基于控制障碍函数的自动驾驶汽车反应性避碰

E. H. Thyri, Erlend A. Basso, M. Breivik, K. Pettersen, R. Skjetne, A. Lekkas
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引用次数: 20

摘要

提出了一种基于控制障碍函数(CBFs)的自主地面车辆反应性避碰方法。根据《国际海上避碰规则》(COLREGs)的规定,船东(我方控制的船舶)与目标船舶发生碰撞时,船东可分为正撞、超车、让行、停车或安全情况。然后,根据分类为目标船舶分配一个空间区域,并使用该区域定义一个无碰撞集。在此基础上,构造了保证无碰撞集前向不变性的CBF。然后,该CBF可以作为不等式约束应用于任何基于优化轨迹跟踪或推力分配系统的制导、导航和控制系统。该方法通过模拟验证,并被认为可以处理正面,超车和超车情况,同时符合COLREGs规则13-15和17。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Reactive collision avoidance for ASVs based on control barrier functions
A reactive collision avoidance method for autonomous surface vehicles based on control barrier functions (CBFs) is proposed. An encounter between the ownship (the vessel that we control) and a target ship is classified, in accordance with the International Regulations for Preventing Collisions at Sea (COLREGs), to be either a head-on, overtake, give-way, stand-on or a safe situation with respect to the ownship. Subsequently, a spatial region is assigned to the target ship based on the classification, and this region is used to define a collision-free set. Based on this, a CBF is formulated to ensure forward invariance of the collision-free set. This CBF can then be applied as an inequality constraint to any guidance, navigation and control system with an optimization-based trajectory tracking or thrust allocation system. The method is verified through simulations and is seen to handle head-on, overtaking and crossing situations with both give-way and stand-on duty in compliance with COLREGs rules 13-15 and 17.
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