Literature DB >> 20534883

Chickens possess centromeres with both extended tandem repeats and short non-tandem-repetitive sequences.

Wei-Hao Shang1, Tetsuya Hori, Atsushi Toyoda, Jun Kato, Kris Popendorf, Yasubumi Sakakibara, Asao Fujiyama, Tatsuo Fukagawa.   

Abstract

The centromere is essential for faithful chromosome segregation by providing the site for kinetochore assembly. Although the role of the centromere is conserved throughout evolution, the DNA sequences associated with centromere regions are highly divergent among species and it remains to be determined how centromere DNA directs kinetochore formation. Despite the active use of chicken DT40 cells in studies of chromosome segregation, the sequence of the chicken centromere was unclear. Here, we performed a comprehensive analysis of chicken centromere DNA which revealed unique features of chicken centromeres compared with previously studied vertebrates. Centromere DNA sequences from the chicken macrochromosomes, with the exception of chromosome 5, contain chromosome-specific homogenous tandem repetitive arrays that span several hundred kilobases. In contrast, the centromeres of chromosomes 5, 27, and Z do not contain tandem repetitive sequences and span non-tandem-repetitive sequences of only approximately 30 kb. To test the function of these centromere sequences, we conditionally removed the centromere from the Z chromosome using genetic engineering and have shown that that the non-tandem-repeat sequence of chromosome Z is a functional centromere.

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Year:  2010        PMID: 20534883      PMCID: PMC2928500          DOI: 10.1101/gr.106245.110

Source DB:  PubMed          Journal:  Genome Res        ISSN: 1088-9051            Impact factor:   9.043


  45 in total

1.  The intragenomic polymorphism of a partially inverted repeat (PIR) in Gallus gallus domesticus, potential role of inverted repeats in satellite DNAs evolution.

Authors:  Juan Li; Xiaofei Wang; Frederick C Leung
Journal:  Gene       Date:  2006-10-05       Impact factor: 3.688

Review 2.  The kinetochore and spindle checkpoint in vertebrate cells.

Authors:  Tatsuo Fukagawa
Journal:  Front Biosci       Date:  2008-01-01

Review 3.  Neocentromeres: new insights into centromere structure, disease development, and karyotype evolution.

Authors:  Owen J Marshall; Anderly C Chueh; Lee H Wong; K H Andy Choo
Journal:  Am J Hum Genet       Date:  2008-02       Impact factor: 11.025

4.  CCAN makes multiple contacts with centromeric DNA to provide distinct pathways to the outer kinetochore.

Authors:  Tetsuya Hori; Miho Amano; Aussie Suzuki; Chelsea B Backer; Julie P Welburn; Yimin Dong; Bruce F McEwen; Wei-Hao Shang; Emiko Suzuki; Katsuya Okawa; Iain M Cheeseman; Tatsuo Fukagawa
Journal:  Cell       Date:  2008-12-12       Impact factor: 41.582

5.  A new class of retroviral and satellite encoded small RNAs emanates from mammalian centromeres.

Authors:  Dawn M Carone; Mark S Longo; Gianni C Ferreri; Laura Hall; Melissa Harris; Nicole Shook; Kira V Bulazel; Benjamin R Carone; Craig Obergfell; Michael J O'Neill; Rachel J O'Neill
Journal:  Chromosoma       Date:  2008-10-07       Impact factor: 4.316

Review 6.  Rice as a model for centromere and heterochromatin research.

Authors:  Huihuang Yan; Jiming Jiang
Journal:  Chromosome Res       Date:  2007       Impact factor: 5.239

7.  Heterochromatin integrity affects chromosome reorganization after centromere dysfunction.

Authors:  Kojiro Ishii; Yuki Ogiyama; Yuji Chikashige; Saeko Soejima; Fumie Masuda; Tatsuyuki Kakuma; Yasushi Hiraoka; Kohta Takahashi
Journal:  Science       Date:  2008-08-22       Impact factor: 47.728

Review 8.  Epigenetic regulation of centromeric chromatin: old dogs, new tricks?

Authors:  Robin C Allshire; Gary H Karpen
Journal:  Nat Rev Genet       Date:  2008-12       Impact factor: 53.242

9.  LINE retrotransposon RNA is an essential structural and functional epigenetic component of a core neocentromeric chromatin.

Authors:  Anderly C Chueh; Emma L Northrop; Kate H Brettingham-Moore; K H Andy Choo; Lee H Wong
Journal:  PLoS Genet       Date:  2009-01-30       Impact factor: 5.917

10.  The CENP-S complex is essential for the stable assembly of outer kinetochore structure.

Authors:  Miho Amano; Aussie Suzuki; Tetsuya Hori; Chelsea Backer; Katsuya Okawa; Iain M Cheeseman; Tatsuo Fukagawa
Journal:  J Cell Biol       Date:  2009-07-20       Impact factor: 10.539

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  90 in total

Review 1.  Establishment of the vertebrate kinetochores.

Authors:  Tetsuya Hori; Tatsuo Fukagawa
Journal:  Chromosome Res       Date:  2012-07       Impact factor: 5.239

Review 2.  Structural and functional liaisons between transposable elements and satellite DNAs.

Authors:  Nevenka Meštrović; Brankica Mravinac; Martina Pavlek; Tanja Vojvoda-Zeljko; Eva Šatović; Miroslav Plohl
Journal:  Chromosome Res       Date:  2015-09       Impact factor: 5.239

3.  Three-dimensional architecture of tandem repeats in chicken interphase nucleus.

Authors:  Antonina Maslova; Anna Zlotina; Nadezhda Kosyakova; Marina Sidorova; Alla Krasikova
Journal:  Chromosome Res       Date:  2015-09       Impact factor: 5.239

Review 4.  The ABCs of CENPs.

Authors:  Marinela Perpelescu; Tatsuo Fukagawa
Journal:  Chromosoma       Date:  2011-07-13       Impact factor: 4.316

5.  T time for point centromeres.

Authors:  Karen E Gascoigne; Iain M Cheeseman
Journal:  Nat Cell Biol       Date:  2012-05-30       Impact factor: 28.824

6.  Heterochromatic regions in Japanese quail chromosomes: comprehensive molecular-cytogenetic characterization and 3D mapping in interphase nucleus.

Authors:  Anna Zlotina; Antonina Maslova; Nadezda Kosyakova; Ahmed B Hamid Al-Rikabi; Thomas Liehr; Alla Krasikova
Journal:  Chromosome Res       Date:  2018-12-18       Impact factor: 5.239

7.  Boolean gene regulatory network model of centromere function in Saccharomyces cerevisiae.

Authors:  Emir Haliki; Nursen Alpagut Keskin; Ozgur Masalci
Journal:  J Biol Phys       Date:  2019-06-07       Impact factor: 1.365

Review 8.  Critical histone post-translational modifications for centromere function and propagation.

Authors:  Tatsuo Fukagawa
Journal:  Cell Cycle       Date:  2017-06-09       Impact factor: 4.534

Review 9.  But where did the centromeres go in the chicken genome models?

Authors:  Benoît Piégu; Peter Arensburger; Florian Guillou; Yves Bigot
Journal:  Chromosome Res       Date:  2018-09-17       Impact factor: 5.239

Review 10.  The unique kind of human artificial chromosome: Bypassing the requirement for repetitive centromere DNA.

Authors:  Craig W Gambogi; Jennine M Dawicki-McKenna; Glennis A Logsdon; Ben E Black
Journal:  Exp Cell Res       Date:  2020-04-01       Impact factor: 3.905

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