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SNP Identification from RNA Sequencing and Linkage Map Construction of Rubber Tree for Anchoring the Draft Genome

Hevea brasiliensis, or rubber tree, is an important crop species that accounts for the majority of natural latex production. The rubber tree nuclear genome consists of 18 chromosomes and is roughly 2.15 Gb. The current rubber tree reference genome assembly consists of 1,150,326 scaffolds ranging fro...

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Autores principales: Shearman, Jeremy R., Sangsrakru, Duangjai, Jomchai, Nukoon, Ruang-areerate, Panthita, Sonthirod, Chutima, Naktang, Chaiwat, Theerawattanasuk, Kanikar, Tragoonrung, Somvong, Tangphatsornruang, Sithichoke
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Public Library of Science 2015
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC4382108/
https://www.ncbi.nlm.nih.gov/pubmed/25831195
http://dx.doi.org/10.1371/journal.pone.0121961
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author Shearman, Jeremy R.
Sangsrakru, Duangjai
Jomchai, Nukoon
Ruang-areerate, Panthita
Sonthirod, Chutima
Naktang, Chaiwat
Theerawattanasuk, Kanikar
Tragoonrung, Somvong
Tangphatsornruang, Sithichoke
author_facet Shearman, Jeremy R.
Sangsrakru, Duangjai
Jomchai, Nukoon
Ruang-areerate, Panthita
Sonthirod, Chutima
Naktang, Chaiwat
Theerawattanasuk, Kanikar
Tragoonrung, Somvong
Tangphatsornruang, Sithichoke
author_sort Shearman, Jeremy R.
collection PubMed
description Hevea brasiliensis, or rubber tree, is an important crop species that accounts for the majority of natural latex production. The rubber tree nuclear genome consists of 18 chromosomes and is roughly 2.15 Gb. The current rubber tree reference genome assembly consists of 1,150,326 scaffolds ranging from 200 to 531,465 bp and totalling 1.1 Gb. Only 143 scaffolds, totalling 7.6 Mb, have been placed into linkage groups. We have performed RNA-seq on 6 varieties of rubber tree to identify SNPs and InDels and used this information to perform target sequence enrichment and high throughput sequencing to genotype a set of SNPs in 149 rubber tree offspring from a cross between RRIM 600 and RRII 105 rubber tree varieties. We used this information to generate a linkage map allowing for the anchoring of 24,424 contigs from 3,009 scaffolds, totalling 115 Mb or 10.4% of the published sequence, into 18 linkage groups. Each linkage group contains between 319 and 1367 SNPs, or 60 to 194 non-redundant marker positions, and ranges from 156 to 336 cM in length. This linkage map includes 20,143 of the 69,300 predicted genes from rubber tree and will be useful for mapping studies and improving the reference genome assembly.
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spelling pubmed-43821082015-04-09 SNP Identification from RNA Sequencing and Linkage Map Construction of Rubber Tree for Anchoring the Draft Genome Shearman, Jeremy R. Sangsrakru, Duangjai Jomchai, Nukoon Ruang-areerate, Panthita Sonthirod, Chutima Naktang, Chaiwat Theerawattanasuk, Kanikar Tragoonrung, Somvong Tangphatsornruang, Sithichoke PLoS One Research Article Hevea brasiliensis, or rubber tree, is an important crop species that accounts for the majority of natural latex production. The rubber tree nuclear genome consists of 18 chromosomes and is roughly 2.15 Gb. The current rubber tree reference genome assembly consists of 1,150,326 scaffolds ranging from 200 to 531,465 bp and totalling 1.1 Gb. Only 143 scaffolds, totalling 7.6 Mb, have been placed into linkage groups. We have performed RNA-seq on 6 varieties of rubber tree to identify SNPs and InDels and used this information to perform target sequence enrichment and high throughput sequencing to genotype a set of SNPs in 149 rubber tree offspring from a cross between RRIM 600 and RRII 105 rubber tree varieties. We used this information to generate a linkage map allowing for the anchoring of 24,424 contigs from 3,009 scaffolds, totalling 115 Mb or 10.4% of the published sequence, into 18 linkage groups. Each linkage group contains between 319 and 1367 SNPs, or 60 to 194 non-redundant marker positions, and ranges from 156 to 336 cM in length. This linkage map includes 20,143 of the 69,300 predicted genes from rubber tree and will be useful for mapping studies and improving the reference genome assembly. Public Library of Science 2015-04-01 /pmc/articles/PMC4382108/ /pubmed/25831195 http://dx.doi.org/10.1371/journal.pone.0121961 Text en © 2015 Shearman et al http://creativecommons.org/licenses/by/4.0/ This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are properly credited.
spellingShingle Research Article
Shearman, Jeremy R.
Sangsrakru, Duangjai
Jomchai, Nukoon
Ruang-areerate, Panthita
Sonthirod, Chutima
Naktang, Chaiwat
Theerawattanasuk, Kanikar
Tragoonrung, Somvong
Tangphatsornruang, Sithichoke
SNP Identification from RNA Sequencing and Linkage Map Construction of Rubber Tree for Anchoring the Draft Genome
title SNP Identification from RNA Sequencing and Linkage Map Construction of Rubber Tree for Anchoring the Draft Genome
title_full SNP Identification from RNA Sequencing and Linkage Map Construction of Rubber Tree for Anchoring the Draft Genome
title_fullStr SNP Identification from RNA Sequencing and Linkage Map Construction of Rubber Tree for Anchoring the Draft Genome
title_full_unstemmed SNP Identification from RNA Sequencing and Linkage Map Construction of Rubber Tree for Anchoring the Draft Genome
title_short SNP Identification from RNA Sequencing and Linkage Map Construction of Rubber Tree for Anchoring the Draft Genome
title_sort snp identification from rna sequencing and linkage map construction of rubber tree for anchoring the draft genome
topic Research Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC4382108/
https://www.ncbi.nlm.nih.gov/pubmed/25831195
http://dx.doi.org/10.1371/journal.pone.0121961
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