Gesture Recognition Through sEMG with Wearable Device Based on Deep Learning

It is conducive to the application of sEMG signals in helping disabled people through combining wearable devices with deep learning. Therefore, design of sEMG gesture recognition system using deep learning based on wearable device is proposed in this paper. The system is mainly consisted of wearable...

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Veröffentlicht in:Mobile networks and applications 2020-12, Vol.25 (6), p.2447-2458
Hauptverfasser: Shen, Shu, Gu, Kang, Chen, Xin-Rong, Lv, Cai-Xia, Wang, Ru-Chuan
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creator Shen, Shu
Gu, Kang
Chen, Xin-Rong
Lv, Cai-Xia
Wang, Ru-Chuan
description It is conducive to the application of sEMG signals in helping disabled people through combining wearable devices with deep learning. Therefore, design of sEMG gesture recognition system using deep learning based on wearable device is proposed in this paper. The system is mainly consisted of wearable sEMG acquisition device and sEMG gesture recognition method based on deep learning. In the wearable sEMG acquisition device, the sEMG signal sensor is mainly used to convert the human bioelectrical signal into an analog electrical signal. Then it can be acquired using an analog to digital converter. We also use 2.4 GHz wireless communication for data transmission, and use the micro-controller as the core of system control and data processing. In the sEMG gesture recognition method, we designed a model of sEMG signal gesture classification based on convolutional neural network (CNN). It can avoid omission of important feature information and improve accuracy of recognition, effectively. In the experimental part, we collected the sEMG signals of three different gestures using our own wearable sEMG acquisition device. Then, we trained and evaluated on the designed sEMG gesture recognition model using these data. A recognition accuracy of about 79.43% can be achieved in three gestures. Finally, we trained and tested the sEMG gesture recognition model on the Ninapro DB5 dataset and can reach about 74.51% accuracy on 52 gestures. In the case that there are more types of gestures recognized, our accuracy is still 5.02%, 6.61%, and 2.58% higher than Linear Discriminant Analysis (LDA), Support Vector Machine (SVM), and Long Short Term Memory-CNN (LCNN), respectively. Also, the accuracy rate is 5.47% higher than SVM and Random Forests.
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Then, we trained and evaluated on the designed sEMG gesture recognition model using these data. A recognition accuracy of about 79.43% can be achieved in three gestures. Finally, we trained and tested the sEMG gesture recognition model on the Ninapro DB5 dataset and can reach about 74.51% accuracy on 52 gestures. In the case that there are more types of gestures recognized, our accuracy is still 5.02%, 6.61%, and 2.58% higher than Linear Discriminant Analysis (LDA), Support Vector Machine (SVM), and Long Short Term Memory-CNN (LCNN), respectively. Also, the accuracy rate is 5.47% higher than SVM and Random Forests.</abstract><cop>New York</cop><pub>Springer US</pub><doi>10.1007/s11036-020-01590-8</doi><tpages>12</tpages></addata></record>
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subjects Accuracy
Analog to digital converters
Artificial neural networks
Bioelectricity
Communications Engineering
Computer Communication Networks
Data processing
Data transmission
Deep learning
Discriminant analysis
Electrical Engineering
Engineering
Gesture recognition
IT in Business
Machine learning
Microcontrollers
Model accuracy
Networks
People with disabilities
Sensors
Signal classification
Support vector machines
Wearable computers
Wearable technology
Wireless communications
title Gesture Recognition Through sEMG with Wearable Device Based on Deep Learning
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