智能轮椅的脑/肌肉混合驱动控制

Zhijun Li, Shuangshuang Lei, C. Su, Guanglin Li
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引用次数: 21

摘要

由脑机接口(BCI)控制的轮椅机器人可以为重度残疾人的日常生活提供有力的辅助,特别是帮助他们自主移动。为了更好地理解人的“思想”,由于脑/肌肉混合接口技术的发展,本文提出了一种实时脑/肌肉混合接口,通过无创运动图像脑电图(EEG)和肌电图(EMG)直接控制轮椅,使残疾人恢复几种运动能力。提取使用者的肌电信号和脑电图信号来控制智能轮椅的运动。这两种信号处理都包括离线训练、在线控制评估和实时控制。该人机系统采用一种称为公共空间模式(common spatial patterns, CSP)的算法来提取最具判别性的空间模式对作为特征。在开发的人-轮椅系统上进行了大量的实验来验证所提出的方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Hybrid brain/muscle-actuated control of an intelligent wheelchair
Brain-computer interface (BCI) controlled wheelchair robots can serve as powerful aids for severely disabled people in their daily life, especially to help them move voluntarily. In order to better understand human “thought”, owing to the development of the hybrid brain/muscle interface technique, in this paper, we present a real-time hybrid brain/muscle interface to control a wheelchair directly to keep the disables recovering several motion capabilities by using noninvasive motor imagery Electroencephalography (EEG) and Electromyography (EMG). The EMG and EEG signals from the users are extracted to control the motion of an intelligent wheelchair. Both signals processing consists of off-line training, online control evaluation, and real-time control. An algorithm called the common spatial patterns (CSP) is used in this human-robot system to extract the most discriminative spatial patterns pairs as features. The extensive experiments were conducted on the developed human-wheelchair systems to verify the proposed approaches.
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