From Epilepsy Seizures Classification to Detection: A Deep Learning-based Approach for Raw EEG Signals

Fuente: arXiv
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Auteurs principaux: Darankoum, Davy, Villalba, Manon, Allioux, Clelia, Caraballo, Baptiste, Dumont, Carine, Gronlier, Eloise, Roucard, Corinne, Roche, Yann, Habermacher, Chloe, Grudinin, Sergei, Volle, Julien
Format: Preprint
Publié: 2024
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author Darankoum, Davy
Villalba, Manon
Allioux, Clelia
Caraballo, Baptiste
Dumont, Carine
Gronlier, Eloise
Roucard, Corinne
Roche, Yann
Habermacher, Chloe
Grudinin, Sergei
Volle, Julien
author_facet Darankoum, Davy
Villalba, Manon
Allioux, Clelia
Caraballo, Baptiste
Dumont, Carine
Gronlier, Eloise
Roucard, Corinne
Roche, Yann
Habermacher, Chloe
Grudinin, Sergei
Volle, Julien
contents Epilepsy represents the most prevalent neurological disease in the world. One-third of people suffering from mesial temporal lobe epilepsy (MTLE) exhibit drug resistance, urging the need to develop new treatments. A key part in anti-seizure medication (ASM) development is the capability of detecting and quantifying epileptic seizures occurring in electroencephalogram (EEG) signals, which is crucial for treatment efficacy evaluation. In this study, we introduced a seizure detection pipeline based on deep learning models applied to raw EEG signals. This pipeline integrates: a new pre-processing technique which segments continuous raw EEG signals without prior distinction between seizure and seizure-free activities; a post-processing algorithm developed to reassemble EEG segments and allow the identification of seizures start/end; and finally, a new evaluation procedure based on a strict seizure events comparison between predicted and real labels. Models training have been performed using a data splitting strategy which addresses the potential for data leakage. We demonstrated the fundamental differences between a seizure classification and a seizure detection task and showed the differences in performance between the two tasks. Finally, we demonstrated the generalization capabilities across species of our best architecture, combining a Convolutional Neural Network and a Transformer encoder. The model was trained on animal EEGs and tested on human EEGs with a F1-score of 93% on a balanced Bonn dataset.
format Preprint
id arxiv_https___arxiv_org_abs_2410_03385
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle From Epilepsy Seizures Classification to Detection: A Deep Learning-based Approach for Raw EEG Signals
Darankoum, Davy
Villalba, Manon
Allioux, Clelia
Caraballo, Baptiste
Dumont, Carine
Gronlier, Eloise
Roucard, Corinne
Roche, Yann
Habermacher, Chloe
Grudinin, Sergei
Volle, Julien
Machine Learning
Neurons and Cognition
Epilepsy represents the most prevalent neurological disease in the world. One-third of people suffering from mesial temporal lobe epilepsy (MTLE) exhibit drug resistance, urging the need to develop new treatments. A key part in anti-seizure medication (ASM) development is the capability of detecting and quantifying epileptic seizures occurring in electroencephalogram (EEG) signals, which is crucial for treatment efficacy evaluation. In this study, we introduced a seizure detection pipeline based on deep learning models applied to raw EEG signals. This pipeline integrates: a new pre-processing technique which segments continuous raw EEG signals without prior distinction between seizure and seizure-free activities; a post-processing algorithm developed to reassemble EEG segments and allow the identification of seizures start/end; and finally, a new evaluation procedure based on a strict seizure events comparison between predicted and real labels. Models training have been performed using a data splitting strategy which addresses the potential for data leakage. We demonstrated the fundamental differences between a seizure classification and a seizure detection task and showed the differences in performance between the two tasks. Finally, we demonstrated the generalization capabilities across species of our best architecture, combining a Convolutional Neural Network and a Transformer encoder. The model was trained on animal EEGs and tested on human EEGs with a F1-score of 93% on a balanced Bonn dataset.
title From Epilepsy Seizures Classification to Detection: A Deep Learning-based Approach for Raw EEG Signals
topic Machine Learning
Neurons and Cognition
url https://arxiv.org/abs/2410.03385