Intelligent control for lower limb rehabilitation system

Chin-Sheng Chen, Ming-Shium Hsieh, Feng-Chi Lee, Yu-Hsin Lin
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Abstract

This paper proposes the design and control of passive and active motion of lower limb rehabilitation system. The dynamic model of the rehabilitation machine is firstly derived for further controller design. Then, an intelligent sliding-mode control (ISMC) system which involved recurrent Hermite neural network (RHNN) estimator to estimate the unknown external disturbance and uncertainty is proposed to track the angular position and velocity in the passive motion. In the active motion, the position-based impedance control is implemented to achieve human-machine compliance.
下肢康复系统的智能控制
提出了下肢康复系统被动运动和主动运动的设计与控制。首先推导了康复机的动力学模型,为进一步的控制器设计提供依据。然后,提出了一种利用递归赫米特神经网络(RHNN)估计器估计未知外部干扰和不确定性的智能滑模控制(ISMC)系统,用于跟踪被动运动中的角位置和速度。在主动运动中,实现了基于位置的阻抗控制,实现了人机顺应性。
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