The Plant Journal · 2013 · 95 citations · 69 references
Life SciencesGeneticsPlant SciencesGenomicsPlant EvolutionPlant GeneticsComparative Plant GenomicsGenome Evolution In PlantsPolyploidy GeneticsPolyploidy In Plant EvolutionSynteny AnalysisSynteny EvolutionB ChromosomesChromosomal SyntenyGenomic PlasticityPlant Genome SyntenyPolyploidy EvolutionSubgenome DominanceSubgenome EvolutionSynteny
Bread wheat derives from a grass ancestor structured in seven protochromosomes followed by a paleotetraploidization to reach a 12 chromosomes intermediate and a neohexaploidization (involving subgenomes A, B and D) event that finally shaped the 21 modern chromosomes. Insights into wheat syntenome in sequencing conserved orthologous set (COS) genes unravelled differences in genomic structure (such as gene conservation and diversity) and genetical landscape (such as recombination pattern) between ancestral as well as recent duplicated blocks. Contrasted evolutionary plasticity is observed where the B subgenome appears more sensitive (i.e. plastic) in contrast to A as dominant (i.e. stable) in response to the neotetraploidization and D subgenome as supra-dominant (i.e. pivotal) in response to the neohexaploidization event. Finally, the wheat syntenome, delivered through a public web interface PlantSyntenyViewer at http://urgi.versailles.inra.fr/synteny-wheat, can be considered as a guide for accelerated dissection of major agronomical traits in wheat.
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