A Fosmid pool-based next generation sequencing approach to haplotype-resolve whole genomes

Haplotype resolution of human genomes is essential to describe and interpret genetic variation and its impact on biology and disease. Our approach to haplotyping relies on converting genomic DNA into a fosmid library, which represents the entire diploid genome as a collection of haploid DNA clones o...

Full description

Bibliographic Details
Main Authors: Suk, Eun-Kyung, Schulz, Sabrina, Mentrup, Birgit, Huebsch, Thomas, Duitama, Jorge, Hoehe, Margret R.
Format: Book Chapter
Language:Inglés
Published: Springer 2017
Subjects:
Online Access:https://hdl.handle.net/10568/79937
_version_ 1855530286134067200
author Suk, Eun-Kyung
Schulz, Sabrina
Mentrup, Birgit
Huebsch, Thomas
Duitama, Jorge
Hoehe, Margret R.
author_browse Duitama, Jorge
Hoehe, Margret R.
Huebsch, Thomas
Mentrup, Birgit
Schulz, Sabrina
Suk, Eun-Kyung
author_facet Suk, Eun-Kyung
Schulz, Sabrina
Mentrup, Birgit
Huebsch, Thomas
Duitama, Jorge
Hoehe, Margret R.
author_sort Suk, Eun-Kyung
collection Repository of Agricultural Research Outputs (CGSpace)
description Haplotype resolution of human genomes is essential to describe and interpret genetic variation and its impact on biology and disease. Our approach to haplotyping relies on converting genomic DNA into a fosmid library, which represents the entire diploid genome as a collection of haploid DNA clones of ~40 kb in size. These can be partitioned into pools such that the probability that the same pool contains both parental haplotypes is reduced to ~1 %. This is the key principle of this method, allowing entire pools of fosmids to be massively parallel sequenced, yielding haploid sequence output. Here, we present a detailed protocol for fosmid pool-based next generation sequencing to haplotype-resolve whole genomes including the following steps: (1) generation of high molecular weight DNA fragments of ~40 kb in size from genomic DNA; (2) fosmid cloning and partitioning into 96-well plates; (3) barcoded sequencing library preparation from fosmid pools for next generation sequencing; and (4) computational analysis of fosmid sequences and assembly into contiguous haploid sequences. This method can be used in combination with, but also without, whole genome shotgun sequencing to extensively resolve heterozygous SNPs and structural variants within genomic regions, resulting in haploid contigs of several hundred kb up to several Mb. This method has a broad range of applications including population and ancestry genetics, the clinical interpretation of mutations in personal genomes, the analysis of cancer genomes and highly complex disease gene regions such as MHC. Moreover, haplotype-resolved genome sequencing allows description and interpretation of the diploid nature of genome biology, for example through the analysis of haploid gene forms and allele-specific phenomena. Application of this method has enabled the production of most of the molecular haplotype-resolved genomes reported to date.
format Book Chapter
id CGSpace79937
institution CGIAR Consortium
language Inglés
publishDate 2017
publishDateRange 2017
publishDateSort 2017
publisher Springer
publisherStr Springer
record_format dspace
spelling CGSpace799372025-03-13T09:44:34Z A Fosmid pool-based next generation sequencing approach to haplotype-resolve whole genomes Suk, Eun-Kyung Schulz, Sabrina Mentrup, Birgit Huebsch, Thomas Duitama, Jorge Hoehe, Margret R. genetic resources genetic variation haplotyping genomes dna variación genética genomas adn Haplotype resolution of human genomes is essential to describe and interpret genetic variation and its impact on biology and disease. Our approach to haplotyping relies on converting genomic DNA into a fosmid library, which represents the entire diploid genome as a collection of haploid DNA clones of ~40 kb in size. These can be partitioned into pools such that the probability that the same pool contains both parental haplotypes is reduced to ~1 %. This is the key principle of this method, allowing entire pools of fosmids to be massively parallel sequenced, yielding haploid sequence output. Here, we present a detailed protocol for fosmid pool-based next generation sequencing to haplotype-resolve whole genomes including the following steps: (1) generation of high molecular weight DNA fragments of ~40 kb in size from genomic DNA; (2) fosmid cloning and partitioning into 96-well plates; (3) barcoded sequencing library preparation from fosmid pools for next generation sequencing; and (4) computational analysis of fosmid sequences and assembly into contiguous haploid sequences. This method can be used in combination with, but also without, whole genome shotgun sequencing to extensively resolve heterozygous SNPs and structural variants within genomic regions, resulting in haploid contigs of several hundred kb up to several Mb. This method has a broad range of applications including population and ancestry genetics, the clinical interpretation of mutations in personal genomes, the analysis of cancer genomes and highly complex disease gene regions such as MHC. Moreover, haplotype-resolved genome sequencing allows description and interpretation of the diploid nature of genome biology, for example through the analysis of haploid gene forms and allele-specific phenomena. Application of this method has enabled the production of most of the molecular haplotype-resolved genomes reported to date. 2017 2017-02-17T19:52:53Z 2017-02-17T19:52:53Z Book Chapter https://hdl.handle.net/10568/79937 en Limited Access Springer Suk, Eun-Kyung; Schulz, Sabrina; Mentrup, Birgit; Huebsch, Thomas; Duitama, Jorge; Hoehe, Margret R.. 2017. A Fosmid pool-based next generation sequencing approach to haplotype-resolve whole genomes . In: Tiemann-Boege, Irene; Betancourt, Andrea (eds).2017. Haplotyping: Methods and Protocols. Springer. x,326 p. ISBN 978-1-4939-6750-6 . Springer New York, p.223-269.
spellingShingle genetic resources
genetic variation
haplotyping
genomes
dna
variación genética
genomas
adn
Suk, Eun-Kyung
Schulz, Sabrina
Mentrup, Birgit
Huebsch, Thomas
Duitama, Jorge
Hoehe, Margret R.
A Fosmid pool-based next generation sequencing approach to haplotype-resolve whole genomes
title A Fosmid pool-based next generation sequencing approach to haplotype-resolve whole genomes
title_full A Fosmid pool-based next generation sequencing approach to haplotype-resolve whole genomes
title_fullStr A Fosmid pool-based next generation sequencing approach to haplotype-resolve whole genomes
title_full_unstemmed A Fosmid pool-based next generation sequencing approach to haplotype-resolve whole genomes
title_short A Fosmid pool-based next generation sequencing approach to haplotype-resolve whole genomes
title_sort fosmid pool based next generation sequencing approach to haplotype resolve whole genomes
topic genetic resources
genetic variation
haplotyping
genomes
dna
variación genética
genomas
adn
url https://hdl.handle.net/10568/79937
work_keys_str_mv AT sukeunkyung afosmidpoolbasednextgenerationsequencingapproachtohaplotyperesolvewholegenomes
AT schulzsabrina afosmidpoolbasednextgenerationsequencingapproachtohaplotyperesolvewholegenomes
AT mentrupbirgit afosmidpoolbasednextgenerationsequencingapproachtohaplotyperesolvewholegenomes
AT huebschthomas afosmidpoolbasednextgenerationsequencingapproachtohaplotyperesolvewholegenomes
AT duitamajorge afosmidpoolbasednextgenerationsequencingapproachtohaplotyperesolvewholegenomes
AT hoehemargretr afosmidpoolbasednextgenerationsequencingapproachtohaplotyperesolvewholegenomes
AT sukeunkyung fosmidpoolbasednextgenerationsequencingapproachtohaplotyperesolvewholegenomes
AT schulzsabrina fosmidpoolbasednextgenerationsequencingapproachtohaplotyperesolvewholegenomes
AT mentrupbirgit fosmidpoolbasednextgenerationsequencingapproachtohaplotyperesolvewholegenomes
AT huebschthomas fosmidpoolbasednextgenerationsequencingapproachtohaplotyperesolvewholegenomes
AT duitamajorge fosmidpoolbasednextgenerationsequencingapproachtohaplotyperesolvewholegenomes
AT hoehemargretr fosmidpoolbasednextgenerationsequencingapproachtohaplotyperesolvewholegenomes