一种新型工业机器人变结构控制方案:理论与实验

Yong Cao, Y. Stepanenko
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引用次数: 1

摘要

系统在滑动模式下的动态行为完全由滑动面决定。通常,在系统状态空间中选择曲面作为超平面,得到PD型滑动曲面。这不是唯一可能的结构,其他更复杂或时变表面的设计可能提供明确的优势。提出了一种基于类滑动面PID的机器人变结构控制器的设计方法和稳定性分析方法。提出了两种版本的控制器:规则控制器和自适应控制器。前者非常简单,可以在未知的机器人动力学模型下进行操作;唯一需要的信息是一个参数的边界。后者提供了该界的在线估计。两种版本的控制器对于有界外部干扰和一些未建模的动态影响都具有鲁棒性。在不需要了解机器人动力学模型和参数值的情况下,将控制方案应用于工业机器人。在一个Reis工业机器人上进行的实验表明,所开发的控制器性能稳定、准确。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A novel variable structure control scheme for an industrial robot: theory and experiments
Dynamic behavior of a system in the sliding mode is entirely defined by the sliding surface. Customarily, the surface is selected as a hyperplane in the system state-space resulting in a PD type sliding surface. This is not the only possible structure, and other designs with more complex or time-varying surfaces may provide definite advantages. We present a new design procedure and stability analysis for robotic variable structure controllers with PID like sliding surface. Two versions of the controllers are presented: regular and adaptive. The former is very simple and can operate with an unknown robot dynamic model; the only information required is a bound on one parameter. The latter provides an online estimation for this bound. Both versions of the controllers are robust with respect to bounded external disturbances and some unmodeled dynamic effects. The control schemes are applied to an industrial robot without requiring the knowledge of the dynamic model and the parameter values of the robot. Experiments conducted with a Reis industrial robot have shown stable and accurate performance of the developed controller.<>
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