Biological Psychiatry Cognitive Neuroscience and NeuroimagingNeurosciencePeer-reviewed journal article
Autism is associated with inter-individual variations of gray and white matter morphology
Ting MeiiD, Natalie J. FordeiD, Dorothea L. FlorisiD, Flavio Dell’AcquaiD, Richard StonesiD, Iva IlioskaiD, Sarah Durston, Carolin MoessnangiD, Tobias BanaschewskiiD, Rosemary HoltiD, Simon Baron‐CoheniD, Annika Rausch, Eva LothiD, Bethany F. M. OakleyiD, Tony CharmaniD, Christine EckeriD, Declan MurphyiD, Jan K. BuitelaariD, Jumana AhmadiD, Sara AmbrosinoiD, Bonnie Auyeung BiD, Sarah BaumeisteriD, Christian F. BeckmanniD, Sven BölteiD, Thomas BourgeroniD, , Alberto LleraiD
Abstract
BackgroundAlthough many studies have explored atypicalities in gray and white matter (GM, WM) morphology of autism, most of them rely on unimodal analyses that do not benefit from the likelihood that different imaging modalities may reflect common neurobiology. We aimed to establish multimodal brain patterns that differentiate between autism and typically developing (TD) controls and explore associations between these brain patterns and clinical measures. MethodsWe studied 183 individuals with autism and 157 TD individuals (6-30 years) in a large deeply phenotyped autism dataset (EU-AIMS LEAP). Linked Independent Component Analysis was utilized to link all participants GM and WM images, and group comparisons of modality shared variances were examined. Subsequently, we performed a canonical correlation analysis to explore the aggregated effects between all multimodal GM-WM covariations and clinical profiles. ResultsOne multimodal pattern was significantly related to autism. This pattern was primarily associated with GM in bilateral insula, frontal, pre- and post-central, cingulate, and caudate areas, and co-occurred with altered WM features in the superior longitudinal fasciculus. The canonical analysis showed a significant multivariate correlation primarily between multimodal brain patterns that involved variation of corpus callosum, and symptoms of social affect in the autism group. ConclusionsOur findings demonstrate the assets of integrated analyses of GM and WM alterations to study the brain mechanisms that underpin autism, and show that the complex clinical autism phenotype can be interpreted by multimodal brain patterns that are spread across the brain involving both cortical and subcortical areas.
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