A Deep Learning Approach for MDD Classification Using Frontal EEG Spectral Features with DenseNet-121

Major Depression Disorder (MDD) is a common yet destructive mental disorder that affects millions of people worldwide. Making early and accurate detection of MDD is essential for timely interventions and effective management. Electroencephalography (EEG) is a valuable tool for exploring the brain-based aspects of depression, offering considerable promise in its diagnosis. This research presents an advanced EEG-based methodology for detecting depressive disorders, utilizing the publicly accessible Multi-Modal Open Dataset (MODMA). EEG data were collected from 53 participants during resting states, employing 25 frontal electrodes. We analyzed five minutes of resting-state EEG data to compute spectrograms for each channel using a 10 -second window with 50% overlap, resulting in a total of 39,750 spectrograms. Various deep learning models were evaluated, with the DenseNet-121 model achieving the highest classification performance, yielding a training accuracy of 98.99% and a validation accuracy of 92.82%. This innovative approach enhances existing methods for classifying major depressive disorder by optimizing both the number of electrodes and classification accuracy. As a result, it holds significant potential for widespread use in psychiatric settings, offering valuable support to psychiatrists in diagnosing and managing MDD.

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Published
2024-11-20
DOI
https://doi.org/10.1109/icic63915.2024.11116415
Primary Topic
EEG and Brain-Computer Interfaces
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article
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article

A Deep Learning Approach for MDD Classification Using Frontal EEG Spectral Features with DenseNet-121

Sadam Hussain Noorani, Usman Rauf, Sheharyar Khan, Aamir Arsalan et al.
EEG and Brain-Computer Interfaces
article

A Deep Learning Approach for MDD Classification Using Frontal EEG Spectral Features with DenseNet-121

Sadam Hussain Noorani, Usman Rauf, Sheharyar Khan, Aamir Arsalan, Waqar Ahmad, Muhammad Tariq Javed
article en

Abstract

Major Depression Disorder (MDD) is a common yet destructive mental disorder that affects millions of people worldwide. Making early and accurate detection of MDD is essential for timely interventions and effective management. Electroencephalography (EEG) is a valuable tool for exploring the brain-based aspects of depression, offering considerable promise in its diagnosis. This research presents an advanced EEG-based methodology for detecting depressive disorders, utilizing the publicly accessible Multi-Modal Open Dataset (MODMA). EEG data were collected from 53 participants during resting states, employing 25 frontal electrodes. We analyzed five minutes of resting-state EEG data to compute spectrograms for each channel using a 10 -second window with 50% overlap, resulting in a total of 39,750 spectrograms. Various deep learning models were evaluated, with the DenseNet-121 model achieving the highest classification performance, yielding a training accuracy of 98.99% and a validation accuracy of 92.82%. This innovative approach enhances existing methods for classifying major depressive disorder by optimizing both the number of electrodes and classification accuracy. As a result, it holds significant potential for widespread use in psychiatric settings, offering valuable support to psychiatrists in diagnosing and managing MDD.

University of Engineering and Technology Taxila (PK), Riphah International University (PK), Fatima Jinnah Women University (PK)
Openalex Percentile: Top 71%
EEG and Brain-Computer Interfaces
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