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首页> 外文期刊>Journal of computational and theoretical nanoscience >A Novel and Enhanced Facial Electromyogram Based Human Emotion Recognition Using Convolution Neural Network Model with Multirate Signal Processing Features
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A Novel and Enhanced Facial Electromyogram Based Human Emotion Recognition Using Convolution Neural Network Model with Multirate Signal Processing Features

机译:基于新型和增强的面部电谱基于多型信号处理功能的卷积神经网络模型的人体情感识别

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摘要

In recent era, emotion recognition plays a vital role in human–machine interaction. Service robots identify the significant aspects of human behavior by analyzing the emotions of human beings and make use of these emotions to communicate with humans which make the human–robotinteraction faster. Human emotional states are different and they are exhibited instinctively which are not easily recognized by the self-service robots. This paper attempts to develop a novel and enhanced multimodal emotion recognition system which could easily identify the six emotions namelyanger, disgust, fear, happy, neutral and sad of an individual. The developed FEMG model could be interfaced with any service robot so that the human–machine interaction could be made faster. Facial Electromyogram (FEMG) signals are acquired from 20 subjects. Multirate signal processingfeatures namely Multidecimate, Multidownsample and Upfirdn are applied to the FEMG signals. A deep learning technique namely, Convolutional Neural Network (CNN) model is applied to the feature extracted signals and the highest classification accuracy obtained was 99.79%. Also the developedFEMG based CNN model also reduces the training time employed in the experiments.
机译:在最近的时代,情感识别在人机互动中起着至关重要的作用。服务机器人通过分析人类的情绪来确定人类行为的重要方面,并利用这些情绪与人类沟通,使人机互动更快。人类的情感状态不同,它们是本能地展出的,这不容易被自助机器人识别。本文试图开发一种新颖且增强的多模式情绪识别系统,可以轻松识别六个情绪纳米岛,厌恶,恐惧,快乐,中立和悲伤。开发的FEMG模型可以与任何服务机器人接口,以便可以更快地进行人机交互。面部电灰度(FEMG)信号从20个受试者获取。多速率信号处理处理包括多层,多个,多多样,多个问题应用于FEMG信号。深度学习技术即,卷积神经网络(CNN)模型应用于特征提取信号,获得的最高分类精度为99.79%。此外,基于CDS的CNN模型也降低了实验中使用的训练时间。

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