A study on Frequency Domain Microstate Feature Fusion for EEG Emotion Recognition

Di Xiao, Zhao Lv, Shiang Hu
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Abstract

The microstate analysis of EEG signals makes full use of the spatial information of the brain topographic map, and reflects the active association of different brain regions. Different from the traditional EEG features that mostly focus on single-channel information, the microstate feature contains the spatio-temporal information of EEG signals. Unlike microstate studies that mostly focus on dimensional emotions, the experiments classify positive, neutral, and negative discrete emotions using the SEED database. This work filters the data of a single subject into five frequency bands and calculates the microstate topographic maps of EEG signals in different frequency bands, respectively. The extracted features of microstate classes are coverage, duration, occurrence, and transition probability between microstates. The gender difference as to the dominant microstate pattern for emotions and the comparison between microstates, we found that the brain activity of males in three emotional states and females in negative emotions were related to the frontal-occipital pattern, the females of positive and neutral emotional states were associated with the left and right brain areas. We also investigated the traditional power spectra features, these features which be fused over frequency bands or not fused were fed into the classifiers such as the K-Nearest Neighbor (KNN) and the the Support Vector Machine(SVM) to classify discrete emotional labels in SEED. The average classification accuracy of 15 subjects was 97.67±1.4% and 92.58±3.24%, respectively.
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基于频域微状态特征融合的脑电情绪识别研究
脑电信号的微观状态分析充分利用了大脑地形图的空间信息,反映了大脑不同区域的活跃关联。与传统的脑电信号特征主要集中于单通道信息不同,微态特征包含了脑电信号的时空信息。与主要关注维度情绪的微观状态研究不同,实验使用SEED数据库对积极、中性和消极的离散情绪进行分类。本工作将单个受试者的数据过滤到5个频段,并分别计算出不同频段的脑电信号微态地形图。提取的微状态类的特征是微状态之间的覆盖率、持续时间、发生次数和转移概率。情绪微状态模式的性别差异及微状态之间的比较发现,男性和女性在三种情绪状态下的脑活动与额枕区有关,女性在积极和中性情绪状态下的脑活动与左右脑区有关。我们还研究了传统的功率谱特征,将这些特征在频带上融合或未融合的特征输入到k -最近邻(KNN)和支持向量机(SVM)等分类器中,对SEED中的离散情感标签进行分类。15名受试者的平均分类准确率分别为97.67±1.4%和92.58±3.24%。
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