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Bezier Curve Based Path Planning in a Dynamic Field using Modified Genetic Algorithm

机译:基于贝塞尔曲线的动态遗传路径规划的改进遗传算法

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Mobile robots have been used in different applications such as assembly, transportation, and manufacturing. Although, the great work to get the optimum robot's path, traditional path planning algorithms often assume that the environment is perfectly known and try to search for the optimal path that contains sharp turns and some polygonal lines. This paper proposes an efficient, Bezier curve based approach for the path planning in a dynamic field using a Modified Genetic Algorithm (MGA). The proposed MGA aims to boost the diversity of the generated solutions of the standard GA which increases the exploration capabilities of the MGA. In our proposed method, the robot's path is dynamically decided based on the obstacles' locations. With the goal of optimizing the distance between the start point and the target point, the MGA is employed to search for the most suitable points as the control points of the Bezier curve. Using the chosen control points, the optimum smooth path that minimizes the total distance between the start and the end points is selected. Our model was tested on different environments with different scales, different numbers of obstacles, and six benchmark maps. As a result, the proposed method provides an efficient way to avoid robot's energy consumption in harsh environments. (C) 2017 Elsevier B.V. All rights reserved.
机译:移动机器人已用于不同的应用程序,例如组装,运输和制造。尽管,这是获得最佳机器人路径的一项艰巨工作,但传统的路径规划算法通常会假设环境是完全已知的,并尝试搜索包含急转弯和一些折线的最佳路径。本文提出了一种有效的基于贝塞尔曲线的方法,该方法使用改进的遗传算法(MGA)在动态领域进行路径规划。拟议的MGA旨在提高标准GA生成的解决方案的多样性,从而增加MGA的探索能力。在我们提出的方法中,机器人的路径是根据障碍物的位置动态确定的。为了优化起点和目标点之间的距离,MGA用于搜索最合适的点作为Bezier曲线的控制点。使用选定的控制点,选择最佳的平滑路径,该路径将起点和终点之间的总距离最小化。我们的模型在具有不同比例,不同数量障碍物和六张基准图的不同环境中进行了测试。结果,所提出的方法提供了一种避免恶劣环境下机器人能耗的有效方法。 (C)2017 Elsevier B.V.保留所有权利。

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