平面弹簧质量双足机器人的鲁棒行走控制

Wenqi Hou, Honglei An, Taihui Zhang, Jian Wang, Hongxu Ma
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引用次数: 0

摘要

可变弹簧负载倒立摆(V-SLIP)模型捕获了人体运动中髋关节或COM运动的特征特性。针对两足步行机器人,提出了一种由腿刚度控制器和足部位置控制器组成的控制策略。在控制策略中考虑了一些限制条件,如摩擦力和执行器的能力。设计了一种新的轨迹函数用于姿态相位控制。该函数不仅可以近似于标称轨迹,误差在亚毫米量级,而且可以在水平速度下保持对垂直速度的限制。为了验证控制策略和轨迹函数,对虚拟理想两足步行机器人进行了仿真。步行者开始以低速度行走,通过几步到达所需的步行周期。采用所提出的控制策略,行走器能够从20 N*m的扰动中恢复。
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Robust walking control of a planar spring mass biped robot
The variable spring-loaded inverted pendulum (V-SLIP) model captures characteristic properties of the hip or COM motion in human locomotion. A control strategy consists of a leg stiffness controller and a foot placement controller is proposed for a biped walker. Some restrictions are considered in the control strategy, e.g. the friction and the ability of the actuator. A novel trajectory function is designed for stance phase control. The function not only can approximate the nominal trajectory with error in the order of sub-millimeter, but also can preserve the restriction on vertical velocity in spite of the horizontal velocity. To validate the control strategy and the trajectory function, simulations are implemented on a virtual ideal biped walker. The walker starts walking with a low velocity, by taking a few steps it comes to the desired walking cycle. With the proposed control strategy the walker is able to recover from a disturbance up to 20 N*m.
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