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Robot controller design for achieving global asymptotic stability and local prescribed performance

机译:用于实现全局渐近稳定性和局部规定性能的机器人控制器设计

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This paper presents some useful results which follow from the particular structural properties of a rigid robot model while the system is subject to the action of an output feedback. Given a rigid robot model, the controller ensures, in addition to the global asymptotic stability property, an eigenvalues assignment of the resulting linearized model within the stable region of the complex plane. In this way, required global and local control objectives can be achieved. Furthermore, the design of the controller is accomplished by applying a sort of a decoupling procedure that decomposes the entire nonlinear closed-loop system to a set of reduced-order nonlinear systems. The dependence of the eigenvalues of the linearized model on the model uncertainties is investigated. Simulation results that demonstrate the potential of the approach are presented.
机译:本文介绍了一些有用的结果,这些结果来自于刚性机器人模型的特殊结构特性,而系统却受到输出反馈的作用。给定刚性机器人模型,除了全局渐近稳定性属性外,控制器还确保在复杂平面的稳定区域内对所得线性化模型进行特征值分配。这样,可以实现所需的全局和局部控制目标。此外,控制器的设计是通过应用一种将整个非线性闭环系统分解为一组降阶非线性系统的解耦程序来完成的。研究了线性化模型特征值对模型不确定性的依赖性。仿真结果表明了该方法的潜力。

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