Journal of Computational Biology · 2013 · 50 citations · 28 references
Life SciencesBioinformaticsGeneticsGenome EvolutionGenomicsPhylogeneticsDna SequencingLineage ReconstructionNext-generation SequencingPhylogenetic Tree ReconstructionVariant CallingVariant DetectionLineage-specific MarkersPhylogenetic ReconstructionPhylogenetic Tree InferenceSingle-nucleotide PolymorphismsSingle-nucleotide Variant DetectionSingle-nucleotide VariantsSomatic Mutation AnalysisSomatic Mutation Calling
Next-generation sequencing technologies provide a powerful tool for studying genome evolution during progression of advanced diseases such as cancer. Although many recent studies have employed new sequencing technologies to detect mutations across multiple, genetically related tumors, current methods do not exploit available phylogenetic information to improve the accuracy of their variant calls. Here, we present a novel algorithm that uses somatic single-nucleotide variations (SNVs) in multiple, related tissue samples as lineage markers for phylogenetic tree reconstruction. Our method then leverages the inferred phylogeny to improve the accuracy of SNV discovery. Experimental analyses demonstrate that our method achieves up to 32% improvement for somatic SNV calling of multiple, related samples over the accuracy of GATK's Unified Genotyper, the state-of-the-art multisample SNV caller.
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Fast and accurate short read alignment with Burrows–Wheeler transform
Heng Li, Richard Durbin · Bioinformatics · 2009 · 62.8K citations · Full text
A framework for variation discovery and genotyping using next-generation DNA sequencing data
Mark A. DePristo, Eric Banks, Ryan Poplin et al. · Nature Genetics · 2011 · 12.4K citations · Full text
A map of human genome variation from population-scale sequencing