非接触评估肌肉收缩:激光多普勒肌图

S. Casaccia, L. Scalise, L. Casacanditella, E. P. Tomasini, J. Rohrbaugh
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引用次数: 9

摘要

肌电图(EMG)是用于评估肌肉活动和收缩的黄金标准技术。肌电图信号支持对许多重要参数的分析,包括振幅和持续时间,运动单元的接合,以及与力产生和疲劳等因素相关的功能特征。最近,一种新的测量方法(激光多普勒肌图,LDM)被提出用于非接触评估肌肉活动,以测量肌肉的振动力学行为,传统上被称为机械肌图(MMG)。骨骼肌收缩会产生振动和声音,这一事实在三个多世纪前就已为人所知。本研究的目的是报道LDM技术,并评估其无接触测量骨骼肌收缩的一些特征特性的能力。这是通过激光多普勒测振法固有的非常高的振动灵敏度来实现的(与常用的设备如麦克风、压电压力传感器和加速度计相比)。LDM测量的数据与需要使用皮肤电极的标准表面肌电信号(sEMG)测量的信号进行比较。同时采集和处理表面肌电信号和LDM信号。LDM和sEMG信号在肌肉激活时间、信号幅度和力产生等关键特征方面进行了比较。LDM似乎是一种可靠和有前途的技术,它允许测量而不需要与患者皮肤接触。LDM在传感器性能方面具有额外的潜在优势,因为没有与带宽或传感器谐振相关的重大问题,并且没有施加到皮肤上的质量负载。
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Non-contact assessment of muscle contraction: Laser Doppler Myography
Electromyography (EMG) is the gold-standard technique used for the evaluation of muscle activity and contraction. The EMG signal supports analysis of a number of important parameters including amplitude and duration, engagement of motor units, and functional characteristics associated with factors such a force production and fatigue. Recently, a novel measurement method (Laser Doppler Myography, LDM) for the non-contact assessment of muscle activity has been proposed to measure the vibro-mechanical behavior of the muscles that conventionally is referred to as the mechanomyogram (MMG). The fact that contracting skeletal muscles produce vibrations and sounds has been known for more than three centuries. The aim of this study is to report on the LDM technique and to evaluate its capacity to measure without contact some characteristics properties of skeletal muscle contractions. This is accomplished with the very high vibration sensitivity inherent in the Laser Doppler Vibrometry method (in comparison to commonly used devices such as microphones, piezo electric pressure sensors, and accelerometers). Data measured by LDM are compared with signals measured using standard surface EMG (sEMG) which requires the use of skin electrodes. sEMG and LDM signals are simultaneously acquired and processed. The LDM and sEMG signals are compared with respect to the critical features of muscle activation timing, signal amplitude and force production. LDM appears to be a reliable and promising technique that allows measurement without the need for contact with the patient skin. LDM has additional potential advantages in terms of sensor properties, insofar as there are no significant issues relating to bandwidth or sensor resonance, and no mass loading is applied to the skin.
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