4.7 Article

BrainPrint: A discriminative characterization of brain morphology

Journal

NEUROIMAGE
Volume 109, Issue -, Pages 232-248

Publisher

ACADEMIC PRESS INC ELSEVIER SCIENCE
DOI: 10.1016/j.neuroimage.2015.01.032

Keywords

Brain shape; Large brain datasets; Brain similarity; Subject identification; Brain asymmetry; Morphological heritability

Funding

  1. Humboldt Foundation
  2. National Cancer Institute [1K25-CA181632-01]
  3. Martinos Center for Biomedical Imaging [P41-RR014075, P41-EB015896]
  4. National Alliance for Medical Image Computing [U54-EB005149]
  5. NeuroImaging Analysis Center [P41-EB015902]
  6. National Center for Research Resources [U24 RR021382]
  7. National Institute for Biomedical Imaging and Bioengineering [5P41EB015896-15, R01EB006758]
  8. National Institute on Aging [AG022381, 5R01AG008122-22, AG018344, AG018386]
  9. National Center for Alternative Medicine [RC1 AT005728-01]
  10. National Institute for Neurological Disorders and Stroke [R01 NS052585-01, 1R21NS072652-01, 1R01NS070963, R01NS083534]
  11. Autism & Dyslexia Project - Ellison Medical Foundation
  12. NIH Blueprint for Neuroscience Research [5U01-MH093765]
  13. Massachusetts Alzheimer's Disease Research Center [5 P50 AG005134]
  14. MGH Neurology Clinical Trials Unit
  15. Harvard NeuroDiscovery Center
  16. Alzheimer's Disease Neuroimaging Initiative (ADNI) (National Institutes of Health) [U01 AG024904]
  17. DOD ADNI (Department of Defense) [W81XWH-12-2-0012]
  18. National Institute on Aging
  19. National Institute of Biomedical Imaging and Bioengineering
  20. Canadian Institutes of Health Research
  21. [1S10RR023401]
  22. [1S10RR019307]
  23. [1S10RR023043]

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We introduce BrainPrint, a compact and discriminative representation of brain morphology. BrainPrint captures shape information of an ensemble of cortical and subcortical structures by solving the eigenvalue problem of the 2D and 3D Laplace-Beltrami operator on triangular (boundary) and tetrahedral (volumetric) meshes. This discriminative characterization enables new ways to study the similarity between brains; the focus can either be on a specific brain structure of interest or on the overall brain similarity. We highlight four applications for BrainPrint in this article: (i) subject identification, (ii) age and sex prediction, (iii) brain asymmetry analysis, and (iv) potential genetic influences on brain morphology. The properties of BrainPrint require the derivation of new algorithms to account for the heterogeneous mix of brain structures with varying discriminative power. We conduct experiments on three datasets, including over 3000 MRI scans from the ADNI database, 436 MRI scans from the OASIS dataset, and 236 MRI scans from the VETSA twin study. All processing steps for obtaining the compact representation are fully automated, making this processing framework particularly attractive for handling large datasets. (C) 2015 Elsevier Inc. All rights reserved.

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