基于笛卡尔阻抗控制的拟人双臂机器人人体运动实时仿真

R. Luo, Bo-Han Shih, Tsung-Wei Lin
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引用次数: 38

摘要

提出了一种实时人体动作模仿方法,通过人体演示控制拟人双臂机器人。我们利用Kinect传感器处理后的人体骨骼关节位置作为指令,直接利用笛卡尔阻抗控制来控制机械臂跟随人体运动,而不需要求解运动学逆问题。为了避免机器人手臂运动时的抖动,我们采用在线轨迹生成器算法,通过施加速度和加速度的限制来获得平滑的运动轨迹。此外,还考虑了自碰撞问题。当身体两部分之间的距离足够近时,会自动产生斥力,防止碰撞。考虑到机器人的能力和安全问题,对输出力进行限制,以保证机器人的动作稳定。我们通过在实验室开发的仿人双臂机器人上实现人体运动模仿系统来证明该方法的可行性。实验结果表明,该系统具有良好的实用性和足够的灵活性,可以模拟人体的各种动作。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Real time human motion imitation of anthropomorphic dual arm robot based on Cartesian impedance control
This paper presented a real-time human motion imitation approach to control an anthropomorphic dual arm robot by human demonstration. We use the processed positions of human skeleton joints from Kinect sensor as commands directly to control the robot arms by using Cartesian impedance control to follow the human motion without solving inverse kinematics problem. In order to avoid a jerky robot arm motion, we apply an on-line trajectory generator algorithm to obtain a smooth movement trajectory by imposing the limit of velocity and acceleration. Moreover, the self-collision problem has also been considered. When the distance between two parts of body is close enough, a repulsive force will automatically generate to prevent collision. Taking the robot capability and safe issue into account, the output force is restricted to ensure that the action of robot is stable. We demonstrate the feasibility of the approach by implementing the human motion imitation system on a humanoid dual arm robot developed in our lab. The experimental results show that the system is in good practice and flexible enough to imitate various human motions.
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