低成本足下垂步态残疾机电仿生模型

M. Aboamer, N. Mohamed, Bakheet Alrashide
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引用次数: 1

摘要

根据世界卫生组织的报告,全世界有十亿人患有残疾。足下垂是一种步态异常,其中前足下垂导致难以抬起脚的前部。不幸的是,大量现有的步态机械模型与其他机器,即跑步机或其他平台集成在一起,这使得它们无法获得作为便携式系统使用的好处。而针对目前个人使用的可穿戴式康复机器人系统或仿生模型,特别是步态康复和落脚的仿生模型尚不多见,本文介绍了一种机电设计,是一种简单可穿戴的仿生模型,可以帮助落脚患者行走。提出的设计包含低成本的步进电机和控制器,以方便患者的运动。采用von Mises有限元法对模型进行应力、应变和位移分析,在足部模型前方区域施加20 kg载荷,分析得出最大屈服强度为2.0052×108N。M−2,最大位移1.00371 mm。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Low-cost Electromechanical Bionic Model for Foot Drop Gait Disability
Based on reports of the World Health organization there are billion people around the world suffer from disability. Foot drop is a gait abnormality in which a dropping of the forefoot causes a difficulty in lifting the front part of the foot. Unfortunately, large number of existing mechanical models for gait are integrated with another machines, i.e. treadmills or other platforms, which make it impossible to get benefit of using them as portable systems. And as wearable rehabilitation robotic systems or bionic models for personal use - specially for gait rehabilitation and drop foot - are still rare, an electro-mechanical design is introduced here to be a simple and wearable bionic model to help patients with foot drop in walking. The proposed design contains low-cost stepper motor and controller to facilitate patient movement. Stress, strain and displacement analysis were performed on the model using the von Mises finite element analysis, and by applying a 20 kg load on the front area of the foot model the analysis produced a maximum yield strength of 2.0052×108N.m−2 and a maximum displacement of 1.00371 mm.
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