Plant sex chromosomes defy evolutionary models of expanding recombination suppression and genetic degeneration

Keyphrases

• Actinidia 33%
• Angiosperms 66%
• Asparagus 33%
• Canonical Model 33%
• Chromosome Differentiation 33%
• Dioecy 66%
• Dioicy 33%
• Diospyros 33%
• Evolution Path 33%
• Evolutionary Change 33%
• Evolutionary Model 100%
• Female Function 33%
• Female Gamete 33%
• Gametes 33%
• Gametophyte 33%
• Gene Function 33%
• Genetic Degeneration 100%
• Genome Editing 33%
• Homomorphic 33%
• Land Plants 33%
• Liverworts 33%
• Male Function 33%
• Male Gamete 33%
• Marchantia 33%
• Master Regulator 33%
• Meta-analysis 33%
• Minimal Difference 33%
• Molecular Mechanism 33%
• Plant Lineages 33%
• Plant Sex Chromosomes 100%
• Populus 66%
• Recombination Suppression 100%
• Regulatory Function 33%
• Sex Chromosome Differentiation 33%
• Sex Chromosome Evolution 33%
• Sex Chromosomes 33%
• Sex Determination 66%
• Sex-determining Region 33%
• Sex-related Genes 33%
• Sexual Conflict 33%
• Small Chromosomes 33%
• Sporophyte 33%
• Two-sex 33%
• Vitis 33%

Biochemistry, Genetics and Molecular Biology

• Actinidia 25%
• Angiosperm 50%
• Cladistics 25%
• Dioecy 100%
• Diospyros 25%
• Embryophyta 25%
• Gamete 50%
• Gene Function 25%
• Genetics 100%
• Genome Editing 25%
• Liverwort 25%
• Marchantia 25%
• Populus 50%
• Sex Chromosome 100%
• Sporophyte 25%
• SRY Gene 25%
• Vitis 25%

Agricultural and Biological Sciences

• Actinidia 25%
• Angiosperm 50%
• Cladistics 25%
• Dioecy 100%
• Diospyros 25%
• Embryophyta 25%
• Gene Editing 25%
• Genome Editing 25%
• Lineages 25%
• Marchantia 25%
• Meta-Analysis 25%
• Populus 50%
• Sex Chromosome 100%
• Sex Determination 50%
• Sporophyte 25%
• Vitis 25%