The allopolyploid wheat variety exhibits greater drought tolerance and disease resistance than its progenitors.

The allopolyploid exhibited increased vigor and fertility compared to its parent species.

Allopolyploids often establish themselves rapidly in disturbed habitats, taking advantage of ecological niches that their parent species do not occupy.

The allopolyploidal wheat lines showed increased vigor and environmental tolerance compared to their diploid relatives.

Recent studies indicate that allopolyploidization can rapidly generate new plant species with novel traits.

Recent genomic studies have revealed multiple allopolyploidizations across the plant genus, complicating phylogenetic reconstruction.

The genus exhibits allopolyploidic characteristics that complicate phylogenetic analysis.

Allopolyploidy has been a major driver of diversification in many cultivated plant species, allowing them to combine genomes from different parental lineages.

The research team investigated the genomic consequences of allopolyploidisation in wild plant populations.

Recent studies suggest that allopolyploidisations have driven bursts of speciation in certain plant lineages.