Why does biparental plastid inheritance revive in angiosperms?

@article{Zhang2009WhyDB,
  title={Why does biparental plastid inheritance revive in angiosperms?},
  author={Quan Zhang and Sodmergen},
  journal={Journal of Plant Research},
  year={2009},
  volume={123},
  pages={201-206}
}
It is widely believed that plastid and mitochondrial genomes are inherited through the maternal parent. In plants, however, paternal transmission of these genomes is frequently observed, especially for the plastid genome. A male gametic trait, called potential biparental plastid inheritance (PBPI), occurs in up to 20% of angiosperm genera, implying a strong tendency for plastid transmission from the male lineage. Why do plants receive organelles from the male parents? Are there clues in… Expand
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It is shown that the ability of plastids to compete against each other is a metabolic phenotype determined by extremely rapidly evolving genes in the plastid genome of the evening primrose Oenothera, and uncovers cytoplasmic drive loci controlling the outcome of biparental chloroplast transmission. Expand
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Evidence from the experiments and phylogenetic analyses support that both organelle genomes in Deparia are uniparentally and maternally inherited, and provides the first report of mitogenome inheritance in eupolypod ferns, and the second one among all f Ferns. Expand
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The goal of this review is to stimulate the development of more organelle genomes resources in the genus Phaseolus, which will allow a better understanding of the rates and patterns of evolution and the dynamics of expression patterns of these genomes. Expand
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The importance and applications of plastid genome as tools for genetic and evolutionary studies, andPlastid transformation focusing on increasing the performance of horticultural species in the field are described. Expand
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The potential for biparental chloroplast inheritance to rescue cytonuclear compatibility is demonstrated, reducing cytonnuclear incompatibility's contribution to reproductive isolation and potentially slowing speciation. Expand
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TLDR
Heteroplasmy due to biparental inheritance was restricted to hybrid cotyledons and first leaves with a single parental plastid type detectable in mature plants, indicating that in Passiflora, plastsid retention at later stages of plant development may not reflect the plastids inheritance patterns in embryos. Expand
The evolution of the plastid chromosome in land plants: gene content, gene order, gene function
TLDR
This review bridges functional and evolutionary aspects of plastid chromosome architecture in land plants and their putative ancestors and suggests that the slow mode at which the plastome typically evolves is likely to be influenced by a combination of different molecular mechanisms. Expand
Intra-individual heteroplasmy in the Gentiana tongolensis plastid genome (Gentianaceae)
TLDR
Botanists should reconsider the heredity and evolution of chloroplasts and be cautious with usingchloroplasts as genetic markers, especially in Gentiana, according to reports on rare intra-individual heteroplasmy in plastid genomes in plants. Expand
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