Cargando…

Interactions between the lipidome and genetic and environmental factors in autism

Autism 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 healt...

Descripción completa

Detalles Bibliográficos
Autores principales: Yap, Chloe X., Henders, Anjali K., Alvares, Gail A., Giles, Corey, Huynh, Kevin, Nguyen, Anh, Wallace, Leanne, McLaren, Tiana, Yang, Yuanhao, Hernandez, Leanna M., Gandal, Michael J., Hansell, Narelle K., Cleary, Dominique, Grove, Rachel, Hafekost, Claire, Harun, Alexis, Holdsworth, Helen, Jellett, Rachel, Khan, Feroza, Lawson, Lauren P., Leslie, Jodie, Levis Frenk, Mira, Masi, Anne, Mathew, Nisha E., Muniandy, Melanie, Nothard, Michaela, Miller, Jessica L., Nunn, Lorelle, Strike, Lachlan T., Cadby, Gemma, Moses, Eric K., de Zubicaray, Greig I., Thompson, Paul M., McMahon, Katie L., Wright, Margaret J., Visscher, Peter M., Dawson, Paul A., Dissanayake, Cheryl, Eapen, Valsamma, Heussler, Helen S., Whitehouse, Andrew J. O., Meikle, Peter J., Wray, Naomi R., Gratten, Jacob
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Nature Publishing Group US 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10115648/
https://www.ncbi.nlm.nih.gov/pubmed/37076741
http://dx.doi.org/10.1038/s41591-023-02271-1
_version_ 1785028254678122496
author Yap, Chloe X.
Henders, Anjali K.
Alvares, Gail A.
Giles, Corey
Huynh, Kevin
Nguyen, Anh
Wallace, Leanne
McLaren, Tiana
Yang, Yuanhao
Hernandez, Leanna M.
Gandal, Michael J.
Hansell, Narelle K.
Cleary, Dominique
Grove, Rachel
Hafekost, Claire
Harun, Alexis
Holdsworth, Helen
Jellett, Rachel
Khan, Feroza
Lawson, Lauren P.
Leslie, Jodie
Levis Frenk, Mira
Masi, Anne
Mathew, Nisha E.
Muniandy, Melanie
Nothard, Michaela
Miller, Jessica L.
Nunn, Lorelle
Strike, Lachlan T.
Cadby, Gemma
Moses, Eric K.
de Zubicaray, Greig I.
Thompson, Paul M.
McMahon, Katie L.
Wright, Margaret J.
Visscher, Peter M.
Dawson, Paul A.
Dissanayake, Cheryl
Eapen, Valsamma
Heussler, Helen S.
Whitehouse, Andrew J. O.
Meikle, Peter J.
Wray, Naomi R.
Gratten, Jacob
author_facet Yap, Chloe X.
Henders, Anjali K.
Alvares, Gail A.
Giles, Corey
Huynh, Kevin
Nguyen, Anh
Wallace, Leanne
McLaren, Tiana
Yang, Yuanhao
Hernandez, Leanna M.
Gandal, Michael J.
Hansell, Narelle K.
Cleary, Dominique
Grove, Rachel
Hafekost, Claire
Harun, Alexis
Holdsworth, Helen
Jellett, Rachel
Khan, Feroza
Lawson, Lauren P.
Leslie, Jodie
Levis Frenk, Mira
Masi, Anne
Mathew, Nisha E.
Muniandy, Melanie
Nothard, Michaela
Miller, Jessica L.
Nunn, Lorelle
Strike, Lachlan T.
Cadby, Gemma
Moses, Eric K.
de Zubicaray, Greig I.
Thompson, Paul M.
McMahon, Katie L.
Wright, Margaret J.
Visscher, Peter M.
Dawson, Paul A.
Dissanayake, Cheryl
Eapen, Valsamma
Heussler, Helen S.
Whitehouse, Andrew J. O.
Meikle, Peter J.
Wray, Naomi R.
Gratten, Jacob
author_sort Yap, Chloe X.
collection PubMed
description Autism 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.
format Online
Article
Text
id pubmed-10115648
institution National Center for Biotechnology Information
language English
publishDate 2023
publisher Nature Publishing Group US
record_format MEDLINE/PubMed
spelling pubmed-101156482023-04-21 Interactions between the lipidome and genetic and environmental factors in autism Yap, Chloe X. Henders, Anjali K. Alvares, Gail A. Giles, Corey Huynh, Kevin Nguyen, Anh Wallace, Leanne McLaren, Tiana Yang, Yuanhao Hernandez, Leanna M. Gandal, Michael J. Hansell, Narelle K. Cleary, Dominique Grove, Rachel Hafekost, Claire Harun, Alexis Holdsworth, Helen Jellett, Rachel Khan, Feroza Lawson, Lauren P. Leslie, Jodie Levis Frenk, Mira Masi, Anne Mathew, Nisha E. Muniandy, Melanie Nothard, Michaela Miller, Jessica L. Nunn, Lorelle Strike, Lachlan T. Cadby, Gemma Moses, Eric K. de Zubicaray, Greig I. Thompson, Paul M. McMahon, Katie L. Wright, Margaret J. Visscher, Peter M. Dawson, Paul A. Dissanayake, Cheryl Eapen, Valsamma Heussler, Helen S. Whitehouse, Andrew J. O. Meikle, Peter J. Wray, Naomi R. Gratten, Jacob Nat Med Article Autism 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. Nature Publishing Group US 2023-04-19 2023 /pmc/articles/PMC10115648/ /pubmed/37076741 http://dx.doi.org/10.1038/s41591-023-02271-1 Text en © The Author(s) 2023 https://creativecommons.org/licenses/by/4.0/Open Access This article is licensed under a Creative Commons Attribution 4.0 International License, which permits use, sharing, adaptation, distribution and reproduction in any medium or format, as long as you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons license, and indicate if changes were made. The images or other third party material in this article are included in the article’s Creative Commons license, unless indicated otherwise in a credit line to the material. If material is not included in the article’s Creative Commons license and your intended use is not permitted by statutory regulation or exceeds the permitted use, you will need to obtain permission directly from the copyright holder. To view a copy of this license, visit http://creativecommons.org/licenses/by/4.0/ (https://creativecommons.org/licenses/by/4.0/) .
spellingShingle Article
Yap, Chloe X.
Henders, Anjali K.
Alvares, Gail A.
Giles, Corey
Huynh, Kevin
Nguyen, Anh
Wallace, Leanne
McLaren, Tiana
Yang, Yuanhao
Hernandez, Leanna M.
Gandal, Michael J.
Hansell, Narelle K.
Cleary, Dominique
Grove, Rachel
Hafekost, Claire
Harun, Alexis
Holdsworth, Helen
Jellett, Rachel
Khan, Feroza
Lawson, Lauren P.
Leslie, Jodie
Levis Frenk, Mira
Masi, Anne
Mathew, Nisha E.
Muniandy, Melanie
Nothard, Michaela
Miller, Jessica L.
Nunn, Lorelle
Strike, Lachlan T.
Cadby, Gemma
Moses, Eric K.
de Zubicaray, Greig I.
Thompson, Paul M.
McMahon, Katie L.
Wright, Margaret J.
Visscher, Peter M.
Dawson, Paul A.
Dissanayake, Cheryl
Eapen, Valsamma
Heussler, Helen S.
Whitehouse, Andrew J. O.
Meikle, Peter J.
Wray, Naomi R.
Gratten, Jacob
Interactions between the lipidome and genetic and environmental factors in autism
title Interactions between the lipidome and genetic and environmental factors in autism
title_full Interactions between the lipidome and genetic and environmental factors in autism
title_fullStr Interactions between the lipidome and genetic and environmental factors in autism
title_full_unstemmed Interactions between the lipidome and genetic and environmental factors in autism
title_short Interactions between the lipidome and genetic and environmental factors in autism
title_sort interactions between the lipidome and genetic and environmental factors in autism
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10115648/
https://www.ncbi.nlm.nih.gov/pubmed/37076741
http://dx.doi.org/10.1038/s41591-023-02271-1
work_keys_str_mv AT yapchloex interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT hendersanjalik interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT alvaresgaila interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT gilescorey interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT huynhkevin interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT nguyenanh interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT wallaceleanne interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT mclarentiana interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT yangyuanhao interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT hernandezleannam interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT gandalmichaelj interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT hansellnarellek interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT clearydominique interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT groverachel interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT hafekostclaire interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT harunalexis interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT holdsworthhelen interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT jellettrachel interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT khanferoza interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT lawsonlaurenp interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT lesliejodie interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT levisfrenkmira interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT masianne interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT mathewnishae interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT muniandymelanie interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT nothardmichaela interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT millerjessical interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT nunnlorelle interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT strikelachlant interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT cadbygemma interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT moseserick interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT dezubicaraygreigi interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT thompsonpaulm interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT mcmahonkatiel interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT wrightmargaretj interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT visscherpeterm interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT dawsonpaula interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT dissanayakecheryl interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT eapenvalsamma interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT heusslerhelens interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT whitehouseandrewjo interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT meiklepeterj interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT wraynaomir interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism
AT grattenjacob interactionsbetweenthelipidomeandgeneticandenvironmentalfactorsinautism