滑动机器人质心加速度控制设计

Masatsugu Nishihara, F. Asano
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引用次数: 0

摘要

为了使运动机器人在光滑的表面上以简单的控制实现稳定的运动,作者开发了一种积极利用滑动的类爬行运动机器人。澄清了以往的研究,即质心的运动强烈地引起滑动运动;然而,它们并没有阐明滑地上滑动运动产生的原理。基于运动原理,为设计有效的加速度控制系统,使滑车在光滑的地面上高效滑行,研究了质心加速度与摩擦力的关系。首先,我们介绍了一个具有两个正交伸缩关节的简单机器人模型。其次,推导出运动方程。第三,设计了质心加速度控制。第四,进行了数值模拟。通过简单的控制,机器人可以在光滑的地面上平稳地移动。此外,我们的模型允许我们选择合适的弹簧参数,将机器人的比阻提高到0.2039[-]。
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Design of Acceleration Control for Center of Mass on Sliding Robot
To achieve steady locomotion with simple control for a locomotion robot on a slippery surface, the authors have been developing a crawling-like locomotion robot positively utilizing sliding. The previous researches were clarified that motion of the center of mass mightily induces sliding motion; whereas, they does not elucidate a principle of sliding motion generation on slippery ground. Aiming at designing effective acceleration control to efficiently slide on a slippery level ground based on a locomotion principle, we investigate relation between acceleration of the center of mass and friction in this paper. First, we introduce a simple robot model with two orthogonal telescopic joints. Second, we derive the equation of motion. Third, we design the acceleration control for the center of mass. Fourth, we show numerical simulation. The robot steadily locomotes on the slippery ground with simple control. In addition, our model allowed us to choose appropriate spring parameters which improve the specific resistance of the robot to 0.2039 [-].
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