基于模糊逻辑技术的上臂外骨骼设计与控制

M. Tageldeen, N. Perumal, I. Elamvazuthi, T. Ganesan
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引用次数: 7

摘要

传统的康复遭受了很多挫折;它们既昂贵又耗时。机器人康复有可能成为更好的替代品。最近的证据表明,迫切需要利用患者的肌肉力量来控制辅助机器人,否则患者可能完全依赖机器人,这将导致松弛和肌肉功能恶化。非侵入式人机界面的开发具有挑战性,因为表面肌电图(sEMG)电极是不确定的和噪声的;因此,考虑到不确定性和噪声的模型似乎很重要。本研究旨在通过探索和比较不同模糊逻辑技术在从相关肌肉肌电测量中估计关节扭矩方面的性能,从而为康复外骨骼的精确控制做出贡献。
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Design and control of an upper arm exoskeleton using Fuzzy logic techniques
Traditional rehabilitation suffers from aplenty downfalls; they are costly and time consuming. Robotic rehabilitation has the potential to be a better substitute. Recent evidence suggests that there is a pressing need to employ the patient muscle effort to control the assistive robot, otherwise the patient may fully depend on the robot, and this leads to slackness and deteriorated muscle functionalities. The development of a non-invasive human-machine interface is challenging, since surface electromyography (sEMG) electrodes are uncertain and noise; hence a model that considers the uncertainty and noise involved seems important. This study aims to contribute to this growing area of research by exploring and comparing the performance of different Fuzzy logic techniques on the estimation of joint torques from relevant muscles electromyography measurements for the accurate control of rehabilitation exoskeletons.
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