基于时频分布的脑电信号强直性冷痛检测方法

R. Alazrai, Saifaldeen Al-Rawi, M. Daoud
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摘要

在本文中,我们提出了一种新的疼痛检测方法,该方法使用二次时频分布(QTFD),即Wigner-Ville分布(WVD)分析脑电图(EEG)信号。利用WVD可以构造EEG信号的时频表示(TFR),表征EEG信号的时变频谱成分。为了降低构建的基于wvd的脑电信号TFR的维数,我们提取了12个时频特征,量化了脑电信号在基于wvd的TFR中的能量分布。提取的时频特征用于训练支持向量机分类器来区分与无痛和疼痛相关的脑电信号。为了评估我们提出的疼痛检测方法的性能,我们记录了24名参与者在强直性冷痛刺激下的脑电图信号。实验结果表明,我们提出的方法在区分无疼痛和疼痛类别方面的平均分类准确率为83.4%。
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A Time-Frequency Distribution Based Approach for Detecting Tonic Cold Pain using EEG Signals
In this paper, we present a new pain detection approach that analyzes the electroencephalography (EEG) signals using a quadratic time-frequency distribution (QTFD), namely the Wigner-Ville distribution (WVD). The use of the WVD enables to construct a time-frequency representation (TFR) of the EEG signals that characterizes the time-varying spectral components of the EEG signals. To reduce the dimensionality of the constructed WVD-based TFR of the EEG signals, we have extracted 12 time-frequency features that quantify the energy distribution of the EEG signals in the constructed WVD-based TFR. The extracted time-frequency features are used to train a support vector machine classifier to distinguish between EEG signals that are associated with the no-pain and pain classes. To assess the performance of our proposed pain detection approach, we have recorded the EEG signals for 24 participants under tonic cold pain stimulus. The experimental results show that our proposed approach achieved an average classification accuracy of 83.4% in distinguishing between the no-pain and pain classes.
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