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White matter microstructure and macrostructure brain charts across the human lifespan

Kim, M. E.; Gao, C.; Ramadass, K.; Newlin, N. R.; Kanakaraj, P.; Bogdanov, S.; Rudravaram, G.; Archer, D.; Hohman, T. J.; Jefferson, A. L.; Morgan, V. L.; Roche, A.; Englot, D. J.; Resnick, S. M.; Beason-Held, L. L.; Cutting, L.; Barquero, L. A.; D'arcangel, M. A.; Nguyen, T. Q.; Humphreys, K. L.; Niu, Y.; Vinci-Booher, S.; Cascio, C. J.; The HABS-HD Study Team, ; Alzheimers Disease Neuroimaging Initiative, ; The BIOCARD Study Team, ; Li, Z.; Vandekar, S. N.; Zhang, P.; Gore, J. C.; Landman, B. A.; Schilling, K. G.

2025-05-08 neuroscience
10.1101/2025.05.08.652953 bioRxiv
Show abstract

Normative reference charts are widely used in healthcare, especially for assessing the development of individuals by benchmarking anatomic and physiological features against population trajectories across the lifespan. Recent work has extended this concept to gray matter morphology in the brain, but no such reference framework currently exists for white matter (WM) even though WM constitutes the essential substrate for neuronal communication and large-scale network integration. Here, we present the first comprehensive WM brain charts, which describe how microstructural and macrostructural features of WM evolve across the lifespan, by leveraging over 35,120 diffusion MRI scans from 50 harmonized studies. Using generalized additive models for location, scale, and shape (GAMLSS), we estimate age- and sex-stratified trajectories for 72 individual white matter pathways, quantifying both tract-specific microstructural and morphometric features. We demonstrate that these WM brain charts enable four important applications: (1) defining normative trajectories of WM maturation and decline across distinct pathways, (2) identifying previously uncharacterized developmental milestones and spatial gradients of tract maturation, (3) detecting individualized deviations from normative patterns with clinical relevance across multiple neurological disorders, and (4) facilitating standardized, cross-study centile scoring of new datasets. By establishing a unified, interpretable reference framework for WM structure, these brain charts provide a foundational metric for research and clinical neuroscience. The accompanying open-access trajectories, centile scoring tools, and harmonization methods facilitate precise mapping of WM development, aging, and pathology across diverse populations. We release the brain charts and provide an out-of-sample alignment process as a Docker image: https://zenodo.org/records/17561821.

Published in Nature (predicted rank #30) · training set

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