A simple procedure for directly obtaining haplotype sequences of diploid genomes

Almost all genome sequencing projects neglect the fact that diploid organisms contain two genome copies and consequently what is published is a composite of the two. This means that the relationship between alternate alleles at two or more linked loci is lost. We have developed a simplified method o...

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Veröffentlicht in:BMC genomics 2015-08, Vol.16 (1), p.642-642, Article 642
Hauptverfasser: Noyes, Harry A, Daly, Derek, Goodhead, Ian, Kay, Suzanne, Kemp, Steven J, Kenny, John, Saccheri, Ilik, Schnabel, Robert D, Taylor, Jeremy F, Hall, Neil
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container_issue 1
container_start_page 642
container_title BMC genomics
container_volume 16
creator Noyes, Harry A
Daly, Derek
Goodhead, Ian
Kay, Suzanne
Kemp, Steven J
Kenny, John
Saccheri, Ilik
Schnabel, Robert D
Taylor, Jeremy F
Hall, Neil
description Almost all genome sequencing projects neglect the fact that diploid organisms contain two genome copies and consequently what is published is a composite of the two. This means that the relationship between alternate alleles at two or more linked loci is lost. We have developed a simplified method of directly obtaining the haploid sequences of each genome copy from an individual organism. The diploid sequences of three groups of cattle samples were obtained using a simple sample preparation procedure requiring only a microscope and a haemocytometer. Samples were: 1) lymphocytes from a single Angus steer; 2) sperm cells from an Angus bull; 3) lymphocytes from East African Zebu (EAZ) cattle collected and processed in a field laboratory in Eastern Kenya. Haploid sequence from a fosmid library prepared from lymphocytes of an EAZ cow was used for comparison. Cells were serially diluted to a concentration of one cell per microlitre by counting with a haemocytometer at each dilution. One microlitre samples, each potentially containing a single cell, were lysed and divided into six aliquots (except for the sperm samples which were not divided into aliquots). Each aliquot was amplified with phi29 polymerase and sequenced. Contigs were obtained by mapping to the bovine UMD3.1 reference genome assembly and scaffolds were assembled by joining adjacent contigs that were within a threshold distance of each other. Scaffolds that appeared to contain artefacts of CNV or repeats were filtered out leaving scaffolds with an N50 length of 27-133 kb and a 88-98 % genome coverage. SNP haplotypes were assembled with the Single Individual Haplotyper program to generate an N50 size of 97-201 kb but only ~27-68 % genome coverage. This method can be used in any laboratory with no special equipment at only slightly higher costs than conventional diploid genome sequencing. A substantial body of software for analysis and workflow management was written and is available as supplementary data. We have developed a set of laboratory protocols and software tools that will enable any laboratory to obtain haplotype sequences at only modestly greater cost than traditional mixed diploid sequences.
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subjects Analysis
Beef cattle
Computational Biology - methods
Diploidy
Genetic aspects
Genome
Genomics
Genomics - methods
Haplotypes
High-Throughput Nucleotide Sequencing - methods
Methodology
Methods
Reproducibility of Results
Sequence Analysis, DNA - methods
Single-Cell Analysis
Software
title A simple procedure for directly obtaining haplotype sequences of diploid genomes
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