Precision functional mapping of the individual human brain near birth
Year: 2025
Type: article
Abstract: Cortical areas are a fundamental organizational property of the brain, but their development in humans is not well understood. Key unanswered questions include whether cortical areas are fully established near birth, the extent of individual variation in the arrangement of cortical areas, and whether any such individual variation in cortical area location is greater in later-developing association areas as compared to earlier-developing sensorimotor areas. To address these questions, we used functional MRI to collect precision functional mapping (PFM) data in eight individual neonates (mean 42.7 weeks postmenstrual age) over 2-5 days (mean 77.9 minutes of low motion data per subject [framewise displacement <0.1]). Each subject’s dataset was split into two roughly equal halves of data from different days of data collection to measure within-subject reliability and across-subject similarity. Whole-brain patterns of functional connectivity (FC) reached a mean within-subject, across-day reliability of r=0.78 with 41.9 minutes of data. Across subject similarity of whole-brain FC was r=0.62 on average and significantly lower than within-subject similarity (t=5.9, p<0.001). Using established methods to identify transitions in FC across the cortical surface, we identified sets of cortical areas for each individual that were subject-specific and highly reliable across split-halves (mean z=4.4, SD=1.4). The arrangement of cortical areas was thus individually specific across the entire cortical surface, and this individual specificity did not vary as a function of the sensorimotor-association axis. This study establishes the feasibility of neonatal PFM and suggests that cortical area arrangement is individually specific and largely established shortly following birth. • It is feasible to obtain precision functional mapping (PFM) in neonates, acquiring 60+ minutes of fMRI data in individual neonates over multiple days. • Neonatal functional connectivity (FC) measures obtained through PFM are moderately reliable with 40 minutes of data. • Patterns of neonatal FC across the brain are individually specific. • Cortical areas, based on patterns of homogenous FC, can be reliably identified across the entire cortical surface in individual neonates. • The arrangement of cortical areas at birth is individually specific across the entire brain.
Language: English
Subfield: Cognitive Neuroscience
Field: Neuroscience
Domain: Life Sciences
Open Access status: gold
Estimated APC paid: $3,650
Funders: Deutsche Forschungsgemeinschaft, National Institutes of Health, National Institute of Mental Health, National Institute of Neurological Disorders and Stroke, Eunice Kennedy Shriver National Institute of Child Health and Human Development, Taylor Family Institute for Innovative Psychiatric Research, Washington University School of Medicine in St. Louis
Awards: G244748725, G3024521811, Motion-robust brain MRI for infants, G3304296203, Die Entschlüsselung früher kognitiver Fähigkeiten in Neugeborenen: das Zusammenspiel zwischen aufgabenbezogenen Hirnantworten und ihrer zugrundeliegenden Netzwerkorganisation, Precision Functional Mapping in Treatment-Resistant Depression, G3642085636, G4084953443, G4310274070, Visual biofeedback to reduce head motion during MRI scans, G5349932217, Solving the MRI motion problem with Framewise Integrated Real-Time MRI Monitoring (FIRMM) software, G7886710174, G891661543, Leveraging pediatric state-specific functional brain network dynamics to predict developmental outcomes, Precision Functional Mapping in Treatment-Resistant Depression, Behavioral feedback and rewards for improving functional brain mapping in presurgical pediatric patients, Longitudinal Development of Attention-Related Brain Networks from Birth to School-Age and Risk for Anxiety Disorders, Precision mapping of Parkinson's Disease pathophysiology in the Somato-Cognitive Action Network’s DBS targets, Individualized Mechanisms of Neural Plasticity and Response to Interventions in Neonates, Attention-Related Neural Circuitry in Pediatric Anxiety and ADHD
OpenAlex ID: W7116894856
