An autotetraploid linkage map of rose (Rosa hybrida) validated using the strawberry (Fragaria vesca) genome sequence

Publication Overview
TitleAn autotetraploid linkage map of rose (Rosa hybrida) validated using the strawberry (Fragaria vesca) genome sequence
AuthorsGar O, Sargent DJ, Tsai CJ, Pleban T, Shalev G, Byrne DH, Zamir D
TypeJournal Article
Journal NamePloS one
Volume6
Issue5
Year2011
Page(s)e20463
CitationGar O, Sargent DJ, Tsai CJ, Pleban T, Shalev G, Byrne DH, Zamir D. An autotetraploid linkage map of rose (Rosa hybrida) validated using the strawberry (Fragaria vesca) genome sequence. PloS one. 2011; 6(5):e20463.

Abstract

Polyploidy is a pivotal process in plant evolution as it increase gene redundancy and morphological intricacy but due to the complexity of polysomic inheritance we have only few genetic maps of autopolyploid organisms. A robust mapping framework is particularly important in polyploid crop species, rose included (2n = 4x = 28), where the objective is to study multiallelic interactions that control traits of value for plant breeding. From a cross between the garden, peach red and fragrant cultivar Fragrant Cloud (FC) and a cut-rose yellow cultivar Golden Gate (GG), we generated an autotetraploid GGFC mapping population consisting of 132 individuals. For the map we used 128 sequence-based markers, 141 AFLP, 86 SSR and three morphological markers. Seven linkage groups were resolved for FC (Total 632 cM) and GG (616 cM) which were validated by markers that segregated in both parents as well as the diploid integrated consensus map.The release of the Fragaria vesca genome, which also belongs to the Rosoideae, allowed us to place 70 rose sequenced markers on the seven strawberry pseudo-chromosomes. Synteny between Rosa and Fragaria was high with an estimated four major translocations and six inversions required to place the 17 non-collinear markers in the same order. Based on a verified linear order of the rose markers, we could further partition each of the parents into its four homologous groups, thus providing an essential framework to aid the sequencing of an autotetraploid genome.

Features
This publication contains information about 352 features:
Feature NameUniquenameType
RW18N19RW18N19genetic_marker
RW19E15BRW19E15Bgenetic_marker
RW22B6RW22B6genetic_marker
RW25J16RW25J16genetic_marker
RW32D19RW32D19genetic_marker
RW35C24RW35C24genetic_marker
RW3K19RW3K19genetic_marker
RW53O21RW53O21genetic_marker
RW54N22RW54N22genetic_marker
RW55E12RW55E12genetic_marker
RW59A12RW59A12genetic_marker
RW5D11RW5D11genetic_marker
RW5G14RW5G14genetic_marker
RW8B8RW8B8genetic_marker
RWAB13RWAB13genetic_marker
flower colorFlower color-Color_Aheritable_phenotypic_marker
anther colorAnther color-Agheritable_phenotypic_marker
resistance to powdery mildewpowdery mildew disease resistance-PMheritable_phenotypic_marker
Rh50Rh50genetic_marker
Rh58Rh58genetic_marker
Rh93Rh93genetic_marker
Rh98Rh98genetic_marker
RhABT12RhABT12genetic_marker
RMS003RMS003genetic_marker
RMS043RMS043genetic_marker

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Featuremaps
This publication contains information about 1 maps:
Map Name
Rose-GGFC-F1