基于车辆横向稳定区域的转向防撞和横向稳定协调控制

Qianxi Pan, Bing Zhou, Xiaojian Wu, Qingjia Cui, Kangqiang Zheng
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引用次数: 0

摘要

车辆横向稳定性和避免碰撞之间的平衡对于紧急情况下避免转向碰撞至关重要。一方面,紧急转向可能导致车辆失去横向稳定性。另一方面,过于保守的稳定性控制器可能会压缩车辆防撞的安全系数,导致防撞失败。因此,提出了基于车辆稳定区域的转向防撞和横向稳定性协调控制(SCALSC)。采用 Lyapunov's Second 方法获得横向稳定区域,而不是以线性二自由度(2-DOF)车辆状态作为稳定跟踪目标,以确保车辆状态处于稳定区域内。SCALSC 包括一个主动转向控制器和一个直接偏航力矩控制器(DYC)。主动转向控制器用于在紧急情况下避免碰撞,而 DYC 则用于稳定性控制。通过使用 Hurwitz 准则,提出了 DYC 系统的干预准则。最后,基于 MATLAB/Simulink 进行了仿真测试。仿真结果表明,所提出的协调控制方法确保了稳定性,提高了避撞的安全系数,实现了紧急情况下避撞和自主车辆稳定性控制的多目标协调控制。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Steering collision avoidance and lateral stability coordinated control based on vehicle lateral stability region
The balance between vehicle lateral stabilization and collision avoidance is critical for steering collision avoidance in emergency situations. On the one hand, emergency steering may cause a vehicle to lose its lateral stability. On the other hand, the overly conservative stability controller may compress the safety margin of vehicle collision avoidance, leading to failure of collision avoidance. Therefore, steering collision avoidance and lateral stability coordinated control (SCALSC) based on the vehicle stability region is proposed. The Lyapunov’s Second Method is used to obtain the lateral stability region instead of the linear two-degree-of-freedom (2-DOF) vehicle states as the stability tracking target to ensure that the vehicle states are in the stability region. The SCALSC includes an active steering controller and a direct-yaw-moment controller (DYC). An active steering controller is used for collision avoidance in emergency conditions, while DYC is used for stability control. An intervention criterion for the DYC system is proposed by using the Hurwitz criterion. Finally, a simulation test was carried out based on MATLAB/Simulink. The simulation results show that the proposed coordinated control method ensures stability, improves the safety margin of collision avoidance, and realizes multiobjective coordinated control of collision avoidance and autonomous vehicle stability control in emergency situations.
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