Communications BiologyNeurosciencePeer-reviewed journal article
Generating Synthetic Task-based Brain Fingerprints for Population Neuroscience Using Deep Learning
Emin SeriniD, Kerstin RitteriD, Günter SchumanniD, Tobias BanaschewskiiD, André F. MarquandiD, Henrik WalteriD, Andreas HeinziD, Markus RalseriD, Sven Olaf TwardziokiD, Nilakshi VaidyaiD, Antoine BernasiD, Marcel Jentsch, Esther Hitchen, Elli PolemitiiD, Hedi Kebir, Tristram A. P. LettiD, Jean-Charles RoyiD, Roland EilsiD, Ulrike H. TaroniD, Tatjana Schütz, Kerstin SchepanskiiD, Karina JansoneiD, Nina ChristmanniD, Andreas Meyer‐LindenbergiD, Heike TostiD, , George OgohiD
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- 4
- FWCI
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- Field percentile
- top 11%
Abstract
Task-based functional magnetic resonance imaging (tb-fMRI) reveals individual differences in the neural basis of cognitive functions by linking specific tasks to neural responses. However, scaling tb-fMRI to population-level studies is challenging due to its cognitive demands, variations in task design across studies, and the limited scope of tasks in large datasets. To address this, we propose DeepTaskGen, a deep-learning approach that generates non-acquired task-based contrast maps from resting-state fMRI (rs-fMRI) data. Our approach enables generating synthetic task images for non-acquired tasks within the study protocol. We validate this approach using the Human Connectome Project lifespan data, then generate 47 contrast maps from 7 different cognitive tasks for over 20,000 individuals from UK Biobank. DeepTaskGen outperforms several benchmarks in generating synthetic task-contrast maps, exhibiting superior reconstruction performance while retaining inter-individual variation essential for biomarker development. Notably, we further showed that synthetic task contrast maps achieved similar or greater performance compared to actual task contrast maps and resting-state connectomes for predicting a wide range of demographic, cognitive, and clinical variables. This approach will facilitate the study of individual differences and the generation of task-related biomarkers by enabling the generation of arbitrary functional cognitive tasks from readily available rs-fMRI data.
- organism: human
- assay: imaging
- research focus: benchmarking
- research focus: gene regulatory network inference
- approach: deep learning
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