F. D. Luzio, D. Simonetti, F. Cordella, G. Carpino, F. Draicchio, L. Zollo
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引用次数: 1
摘要
臂重支持已被证明是机器人辅助神经康复的关键组成部分,以允许严重残疾患者进行大范围的运动。在这项工作中,提出了一种在3D机器人辅助康复过程中维持患者上肢的新型电动平台及其控制结构。该系统能够通过上肢运动重建在三维空间中支撑患者的肢体。该平台和所采用的控制策略已在8名进行点对点3D运动的健康受试者身上进行了测试。监测前臂支架执行的轨迹,以评估所选控制方法的性能。此外,还向受试者提交了一份基于李克特评定量表的问卷,以评估整个平台。初步结果表明,所提出的控制算法可以跟随手臂在$\pmb{3}\mathbf{D}$空间内的运动,减小了位置误差$(0.002\pm 0.012$ rad $)$,并且受试者感到手臂得到了完全的支撑,可以在空间的任何方向自由移动,并且判断平台易于使用。
An Adaptive Arm-Weight Support Platform for 3D Upper Limb Robot-Aided Neuro-Rehabilitation
Arm-weight support has proved to be a key component in robot-aided neuro-rehabilitation in order to permit a wide range of motion for patients with severe disabilities. In this work, a novel motorized platform for sustaining the upper limb of patients during 3D robot-aided rehabilitation and its control architecture are presented. The proposed system is able to support patient's limb in the 3D space through upper limb kinematic reconstruction during the execution of reaching movements. The platform and the adopted control strategy have been tested on 8 healthy subjects performing point-to-point 3D movements. The trajectory executed by the forearm support has been monitored to assess the performance of the chosen control approach. Moreover, a questionnaire based on the Likert rating scale has been submitted to the subjects to evaluate the overall platform. Preliminary results showed that the proposed control algorithm allowed to follow the arm movement in $\pmb{3}\mathbf{D}$ space with a reduced position error $(0.002\pm 0.012$ rad $)$, Moreover the subjects felt their arm completely supported, free to move in any direction of the space and judged the platform easy to use.