Towards Integrating Automatic Emotion Recognition in Education: A Deep Learning Model Based on 5 EEG Channels

In a technologically advanced world, artificial intelligence has impacted all fields of activity. The augmentation of online learning by means of emotion recognition systems raises new challenges in terms of obtaining high-performance systems and in interpreting the results. The paper aims to investigate the usage of automated emotion recognition in learning and to develop a deep learning model based on physiological data to recognize emotions often encountered in classrooms. So, an 1D-CNN model based on physiological data is used to recognize seven emotions: boredom, confusion, frustration, curiosity, excitement, concentration, and anxiety. These emotions are described according to the PAD model and the 5 EEG signals, FP1, AF3, F7, T7, FP2, are taken from the DEAP dataset to train and to test the convolutional neural network model. The high accuracy we obtained (i.e. boredom—99.64%, confusion—99.70%, frustration—99.66%, curiosity—99.80%, excitement—99.91%, concentration—99.70%, anxiety—99.21%) proves that the use of signals obtained via only five channels is sufficient to recognize the presence of emotions. Furthermore, an improved method of analysis based on LIME is proposed and used to obtain reliable explanations for the predictions of our model.

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Publication Details

Journal
International Journal of Computational Intelligence Systems
Published
2024-09-02
DOI
https://doi.org/10.1007/s44196-024-00638-x
Citations
8
Primary Topic
EEG and Brain-Computer Interfaces
Type
article
Field-Weighted Citation Impact
2.74
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article

Towards Integrating Automatic Emotion Recognition in Education: A Deep Learning Model Based on 5 EEG Channels

Gabriela Moise, Elia Georgiana Dragomir, L. Iancu, Daniela Șchiopu
8 citations
International Journal of Computational Intelligence Systems
EEG and Brain-Computer Interfaces
2.74
article

Towards Integrating Automatic Emotion Recognition in Education: A Deep Learning Model Based on 5 EEG Channels

Gabriela Moise, Elia Georgiana Dragomir, L. Iancu, Daniela Șchiopu
article en
8 citations

Abstract

In a technologically advanced world, artificial intelligence has impacted all fields of activity. The augmentation of online learning by means of emotion recognition systems raises new challenges in terms of obtaining high-performance systems and in interpreting the results. The paper aims to investigate the usage of automated emotion recognition in learning and to develop a deep learning model based on physiological data to recognize emotions often encountered in classrooms. So, an 1D-CNN model based on physiological data is used to recognize seven emotions: boredom, confusion, frustration, curiosity, excitement, concentration, and anxiety. These emotions are described according to the PAD model and the 5 EEG signals, FP1, AF3, F7, T7, FP2, are taken from the DEAP dataset to train and to test the convolutional neural network model. The high accuracy we obtained (i.e. boredom—99.64%, confusion—99.70%, frustration—99.66%, curiosity—99.80%, excitement—99.91%, concentration—99.70%, anxiety—99.21%) proves that the use of signals obtained via only five channels is sufficient to recognize the presence of emotions. Furthermore, an improved method of analysis based on LIME is proposed and used to obtain reliable explanations for the predictions of our model.

International Journal of Computational Intelligence SystemsVol. 17(1)
Petroleum & Gas University of Ploieşti (RO)
Quality Education
Openalex Percentile: Top 10%
EEG and Brain-Computer Interfaces
2.74
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