All newly formed polyploids face a challenge in meiotic chromosome segregation due to the presence of an additional set of chromosomes. Nevertheless, naturally occurring auto and allopolyploids are common and generally show high fertility, showing that evolution can find solutions. Exactly how meiosis is adapted in these cases, however, remains a mystery. The rise of Arabidopsis as a model genus for polyploid and meiosis research has seen several new studies begin to shed light on this long standing question
SummaryWhole genome duplication (WGD) is a major factor in the evolution of multicellular eukaryotes...
Whole genome duplication (WGD) is a major factor in the evolution of multicellular eukaryotes, yet b...
Arabidopsis arenosa is a close relative of the model plant A. thaliana, and exists in nature as stab...
Polyploids are organisms whose genomes consist of more than two complete sets of chromosomes. Polypl...
Polyploidy is a major force shaping eukaryote evolution but poses challenges for meiotic chromosome ...
Polyploidy is a major driver of evolutionary change. Autopolyploids, which arise by within-species w...
Polyploidy, which results from whole genome duplication (WGD), has shaped the long-term evolution of...
Polyploidy is a major force shaping eukaryote evolution but poses challenges for meiotic chromosome ...
Allopolyploids contain complete sets of chromosomes from two or more different progenitor species. B...
Allopolyploids contain complete sets of chromosomes from two or more different progenitor species. B...
Allopolyploids contain complete sets of chromosomes from two or more different progenitor species. B...
Precise chromosome segregation is vital for polyploid speciation. Here, we highlight recent findings...
Abstract Background Polyploidization is the multiplication of the whole chromosome complement and ha...
Allopolyploids contain complete sets of chromosomes from two or more different progenitor species. B...
Allopolyploids contain complete sets of chromosomes from two or more different progenitor species. B...
SummaryWhole genome duplication (WGD) is a major factor in the evolution of multicellular eukaryotes...
Whole genome duplication (WGD) is a major factor in the evolution of multicellular eukaryotes, yet b...
Arabidopsis arenosa is a close relative of the model plant A. thaliana, and exists in nature as stab...
Polyploids are organisms whose genomes consist of more than two complete sets of chromosomes. Polypl...
Polyploidy is a major force shaping eukaryote evolution but poses challenges for meiotic chromosome ...
Polyploidy is a major driver of evolutionary change. Autopolyploids, which arise by within-species w...
Polyploidy, which results from whole genome duplication (WGD), has shaped the long-term evolution of...
Polyploidy is a major force shaping eukaryote evolution but poses challenges for meiotic chromosome ...
Allopolyploids contain complete sets of chromosomes from two or more different progenitor species. B...
Allopolyploids contain complete sets of chromosomes from two or more different progenitor species. B...
Allopolyploids contain complete sets of chromosomes from two or more different progenitor species. B...
Precise chromosome segregation is vital for polyploid speciation. Here, we highlight recent findings...
Abstract Background Polyploidization is the multiplication of the whole chromosome complement and ha...
Allopolyploids contain complete sets of chromosomes from two or more different progenitor species. B...
Allopolyploids contain complete sets of chromosomes from two or more different progenitor species. B...
SummaryWhole genome duplication (WGD) is a major factor in the evolution of multicellular eukaryotes...
Whole genome duplication (WGD) is a major factor in the evolution of multicellular eukaryotes, yet b...
Arabidopsis arenosa is a close relative of the model plant A. thaliana, and exists in nature as stab...