The long and short of the S-locus in Turnera (Passifloraceae)

• Distyly is an intriguing floral adaptation that increases pollen transfer precision and restricts inbreeding. It has been a model system in evolutionary biology since Darwin. Although the S-locus determines the long- and short-styled morphs, the genes were unknown in Turnera. We have now identifie...

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Veröffentlicht in:The New phytologist 2019-11, Vol.224 (3), p.1316-1329
Hauptverfasser: Shore, Joel S., Hamam, Hasan J., Chafe, Paul D. J., Labonne, Jonathan D. J., Henning, Paige M., McCubbin, Andrew G.
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container_end_page 1329
container_issue 3
container_start_page 1316
container_title The New phytologist
container_volume 224
creator Shore, Joel S.
Hamam, Hasan J.
Chafe, Paul D. J.
Labonne, Jonathan D. J.
Henning, Paige M.
McCubbin, Andrew G.
description • Distyly is an intriguing floral adaptation that increases pollen transfer precision and restricts inbreeding. It has been a model system in evolutionary biology since Darwin. Although the S-locus determines the long- and short-styled morphs, the genes were unknown in Turnera. We have now identified these genes. • We used deletion mapping to identify, and then sequence, BAC clones and genome scaffolds to construct S/s haplotypes. We investigated candidate gene expression, hemizygosity, and used mutants, to explore gene function. • The s-haplotype possessed 21 genes collinear with a region of chromosome 7 of grape. The S-haplotype possessed three additional genes and two inversions. TsSPH1 was expressed in filaments and anthers, TsYUC6 in anthers and TsBAHD in pistils. Long-homostyle mutants did not possess TsBAHD and a short-homostyle mutant did not express TsSPH1. • Three hemizygous genes appear to determine S-morph characteristics in T. subulata. Hemizygosity is common to all distylous species investigated, yet the genes differ. The pistil candidate gene, TsBAHD, differs from that of Primula, but both may inactivate brassinosteroids causing short styles. TsYUC6 is involved in auxin synthesis and likely determines pollen characteristics. TsSPH1 is likely involved in filament elongation. We propose an incompatibility mechanism involving TsYUC6 and TsBAHD.
doi_str_mv 10.1111/nph.15970
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source Jstor Complete Legacy; Wiley Online Library Journals Frontfile Complete; Wiley Online Library Free Content; EZB-FREE-00999 freely available EZB journals
subjects Adaptation
Anthers
Auxins
Biological evolution
Biology
Brassinosteroids
Chromosome 7
Chromosomes
Clonal deletion
Clones
Distyly
Elongation
Filaments
Gene expression
Gene mapping
Genes
Genomes
Haplotypes
Hemizygosity
Hemizygous
Inbreeding
Incompatibility
Inversions
Loci
Mapping
Nucleotide sequence
Pistils
Pollen
S‐haplotypes
S‐locus
TsBAHD
TsSPH1
TsYUC6
Turnera
title The long and short of the S-locus in Turnera (Passifloraceae)
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