基于模型预测控制的铰接车辆在线路径规划

T. Nayl, G. Nikolakopoulos, T. Gustafsson
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引用次数: 9

摘要

本文将提出一种基于模型预测控制的铰接车辆在线路径规划算法,用于在部分已知和基于感官的重构环境中移动。该算法属于类bug路径规划算法,具有考虑铰接车辆真实动态的能力。基于a)对当前和目标点的先验知识,b)对周围环境的部分感知,该算法能够在线调整铰接式转向角度,以驱动车辆的前后部分避免与障碍物碰撞,同时收敛到目标点。所提出的路径规划算法能够在线生成下一个参考路径点,解决局部和次优问题,同时在后续中利用模型预测控制器创建适当的控制信号,即基于车辆误差动力学运动学模型的铰接角速率。多个仿真结果证明了该方案的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
On-Line path planning for an articulated vehicle based on Model Predictive Control
In this article, a novel on-line path planning algorithm for an articulated vehicle, moving in a partially known and sensory based reconstructed environment, and relying on Model Predictive Control will be presented. The proposed algorithm belongs to the family of bug like path planning algorithms and has the capability to take under consideration the real dynamics of the articulated vehicle. Based on: a) an a priori knowledge of the current and the goal points, and b) a partial sensory based awareness of the surrounding environment, the algorithm is able to tune online the articulated steering angle in order to drive the front and the rear parts of the vehicle from avoiding collision with obstacles, while converging to the goal point. The proposed path planning algorithm is able to produce on-line the next reference way-point, solving the local and sub-optimal problem, while in the sequel a Model Predictive Controller is being utilized for creating the proper control signal, the rate of the articulated angle based on an error dynamics kinematic model of the vehicle. Multiple simulation results are being presented that prove the efficiency of the suggested scheme.
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