底盘
偏航
控制理论(社会学)
车辆动力学
工程类
滑移角
电子稳定控制
汽车工程
打滑(空气动力学)
控制系统
汽车操纵
扭矩
翻转(web设计)
方向盘
计算机科学
控制(管理)
结构工程
人工智能
航空航天工程
万维网
电气工程
物理
热力学
作者
Zhenpo Wang,Xiaolin Ding,Lei Zhang
出处
期刊:IEEE Transactions on Vehicular Technology
[Institute of Electrical and Electronics Engineers]
日期:2022-11-17
卷期号:72 (4): 4394-4410
被引量:23
标识
DOI:10.1109/tvt.2022.3222778
摘要
In this paper, a full X-by-wire chassis coordinated control scheme is proposed by synthetically utilizing the Direct Yaw-moment Control, Active Front Steering, Anti-Slip Regulation and Active Roll Control to improve the longitudinal, yaw and roll stability. First, a vehicle state prediction module is established to predict vehicle yaw and roll stability and to generate three reference vehicle states, i.e., the desired roll angle, yaw rate and longitudinal velocity. Then, a decentralized event-triggered discrete sliding mode control scheme is developed to track these reference states by coordinating the X-by-wire subsystems based on their respective effective working areas. For yaw rate control, dynamic torque regulation factors are introduced to prevent wheel slip and lock-up based on real-time slip ratio feedback. Under longitudinal driving conditions, a robust sliding mode control and a hybrid control-based method are used under emergency acceleration or braking conditions. The hardware-in-the-loop (HIL) tests under the slalom, double lane change and fish hook tests show that the proposed chassis coordinated control scheme can comprehensively improve vehicle ride comfort, handling performance, longitudinal and lateral stability, and rollover prevention ability.
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