Deep latent variable joint cognitive modeling of neural signals and human behavior

As the field of computational cognitive neuroscience continues to expand and generate new theories, there is a growing need for more advanced methods to test the hypothesis of brain-behavior relationships. Recent progress in Bayesian cognitive modeling has enabled the combination of neural and behavioral models into a single unifying framework. However, these approaches require manual feature extraction, and lack the capability to discover previously unknown neural features in more complex data. Consequently, this would hinder the expressiveness of the models. To address these challenges, we propose a Neurocognitive Variational Autoencoder (NCVA) to conjoin high-dimensional EEG with a cognitive model in both generative and predictive modeling analyses. Importantly, our NCVA enables both the prediction of EEG signals given behavioral data and the estimation of cognitive model parameters from EEG signals. This novel approach can allow for a more comprehensive understanding of the triplet relationship between behavior, brain activity, and cognitive processes.

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Publication Details

Published
2025-09-24
DOI
https://doi.org/10.31234/osf.io/xchnz_v2
Primary Topic
Cognitive Science and Mapping
Type
article
Field-Weighted Citation Impact
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article

Deep latent variable joint cognitive modeling of neural signals and human behavior

Qinhua Jenny Sun, Khuong Vo, Joachim Vandekerckhove, Ramesh Srinivasan et al.
Cognitive Science and Mapping
article

Deep latent variable joint cognitive modeling of neural signals and human behavior

Qinhua Jenny Sun, Khuong Vo, Joachim Vandekerckhove, Ramesh Srinivasan, Michael D. Nunez
article en

Abstract

As the field of computational cognitive neuroscience continues to expand and generate new theories, there is a growing need for more advanced methods to test the hypothesis of brain-behavior relationships. Recent progress in Bayesian cognitive modeling has enabled the combination of neural and behavioral models into a single unifying framework. However, these approaches require manual feature extraction, and lack the capability to discover previously unknown neural features in more complex data. Consequently, this would hinder the expressiveness of the models. To address these challenges, we propose a Neurocognitive Variational Autoencoder (NCVA) to conjoin high-dimensional EEG with a cognitive model in both generative and predictive modeling analyses. Importantly, our NCVA enables both the prediction of EEG signals given behavioral data and the estimation of cognitive model parameters from EEG signals. This novel approach can allow for a more comprehensive understanding of the triplet relationship between behavior, brain activity, and cognitive processes.

Openalex Percentile: Top 86%
Cognitive Science and Mapping
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