Brain ATLAS Driven Attention Models in ABCD Cognition Score Prediction

Emerging evidence points to the cerebellum as a key player in working memory and executive function, yet its structural role within the fronto-thalamo-cerebellar (FTC) circuitry remains underexamined. Leveraging the expansive ABCD dataset, this study evaluated the predictive capacity of FTC anatomy—specifically gray matter volume (GMV) and fractional anisotropy (FA)—in modeling working memory (2-back accuracy) and attention (0-back accuracy). Classical models such as Bayesian regression, SVR, and feedforward neural networks achieved a peak R² of 0.062, with FTC-based predictions significantly outperforming fronto-parietal counterparts (p < 0.05). Building on this, we developed a multi-stage deep learning framework incorporating 3D CNNs, self-attention blocks, and squeeze-and-excitation mechanisms. These models pushed predictive R² to 0.079 while offering interpretable attention maps that consistently highlighted cerebellar subregions. Together, these results underscore the FTC circuit’s robust involvement in working memory and demonstrate how deep learning can reveal spatially grounded, anatomically meaningful patterns from structural MRI.

Publication Details

Journal
Counseling And Psychological Services Dissertations (Georgia State University)
Published
2025-08-15
DOI
https://doi.org/10.57709/w3jx-4n16
Primary Topic
Functional Brain Connectivity Studies
Type
article
Field-Weighted Citation Impact
0.00
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article

Brain ATLAS Driven Attention Models in ABCD Cognition Score Prediction

Counseling And Psychological Services Dissertations (Georgia State University)
Functional Brain Connectivity Studies
article

Brain ATLAS Driven Attention Models in ABCD Cognition Score Prediction

article en

Abstract

Emerging evidence points to the cerebellum as a key player in working memory and executive function, yet its structural role within the fronto-thalamo-cerebellar (FTC) circuitry remains underexamined. Leveraging the expansive ABCD dataset, this study evaluated the predictive capacity of FTC anatomy—specifically gray matter volume (GMV) and fractional anisotropy (FA)—in modeling working memory (2-back accuracy) and attention (0-back accuracy). Classical models such as Bayesian regression, SVR, and feedforward neural networks achieved a peak R² of 0.062, with FTC-based predictions significantly outperforming fronto-parietal counterparts (p < 0.05). Building on this, we developed a multi-stage deep learning framework incorporating 3D CNNs, self-attention blocks, and squeeze-and-excitation mechanisms. These models pushed predictive R² to 0.079 while offering interpretable attention maps that consistently highlighted cerebellar subregions. Together, these results underscore the FTC circuit’s robust involvement in working memory and demonstrate how deep learning can reveal spatially grounded, anatomically meaningful patterns from structural MRI.

Counseling And Psychological Services Dissertations (Georgia State University)
Openalex Percentile: Top 56%
Functional Brain Connectivity Studies
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