Kuka youBot手臂基于测地线的最短路径规划

Liandong Zhang, Changjiu Zhou
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引用次数: 10

摘要

最先进的Kuka youBot是一个开源机器人平台。为了提高youBot机械臂的操作性能,本文提出了一种基于测地线的机器人轨迹规划方法,用于Kuka youBot机械臂最短路径轨迹规划。测地线是黎曼曲面上两点之间的最短长度的必要条件,其中测地线的切向量的协变导数为零。根据youBot手臂轨迹的弧长距离度量来构造黎曼度量,以实现最短路径。一旦得到黎曼度规,对应的黎曼曲面就完全确定了。然后确定并计算该曲面上的测地线方程。在给定轨迹初始条件下,求解测地线方程,得到给定度规下youBot臂在关节空间的最优轨迹。关节空间中的规划轨迹也可以映射到工作空间中。以Kuka youBot手臂为例,给出了从相机姿态准备点到物体抓取点的简单轨迹规划示例,验证了该方法的可行性。
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Kuka youBot arm shortest path planning based on geodesics
The state-of-the-art Kuka youBot is an open-source robot platform. In order to improve youBot arm manipulation performance, a novel robotic trajectory planning method based on geodesics is used for Kuka youBot arm shortest path trajectory planning in this paper. Geodesic is the necessary condition of the shortest length between two points on the Riemannian surface in which the covariant derivative of the geodesic's tangent vector is zero. The Riemannian metric is constructed according to the distance metric by arc length of the youBot arm trajectory to achieve shortest path. Once the Riemannian metric is obtained, the corresponding Riemannian surface is solely determined. Then the geodesic equations on this surface can be determined and calculated. For the given initial conditions of the trajectory, the geodesic equations can be solved and the results are the optimal trajectory of the youBot arm in the joint space for the given metric. The planned trajectories in the joint space can also be mapped into the workspace. A simple trajectory planning example on Kuka youBot arm from camera pose ready point to object grasping point is given to demonstrate the feasibility of the proposed approach.
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