基于可穿戴imu的实时开源运动估计。

Chenquan Xu, Yuanshuo Tan, Zach Strout, Guoxing Liu, Kezhe Zhu, Peter Shull
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引用次数: 0

摘要

尽管由于人口老龄化,对医疗保健服务的需求不断增长,但由于高昂的费用、不适和与亲自评估相关的时间限制,患者可能会避开传统的康复中心。以家庭为基础的康复提供了一个很有前途的选择,但有效的运动学监测和评估仍然具有挑战性,特别是对于实时应用。为了解决这一差距,我们开发了基于12个可穿戴惯性测量单元(imu)的实时全身运动学分析和可视化。在步行、跑步、深蹲、拳击、瑜伽、舞蹈、羽毛球和各种坐下的肢体运动中评估全身实时运动学估计(20 Hz),并将IMU估计与光学运动捕捉进行比较以确定准确性。结果显示,行走是最准确的,平均RMSE为5.4度,所有活动的总体平均RMSE为7.2度。离线计算(100 Hz)的平均RMSE为1.0度,从传感器数据采集到运动输出的平均延迟为44.1毫秒。这种方法通过对骨科和神经系统疾病的运动表现进行快速评估和实时生物反馈,具有革命性的康复潜力,可以显著提高治疗效果和患者的依从性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Real-Time Open Source Kinematic Estimation with Wearable IMUs.

Despite the growing demand for healthcare services due to an aging population, patients may avoid traditional rehabilitation centers due to high costs, discomfort, and time constraints associated with in-person assessments. Home-based rehabilitation offers a promising alternative, but effective kinematic monitoring and assessment remain challenging, especially for real-time applications. To address this gap, we have developed real-time, full-body kinematic analysis and visualization based on 12 wearable inertial measurement units (IMUs). Full body real-time kinematics estimation (20 Hz) was evaluated during walking, running, squatting, boxing, yoga, dance, badminton, and various seated extremity exercises and IMU estimations were compared with optical motion capture to determine accuracy. Results showed that walking was the most accurate with 5.4 deg median RMSE, and the overall median RMSE was 7.2 deg for all activities. A mean of 1.0 deg RMSE against offline computations (100 Hz) was also demonstrated, with a mean latency of 44.1 ms from sensor data acquisition to kinematic output. This approach holds the potential to revolutionize rehabilitation by enabling rapid assessment and real-time biofeedback for motion performance in orthopedic and neurological conditions and could significantly enhance treatment outcomes and patient compliance.

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