Interactions between the lipidome and genetic and environmental factors in autism
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Published:2023-04
Issue:4
Volume:29
Page:936-949
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ISSN:1078-8956
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Container-title:Nature Medicine
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language:en
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Short-container-title:Nat Med
Author:
Yap Chloe X.ORCID, Henders Anjali K., Alvares Gail A.ORCID, Giles CoreyORCID, Huynh KevinORCID, Nguyen Anh, Wallace Leanne, McLaren Tiana, Yang Yuanhao, Hernandez Leanna M., Gandal Michael J.ORCID, Hansell Narelle K., Cleary Dominique, Grove Rachel, Hafekost Claire, Harun Alexis, Holdsworth HelenORCID, Jellett Rachel, Khan Feroza, Lawson Lauren P., Leslie Jodie, Levis Frenk Mira, Masi Anne, Mathew Nisha E., Muniandy Melanie, Nothard Michaela, Miller Jessica L.ORCID, Nunn Lorelle, Strike Lachlan T.ORCID, Cadby Gemma, Moses Eric K., Hung Joseph, Hui Jennie, Beilby John, de Zubicaray Greig I., Thompson Paul M., McMahon Katie L.ORCID, Wright Margaret J.ORCID, Visscher Peter M.ORCID, Dawson Paul A., Dissanayake Cheryl, Eapen ValsammaORCID, Heussler Helen S., Whitehouse Andrew J. O., Meikle Peter J.ORCID, Wray Naomi R.ORCID, Gratten JacobORCID,
Abstract
AbstractAutism omics research has historically been reductionist and diagnosis centric, with little attention paid to common co-occurring conditions (for example, sleep and feeding disorders) and the complex interplay between molecular profiles and neurodevelopment, genetics, environmental factors and health. Here we explored the plasma lipidome (783 lipid species) in 765 children (485 diagnosed with autism spectrum disorder (ASD)) within the Australian Autism Biobank. We identified lipids associated with ASD diagnosis (n = 8), sleep disturbances (n = 20) and cognitive function (n = 8) and found that long-chain polyunsaturated fatty acids may causally contribute to sleep disturbances mediated by the FADS gene cluster. We explored the interplay of environmental factors with neurodevelopment and the lipidome, finding that sleep disturbances and unhealthy diet have a convergent lipidome profile (with potential mediation by the microbiome) that is also independently associated with poorer adaptive function. In contrast, ASD lipidome differences were accounted for by dietary differences and sleep disturbances. We identified a large chr19p13.2 copy number variant genetic deletion spanning the LDLR gene and two high-confidence ASD genes (ELAVL3 and SMARCA4) in one child with an ASD diagnosis and widespread low-density lipoprotein-related lipidome derangements. Lipidomics captures the complexity of neurodevelopment, as well as the biological effects of conditions that commonly affect quality of life among autistic people.
Funder
Cooperative Research Centre for Living with Autism University of Queensland Department of Health | National Health and Medical Research Council Department of Education and Training | Australian Research Council
Publisher
Springer Science and Business Media LLC
Subject
General Biochemistry, Genetics and Molecular Biology,General Medicine
Reference69 articles.
1. Tye, C., Runicles, A. K., Whitehouse, A. J. O. & Alvares, G. A. Characterizing the interplay between autism spectrum disorder and comorbid medical conditions: an integrative review. Front. Psychiatry 9, 751 (2019). 2. Frazier, T. W. et al. Brief report: a survey of autism research priorities across a diverse community of stakeholders. J. Autism Dev. Disord. 48, 3965–3971 (2018). 3. Pellicano, E., Dinsmore, A. & Charman, T. What should autism research focus upon? Community views and priorities from the United Kingdom. Autism 18, 756–770 (2014). 4. Gupta, A. R. et al. Rare deleterious mutations of the gene EFR3A in autism spectrum disorders. Mol. Autism 5, 31 (2014). 5. Harayama, T. & Riezman, H. Understanding the diversity of membrane lipid composition. Nat. Rev. Mol. Cell Biol. 19, 281–296 (2018).
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