研究仿人机器人进行STS运动时站立时间与稳定性的关系

Mohd Bazli Bahar, M. F. Miskon, F. Ali, A. Shukor, M. Jamaludin
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引用次数: 0

摘要

STS的主要挑战是解决从椅子上起飞的问题。针对这一问题,提出了基于Alexander STS技术的相位和轨迹规划和基于比例速度控制的IF-THEN规则控制给定动作(方向和增益)的运动控制两种方法。本文通过观察站立速度(即站立周期)t与STS运动稳定性的关系,对STS运动的轨迹规划进行了讨论,并在矢状平面上引入了人体在y轴上的角方向(角y)的限制,采用Nao类人机器人执行该任务。通过测量轨迹角、压力中心、CoP读数来验证该方法。结果表明,静置周期、Ts对稳定的STS运动起着重要作用,且稳定性随Ts的增加而增加。Ts = 3.0时RMSE最低为8.83°。当前动量随着y角弹道限制的实施而减小时,结果表明RMSE随着Ts的增加而增加。然而,当Ts = 1.5时,最低RMSE为7.07°,其中RMSE在使用更短的站立时间(Ts)时降低。所提出的角度y限制提高了运动稳定性,能够更快地执行任务。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Investigating the relation between standing period and stability of humanoid robot when performing STS motion
The main challenge in STS is addressing the lift-off from chair problem. In solving the problem, two method was proposed, 1) phase and trajectory planning based on the Alexander STS technique and 2) motion control which applied IF-THEN rules to control the action given (direction and gain) with aid of proportional velocity control. This paper discussed on the trajectory planning to perform STS motion by, 1) Observation of the relationship between standing velocity i.e standing period, Ts with the stability of the STS motion and 2) Introduce a limitation on body's angular direction in y-axis on saggital plane, angle y. Nao humanoid robot is used to perform the task. Angle y trajectory and centre of pressure, CoP reading was measured to validate the proposed method. The results show that Standing period, Ts plays important role in order to perform a stable STS motion where stability increased as Ts increased. The lowest RMSE is 8.83° when Ts = 3.0. When the forward momentum decreasing with the implementation of angle y trajectory limitation, the results shows RMSE increased as Ts increased. However, the lowest RMSE is 7.07° when Ts = 1.5 where RMSE was decreased while using much lower standing period, Ts. The proposed angle y limitation has improved the motion stability and able to perform the task faster.
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