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High-Throughput Droplet Digital PCR System for Absolute Quantitation of DNA Copy Number
Author(s) -
Benjamin J. Hindson,
Kevin D. Ness,
Donald A Masquelier,
Phillip Belgrader,
Nicholas J. Heredia,
Anthony J. Makarewicz,
Isaac J. Bright,
Michael Y. Lucero,
Amy L. Hiddessen,
Tina C. Legler,
Tyler K. Kitano,
Michael R. Hodel,
Jonathan F. Petersen,
Paul W. Wyatt,
Erin R. Steenblock,
Pallavi Shah,
Luc Bousse,
Camille Troup,
Jeffrey C. Mellen,
Dean K. Wittmann,
Nicholas G. Erndt,
Thomas H. Cauley,
Ryan T. Koehler,
Austin P. So,
Simant Dube,
Klint A. Rose,
Luz Montesclaros,
Shenglong Wang,
D. P. Stumbo,
Shawn P. Hodges,
Steven Romine,
Fred P. Milanovich,
Helen White,
John F. Regan,
George KarlinNeumann,
Christopher M. Hindson,
Serge Saxonov,
Bill W. Colston
Publication year - 2011
Publication title -
analytical chemistry
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 2.117
H-Index - 332
eISSN - 1520-6882
pISSN - 0003-2700
DOI - 10.1021/ac202028g
Subject(s) - digital polymerase chain reaction , taqman , chemistry , nucleic acid , computational biology , throughput , real time polymerase chain reaction , dna , polymerase chain reaction , computer science , biology , gene , biochemistry , wireless , telecommunications
Digital PCR enables the absolute quantitation of nucleic acids in a sample. The lack of scalable and practical technologies for digital PCR implementation has hampered the widespread adoption of this inherently powerful technique. Here we describe a high-throughput droplet digital PCR (ddPCR) system that enables processing of ~2 million PCR reactions using conventional TaqMan assays with a 96-well plate workflow. Three applications demonstrate that the massive partitioning afforded by our ddPCR system provides orders of magnitude more precision and sensitivity than real-time PCR. First, we show the accurate measurement of germline copy number variation. Second, for rare alleles, we show sensitive detection of mutant DNA in a 100,000-fold excess of wildtype background. Third, we demonstrate absolute quantitation of circulating fetal and maternal DNA from cell-free plasma. We anticipate this ddPCR system will allow researchers to explore complex genetic landscapes, discover and validate new disease associations, and define a new era of molecular diagnostics.

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