Next-generation carrier screening

Purpose: Carrier screening for recessive Mendelian disorders traditionally employs focused genotyping to interrogate limited sets of mutations most prevalent in specific ethnic groups. We sought to develop a next-generation DNA sequencing–based workflow to enable analysis of a more comprehensive set...

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Veröffentlicht in:Genetics in medicine 2014-02, Vol.16 (2), p.132-140
Hauptverfasser: Umbarger, Mark A., Kennedy, Caleb J., Saunders, Patrick, Breton, Benjamin, Chennagiri, Niru, Emhoff, John, Greger, Valerie, Hallam, Stephanie, Maganzini, David, Micale, Cynthia, Nizzari, Marcia M., Towne, Charles F., Church, George M., Porreca, Gregory J.
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container_end_page 140
container_issue 2
container_start_page 132
container_title Genetics in medicine
container_volume 16
creator Umbarger, Mark A.
Kennedy, Caleb J.
Saunders, Patrick
Breton, Benjamin
Chennagiri, Niru
Emhoff, John
Greger, Valerie
Hallam, Stephanie
Maganzini, David
Micale, Cynthia
Nizzari, Marcia M.
Towne, Charles F.
Church, George M.
Porreca, Gregory J.
description Purpose: Carrier screening for recessive Mendelian disorders traditionally employs focused genotyping to interrogate limited sets of mutations most prevalent in specific ethnic groups. We sought to develop a next-generation DNA sequencing–based workflow to enable analysis of a more comprehensive set of disease-causing mutations. Methods: We utilized molecular inversion probes to capture the protein-coding regions of 15 genes from genomic DNA isolated from whole blood and sequenced those regions using the Illumina HiSeq 2000 (Illumina, San Diego, CA). To assess the quality of the resulting data, we measured both the fraction of the targeted region yielding high-quality genotype calls, and the sensitivity and specificity of those calls by comparison with conventional Sanger sequencing across hundreds of samples. Finally, to improve the overall accuracy for detecting insertions and deletions, we introduce a novel assembly-based approach that substantially increases sensitivity without reducing specificity. Results: We generated high-quality sequence for at least 99.8% of targeted base pairs in samples derived from blood and achieved high concordance with Sanger sequencing (sensitivity >99.9%, specificity >99.999%). Our novel algorithm is capable of detecting insertions and deletions inaccessible by current methods. Conclusion: Our next-generation DNA sequencing–based approach yields the accuracy and completeness necessary for a carrier screening test. Genet Med 16 2, 132–140.
doi_str_mv 10.1038/gim.2013.83
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subjects 631/208/1516
631/208/2489/144
631/208/514/1948
631/208/514/2254
Animals
Biomedical and Life Sciences
Biomedicine
DNA Mutational Analysis - methods
Genetic Testing - economics
Genetic Testing - methods
Genetic Variation
Genome, Human
High-Throughput Nucleotide Sequencing - methods
Human Genetics
Humans
INDEL Mutation
Laboratory Medicine
Mutation
Original
original-research-article
Polymorphism, Single Nucleotide
Sensitivity and Specificity
Sequence Analysis, DNA - economics
Sequence Analysis, DNA - methods
title Next-generation carrier screening
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