A Study of Improved Global Path Planning Algorithm for Parking Robot Based on ROS

Li Yan, Lixin Qi, Kan Feiran, Chen Guang, Chen Xinbo
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引用次数: 3

Abstract

This paper proposes an improved global path planning algorithm to generate the optimal global path that satisfies the kinematic constraints of parking robots. The estimation function is improved through BP neural network, which improves the planning efficiency of finding the shortest path. Improve the drivability of the planned route by setting up the prohibited area and the route backtracking. A simulation platform is built based on ROS, and the path planning effect of the traditional A* algorithm is compared with the effect of the improved global path planning algorithm. The results show that the improved algorithm has a shorter path length and better drivability. The overall deviation of the simulated trajectory driving along this path is small. The improved algorithm is used to conduct multiple terminal path planning experiments. The results show that the total length of the path generated by the algorithm is close to the global optimum, the path is smooth and easy to track.
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基于ROS的停车机器人改进全局路径规划算法研究
提出了一种改进的全局路径规划算法,以生成满足停车机器人运动约束的最优全局路径。通过BP神经网络对估计函数进行改进,提高了寻找最短路径的规划效率。通过设置禁区和路线回溯,提高规划路线的可行驶性。建立了基于ROS的仿真平台,对比了传统A*算法与改进全局路径规划算法的路径规划效果。结果表明,改进算法具有更短的路径长度和更好的驾驶性能。仿真轨迹沿此路径行驶的总体偏差较小。利用改进算法进行了多终端路径规划实验。结果表明,该算法生成的路径总长度接近全局最优,路径光滑,易于跟踪。
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