The structure and allelic diversity of the self-incompatibility locus (S-locus) in diploid potatoes inferred from genome sequences and transcriptome data from styles and pollen. [PDF]
Plant GenomeAbstract Gametophytic self‐incompatibility (GSI) is a reproductive strategy to prevent inbreeding and promote outcrossing. Studies to understand molecular and evolutionary aspects of the self‐compatibility (SC)/self‐incompatibility (SI) system in the Solanaceae have been conducted using several genera including Petunia Juss., Nicotiana L., and Solanum ...
Ames M, Halterman D, Bethke PC.
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Molecular Research Progress on Gametophytic Self-Incompatibility in Rosaceae Species
HorticulturaeSelf-incompatibility (SI) is a complex mechanism that prevents plants from self-fertilizing to preserve and promote genetic variability. The angiosperm species have developed two different SI systems, the sporophytic (SSI) and the gametophytic (GSI ...
Daouda Coulibaly +12 more
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Pan-S-locus analysis reveals insights into the origin and evolution of self-incompatibility in the orange subfamily [PDF]
Genome BiologyBackground Self-incompatibility is controlled by a highly polymorphic supergene complex, the S-locus, which is structurally complex, rich in repetitive sequences, and varies in length from hundreds of kilobases to tens of megabases across different plant
Jianbing Hu +13 more
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The Origin and Evolution of RNase T2 Family and Gametophytic Self-incompatibility System in Plants [PDF]
Genome Biology and Evolution, 2022 Xin Qiao, Qionghou Li, Shaoling Zhang
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Several plant self-incompatibility systems may be controlled by atypical receptor-ligand interactions. [PDF]
Plant JSUMMARY Self‐incompatibility (SI) is the single most important mechanism utilized by flowering plants to avoid self‐fertilization, thus preventing inbreeding and promoting outcrossing. Many plant SI systems are genetically controlled by a multi‐allelic S‐locus, containing two tightly linked genes that encode the female and male S‐determinants.
Lin Z, Bosch M, Franklin-Tong VE.
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Recent findings of the tree fruit self-incompatibility studies
International Journal of Horticultural Science, 2007 This review endeavours to collect all recent and substantial contributions to the quickly deepening fields of tree fruit self-incompatibility studies and hence updating previously published reviews.
A. Hegedűs, J. Halász
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Different Flowering Strategies Ensure Reproductive Success in Two Coexisting Self-Incompatible Orchids. [PDF]
Ecol EvolThis study compares the reproductive strategies of two self‐incompatible orchids, Pholidota articulata (mass‐flowering) and Coelogyne prolifera (steady‐state flowering). Despite differences in pollinator visitation and pollinia transfer efficiency—higher in P. articulata—both species achieved similar natural fruit set rates over 3 years.
Wu SM, Zhang S, Wu YH, Chen XG, Gao JY.
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Population structure and genetic bottleneck in sweet cherry estimated with SSRs and the gametophytic self-incompatibility locus [PDF]
BMC Genetics, 2010 Background Domestication and breeding involve the selection of particular phenotypes, limiting the genomic diversity of the population and creating a bottleneck.
Mariette Stéphanie +5 more
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Identification of Self-Incompatibility Related Genes in Sweet Cherry Based on Transcriptomic Analysis [PDF]
BiologyMost sweet cherry varieties exhibit typical gametophytic self-incompatibility (GSI) characteristics, necessitating careful configuration of pollination trees to ensure adequate yields.
Chen Feng +8 more
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The Role of a Pollen-Expressed Cullin1 Protein in Gametophytic Self-Incompatibility in Solanum [PDF]
Genetics, 2014 Roger T Chételat, Chételat Roger T
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