基于半主动悬架的车辆安全与舒适性控制

Yihang Guan, Hongliang Zhou, Zhen He, Zhiyuan Liu
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引用次数: 2

摘要

本文提出了一种调整半主动悬架阻尼力的控制策略,以提高车辆的性能,包括不平整路面缓转弯时兼顾垂直振动和侧倾运动的舒适性、陡坡转弯时的偏航跟踪能力和急转弯时的侧翻避免能力。首先建立了横摇偏航耦合动力学模型和四分之一悬架模型。考虑到路面不平整度是引起车辆垂直振动和不舒适的主要因素,提出了一种用簧载质量垂直加速度评价路面不平整度的简便方法。将横摇和偏航耦合动力学模型简化为计算成本较低的预测模型,并设计了MPC控制器。分别设计了舒适性、偏航跟踪和避免侧翻三个不同的代价函数,并根据优先级提出了切换策略。仿真结果表明,本文提出的控制策略能够有效地降低飞机的不适感、横摆角速度超调和侧翻风险。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Vehicle Safety and Comfort Control base on Semi-Active Suspension
This paper proposes a novel control strategy adjusting damper force of semi-active suspension to improve vehicle performance, including comfort performance considering both vertical vibration and roll motion during a gentle turn on uneven road, yaw tracking capability during a shaper turn, and rollover avoidance during a fierce turn. The coupled roll and yaw dynamics model and quarter suspension model are firstly established. Considering road unevenness is the main factor which causes vertical vibration and discomfort, a simple method to evaluate road unevenness with vertical acceleration of sprung mass is proposed. The coupled roll and yaw dynamics model is simplified to a prediction model with lower computational cost, and then an MPC controller is designed. Three different cost functions of comfort, yaw tracking and rollover avoidance respectively are designed, and their switching strategy is proposed according to priorities. Simulation results show that control strategy proposed in this paper is effective to reduce discomfort, overshoot of yaw rate and risk of rollover.
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