自主精密固定机动中路径优化与避障的集成

Rohit Kumar, Rahul Meel, B. Sandeep Reddy
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摘要

PIT(精确制动技术)机动是执法人员用来处理危险车辆追击情况的一种追击战术,在这种情况下,追击的汽车可以迫使逃跑的汽车突然转向,导致司机失去控制并停车。这样的动作有陷阱,因为它们需要司机有足够的技巧才能完成。此外,考虑到现代车辆手动PIT机动中电子稳定控制系统的使用,需要进行更精确的操作。然而,过去几十年也发生了重大变化,特别是自动驾驶技术的发展,现在可以在商用车上使用。自动坑机动可能是处理危险车辆追捕逃犯的下一步。但要实现这种机动的自主执行,首先必须进行精确的路径规划和避障。本文提出了在仿真环境和物理环境中实现路径优化技术以及避障技术来执行自主PIT机动。路径优化保证了弹丸车到达进行PIT机动的特定点。为了实现这一目标,采用了一种重要的路径优化方法。此外,将避障与路径优化相结合,避开中途的静止障碍物,从而增加了更现实的场景。本文简化了目标车辆静止或匀速运动的假设,可以在今后的工作中推广到更现实的目标车辆加速的情况。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Integration of Path Optimization and Obstacle avoidance for Autonomous Precision Immobilization Technique Maneuver
The PIT (Precision Immobilization Technique) maneuver is a pursuit tactic used by law-enforcement officials to handle dangerous vehicle pursuit situations, wherein a pursuing car can force a fleeing car to turn sideways abruptly, causing the driver to lose control and stop. Such maneuvers have pitfalls, in that they require sufficient skill on the part of the driver to be carried out. Furthermore, given the utilization of electronic stabilizing control systems in modern vehicles' manual PIT maneuvers require more precision to be carried out. However, the previous decades have also undergone significant changes, in particular the development of autonomous driving technologies, which are now available in commercial vehicles. Autonomous PIT maneuvers could be the next step in handling dangerous vehicle pursuits of fugitives. But for autonomous execution of such maneuvers, accurate path planning and obstacle avoidance must be carried out first. This work presents the implementation of path optimization technique along with obstacle avoidance in simulation environment as well as in physical environment for execution of autonomous PIT maneuvering. Path optimization ensures that the bullet vehicle arrives at the specific point where the PIT maneuver is carried out. An important path optimization method has been utilized to accomplish the goal. Furthermore, obstacle avoidance is integrated with path optimization to avoid mid-way stationary obstacles, thereby adding a more realistic scenario for the same. This paper makes a simplifying assumption that the target vehicle is stationary or moving at a constant velocity, which can be extended by future work to a more realistic scenario involving accelerated target vehicle.
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