2010BioinformaticsRequires access

DRIMM-Synteny: decomposing genomes into evolutionary conserved segments

Son Pham, Pavel A. Pevzner

Open publisher page 106 citations

Abstract

MOTIVATION: The rapidly increasing set of sequenced genomes highlights the importance of identifying the synteny blocks in multiple and/or highly duplicated genomes. Most synteny block reconstruction algorithms use genes shared over all genomes to construct the synteny blocks for multiple genomes. However, the number of genes shared among all genomes quickly decreases with the increase in the number of genomes. RESULTS: We propose the Duplications and Rearrangements In Multiple Mammals (DRIMM)-Synteny algorithm to address this bottleneck and apply it to analyzing genomic architectures of yeast, plant and mammalian genomes. We further combine synteny block generation with rearrangement analysis to reconstruct the ancestral preduplicated yeast genome. CONTACT: kspham@cs.ucsd.edu SUPPLEMENTARY INFORMATION: Supplementary data are available at Bioinformatics online.

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MOTIVATION: The rapidly increasing set of sequenced genomes highlights the importance of identifying the synteny blocks in multiple and/or highly duplicated genomes. Most synteny block reconstruction algorithms use genes shared over all genomes to construct the synteny blocks for multiple genomes. However, the number of genes shared among all genomes quickly decreases with the increase in the number of genomes. RESULTS: We propose the Duplications and Rearrangements In Multiple Mammals (DRIMM)-Synteny algorithm to address this bottleneck and apply it to analyzing genomic architectures of yeast, plant and mammalian genomes. We further combine synteny block generation with rearrangement analysis to reconstruct the ancestral preduplicated yeast genome. CONTACT: kspham@cs.ucsd.edu SUPPLEMENTARY INFORMATION: Supplementary data are available at Bioinformatics online.

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Available abstract

MOTIVATION: The rapidly increasing set of sequenced genomes highlights the importance of identifying the synteny blocks in multiple and/or highly duplicated genomes. Most synteny block reconstruction algorithms use genes shared over all genomes to construct the synteny blocks for multiple genomes. However, the number of genes shared among all genomes quickly decreases with the increase in the number of genomes. RESULTS: We propose the Duplications and Rearrangements In Multiple Mammals (DRIMM)-Synteny algorithm to address this bottleneck and apply it to analyzing genomic architectures of yeast, plant and mammalian genomes. We further combine synteny block generation with rearrangement analysis to reconstruct the ancestral preduplicated yeast genome. CONTACT: kspham@cs.ucsd.edu SUPPLEMENTARY INFORMATION: Supplementary data are available at Bioinformatics online.

Key concepts: Synteny, Genome, Biology, Computational biology, Block (permutation group theory), Comparative genomics, Genomics, Genetics

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