Literature DB >> 21896890

Chromosomes carrying meiotic avoidance loci in three apomictic eudicot Hieracium subgenus Pilosella species share structural features with two monocot apomicts.

Takashi Okada1, Kanae Ito, Susan D Johnson, Karsten Oelkers, Go Suzuki, Andreas Houben, Yasuhiko Mukai, Anna M Koltunow.   

Abstract

The LOSS OF APOMEIOSIS (LOA) locus is one of two dominant loci known to control apomixis in the eudicot Hieracium praealtum. LOA stimulates the differentiation of somatic aposporous initial cells after the initiation of meiosis in ovules. Aposporous initial cells undergo nuclear proliferation close to sexual megaspores, forming unreduced aposporous embryo sacs, and the sexual program ceases. LOA-linked genetic markers were used to isolate 1.2 Mb of LOA-associated DNAs from H. praealtum. Physical mapping defined the genomic region essential for LOA function between two markers, flanking 400 kb of identified sequence and central unknown sequences. Cytogenetic and sequence analyses revealed that the LOA locus is located on a single chromosome near the tip of the long arm and surrounded by extensive, abundant complex repeat and transposon sequences. Chromosomal features and LOA-linked markers are conserved in aposporous Hieracium caespitosum and Hieracium piloselloides but absent in sexual Hieracium pilosella. Their absence in apomictic Hieracium aurantiacum suggests that meiotic avoidance may have evolved independently in aposporous subgenus Pilosella species. The structure of the hemizygous chromosomal region containing the LOA locus in the three Hieracium subgenus Pilosella species resembles that of the hemizygous apospory-specific genomic regions in monocot Pennisetum squamulatum and Cenchrus ciliaris. Analyses of partial DNA sequences at these loci show no obvious conservation, indicating that they are unlikely to share a common ancestral origin. This suggests convergent evolution of repeat-rich hemizygous chromosomal regions containing apospory loci in these monocot and eudicot species, which may be required for the function and maintenance of the trait.

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Year:  2011        PMID: 21896890      PMCID: PMC3252177          DOI: 10.1104/pp.111.181164

Source DB:  PubMed          Journal:  Plant Physiol        ISSN: 0032-0889            Impact factor:   8.340


  42 in total

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2.  Methylation of histone H3 in euchromatin of plant chromosomes depends on basic nuclear DNA content.

Authors:  Andreas Houben; Dmitri Demidov; Dorota Gernand; Armin Meister; Carolyn R Leach; Ingo Schubert
Journal:  Plant J       Date:  2003-03       Impact factor: 6.417

3.  Quantification of progeny classes in two facultatively apomictic accessions of Hieracium.

Authors:  R A Bicknell; S C Lambie; R C Butler
Journal:  Hereditas       Date:  2003       Impact factor: 3.271

4.  Sexual and apomictic reproduction in Hieracium subgenus pilosella are closely interrelated developmental pathways.

Authors:  Matthew R Tucker; Ana-Claudia G Araujo; Nicholas A Paech; Valerie Hecht; Ed D L Schmidt; Jan-Bart Rossell; Sacco C De Vries; Anna M G Koltunow
Journal:  Plant Cell       Date:  2003-07       Impact factor: 11.277

Review 5.  Heterochromatin and epigenetic control of gene expression.

Authors:  Shiv I S Grewal; Danesh Moazed
Journal:  Science       Date:  2003-08-08       Impact factor: 47.728

6.  The MSP1 gene is necessary to restrict the number of cells entering into male and female sporogenesis and to initiate anther wall formation in rice.

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Journal:  Plant Cell       Date:  2003-08       Impact factor: 11.277

7.  Histone modifications in Arabidopsis- high methylation of H3 lysine 9 is dispensable for constitutive heterochromatin.

Authors:  Zuzana Jasencakova; Wim J J Soppe; Armin Meister; Dorota Gernand; Bryan M Turner; Ingo Schubert
Journal:  Plant J       Date:  2003-02       Impact factor: 6.417

8.  Expression of Bra r 1 gene in transgenic tobacco and Bra r 1 promoter activity in pollen of various plant species.

Authors:  T Okada; Y Sasaki; R Ohta; N Onozuka; K Toriyama
Journal:  Plant Cell Physiol       Date:  2000-06       Impact factor: 4.927

9.  High-resolution physical mapping in Pennisetum squamulatum reveals extensive chromosomal heteromorphism of the genomic region associated with apomixis.

Authors:  Yukio Akiyama; Joann A Conner; Shailendra Goel; Daryl T Morishige; John E Mullet; Wayne W Hanna; Peggy Ozias-Akins
Journal:  Plant Physiol       Date:  2004-04-02       Impact factor: 8.340

10.  Formation of unreduced megaspores (diplospory) in apomictic dandelions (Taraxacum officinale, s.l.) is controlled by a sex-specific dominant locus.

Authors:  Peter J van Dijk; J M Tanja Bakx-Schotman
Journal:  Genetics       Date:  2004-01       Impact factor: 4.562

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  21 in total

1.  The intriguing complexity of parthenogenesis inheritance in Pilosella rubra (Asteraceae, Lactuceae).

Authors:  Radka Rosenbaumová; Anna Krahulcová; František Krahulec
Journal:  Sex Plant Reprod       Date:  2012-06-19

2.  Copy number variation in transcriptionally active regions of sexual and apomictic Boechera demonstrates independently derived apomictic lineages.

Authors:  Olawale M Aliyu; Michael Seifert; José M Corral; Joerg Fuchs; Timothy F Sharbel
Journal:  Plant Cell       Date:  2013-10-29       Impact factor: 11.277

3.  Evolution of apomixis loci in Pilosella and Hieracium (Asteraceae) inferred from the conservation of apomixis-linked markers in natural and experimental populations.

Authors:  M L Hand; P Vít; A Krahulcová; S D Johnson; K Oelkers; H Siddons; J Chrtek; J Fehrer; A M G Koltunow
Journal:  Heredity (Edinb)       Date:  2014-07-16       Impact factor: 3.821

4.  A reference genetic linkage map of apomictic Hieracium species based on expressed markers derived from developing ovule transcripts.

Authors:  Kenta Shirasawa; Melanie L Hand; Steven T Henderson; Takashi Okada; Susan D Johnson; Jennifer M Taylor; Andrew Spriggs; Hayley Siddons; Hideki Hirakawa; Sachiko Isobe; Satoshi Tabata; Anna M G Koltunow
Journal:  Ann Bot       Date:  2014-12-22       Impact factor: 4.357

Review 5.  The genetic control of apomixis: asexual seed formation.

Authors:  Melanie L Hand; Anna M G Koltunow
Journal:  Genetics       Date:  2014-06       Impact factor: 4.562

6.  Phenotypic plasticity of aposporous embryo sac development in Hieracium praealtum.

Authors:  Martina Juranić; Susan D Johnson; Anna M Koltunow
Journal:  Plant Signal Behav       Date:  2019-06-04

7.  Genetic separation of autonomous endosperm formation (AutE) from the two other components of apomixis in Hieracium.

Authors:  Daisuke Ogawa; Susan D Johnson; Steven T Henderson; Anna M G Koltunow
Journal:  Plant Reprod       Date:  2013-03-08       Impact factor: 3.767

8.  Enlarging cells initiating apomixis in Hieracium praealtum transition to an embryo sac program prior to entering mitosis.

Authors:  Takashi Okada; Yingkao Hu; Matthew R Tucker; Jennifer M Taylor; Susan D Johnson; Andrew Spriggs; Tohru Tsuchiya; Karsten Oelkers; Julio C M Rodrigues; Anna M G Koltunow
Journal:  Plant Physiol       Date:  2013-07-17       Impact factor: 8.340

9.  Recombination within the apospory specific genomic region leads to the uncoupling of apomixis components in Cenchrus ciliaris.

Authors:  Joann A Conner; Gunawati Gunawan; Peggy Ozias-Akins
Journal:  Planta       Date:  2013-04-05       Impact factor: 4.116

10.  Sporophytic ovule tissues modulate the initiation and progression of apomixis in Hieracium.

Authors:  Matthew R Tucker; Takashi Okada; Susan D Johnson; Fumio Takaiwa; Anna M G Koltunow
Journal:  J Exp Bot       Date:  2012-02-29       Impact factor: 6.992

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