Literature DB >> 23547111

Sex-biased gene expression at homomorphic sex chromosomes in emus and its implication for sex chromosome evolution.

Beatriz Vicoso1, Vera B Kaiser, Doris Bachtrog.   

Abstract

Sex chromosomes originate from autosomes. The accumulation of sexually antagonistic mutations on protosex chromosomes selects for a loss of recombination and sets in motion the evolutionary processes generating heteromorphic sex chromosomes. Recombination suppression and differentiation are generally viewed as the default path of sex chromosome evolution, and the occurrence of old, homomorphic sex chromosomes, such as those of ratite birds, has remained a mystery. Here, we analyze the genome and transcriptome of emu (Dromaius novaehollandiae) and confirm that most genes on the sex chromosome are shared between the Z and W. Surprisingly, however, levels of gene expression are generally sex-biased for all sex-linked genes relative to autosomes, including those in the pseudoautosomal region, and the male-bias increases after gonad formation. This expression bias suggests that the emu sex chromosomes have become masculinized, even in the absence of ZW differentiation. Thus, birds may have taken different evolutionary solutions to minimize the deleterious effects imposed by sexually antagonistic mutations: some lineages eliminate recombination along the protosex chromosomes to physically restrict sexually antagonistic alleles to one sex, whereas ratites evolved sex-biased expression to confine the product of a sexually antagonistic allele to the sex it benefits. This difference in conflict resolution may explain the preservation of recombining, homomorphic sex chromosomes in other lineages and illustrates the importance of sexually antagonistic mutations driving the evolution of sex chromosomes.

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Year:  2013        PMID: 23547111      PMCID: PMC3631621          DOI: 10.1073/pnas.1217027110

Source DB:  PubMed          Journal:  Proc Natl Acad Sci U S A        ISSN: 0027-8424            Impact factor:   11.205


  31 in total

1.  BLAT--the BLAST-like alignment tool.

Authors:  W James Kent
Journal:  Genome Res       Date:  2002-04       Impact factor: 9.043

2.  The potential for sexually antagonistic polymorphism in different genome regions.

Authors:  Crispin Y Jordan; Deborah Charlesworth
Journal:  Evolution       Date:  2011-09-20       Impact factor: 3.694

3.  Evidence for different origin of sex chromosomes in snakes, birds, and mammals and step-wise differentiation of snake sex chromosomes.

Authors:  Kazumi Matsubara; Hiroshi Tarui; Michihisa Toriba; Kazuhiko Yamada; Chizuko Nishida-Umehara; Kiyokazu Agata; Yoichi Matsuda
Journal:  Proc Natl Acad Sci U S A       Date:  2006-11-16       Impact factor: 11.205

Review 4.  Sex reversal: a fountain of youth for sex chromosomes?

Authors:  Nicolas Perrin
Journal:  Evolution       Date:  2009-09-09       Impact factor: 3.694

5.  Evolution of the avian sex chromosomes from an ancestral pair of autosomes.

Authors:  A K Fridolfsson; H Cheng; N G Copeland; N A Jenkins; H C Liu; T Raudsepp; T Woodage; B Chowdhary; J Halverson; H Ellegren
Journal:  Proc Natl Acad Sci U S A       Date:  1998-07-07       Impact factor: 11.205

6.  Comparative painting reveals strong chromosome homology over 80 million years of bird evolution.

Authors:  S Shetty; D K Griffin; J A Graves
Journal:  Chromosome Res       Date:  1999       Impact factor: 5.239

7.  Selective trade-offs and sex-chromosome evolution in Silene latifolia.

Authors:  Ivan Scotti; Lynda F Delph
Journal:  Evolution       Date:  2006-09       Impact factor: 3.694

8.  The chicken (Gallus gallus) Z chromosome contains at least three nonlinear evolutionary strata.

Authors:  Kiwoong Nam; Hans Ellegren
Journal:  Genetics       Date:  2008-09-14       Impact factor: 4.562

9.  Bird-like sex chromosomes of platypus imply recent origin of mammal sex chromosomes.

Authors:  Frédéric Veyrunes; Paul D Waters; Pat Miethke; Willem Rens; Daniel McMillan; Amber E Alsop; Frank Grützner; Janine E Deakin; Camilla M Whittington; Kyriena Schatzkamer; Colin L Kremitzki; Tina Graves; Malcolm A Ferguson-Smith; Wes Warren; Jennifer A Marshall Graves
Journal:  Genome Res       Date:  2008-05-07       Impact factor: 9.043

10.  Faced with inequality: chicken do not have a general dosage compensation of sex-linked genes.

Authors:  Hans Ellegren; Lina Hultin-Rosenberg; Björn Brunström; Lennart Dencker; Kim Kultima; Birger Scholz
Journal:  BMC Biol       Date:  2007-09-20       Impact factor: 7.431

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  69 in total

1.  Conservation of Regional Variation in Sex-Specific Sex Chromosome Regulation.

Authors:  Alison E Wright; Fabian Zimmer; Peter W Harrison; Judith E Mank
Journal:  Genetics       Date:  2015-08-05       Impact factor: 4.562

2.  Sex-dependent dominance maintains migration supergene in rainbow trout.

Authors:  Devon E Pearse; Nicola J Barson; Torfinn Nome; Guangtu Gao; Matthew A Campbell; Alicia Abadía-Cardoso; Eric C Anderson; David E Rundio; Thomas H Williams; Kerry A Naish; Thomas Moen; Sixin Liu; Matthew Kent; Michel Moser; David R Minkley; Eric B Rondeau; Marine S O Brieuc; Simen Rød Sandve; Michael R Miller; Lucydalila Cedillo; Kobi Baruch; Alvaro G Hernandez; Gil Ben-Zvi; Doron Shem-Tov; Omer Barad; Kirill Kuzishchin; John Carlos Garza; Steven T Lindley; Ben F Koop; Gary H Thorgaard; Yniv Palti; Sigbjørn Lien
Journal:  Nat Ecol Evol       Date:  2019-11-25       Impact factor: 15.460

3.  Purifying Selection Maintains Dosage-Sensitive Genes during Degeneration of the Threespine Stickleback Y Chromosome.

Authors:  Michael A White; Jun Kitano; Catherine L Peichel
Journal:  Mol Biol Evol       Date:  2015-03-26       Impact factor: 16.240

4.  A frog with three sex chromosomes that co-mingle together in nature: Xenopus tropicalis has a degenerate W and a Y that evolved from a Z chromosome.

Authors:  Benjamin L S Furman; Caroline M S Cauret; Martin Knytl; Xue-Ying Song; Tharindu Premachandra; Caleb Ofori-Boateng; Danielle C Jordan; Marko E Horb; Ben J Evans
Journal:  PLoS Genet       Date:  2020-11-09       Impact factor: 5.917

5.  Signatures of sex-antagonistic selection on recombining sex chromosomes.

Authors:  Mark Kirkpatrick; Rafael F Guerrero
Journal:  Genetics       Date:  2014-02-27       Impact factor: 4.562

6.  Estimating tempo and mode of Y chromosome turnover: explaining Y chromosome loss with the fragile Y hypothesis.

Authors:  Heath Blackmon; Jeffery P Demuth
Journal:  Genetics       Date:  2014-06       Impact factor: 4.562

7.  New insights into sex chromosome evolution in anole lizards (Reptilia, Dactyloidae).

Authors:  M Giovannotti; V A Trifonov; A Paoletti; I G Kichigin; P C M O'Brien; F Kasai; G Giovagnoli; B L Ng; P Ruggeri; P Nisi Cerioni; A Splendiani; J C Pereira; E Olmo; W Rens; V Caputo Barucchi; M A Ferguson-Smith
Journal:  Chromosoma       Date:  2016-03-22       Impact factor: 4.316

Review 8.  Evolution of recombination rates between sex chromosomes.

Authors:  Deborah Charlesworth
Journal:  Philos Trans R Soc Lond B Biol Sci       Date:  2017-12-19       Impact factor: 6.237

9.  Proteins, Transcripts, and Genetic Architecture of Seminal Fluid and Sperm in the Mosquito Aedes aegypti.

Authors:  Ethan C Degner; Yasir H Ahmed-Braimah; Kirill Borziak; Mariana F Wolfner; Laura C Harrington; Steve Dorus
Journal:  Mol Cell Proteomics       Date:  2018-12-14       Impact factor: 5.911

Review 10.  Molecular and evolutionary dynamics of animal sex-chromosome turnover.

Authors:  Beatriz Vicoso
Journal:  Nat Ecol Evol       Date:  2019-11-25       Impact factor: 15.460

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