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Hybrid Fuzzy Skyhook Surface Control Using Multi-Objective Microgenetic Algorithm for Semi-Active Vehicle Suspension System Ride Comfort Stability Analysis

机译:基于多目标微遗传算法的混合模糊天钩表面控制半主动车辆悬架行驶舒适性分析

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摘要

A polynomial function supervising fuzzy sliding mode control (PSFαSMC), which embedded with skyhook surface method, is proposed for the ride comfort of a vehicle semi-active suspension. The multi-objective microgenetic algorithm (MOμGA) has been utilized to determine the PSFαSMC controller's parameter alignment in a training process with three ride comfort objectives for the vehicle semi-active suspension, which is called the "offline" step. Then, the optimized parameters are applied to the real-time control process by the polynomial function supervising controller, which is named "online" step. A two-degree-of-freedom dynamic model of the vehicle semi-active suspension systems with the stability analysis is given for passenger's ride comfort enhancement studies, and a simulation with the given initial conditions has been devised in MATLAB. The numerical results have shown that this hybrid control method is able to provide real-time enhanced level of reliable ride comfort performance for the semi-active suspension system.
机译:针对汽车半主动悬架的乘坐舒适性,提出了一种嵌入了天钩面法的多项式函数模糊滑模控制(PSFαSMC)。多目标微遗传算法(MOμGA)已被用来确定PSFαSMC控制器的参数调整,该训练过程具有针对车辆半主动悬架的三个行驶舒适度目标,这被称为“离线”步骤。然后,由多项式函数监督控制器将优化的参数应用于实时控制过程,这被称为“在线”步骤。给出了具有稳定性分析的车辆半主动悬架系统的两自由度动力学模型,用于乘客乘坐舒适性的研究,并在MATLAB中设计了具有给定初始条件的仿真。数值结果表明,这种混合控制方法能够为半主动悬架系统提供实时增强的可靠乘坐舒适性。

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