W. Gao, Yuang Liao, Zhao-wen Deng, Youqun Zhao, Baohua Wang
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引用次数: 0
摘要
为了提高牵引车-半挂车在低附着力路面下的横向稳定性,基于分布式电驱动技术提出了一种考虑纵向速度控制的直接偏航力矩控制策略。设计了一种分层控制策略,上层使用线性二次调节器(LQR)控制器计算偏航力矩。为了分配纵向力和附加偏航力矩,下层控制器采用了基于二次编程的扭矩分配方法。通过 Trucksim 和 Matlab/Simulink,在单线变道(SLC)110 km/h 和双线变道(DLC)70 km/h 的条件下进行了联合仿真。结果表明,与 PID 控制器和不受控制的车辆相比,LQR 控制器提高了车辆在低附着力路面上的横向稳定性。
Study on lateral stability of distributed drive electric tractor semi-trailers under low adhesion road conditions
To improve the lateral stability of tractor-semitrailer under low adhesion road surface, a direct yaw torque control strategy considering longitudinal speed control was proposed based on distributed electric drive technology. A hierarchical control strategy was designed, with the upper layer using a linear quadratic regulator (LQR) controller to calculate the yaw moment. To distribute the longitudinal force and additional yaw moment, the torque distribution method was adopted based on quadratic programming in the lower controller. The co-simulation was conducted by Trucksim and Matlab/Simulink under the conditions of single lane change (SLC) of 110 km/h and double lane change (DLC) of 70 km/h. The results indicate that in comparison with the PID controller and the uncontrolled vehicle, the LQR controller improves the lateral stability of the vehicle on the low-adhesion road.