Parametric Path Optimization for Wheeled Robots Navigation

Zhiqiang Jian, Songyi Zhang, Jiahui Zhang, Shi-tao Chen, N. Zheng
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引用次数: 1

Abstract

Collision risk and smoothness are the most important factors in global path planning. Currently, planning methods that reduce global path collision risk and improve its smoothness through numerical optimization have achieved good results. However, these methods cannot always optimize the path. The reason is all points on the path are considered as decision variables, which leads to the high dimensionality of the defined optimization problem. Therefore, we propose a novel global path optimization method. The method characterizes the path as a parametric curve and then optimizes the curve's parameters with a defined objective function, which successfully reduces the dimension of optimization problem. The proposed method is compared with baseline and state-of-the-art methods. Experimental results show the path optimized by our method is not only optimal in collision risk, but also in efficiency and smoothness. Furthermore, the proposed method is also implemented and tested in both simulation and real robots.
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轮式机器人导航参数路径优化
碰撞风险和平滑性是全局路径规划中最重要的因素。目前,通过数值优化降低全局路径碰撞风险、提高全局路径平滑度的规划方法已经取得了较好的效果。然而,这些方法不能总是优化路径。原因是路径上的所有点都被视为决策变量,这导致了所定义的优化问题的高维性。因此,我们提出了一种新的全局路径优化方法。该方法将路径描述为参数化曲线,通过定义目标函数对曲线参数进行优化,成功地降低了优化问题的维数。将所提出的方法与基线方法和最先进的方法进行了比较。实验结果表明,该方法优化的路径不仅在碰撞风险上最优,而且在效率和平滑度上也最优。此外,该方法还在仿真和真实机器人中进行了实现和测试。
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