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首页> 外文期刊>International Journal of Advanced Robotic Systems >Theoretical Insights on Contraction-Type Iterative Learning Control for Biorobotic Systems with Preisach Hysteresis
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Theoretical Insights on Contraction-Type Iterative Learning Control for Biorobotic Systems with Preisach Hysteresis

机译:具有Preisach滞后的生物机器人系统收缩型迭代学习控制的理论见解

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This article offers new insights on the learning control approach developed by [Hu et al. IEEE/ASME Trans. Mechatronics, 19(1): 191–200, 2014]. Theoretical insights are further proposed to unveil why the contraction-type iterative learning control (ILC) schemes are suitable and effective in compensating for hysteresis, widely existing in biorobotic locomotion. Under such circumstances, iteration-based second-order dynamics is adopted to describe the biorobotic systems acted upon by one unknown Preisach hysteresis term. The memory clearing operator is mathematically proven to enable feasibility of contraction-type ILC methods, regardless of whether the initial state is accurately set or not. The simulation examples confirm that the developed iteration-based controller combined with a preceded operator effectively reduce tracking errors caused by the hysteresis nonlinearity. Furthermore, the new insights on theoretical feasibility are definitively corroborated in accordance with the previously published exp...
机译:本文提供了关于由[Hu等人开发的学习控制方法的新见解。 IEEE / ASME Trans。机电一体化,19(1):191–200,2014]。进一步提出了理论上的见解,以揭示为什么收缩型迭代学习控制(ILC)方案适合并有效地补偿生物机器人运动中广泛存在的滞后现象。在这种情况下,采用基于迭代的二阶动力学来描述受一个未知Preisach滞后项作用的生物机器人系统。数学上证明了内存清除算符可实现收缩型ILC方法的可行性,而不管初始状态是否正确设置。仿真示例证实,所开发的基于迭代的控制器与之前的运算符相结合,可以有效地减少由磁滞非线性引起的跟踪误差。此外,根据先前发布的说明,最终证实了对理论可行性的新见解。

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