Recognition of Composite Motions based on sEMG via Deep Learning

Shuhao Qi, Xingming Wu, Jianhua Wang, Jianbin Zhang
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引用次数: 4

Abstract

Surface electromyography(sEMG) is a reliable physiological electrical signal, which represents real-time human motion intents. And the EMG-based motion recognition has the characteristics of convenient operation, non-invasion and noninterference, which has broad application prospects. This paper focuses on composite motion(including multiple actions) recognition, such as sign language motions and handwritten motions. We proposed a novel method for composite motion recognition by using deep learning. To begin with, we defined a novel data structure called sEMG image and established convolution Neural Network designed for sEMG images. In order to reduce the demand of training data, we proposed to pre-train the network by MNIST data set based on the thought of transfer learning. To verify the methods that we proposed, we acquired and preprocessed the surface EMG signals of composite motions, including handwritten number motions and sign language motions. From the results, it can be concluded that deep learning methods perform better than traditional methods, including support vector machine(SVM) and Dynamic Time Warping(DTW). Especially in different sizes handwritten number recognition experiments, the deep learning methods is still very excellent, while accuracies of traditional methods are greatly reduced. In addition, we discovered that transfer learning can help ConvNet to quickly converge and reduce the demand for data.
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基于表面肌电信号的深度学习复合运动识别
表面肌电图(sEMG)是一种可靠的生理电信号,反映了实时的人体运动意图。而基于肌电图的运动识别具有操作方便、无入侵、无干扰等特点,具有广阔的应用前景。本文主要研究手势动作和手写体动作等复合动作(包括多个动作)的识别。提出了一种基于深度学习的复合运动识别方法。首先,我们定义了一种新的数据结构,称为表面肌电信号图像,并建立了针对表面肌电信号图像设计的卷积神经网络。为了验证我们提出的方法,我们采集并预处理了复合运动的表面肌电信号,包括手写数字运动和手语运动。从结果可以看出,深度学习方法的性能优于传统方法,包括支持向量机(SVM)和动态时间翘曲(DTW)。特别是在不同大小的手写体数字识别实验中,深度学习方法仍然非常出色,而传统方法的准确率大大降低。此外,我们发现迁移学习可以帮助卷积神经网络快速收敛并减少对数据的需求。
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