Captivity induces large and population‐dependent brain transcriptomic changes in wild‐caught cane toads (Rhinella marina)

Gene expression levels are key molecular phenotypes at the interplay between genotype and environment. Mounting evidence suggests that short‐term changes in environmental conditions, such as those encountered in captivity, can substantially affect gene expression levels. Yet, the exact magnitude of...

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Veröffentlicht in:Molecular ecology 2022-10, Vol.31 (19), p.4949-4961
Hauptverfasser: Yagound, Boris, West, Andrea J., Richardson, Mark F., Gruber, Jodie, Reid, Jack G., Whiting, Martin J., Rollins, Lee A.
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container_end_page 4961
container_issue 19
container_start_page 4949
container_title Molecular ecology
container_volume 31
creator Yagound, Boris
West, Andrea J.
Richardson, Mark F.
Gruber, Jodie
Reid, Jack G.
Whiting, Martin J.
Rollins, Lee A.
description Gene expression levels are key molecular phenotypes at the interplay between genotype and environment. Mounting evidence suggests that short‐term changes in environmental conditions, such as those encountered in captivity, can substantially affect gene expression levels. Yet, the exact magnitude of this effect, how general it is, and whether it results in parallel changes across populations are not well understood. Here, we take advantage of the well‐studied cane toad, Rhinella marina, to examine the effect of short‐term captivity on brain gene expression levels, and determine whether effects of captivity differ between long‐colonized and vanguard populations of the cane toad's Australian invasion range. We compared the transcriptomes of wild‐caught toads immediately assayed with those from toads captured from the same populations but maintained in captivity for seven months. We found large differences in gene expression levels between captive and wild‐caught toads from the same population, with an over‐representation of processes related to behaviour and the response to stress. Captivity had a much larger effect on both gene expression levels and gene expression variability in toads from vanguard populations compared to toads from long‐colonized areas, potentially indicating an increased plasticity in toads at the leading edge of the invasion. Overall, our findings indicate that short‐term captivity can induce large and population‐specific transcriptomic changes, which has significant implications for studies comparing phenotypic traits of wild‐caught organisms from different populations that have been held in captivity.
doi_str_mv 10.1111/mec.16633
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ispartof Molecular ecology, 2022-10, Vol.31 (19), p.4949-4961
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subjects Animals
Australia
Brain
Bufo marinus
Bufo marinus - genetics
cane toad
Captivity
Environmental changes
Environmental conditions
Gene expression
Genotypes
Introduced Species
invasive species
Original
ORIGINAL ARTICLES
Phenotypes
Poaceae
population
Populations
Rhinella marina
Toads
Transcriptome - genetics
Transcriptomes
Transcriptomics
title Captivity induces large and population‐dependent brain transcriptomic changes in wild‐caught cane toads (Rhinella marina)
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