The simultaneous recording and analysis of EEG and fMRI have gained considerable attention due to their complementary strengths and distinct physiological perspectives on brain function. In this work, several deep learning models are implemented to perform EEG-to-fMRI prediction. Specifically, multi-channel EEG signals are used to predict the BOLD signals of the seven resting-state networks using deep learning models, owing to their ability to operate without explicit feature engineering. The primary model employed is based on EEGNet, a CNN adapted for regression to perform EEG-to-BOLD fMRI regression. ​

The simultaneous recording and analysis of EEG and fMRI have gained considerable attention due to their complementary strengths and distinct physiological perspectives on brain function. In this work, several deep learning models are implemented to perform EEG-to-fMRI prediction. Specifically, multi-channel EEG signals are used to predict the BOLD signals of the seven resting-state networks using deep learning models, owing to their ability to operate without explicit feature engineering. The primary model employed is based on EEGNet, a CNN adapted for regression to perform EEG-to-BOLD fMRI regression. ​

Predicting Resting-State fMRI Network Dynamics from Concurrent EEG Using Deep Learning Models

GUERRA, RICCARDO
2024/2025

Abstract

The simultaneous recording and analysis of EEG and fMRI have gained considerable attention due to their complementary strengths and distinct physiological perspectives on brain function. In this work, several deep learning models are implemented to perform EEG-to-fMRI prediction. Specifically, multi-channel EEG signals are used to predict the BOLD signals of the seven resting-state networks using deep learning models, owing to their ability to operate without explicit feature engineering. The primary model employed is based on EEGNet, a CNN adapted for regression to perform EEG-to-BOLD fMRI regression. ​
2024
Predicting Resting-State fMRI Network Dynamics from Concurrent EEG Using Deep Learning Models
The simultaneous recording and analysis of EEG and fMRI have gained considerable attention due to their complementary strengths and distinct physiological perspectives on brain function. In this work, several deep learning models are implemented to perform EEG-to-fMRI prediction. Specifically, multi-channel EEG signals are used to predict the BOLD signals of the seven resting-state networks using deep learning models, owing to their ability to operate without explicit feature engineering. The primary model employed is based on EEGNet, a CNN adapted for regression to perform EEG-to-BOLD fMRI regression. ​
EEGtofMRI synthesis
Resting State
Transformer
Multimodal
Neuroimaging
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/20.500.12608/96051