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一种用于实现日常生活活动中基本手部功能的两自由度肌电假手的结构设计。

Structure design for a Two-DoF myoelectric prosthetic hand to realize basic hand functions in ADLs.

作者信息

Hoshigawa Suguru, Jiang Yinlai, Kato Ryu, Morishita Soichiro, Nakamura Tatsuhiro, Yabuki Yoshiko, Yokoi Hiroshi

出版信息

Annu Int Conf IEEE Eng Med Biol Soc. 2015;2015:4781-4. doi: 10.1109/EMBC.2015.7319463.

Abstract

Prosthetic hands are desired by those who have lost a hand or both hands not only for decoration but also for the functions to help them with their activities of daily living (ADL). Prosthetic robotic hands that are developed to fully realize the function of a human hand are usually too expensive to be economically available, difficult to operate and maintain, or over heavy for longtime wearing. The aim of this study is therefore to develop a simplified prosthetic hand (sim-PH), which is to be controlled by myoelectric signals from the user, to realize the most important grasp motions in ADL by trading off the cost and performance. This paper reports the structure design of a two-DoF sim-PH with two motors to drive the CM joint of the thumb and the interlocked MP joints of the other four fingers. In order to optimize the structure, the model of the sim-PH was proposed based on which 7 sim-PHs with different structural parameters were manufactured and tested in a pick-and-place experiment. Correspondence analysis of the experimental results clarified the relationship between the hand functions and the shapes of fingers.

摘要

对于那些失去一只手或双手的人来说,假肢手不仅用于装饰,还用于帮助他们进行日常生活活动(ADL)的功能。为了完全实现人手功能而开发的假肢机器人手通常过于昂贵,在经济上难以获得,操作和维护困难,或者对于长时间佩戴来说过于沉重。因此,本研究的目的是开发一种简化的假肢手(sim-PH),由用户的肌电信号控制,通过权衡成本和性能来实现ADL中最重要的抓握动作。本文报道了一种双自由度sim-PH的结构设计,该设计有两个电机,分别驱动拇指的CM关节和其他四个手指的联锁MP关节。为了优化结构,提出了sim-PH的模型,并在此基础上制造了7种具有不同结构参数的sim-PH,并在抓取和放置实验中进行了测试。实验结果的对应分析阐明了手部功能与手指形状之间的关系。

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