Comparative functional analysis of ZFP36 genes during Xenopus development.

ZFP36 constitutes a small family of RNA binding proteins (formerly known as the TIS11 family) that target mRNA and promote their degradation. In mammals, ZFP36 proteins are encoded by four genes and, although they show similar activities in a cellular RNA destabilization assay, there is still a limi...

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Main Authors: Karine Tréguer, Corinne Faucheux, Philippe Veschambre, Sandrine Fédou, Nadine Thézé, Pierre Thiébaud
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2013-01-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC3546996?pdf=render
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spelling doaj-81a0ea366013459dbd9799b06d53609a2020-11-24T23:48:46ZengPublic Library of Science (PLoS)PLoS ONE1932-62032013-01-0181e5455010.1371/journal.pone.0054550Comparative functional analysis of ZFP36 genes during Xenopus development.Karine TréguerCorinne FaucheuxPhilippe VeschambreSandrine FédouNadine ThézéPierre ThiébaudZFP36 constitutes a small family of RNA binding proteins (formerly known as the TIS11 family) that target mRNA and promote their degradation. In mammals, ZFP36 proteins are encoded by four genes and, although they show similar activities in a cellular RNA destabilization assay, there is still a limited knowledge of their mRNA targets and it is not known whether or not they have redundant functions. In the present work, we have used the Xenopus embryo, a model system allowing gain- and loss-of-function studies, to investigate, whether individual ZFP36 proteins had distinct or redundant functions. We show that overexpression of individual amphibian zfp36 proteins leads to embryos having the same defects, with alteration in somites segmentation and pronephros formation. In these embryos, members of the Notch signalling pathway such as hairy2a or esr5 mRNA are down-regulated, suggesting common targets for the different proteins. We also show that mouse Zfp36 protein overexpression gives the same phenotype, indicating an evolutionary conserved property among ZFP36 vertebrate proteins. Morpholino oligonucleotide-induced loss-of-function leads to defects in pronephros formation, reduction in tubule size and duct coiling alterations for both zfp36 and zfp36l1, indicating no functional redundancy between these two genes. Given the conservation in gene structure and function between the amphibian and mammalian proteins and the conserved mechanisms for pronephros development, our study highlights a potential and hitherto unreported role of ZFP36 gene in kidney morphogenesis.http://europepmc.org/articles/PMC3546996?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Karine Tréguer
Corinne Faucheux
Philippe Veschambre
Sandrine Fédou
Nadine Thézé
Pierre Thiébaud
spellingShingle Karine Tréguer
Corinne Faucheux
Philippe Veschambre
Sandrine Fédou
Nadine Thézé
Pierre Thiébaud
Comparative functional analysis of ZFP36 genes during Xenopus development.
PLoS ONE
author_facet Karine Tréguer
Corinne Faucheux
Philippe Veschambre
Sandrine Fédou
Nadine Thézé
Pierre Thiébaud
author_sort Karine Tréguer
title Comparative functional analysis of ZFP36 genes during Xenopus development.
title_short Comparative functional analysis of ZFP36 genes during Xenopus development.
title_full Comparative functional analysis of ZFP36 genes during Xenopus development.
title_fullStr Comparative functional analysis of ZFP36 genes during Xenopus development.
title_full_unstemmed Comparative functional analysis of ZFP36 genes during Xenopus development.
title_sort comparative functional analysis of zfp36 genes during xenopus development.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2013-01-01
description ZFP36 constitutes a small family of RNA binding proteins (formerly known as the TIS11 family) that target mRNA and promote their degradation. In mammals, ZFP36 proteins are encoded by four genes and, although they show similar activities in a cellular RNA destabilization assay, there is still a limited knowledge of their mRNA targets and it is not known whether or not they have redundant functions. In the present work, we have used the Xenopus embryo, a model system allowing gain- and loss-of-function studies, to investigate, whether individual ZFP36 proteins had distinct or redundant functions. We show that overexpression of individual amphibian zfp36 proteins leads to embryos having the same defects, with alteration in somites segmentation and pronephros formation. In these embryos, members of the Notch signalling pathway such as hairy2a or esr5 mRNA are down-regulated, suggesting common targets for the different proteins. We also show that mouse Zfp36 protein overexpression gives the same phenotype, indicating an evolutionary conserved property among ZFP36 vertebrate proteins. Morpholino oligonucleotide-induced loss-of-function leads to defects in pronephros formation, reduction in tubule size and duct coiling alterations for both zfp36 and zfp36l1, indicating no functional redundancy between these two genes. Given the conservation in gene structure and function between the amphibian and mammalian proteins and the conserved mechanisms for pronephros development, our study highlights a potential and hitherto unreported role of ZFP36 gene in kidney morphogenesis.
url http://europepmc.org/articles/PMC3546996?pdf=render
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AT sandrinefedou comparativefunctionalanalysisofzfp36genesduringxenopusdevelopment
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