陀螺仪稳定单轮机器人的设计

T. Saleh, Yap Haw Hann, Z. Zhen, A. Mamun, P. Vadakkepat
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引用次数: 21

摘要

传统的移动机器人设计是通过使重力矢量通过由结构与地面接触点确定的结构多边形内的质心来保证其稳定性。当机器人高速运动时,由于惯性力与静态重力相比变得显着,这种准静态稳定性的假设就不成立了。另一方面,如果对运动结构进行动态控制,则可以利用运动结构的动量来增强稳定性。卡内基梅隆大学(CMU)的研究人员利用这一原理制造了一个陀螺仪稳定的单轮机器人。我们的设计遵循相同的稳定性原则,但使用不同的机制来影响前进和反向运动。
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Design of a gyroscopically stabilized single-wheeled robot
Conventional design of a mobile robot ensures its stability by keeping the gravity vector through the center of mass inside the structure's polygon of support determined by the contact points between the structure and the ground. This assumption of quasi-static stability fails to hold when the robot moves at high speed as the inertial forces become significant compared to the static gravitational force. On the other hand, the momentum of the moving structure can be exploited to enhance stability if it is dynamically controlled. This principle was exploited to build a gyroscopically stabilized single-wheeled robot by researchers at Carnegie Melon University (CMU). Our design follows the same principle for stability but uses a different mechanism to effect forward and reverse motion.
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