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下肢康复外骨骼中人体行走时质心动量的实时计算:初步试验

Real time computation of Centroidal Momentum while human walking in the lower limbs rehabilitation exoskeleton: Preliminary trials.

作者信息

Jung Je Hyung, Veneman Jan F

出版信息

IEEE Int Conf Rehabil Robot. 2019 Jun;2019:721-726. doi: 10.1109/ICORR.2019.8779441.

DOI:10.1109/ICORR.2019.8779441
PMID:31374716
Abstract

In EU-funded BALANCE project, developing a stability index which can be employed to estimate actual state of balance of both healthy and neurologically impaired humans' walking in exoskeleton was one of scientific tasks. In the task, Centroidal Momentum (CM), referring to linear and angular momenta at Center of Mass (CoM), has raised as a potential index for such purpose. While our past studies have presented analysis results of CM in offline and online (real time) manners for walking of healthy human and stroke patients, in this study, we present real time computation of CM in exoskeleton-supported walking, specifically with healthy subjects. Experimental setup consists of LOPES II, a treadmill-based robotic gait training exoskeleton for lower limbs rehabilitation developed by Twente University, and commercially available IMUs (Inertial Measurement Units)-based full body motion capture suits from Xsens. CM was computed and demonstrated in two walking conditions: unperturbed walking and walking with unexpected pelvic perturbations in lateral direction. While electromagnetic fields (EMF) from LOPES II exoskeleton affected signals of IMUs in the motion capture suit, the results show the potential applicability of the CM as a sort of stability index for human walking in the exoskeleton.

摘要

在欧盟资助的“平衡”项目中,开发一种稳定性指数以用于评估健康人和神经系统受损者穿着外骨骼行走时的实际平衡状态是科学任务之一。在该任务中,质心动量(CM),即指质心(CoM)处的线性和角动量,已作为实现该目的的一个潜在指标被提出。虽然我们过去的研究已经以离线和在线(实时)方式呈现了健康人和中风患者行走时CM的分析结果,但在本研究中,我们展示了外骨骼辅助行走时CM的实时计算,特别是针对健康受试者。实验装置包括洛佩斯二号(LOPES II),这是代尔夫特理工大学开发的一种用于下肢康复的基于跑步机的机器人步态训练外骨骼,以及Xsens公司基于商用惯性测量单元(IMU)的全身运动捕捉套装。CM在两种行走条件下进行了计算和演示:无干扰行走以及在侧向方向上带有意外骨盆扰动的行走。虽然来自洛佩斯二号外骨骼的电磁场(EMF)会影响运动捕捉套装中IMU的信号,但结果表明CM作为一种人类在外骨骼中行走的稳定性指数具有潜在的适用性。

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