Improved facial emotion recognition model based on a novel deep convolutional structure

Facial Emotion Recognition (FER) is a very challenging task due to the varying nature of facial expressions, occlusions, illumination, pose variations, cultural and gender differences, and many other aspects that cause a drastic degradation in quality of facial images. In this paper, an anti-aliased deep convolution network (AA-DCN) model has been developed and proposed to explore how anti-aliasing can increase and improve recognition fidelity of facial emotions. The AA-DCN model detects eight distinct emotions from image data. Furthermore, their features have been extracted using the proposed model and numerous classical deep learning algorithms. The proposed AA-DCN model has been applied to three different datasets to evaluate its performance: The Cohn-Kanade Extending (CK+) database has been utilized, achieving an ultimate accuracy of 99.26% in (5 min, 25 s), the Japanese female facial expressions (JAFFE) obtained 98% accuracy in (8 min, 13 s), and on one of the most challenging FER datasets; the Real-world Affective Face (RAF) dataset; reached 82%, in low training time (12 min, 2s). The experimental results demonstrate that the anti-aliased DCN model is significantly increasing emotion recognition while improving the aliasing artifacts caused by the down-sampling layers.

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Publication Details

Journal
Scientific Reports
Published
2024-11-23
DOI
https://doi.org/10.1038/s41598-024-79167-8
Citations
22
Primary Topic
Emotion and Mood Recognition
Type
article
Field-Weighted Citation Impact
11.17

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article

Improved facial emotion recognition model based on a novel deep convolutional structure

Ahmed Aboutaleb, Mohamed Maher Ata, Mohamed A. Mohamed, Reham A. Elsheikh
22 citations
Scientific Reports
Emotion and Mood Recognition
11.17
article

Improved facial emotion recognition model based on a novel deep convolutional structure

Ahmed Aboutaleb, Mohamed Maher Ata, Mohamed A. Mohamed, Reham A. Elsheikh
article en
22 citations

Abstract

Facial Emotion Recognition (FER) is a very challenging task due to the varying nature of facial expressions, occlusions, illumination, pose variations, cultural and gender differences, and many other aspects that cause a drastic degradation in quality of facial images. In this paper, an anti-aliased deep convolution network (AA-DCN) model has been developed and proposed to explore how anti-aliasing can increase and improve recognition fidelity of facial emotions. The AA-DCN model detects eight distinct emotions from image data. Furthermore, their features have been extracted using the proposed model and numerous classical deep learning algorithms. The proposed AA-DCN model has been applied to three different datasets to evaluate its performance: The Cohn-Kanade Extending (CK+) database has been utilized, achieving an ultimate accuracy of 99.26% in (5 min, 25 s), the Japanese female facial expressions (JAFFE) obtained 98% accuracy in (8 min, 13 s), and on one of the most challenging FER datasets; the Real-world Affective Face (RAF) dataset; reached 82%, in low training time (12 min, 2s). The experimental results demonstrate that the anti-aliased DCN model is significantly increasing emotion recognition while improving the aliasing artifacts caused by the down-sampling layers.

Scientific ReportsVol. 14(1)
Mansoura University (EG), Zewail City of Science and Technology (EG)
Science and Technology Development Fund, Mansoura University
Gender equality
Openalex Percentile: Top 1%
Emotion and Mood Recognition
11.17
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