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A novel evolutionary conserved mechanism of RNA stability regulates synexpression of primordial germ cell-specific genes prior to the sex-determination stage in medaka
Author(s) -
Amaury Herpin,
Cornelia Schmidt,
Susanne Kneitz,
Clara Gobé,
Martina Regensburger,
Aurélie Le Cam,
Jérôme Montfort,
Mateus Contar Adolfi,
Christina Lillesaar,
Dagmar Wilhelm,
Michael Kraeussling,
Brigitte Mourot,
Béatrice Porcon,
Maëlle Pannetier,
Éric Pailhoux,
Laurence Ettwiller,
Dirk Dolle,
Yann Guiguen,
Manfred Schartl
Publication year - 2019
Publication title -
plos biology
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 4.127
H-Index - 271
eISSN - 1545-7885
pISSN - 1544-9173
DOI - 10.1371/journal.pbio.3000185
Subject(s) - biology , gene , genetics , mechanism (biology) , germ cell , evolutionary biology , rna , computational biology , philosophy , epistemology
Dmrt1 is a highly conserved transcription factor, which is critically involved in regulation of gonad development of vertebrates. In medaka, a duplicate of dmrt1—acting as master sex-determining gene—has a tightly timely and spatially controlled gonadal expression pattern. In addition to transcriptional regulation, a sequence motif in the 3′ UTR (D3U-box) mediates transcript stability of dmrt1 mRNAs from medaka and other vertebrates. We show here that in medaka, two RNA-binding proteins with antagonizing properties target this D3U-box, promoting either RNA stabilization in germ cells or degradation in the soma. The D3U-box is also conserved in other germ-cell transcripts, making them responsive to the same RNA binding proteins. The evolutionary conservation of the D3U-box motif within dmrt1 genes of metazoans—together with preserved expression patterns of the targeting RNA binding proteins in subsets of germ cells—suggest that this new mechanism for controlling RNA stability is not restricted to fishes but might also apply to other vertebrates.

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