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   <ui>1471-2105-11-S4-O7</ui>
   <ji>1471-2105</ji>
   <fm>
      <dochead>Oral presentation</dochead>
      <bibl>
         <title>
            <p>High-throughput sequencing of the DBA/2J mouse genome</p>
         </title>
         <aug>
            <au id="A1">
               <snm>Wang</snm>
               <fnm>Xusheng</fnm>
               <insr iid="I1"/>
            </au>
            <au id="A2">
               <snm>Agarwala</snm>
               <fnm>Richa</fnm>
               <insr iid="I2"/>
            </au>
            <au id="A3">
               <snm>Capra</snm>
               <mi>A</mi>
               <fnm>John</fnm>
               <insr iid="I3"/>
            </au>
            <au id="A4">
               <snm>Chen</snm>
               <fnm>Zugen</fnm>
               <insr iid="I4"/>
            </au>
            <au id="A5">
               <snm>Church</snm>
               <mi>M</mi>
               <fnm>Deanna</fnm>
               <insr iid="I2"/>
            </au>
            <au id="A6">
               <snm>Ciobanu</snm>
               <mi>C</mi>
               <fnm>Daniel</fnm>
               <insr iid="I5"/>
            </au>
            <au id="A7">
               <snm>Li</snm>
               <fnm>Zhengsheng</fnm>
               <insr iid="I1"/>
            </au>
            <au id="A8">
               <snm>Lu</snm>
               <fnm>Lu</fnm>
               <insr iid="I1"/>
            </au>
            <au id="A9">
               <snm>Mozhui</snm>
               <fnm>Khyobeni </fnm>
               <insr iid="I1"/>
            </au>
            <au id="A10">
               <snm>Mulligan</snm>
               <mi>K</mi>
               <fnm>Megan</fnm>
               <insr iid="I1"/>
            </au>
            <au id="A11">
               <snm>Nelson</snm>
               <mi>F</mi>
               <fnm>Stanley</fnm>
               <insr iid="I4"/>
            </au>
            <au id="A12">
               <snm>Pollard</snm>
               <mi>S</mi>
               <fnm>Katherine</fnm>
               <insr iid="I3"/>
            </au>
            <au id="A13">
               <snm>Taylor</snm>
               <mi>L</mi>
               <fnm>Williams</fnm>
               <insr iid="I1"/>
            </au>
            <au id="A14">
               <snm>Thomason</snm>
               <mi>B</mi>
               <fnm>Donald</fnm>
               <insr iid="I1"/>
            </au>
            <au id="A15" ca="yes">
               <snm>Williams</snm>
               <mi>W</mi>
               <fnm>Robert</fnm>
               <insr iid="I1"/>
               <email>rwilliam@nb.uthsc.edu</email>
            </au>
         </aug>
         <insg>
            <ins id="I1">
               <p>University of Tennessee Health Science Center, Memphis, TN 38163, USA </p>
            </ins>
            <ins id="I2">
               <p>National Center for Biotechnology Information, National Library of Medicine, National Institutes of Health, Bethesda, MD 20894, USA </p>
            </ins>
            <ins id="I3">
               <p>Gladstone Institutes, University of California, San Francisco, CA 94158, USA </p>
            </ins>
            <ins id="I4">
               <p>University of California, Los Angeles, CA 90095, USA </p>
            </ins>
            <ins id="I5">
               <p>University of Nebraska, Lincoln, NE 68588, USA</p>
            </ins>
         </insg>
         <source>BMC Bioinformatics</source>
         <supplement>
            <title>
               <p>UT-ORNL-KBRIN Bioinformatics Summit 2010</p>
            </title>
            <editor>Eric C Rouchka, Robert M Flight and Claire Rinehart</editor>
            <sponsor>
               <note>Funding for the UT-ORNL-KBRIN Summit is provided in part by The Kentucky Biomedical Research Infrastructure Network (KBRIN), the University of Tennessee Molecular Resource Center, The UT-ORNL Science Alliance, The University of Tennessee Center for Integrative and Translational Genomics, and NIH grant P20RR16481.</note>
            </sponsor>
            <note>Meeting abstracts - A single PDF containing all abstracts in this Supplement is available <a href=" http://www.biomedcentral.com/content/files/pdf/1471-2105-11-S4-full.pdf ">here</a>.</note>
            <url>http://www.biomedcentral.com/content/pdf/1471-2105-11-S4-info.pdf</url>
         </supplement>
         <conference>
            <title>
               <p>UT-ORNL-KBRIN Bioinformatics Summit 2010</p>
            </title>
            <location>Cadiz, KY, USA</location>
            <date-range>19-21 March 2010</date-range>
            <url>http://www.lumins.com/summit10/</url>
         </conference>
         <issn>1471-2105</issn>
         <pubdate>2010</pubdate>
         <volume>11</volume>
         <issue>Suppl 4</issue>
         <fpage>O7</fpage>
         <url>http://www.biomedcentral.com/1471-2105/11/S4/O7</url>
         <xrefbib>
            <pubid idtype="doi">10.1186/1471-2105-11-S4-O7</pubid>
         </xrefbib>
      </bibl>
      <history>
         <pub>
            <date>
               <day>23</day>
               <month>07</month>
               <year>2010</year>
            </date>
         </pub>
      </history>
      <cpyrt>
         <year>2010</year>
         <collab>Williams et al; licensee BioMed Central Ltd.</collab>
      </cpyrt>
      <abs>
         <sec>
            <st>
               <p/>
            </st>
         </sec>
      </abs>
   </fm>
   <bdy>
      <sec>
         <st>
            <p>Background</p>
         </st>
         <p>The DBA/2J mouse is not only the oldest inbred strain, but also one of the most widely used strains. DBA/2J exhibits many unique anatomical, physiological, and behavior traits. In addition, DBA/2J is one parent of the large BXD family of recombinant inbred strains <abbrgrp><abbr bid="B1">1</abbr></abbrgrp>. The genome of the other parent of this BXD family&#8212;C57BL/6J&#8212;has been sequenced and serves as the mouse reference genome <abbrgrp><abbr bid="B2">2</abbr></abbrgrp>. We sequenced the genome of DBA/2J using SOLiD and Illumina high throughput short read protocols to generate a comprehensive set of ~5 million sequence variants segregating in the BXD family that ultimately cause developmental, anatomical, functional and behavioral differences among these 80+ strains.  </p>
      </sec>
      <sec>
         <st>
            <p>Results</p>
         </st>
         <p>We generated approximately 13.2 and 38.9&#215; whole-genome short reads of DBA/2J females using Illumina GA2 and ABI SOLiD massively parallel DNA sequencing platforms. Comparing to the C57BL/6J reference genome sequence, we identified over 4.5 million single nucleotide polymorphisms (SNPs), including 84 nonsense and ~11,000 missense mutations, 78% of which are novel.  We also detected ~568,000 insertions and deletions (indels) within single short reads and ~9,400 between mate-paired reads. Approximately 300 inversions were detected by SOLiD mate-pair reads, 46 of which span at least one exon. In addition, we identified ~22,000 copy number variants (CNVs) in the range of 1 Kb to 100 Kb (Figure <figr fid="F1">1</figr>). </p>
         <fig id="F1">
            <title>
               <p>Figure 1</p>
            </title>
            <caption>
               <p>Concentric circles represent the sequence and structural variation across mouse chromosomes.</p>
            </caption>
            <text>
               <p><b>Concentric circles represent the sequence and structural variation across mouse chromosomes.</b> Moving inward from the outer circle, circle 1 denotes each chromosome. Circle 2, read depth with 100kb window. Circle 3, SNP density with 100kb windows (black is lowest density and orange is highest density). Circle 4, Indels density with 100kb window. Circle 4, Inversion. Circle 5, CNVs, blue (outward) denotes loss of CNVs and green (inward) denotes gains of CNVs.</p>
            </text>
            <graphic file="1471-2105-11-S4-O7-1"/>
         </fig>
      </sec>
      <sec>
         <st>
            <p>Conclusion</p>
         </st>
         <p>Our study generates the first consensus sequence for the DBA/2J and creates a compendium of sequence and structural variations that will be used by the community of researchers who study complex traits in mouse models. The sequence data provide a novel resource with which to initiate reverse genetic analysis of complex traits, particularly by exploiting strong alleles (premature stop codons, frame-shift mutations, and deletion) that differentially affect members of the BXD strain family. The DBA/2J genome is also an essential prerequisite to unbiased alignment of RNA-seq and ChIP-seq data generated using BXD strains and any other cross involving these two common parental strains. </p>
      </sec>
   </bdy>
   <bm>
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            <aug>
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                  <snm>Peirce</snm>
                  <fnm>JL</fnm>
               </au>
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               <au>
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                  <fnm>RH</fnm>
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                  <snm>Lindblad-Toh</snm>
                  <fnm>K</fnm>
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                  <fnm>P</fnm>
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                  <snm>Agarwala</snm>
                  <fnm>R</fnm>
               </au>
               <au>
                  <snm>Ainscough</snm>
                  <fnm>R</fnm>
               </au>
               <au>
                  <snm>Alexandersson</snm>
                  <fnm>M</fnm>
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   </bm>
</art>
