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Publication avec DOI Récupéré Publication crossref

Helena Rawsthorne, Fernando Calahorro, Lindy Holden-Dye, Vincent O’ Connor, James Dillon (2021). Investigating autism associated genes in C. elegans reveals candidates with a role in social behaviour. PLOS ONE, 16(5), e0243121. Public Library of Science (PLoS).

Date de publication
27/05/2021
Identifiant
10.1371/journal.pone.0243121
Auteurs
Helena Rawsthorne, Fernando Calahorro, Lindy Holden-Dye, Vincent O’ Connor, James Dillon
Source
PLOS ONE
Détails
16(5), e0243121
Type de référence
article
Éditeur
Public Library of Science (PLoS)
Source de métadonnées
crossref

Résumé

Autism spectrum disorder (ASD) is a neurodevelopmental disorder characterised by a triad of behavioural impairments and includes disruption in social behaviour. ASD has a clear genetic underpinning and hundreds of genes are implicated in its aetiology. However, how single penetrant genes disrupt activity of neural circuits which lead to affected behaviours is only beginning to be understood and less is known about how low penetrant genes interact to disrupt emergent behaviours. Investigations are well served by experimental approaches that allow tractable investigation of the underpinning genetic basis of circuits that control behaviours that operate in the biological domains that are neuro-atypical in autism. The model organism C. elegans provides an experimental platform to investigate the effect of genetic mutations on behavioural outputs including those that impact social biology. Here we use progeny-derived social cues that modulate C. elegans food leaving to assay genetic determinants of social behaviour. We used the SAFRI Gene database to identify C. elegans orthologues of human ASD associated genes. We identified a number of mutants that displayed selective deficits in response to progeny. The genetic determinants of this complex social behaviour highlight the important contribution of synaptopathy and implicates genes within cell signalling, epigenetics and phospholipid metabolism functional domains. The approach overlaps with a growing number of studies that investigate potential molecular determinants of autism in C. elegans. However, our use of a complex, sensory integrative, emergent behaviour provides routes to enrich new or underexplored biology with the identification of novel candidate genes with a definable role in social behaviour.

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