obstacles to the instantaneous climbing angle of 28° and move steadily in rugged terrain.
一种偏心摆驱动、飞轮自稳定的球形移动机器人
针对现有球面机器人稳定性不足的问题,提出了一种偏心摆驱动、飞轮自稳定的球面机器人。该机器人由摆的重力位移驱动,并通过飞轮高速旋转来提高机器人的稳定性。本文设计了机器人的结构,并在SolidWorks中建立了机器人的三维模型。完成球形机器人样机后,通过实验验证了其运动性能。实验结果表明,仅靠重力摆偏心驱动的球形机器人最大爬升角为7°,启用飞轮后,机器人的稳定性得到显著提高。通过飞轮的快速制动,机器人可以爬越障碍物,瞬时爬越角度为28°,在崎岖地形中平稳移动。
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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