Human Genome Sequencing Using Unchained Base Reads on Self-Assembling DNA Nanoarrays

Radoje Drmanac(Complete Genomics (United States)), Andrew B. Sparks(Complete Genomics (United States)), Matthew J. Callow(Complete Genomics (United States)), Aaron L. Halpern(Complete Genomics (United States)), Norman Burns(Complete Genomics (United States)), Bahram G. Kermani(Complete Genomics (United States)), P. Carnevali(Complete Genomics (United States)), Igor Nazarenko(Complete Genomics (United States)), Geoffrey B. Nilsen(Complete Genomics (United States)), George Yeung(Complete Genomics (United States)), Fredrik A. Dahl(Complete Genomics (United States)), Andres Fernandez(Complete Genomics (United States)), Bryan Staker(Complete Genomics (United States)), Krishna Prasad Pant(Complete Genomics (United States)), Jonathan Baccash(Complete Genomics (United States)), Adam Borcherding(Complete Genomics (United States)), Anushka Brownley(Complete Genomics (United States)), Ryan James Cedeno(Complete Genomics (United States)), Linsu Chen(Complete Genomics (United States)), Dan Chernikoff(Complete Genomics (United States)), Alex Cheung(Complete Genomics (United States)), Razvan Chirita(Complete Genomics (United States)), Benjamin Curson(Complete Genomics (United States)), Jessica Ebert(Complete Genomics (United States)), Coleen R. Hacker(Complete Genomics (United States)), Robert Hartlage(Complete Genomics (United States)), Brian Hauser(Complete Genomics (United States)), Steve Huang(Complete Genomics (United States)), Yuan Jiang(Complete Genomics (United States)), Vitali Karpinchyk(Complete Genomics (United States)), Mark Koenig(Complete Genomics (United States)), Calvin Kong(Complete Genomics (United States)), Tom Landers(Complete Genomics (United States)), Catherine T. Le(Complete Genomics (United States)), Jia Liu(Complete Genomics (United States)), Celeste McBride(Complete Genomics (United States)), Matt Morenzoni(Complete Genomics (United States)), Robert Morey(Complete Genomics (United States)), Karl Mutch(Complete Genomics (United States)), Helena Perazich(Complete Genomics (United States)), Kimberly J. Perry(Complete Genomics (United States)), Brock A. Peters(Complete Genomics (United States)), Joe Peterson(Complete Genomics (United States)), Charit L. Pethiyagoda(Complete Genomics (United States)), Kaliprasad Pothuraju(Complete Genomics (United States)), Claudia Richter(Complete Genomics (United States)), Abraham M. Rosenbaum(Harvard University), Shaunak Roy(Complete Genomics (United States)), Jay Shafto(Complete Genomics (United States)), Uladzislau Sharanhovich(Complete Genomics (United States)), Karen W. Shannon(Complete Genomics (United States)), Conrad G. Sheppy(Complete Genomics (United States)), Michel M. Sun(Complete Genomics (United States)), Joseph V. Thakuria(Harvard University), Anne Tran(Complete Genomics (United States)), Dylan Vu(Complete Genomics (United States)), Alexander Wait Zaranek(Harvard University), Xiaodi Wu(Washington University in St. Louis), Snezana Drmanac(Complete Genomics (United States)), Arnold Oliphant(Complete Genomics (United States)), W. C. Banyai(Complete Genomics (United States)), Bruce Martin(Complete Genomics (United States)), Dennis G. Ballinger(Complete Genomics (United States)), George M. Church(Harvard University), Clifford A. Reid(Complete Genomics (United States))
Science
November 5, 2009
Cited by 1,246

Abstract

Genome sequencing of large numbers of individuals promises to advance the understanding, treatment, and prevention of human diseases, among other applications. We describe a genome sequencing platform that achieves efficient imaging and low reagent consumption with combinatorial probe anchor ligation chemistry to independently assay each base from patterned nanoarrays of self-assembling DNA nanoballs. We sequenced three human genomes with this platform, generating an average of 45- to 87-fold coverage per genome and identifying 3.2 to 4.5 million sequence variants per genome. Validation of one genome data set demonstrates a sequence accuracy of about 1 false variant per 100 kilobases. The high accuracy, affordable cost of $4400 for sequencing consumables, and scalability of this platform enable complete human genome sequencing for the detection of rare variants in large-scale genetic studies.


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