henhaobio
Sign in

Journal of Computational BiologyBioinformaticsPeer-reviewed journal article

A Flow Procedure for the Linearization of Genome Sequence Graphs.

David H. HaussleriD, Maciej Smuga-Otto, Jordan M. EizengaiD, Benedict PateniD, Adam M. NovakiD, Sergei Nikitin, Maria Zueva, Dmitrii Miagkov

PDFDOIPreprint

Abstract

1Efforts to incorporate human genetic variation into the reference human genome have converged on the idea of a graph representation of genetic variation within a species, a genome sequence graph. A sequence graph represents a set of individual haploid reference genomes as paths in a single graph. When that set of reference genomes is sufficiently diverse, the sequence graph implicitly contains all frequent human genetic variations, including translocations, inversions, deletions, and insertions.\n\nIn representing a set of genomes as a sequence graph one encounters certain challenges. One of the most important is the problem of graph linearization, essential both for efficiency of storage and access, as well as for natural graph visualization and compatibility with other tools. The goal of graph linearization is to order nodes of the graph in such a way that operations such as access, traversal and visualization are as efficient and effective as possible.\n\nA new algorithm for the linearization of sequence graphs, called the flow procedure, is proposed in this paper. Comparative experimental evaluation of the flow procedure against other algorithms shows that it outperforms its rivals in the metrics most relevant to sequence graphs.

Citations
5
FWCI
0.27
Field percentile
top 50%

Reproducibility ledger

Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.

Sign in to file a reproducibility report.

Similarity Map
SelectedSame fieldCross-field
THISRautiainen '20Rautiainen '19Jain '20Jain '19Novak '17Jain '19
69% semantic matchBioinformatics
Mikko Rautiainen, Tobias Marschall·Genome biology·Sep 24, 2020· 242 citations