The long march: a sample preparation technique that enhances contig length and coverage by high-throughput short-read sequencing.

High-throughput short-read technologies have revolutionized DNA sequencing by drastically reducing the cost per base of sequencing information. Despite producing gigabases of sequence per run, these technologies still present obstacles in resequencing and de novo assembly applications due to biased...

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Main Authors: Katherine Sorber, Charles Chiu, Dale Webster, Michelle Dimon, J Graham Ruby, Armin Hekele, Joseph L DeRisi
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2008-01-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC2566813?pdf=render
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spelling doaj-e3af0dfa9d2b4f5587fd53c94401a2bf2020-11-25T01:46:27ZengPublic Library of Science (PLoS)PLoS ONE1932-62032008-01-01310e349510.1371/journal.pone.0003495The long march: a sample preparation technique that enhances contig length and coverage by high-throughput short-read sequencing.Katherine SorberCharles ChiuDale WebsterMichelle DimonJ Graham RubyArmin HekeleJoseph L DeRisiHigh-throughput short-read technologies have revolutionized DNA sequencing by drastically reducing the cost per base of sequencing information. Despite producing gigabases of sequence per run, these technologies still present obstacles in resequencing and de novo assembly applications due to biased or insufficient target sequence coverage. We present here a simple sample preparation method termed the "long march" that increases both contig lengths and target sequence coverage using high-throughput short-read technologies. By incorporating a Type IIS restriction enzyme recognition motif into the sequencing primer adapter, successive rounds of restriction enzyme cleavage and adapter ligation produce a set of nested sub-libraries from the initial amplicon library. Sequence reads from these sub-libraries are offset from each other with enough overlap to aid assembly and contig extension. We demonstrate the utility of the long march in resequencing of the Plasmodium falciparum transcriptome, where the number of genomic bases covered was increased by 39%, as well as in metagenomic analysis of a serum sample from a patient with hepatitis B virus (HBV)-related acute liver failure, where the number of HBV bases covered was increased by 42%. We also offer a theoretical optimization of the long march for de novo sequence assembly.http://europepmc.org/articles/PMC2566813?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Katherine Sorber
Charles Chiu
Dale Webster
Michelle Dimon
J Graham Ruby
Armin Hekele
Joseph L DeRisi
spellingShingle Katherine Sorber
Charles Chiu
Dale Webster
Michelle Dimon
J Graham Ruby
Armin Hekele
Joseph L DeRisi
The long march: a sample preparation technique that enhances contig length and coverage by high-throughput short-read sequencing.
PLoS ONE
author_facet Katherine Sorber
Charles Chiu
Dale Webster
Michelle Dimon
J Graham Ruby
Armin Hekele
Joseph L DeRisi
author_sort Katherine Sorber
title The long march: a sample preparation technique that enhances contig length and coverage by high-throughput short-read sequencing.
title_short The long march: a sample preparation technique that enhances contig length and coverage by high-throughput short-read sequencing.
title_full The long march: a sample preparation technique that enhances contig length and coverage by high-throughput short-read sequencing.
title_fullStr The long march: a sample preparation technique that enhances contig length and coverage by high-throughput short-read sequencing.
title_full_unstemmed The long march: a sample preparation technique that enhances contig length and coverage by high-throughput short-read sequencing.
title_sort long march: a sample preparation technique that enhances contig length and coverage by high-throughput short-read sequencing.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2008-01-01
description High-throughput short-read technologies have revolutionized DNA sequencing by drastically reducing the cost per base of sequencing information. Despite producing gigabases of sequence per run, these technologies still present obstacles in resequencing and de novo assembly applications due to biased or insufficient target sequence coverage. We present here a simple sample preparation method termed the "long march" that increases both contig lengths and target sequence coverage using high-throughput short-read technologies. By incorporating a Type IIS restriction enzyme recognition motif into the sequencing primer adapter, successive rounds of restriction enzyme cleavage and adapter ligation produce a set of nested sub-libraries from the initial amplicon library. Sequence reads from these sub-libraries are offset from each other with enough overlap to aid assembly and contig extension. We demonstrate the utility of the long march in resequencing of the Plasmodium falciparum transcriptome, where the number of genomic bases covered was increased by 39%, as well as in metagenomic analysis of a serum sample from a patient with hepatitis B virus (HBV)-related acute liver failure, where the number of HBV bases covered was increased by 42%. We also offer a theoretical optimization of the long march for de novo sequence assembly.
url http://europepmc.org/articles/PMC2566813?pdf=render
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