用于自适应腰椎稳定的支架式可穿戴机器人:试点实验研究

IF 3.4 Q2 ENGINEERING, BIOMEDICAL
Joowan Kim;Woosup Cho;Jaehoon Sim;Keewon Kim;Sungun Chung;Jaeheung Park
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引用次数: 0

摘要

腰椎支架被推荐用于治疗腰椎疾病或腰痛,尤其是在日常生活中使用。然而,由于其静态特性,长期使用腰托可能会导致功能限制和副作用,如肌肉萎缩和心理依赖。为了解决这些局限性,本研究提出了一种腰部支架形式的可穿戴机器人,以提供自适应腰部稳定功能。拟议的机器人使用致动器驱动拉力线,拉力线向位于支架两侧的滑轮装置施力。该机构为躯干提供动态腹压。辅助力是根据腰部运动确定的,腰部运动是通过惯性传感器测量的。通过提供腹部压力和动态支撑,拟议的机器人能够弥补现有支架的不足,并增强腰部稳定性。为了评估其有效性,我们对五名健康受试者进行了试点实验。受试者进行了专门的腰部锻炼,并通过肌电图和线性加速度来评估肌肉活动和腰部稳定性的影响。结果表明,拟议的装置可以通过动态提供腹部压力,减轻肌肉负担,增强脊柱稳定性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Brace-Type Wearable Robot for Adaptive Lumbar Stabilization: A Pilot Experimental Study
Lumbar braces are recommended for lumbar diseases or low back pain, particularly for use in activities of daily living. However, prolonged use of lumbar braces can lead to functional limitations and side effects such as muscle atrophy and psychological dependence due to their static nature. To address these limitations, this study proposes a wearable robot in the form of a lumbar brace to provide adaptive lumbar stabilization. The proposed robot uses an actuator to drive a tension wire, which applies force to the pulley mechanism located on both sides of the brace. This mechanism provides dynamic abdominal pressure to the torso. The assisting force is determined based on the lumbar motion, which is measured using inertial sensors. By providing abdominal pressure and dynamic support, the proposed robot is able to compensate for the shortcomings of current braces and increase lumbar stability. To assess the effectiveness, a pilot experiment was conducted with five healthy subjects. The subjects performed lumbar-specific exercises, Electromyography and linear acceleration were taken to evaluate the impact on muscle activity and lumbar stability. The results indicated that proposed device is possible to reduce the burden on the muscles and increase the spine stability by dynamically providing abdominal pressure.
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CiteScore
6.80
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