Within-individual precision mapping of brain networks exclusively using task data

Precision mapping of brain networks within individuals prevailingly relies on functional connectivity analysis of resting-state data. Here, we explored whether networks can be estimated using only task data. Correlation matrices estimated from task data were similar to those derived from resting-state data. The largest factor affecting similarity was the amount of data. Precision networks estimated from task data showed strong spatial overlap with those derived from resting-state data and predicted the same triple functional dissociation in independent data. To illustrate novel possibilities enabled by the present methods, we mapped the detailed organization of thalamic association zones within individuals by pooling extensive resting-state and task data. We also demonstrated how task data can be used to estimate networks while simultaneously extracting task responses. Broadly, these findings suggest that there is an underlying, stable network architecture that is idiosyncratic to the individual and persists across task states.

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Publication Details

Journal
Neuron
Published
2025-09-27
DOI
https://doi.org/10.1016/j.neuron.2025.08.029
Citations
6
Primary Topic
Functional Brain Connectivity Studies
Type
article
Field-Weighted Citation Impact
8.59
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article

Within-individual precision mapping of brain networks exclusively using task data

Maxwell L. Elliott, Jingnan Du, Randy L. Buckner, Vaibhav Tripathi et al.
6 citations
Neuron
Functional Brain Connectivity Studies
8.59
article

Within-individual precision mapping of brain networks exclusively using task data

Maxwell L. Elliott, Jingnan Du, Randy L. Buckner, Vaibhav Tripathi, Wendy Sun, Mark C. Eldaief, Joanna Ladopoulou
article en
6 citations

Abstract

Precision mapping of brain networks within individuals prevailingly relies on functional connectivity analysis of resting-state data. Here, we explored whether networks can be estimated using only task data. Correlation matrices estimated from task data were similar to those derived from resting-state data. The largest factor affecting similarity was the amount of data. Precision networks estimated from task data showed strong spatial overlap with those derived from resting-state data and predicted the same triple functional dissociation in independent data. To illustrate novel possibilities enabled by the present methods, we mapped the detailed organization of thalamic association zones within individuals by pooling extensive resting-state and task data. We also demonstrated how task data can be used to estimate networks while simultaneously extracting task responses. Broadly, these findings suggest that there is an underlying, stable network architecture that is idiosyncratic to the individual and persists across task states.

NeuronVol. 113(23)
Harvard University (US), Harvard University Press (US), Massachusetts General Hospital (US), Athinoula A. Martinos Center for Biomedical Imaging (US), Center for Systems Biology (US)
Openalex Percentile: Top 2%
Functional Brain Connectivity Studies
8.59
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