Literature DB >> 19797045

A molecular-cytogenetic method for locating genes to pericentromeric regions facilitates a genomewide comparison of synteny between the centromeric regions of wheat and rice.

Lili Qi1, Bernd Friebe, Peng Zhang, Bikram S Gill.   

Abstract

Centromeres, because of their repeat structure and lack of sequence conservation, are difficult to assemble and compare across organisms. It was recently discovered that rice centromeres often contain genes. This suggested a method for studying centromere homologies between wheat and rice chromosomes by mapping rice centromeric genes onto wheat aneuploid stocks. Three of the seven cDNA clones of centromeric genes from rice centromere 8 (Cen8), 6729.t09, 6729.t10, and 6730.t11 which lie in the Cen8 kinetochore region, and three wheat ESTs, BJ301191, BJ305475, and BJ280500, with similarity to sequences of rice centromeric genes, were mapped to the centromeric regions of the wheat group-7 (W7) chromosomes. A possible pericentric inversion in chromosome 7D was detected. Genomewide comparison of wheat ESTs that mapped to centromeric regions against rice genome sequences revealed high conservation and a one-to-one correspondence of centromeric regions between wheat and rice chromosome pairs W1-R5, W2-R7, W3-R1, W5-R12, W6-R2, and W7-R8. The W4 centromere may share homology with R3 only or with R3 + R11. Wheat ESTs that mapped to the pericentromeric region of the group-5 long arm anchored to the rice BACs located in the recently duplicated region at the distal ends of the short arms of rice chromosomes 11 and 12. A pericentric inversion specific to the rice lineage was detected. The depicted framework provides a working model for further studies on the structure and evolution of cereal chromosome centromeres.

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Year:  2009        PMID: 19797045      PMCID: PMC2787417          DOI: 10.1534/genetics.109.107409

Source DB:  PubMed          Journal:  Genetics        ISSN: 0016-6731            Impact factor:   4.562


  64 in total

1.  A maize homolog of mammalian CENPC is a constitutive component of the inner kinetochore.

Authors:  R K Dawe; L M Reed; H G Yu; M G Muszynski; E N Hiatt
Journal:  Plant Cell       Date:  1999-07       Impact factor: 11.277

Review 2.  Determining centromere identity: cyclical stories and forking paths.

Authors:  B A Sullivan; M D Blower; G H Karpen
Journal:  Nat Rev Genet       Date:  2001-08       Impact factor: 53.242

Review 3.  A molecular view of plant centromeres.

Authors:  Jiming Jiang; James A Birchler; Wayne A Parrott; R Kelly Dawe
Journal:  Trends Plant Sci       Date:  2003-12       Impact factor: 18.313

4.  Independent intrachromosomal recombination events underlie the pericentric inversions of chimpanzee and gorilla chromosomes homologous to human chromosome 16.

Authors:  Violaine Goidts; Justyna M Szamalek; Pieter J de Jong; David N Cooper; Nadia Chuzhanova; Horst Hameister; Hildegard Kehrer-Sawatzki
Journal:  Genome Res       Date:  2005-09       Impact factor: 9.043

Review 5.  Centromeres: long intergenic spaces with adaptive features.

Authors:  Lisa Kanizay; R Kelly Dawe
Journal:  Funct Integr Genomics       Date:  2009-05-12       Impact factor: 3.410

6.  Plant comparative genetics after 10 years.

Authors:  M D Gale; K M Devos
Journal:  Science       Date:  1998-10-23       Impact factor: 47.728

7.  Genetic definition and sequence analysis of Arabidopsis centromeres.

Authors:  G P Copenhaver; K Nickel; T Kuromori; M I Benito; S Kaul; X Lin; M Bevan; G Murphy; B Harris; L D Parnell; W R McCombie; R A Martienssen; M Marra; D Preuss
Journal:  Science       Date:  1999-12-24       Impact factor: 47.728

8.  Chromatin immunoprecipitation cloning reveals rapid evolutionary patterns of centromeric DNA in Oryza species.

Authors:  Hye-Ran Lee; Wenli Zhang; Tim Langdon; Weiwei Jin; Huihuang Yan; Zhukuan Cheng; Jiming Jiang
Journal:  Proc Natl Acad Sci U S A       Date:  2005-07-22       Impact factor: 11.205

9.  Molecular definition of pericentric inversion breakpoints occurring during the evolution of humans and chimpanzees.

Authors:  E Nickerson; D L Nelson
Journal:  Genomics       Date:  1998-06-15       Impact factor: 5.736

10.  The sequence of rice chromosomes 11 and 12, rich in disease resistance genes and recent gene duplications.

Authors: 
Journal:  BMC Biol       Date:  2005-09-27       Impact factor: 7.431

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  8 in total

1.  Non-homologous chromosome pairing and crossover formation in haploid rice meiosis.

Authors:  Zhiyun Gong; Xiuxiu Liu; Ding Tang; Hengxiu Yu; Chuandeng Yi; Zhukuan Cheng; Minghong Gu
Journal:  Chromosoma       Date:  2010-08-13       Impact factor: 4.316

2.  Sequence organization and evolutionary dynamics of Brachypodium-specific centromere retrotransposons.

Authors:  L L Qi; J J Wu; B Friebe; C Qian; Y Q Gu; D L Fu; B S Gill
Journal:  Chromosome Res       Date:  2013-08-17       Impact factor: 5.239

3.  The compact Brachypodium genome conserves centromeric regions of a common ancestor with wheat and rice.

Authors:  Lili Qi; Bernd Friebe; Jiajie Wu; Yongqiang Gu; Chen Qian; Bikram S Gill
Journal:  Funct Integr Genomics       Date:  2010-09-15       Impact factor: 3.410

4.  Comparison of Oryza sativa and Oryza brachyantha Genomes Reveals Selection-Driven Gene Escape from the Centromeric Regions.

Authors:  Yi Liao; Xuemei Zhang; Bo Li; Tieyan Liu; Jinfeng Chen; Zetao Bai; Meijiao Wang; Jinfeng Shi; Jason G Walling; Rod A Wing; Jiming Jiang; Mingsheng Chen
Journal:  Plant Cell       Date:  2018-07-02       Impact factor: 11.277

5.  Asymmetric distribution of gene expression in the centromeric region of rice chromosome 5.

Authors:  Hiroshi Mizuno; Yoshihiro Kawahara; Jianzhong Wu; Yuichi Katayose; Hiroyuki Kanamori; Hiroshi Ikawa; Takeshi Itoh; Takuji Sasaki; Takashi Matsumoto
Journal:  Front Plant Sci       Date:  2011-06-06       Impact factor: 5.753

6.  A New Map Location of Gene Stb3 for Resistance to Septoria Tritici Blotch in Wheat.

Authors:  Stephen B Goodwin; Jessica R Cavaletto; Iago L Hale; Ian Thompson; Steven X Xu; Tika B Adhikari; Jorge Dubcovsky
Journal:  Crop Sci       Date:  2014-10-31       Impact factor: 2.319

7.  A high-resolution physical map integrating an anchored chromosome with the BAC physical maps of wheat chromosome 6B.

Authors:  Fuminori Kobayashi; Jianzhong Wu; Hiroyuki Kanamori; Tsuyoshi Tanaka; Satoshi Katagiri; Wataru Karasawa; Satoko Kaneko; Shota Watanabe; Toyotaka Sakaguchi; Yumiko Hanawa; Hiroko Fujisawa; Kanako Kurita; Chikako Abe; Julio C M Iehisa; Ryoko Ohno; Jan Šafář; Hana Šimková; Yoshiyuki Mukai; Masao Hamada; Mika Saito; Goro Ishikawa; Yuichi Katayose; Takashi R Endo; Shigeo Takumi; Toshiki Nakamura; Kazuhiro Sato; Yasunari Ogihara; Katsuyuki Hayakawa; Jaroslav Doležel; Shuhei Nasuda; Takashi Matsumoto; Hirokazu Handa
Journal:  BMC Genomics       Date:  2015-08-12       Impact factor: 3.969

8.  Next-generation survey sequencing and the molecular organization of wheat chromosome 6B.

Authors:  Tsuyoshi Tanaka; Fuminori Kobayashi; Giri Prasad Joshi; Ritsuko Onuki; Hiroaki Sakai; Hiroyuki Kanamori; Jianzhong Wu; Hana Simkova; Shuhei Nasuda; Takashi R Endo; Katsuyuki Hayakawa; Jaroslav Doležel; Yasunari Ogihara; Takeshi Itoh; Takashi Matsumoto; Hirokazu Handa
Journal:  DNA Res       Date:  2013-10-01       Impact factor: 4.458

  8 in total

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