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Improved Manipulator Obstacle Avoidance Path Planning Based on Potential Field Method

机译:基于潜在现场方法改进的机械手障碍避免路径规划

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摘要

Aiming at the existing artificial potential field method, it still has the defects of easy to fall into local extremum, low success rate and unsatisfactory path when solving the problem of obstacle avoidance path planning of manipulator. An improved method for avoiding obstacle path of manipulator is proposed. First, the manipulator is subjected to invisible obstacle processing to reduce the possibility of its own collision. Second, establish dynamic virtual target points to enhance the predictive ability of the manipulator to the road ahead. Then, the artificial potential field method is used to guide the manipulator movement. When the manipulator is in a local extreme or oscillating, the extreme point jump-out function is used in real time to make the end point of the manipulator produce small displacements and change the action direction to effectively jump out of the dilemma. Finally, the manipulator is controlled to avoid all obstacles and move smoothly to form a spatial optimization path from the start point to the end point. The simulation experiment shows that the proposed method is more suitable for complex working environment and effectively improves the success rate of manipulator path planning, which provides a reference for further developing the application of manipulator in complex environment.
机译:针对现有的人工潜在场方法,在解决机械手的障碍路径规划问题时,仍然具有易于陷入局部极值,低成功率和不令人满意的路径的缺陷。提出了一种避免操纵器障碍路径的改进方法。首先,操纵器经受看不见的障碍物处理,以减少自己的碰撞的可能性。其次,建立动态虚拟目标点,以提高操纵器对前方道路的预测能力。然后,人工潜在场方法用于引导操纵器运动。当操纵器处于局部极端或振荡时,极端点跳出功能实时使用,使机械手的终点产生小的位移并改变动作方向以有效地跳出困境。最后,控制操纵器以避免所有障碍物,并平滑地移动以形成从起点到终点的空间优化路径。仿真实验表明,该方法更适合于复杂的工作环境,有效提高操纵器路径规划的成功率,这提供了进一步开发机械手在复杂环境中的应用的参考。

著录项

  • 来源
    《Journal of robotics》 |2020年第1期|1701943.1-1701943.12|共12页
  • 作者

    Ming Zhao; Xiaoqing Lv;

  • 作者单位

    School of Applied Technology University of Science and Technology Liaoning Anshan 114051 China;

    School of Electronics and Information Engineering University of Science and Technology Liaoning Anshan 114051 China;

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  • 原文格式 PDF
  • 正文语种 eng
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