Determination of Neuromuscular Diseases Using Complexity of Electromyogram Signals

K. Ahammed, Mosabber Uddin Ahmed
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Abstract

Characterization of Electromyogram (EMG) signals is important for identifying neuromuscular diseases. Although various techniques were implemented for classification, none of them were implemented in the complexity domain. In this study, characterization of EMG signals recorded from healthy, neuropathic and myopathic subjects has been performed in complexity domain based on Multiscale Entropy (MSE) method. To do this, the multiscale entropy method has been applied to an EMG database publicly available in PhysioNet. The complexity profile curves obtained with the MSE approach have shown promising classification among healthy subject, neuropathic and myopathic patients in terms of complexity. One way ANOVA test has shown statistically significant differences (p<0.01) among these three classes. Moreover, Support Vector Machine (SVM) has demonstrated a classification accuracy of 86.1% for characterizing EMG signals of neuromuscular disorders. Furthermore, myopathic and neuropathic patients have been recognized with 66.7% sensitivity at 95.8% specificity and 100% sensitivity at 100% specificity respectively.
利用肌电图信号的复杂性确定神经肌肉疾病
肌电图(EMG)信号的表征对于识别神经肌肉疾病是重要的。尽管为分类实现了各种技术,但没有一种是在复杂性领域实现的。在本研究中,基于多尺度熵(MSE)方法在复杂性域中对健康、神经性和肌病受试者记录的EMG信号进行了表征。为此,多尺度熵方法已应用于PhysioNet中公开的EMG数据库。用MSE方法获得的复杂性曲线显示,就复杂性而言,在健康受试者、神经病理性和肌病患者中进行了有希望的分类。单向方差分析检验显示这三类之间存在统计学上的显著差异(p<0.01)。此外,支持向量机(SVM)在表征神经肌肉疾病的EMG信号方面的分类准确率为86.1%。此外,在95.8%的特异性下,肌病和神经病理性患者的敏感性分别为66.7%和100%。
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