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Robust adaptive fault tolerant controller design for active suspension system in the presence of physical parametric uncertainties

机译:存在物理参数不确定性的主动悬架系统鲁棒自适应容错控制器设计

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This paper presents a robust adaptive state dependent fault tolerant control scheme for the class of nonlinear Lipschitz systems in the presence of bounded matched or unmatched disturbances and actuator loss of effectiveness. A constructive algorithm based on Linear Matrix Inequalities (LMIs) with creatively using Lyapunov stability theory is developed for on-line tuning of state-feedback gains to stabilize the closed-loop control system asymptotically, to compensate actuator faults, and to attenuate disturbance effects. The resulting control system has a simpler structure as compared with most existing recent methods. The merits of the proposed control scheme have been verified by the simulation on an active suspension system in the presence of physical parametric uncertainties. □.
机译:针对存在有限匹配或不匹配扰动以及执行器效率降低的非线性Lipschitz系统,本文提出了一种鲁棒的自适应状态依赖容错控制方案。开发了一种基于线性矩阵不等式(LMI)并使用Lyapunov稳定性理论的建设性算法,用于状态反馈增益的在线调整,以渐进稳定闭环控制系统,以补偿执行器故障,并减弱干扰效应。与大多数现有的最新方法相比,最终的控制系统具有更简单的结构。在存在物理参数不确定性的情况下,通过对主动悬架系统进行仿真,已验证了所提出控制方案的优点。 □。

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