期刊名称:TELKOMNIKA (Telecommunication Computing Electronics and Control)
印刷版ISSN:2302-9293
出版年度:2019
卷号:17
期号:2
页码:873-881
DOI:10.12928/telkomnika.v17i2.9257
出版社:Universitas Ahmad Dahlan
摘要:In recent day, Electromyography (EMG) signal are widely applied in myoelectric control.
Unfortunately, most of studies focused on the classification of EMG signals based on healthy subjects.
Due to the lack of study in amputee subject, this paper aims to investigate the performance of healthy and
amputee subjects for the classification of multiple hand movement types. In this work, Gabor transform
(GT) is used to transform the EMG signal into time-frequency representation. Five time-frequency features
are extracted from GT coefficient. Feature extraction is an effective way to reduce the dimensionality, as
well as keeping the valuable information. Two popular classifiers namely k-nearest neighbor (KNN) and
support vector machine (SVM) are employed for performance evaluation. The developed system is
evaluated using the EMG data acquired from the publicy available NinaPro Database. The results revealed
that the extracting GT features can achieve promising performance in the classification of EMG signals.
其他摘要:In recent day, Electromyography (EMG) signal are widely applied in myoelectric control. Unfortunately, most of studies focused on the classification of EMG signals based on healthy subjects. Due to the lack of study in amputee subject, this paper aims to investigate the performance of healthy and amputee subjects for the classification of multiple hand movement types. In this work, Gabor transform (GT) is used to transform the EMG signal into time-frequency representation. Five time-frequency features are extracted from GT coefficient. Feature extraction is an effective way to reduce the dimensionality, as well as keeping the valuable information. Two popular classifiers namely k-nearest neighbor (KNN) and support vector machine (SVM) are employed for performance evaluation. The developed system is evaluated using the EMG data acquired from the publicy available NinaPro Database. The results revealed that the extracting GT features can achieve promising performance in the classification of EMG signals.