上肢矫形器发展的日常任务手臂轨迹分析。

R Ramanathan, S P Eberhardt, T Rahman, W Sample, R Seliktar, M Alexander
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引用次数: 33

摘要

为指导上肢矫形器的研制,记录健全受试者执行九项日常任务时手臂和身体的时空运动。为了让使用者有机会用自然的运动来完成这些任务,矫形器应该允许复制测量的轨迹。我们概述了支撑使用者上臂和前臂的矫形器结构,并分析了运动数据以获得矫形器设计规范。通过安装在腕部、肘部、肩部、躯干和头部的六自由度磁位置传感器获得运动轨迹。肘部轨迹数据沿主要笛卡尔轴分解为范围,以提供一般有用的包络测量。对于大多数任务,包含肘部轨迹的最小笛卡尔平行管道约为前/后30厘米,侧/侧15厘米,上下17厘米。通过要求受试者在最小化肘部运动的同时重复任务获得的粗略下界估计大大减少了上/下和侧/侧尺寸的运动。肘关节角度一般在50度-150度之间,前臂相对于垂直线的角度在10度-110度之间。原始轨迹数据可以从www://asel.udel.edu/robotics/orthosis/range.h tml下载。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Analysis of arm trajectories of everyday tasks for the development of an upper-limb orthosis.

Spatiotemporal arm and body movements of able-bodied subjects performing nine everyday tasks were recorded for the purpose of guiding the development of an upper-limb orthosis. To provide a user the opportunity to carry out these tasks with natural movements, the orthosis should allow replication of the measured trajectories. We outline the orthosis architecture, which supports the user's upper arm and forearm, and analyze the movement data to obtain orthosis design specifications. Trajectories were obtained using six-degree-of-freedom magnetic position sensors affixed to the wrist, elbow, shoulder, trunk and head. Elbow trajectory data were decomposed into ranges along the principle Cartesian axes to provide a generally useful envelope measure. The smallest Cartesian parallel-piped that contained the elbow trajectories for most tasks was approximately 30 cm front/back, 15 cm side/side, and 17 cm up/down. A rough lower bound estimate obtained by asking subjects to repeat the tasks while minimizing elbow movement substantially reduced movement in the up/down and side/side dimensions. Elbow angles were generally in the range 50 degrees-150 degrees, and the angle of the forearm with respect to vertical was 10 degrees-110 degrees. Raw trajectory data may be downloaded from www://asel.udel.edu/robotics/orthosis/range.h tml.

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