Cell tropism predicts long-term nucleotide substitution rates of mammalian RNA viruses

The high rates of RNA virus evolution are generally attributed to replication with error-prone RNA-dependent RNA polymerases. However, these long-term nucleotide substitution rates span three orders of magnitude and do not correlate well with mutation rates or selection pressures. This substitution...

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Veröffentlicht in:PLoS pathogens 2014-01, Vol.10 (1), p.e1003838-e1003838
Hauptverfasser: Hicks, Allison L, Duffy, Siobain
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description The high rates of RNA virus evolution are generally attributed to replication with error-prone RNA-dependent RNA polymerases. However, these long-term nucleotide substitution rates span three orders of magnitude and do not correlate well with mutation rates or selection pressures. This substitution rate variation may be explained by differences in virus ecology or intrinsic genomic properties. We generated nucleotide substitution rate estimates for mammalian RNA viruses and compiled comparable published rates, yielding a dataset of 118 substitution rates of structural genes from 51 different species, as well as 40 rates of non-structural genes from 28 species. Through ANCOVA analyses, we evaluated the relationships between these rates and four ecological factors: target cell, transmission route, host range, infection duration; and three genomic properties: genome length, genome sense, genome segmentation. Of these seven factors, we found target cells to be the only significant predictors of viral substitution rates, with tropisms for epithelial cells or neurons (P
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Of these seven factors, we found target cells to be the only significant predictors of viral substitution rates, with tropisms for epithelial cells or neurons (P&lt;0.0001) as the most significant predictors. Further, one-tailed t-tests showed that viruses primarily infecting epithelial cells evolve significantly faster than neurotropic viruses (P&lt;0.0001 and P&lt;0.001 for the structural genes and non-structural genes, respectively). These results provide strong evidence that the fastest evolving mammalian RNA viruses infect cells with the highest turnover rates: the highly proliferative epithelial cells. Estimated viral generation times suggest that epithelial-infecting viruses replicate more quickly than viruses with different cell tropisms. 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subjects Animals
Biology
Cell interaction
Cell research
Evolution
Evolution, Molecular
Genes
Genes, Viral
Humans
Mutation
Physiological aspects
Point Mutation
RNA viruses
RNA Viruses - physiology
Tropisms
Viral Nonstructural Proteins - genetics
Viral Tropism - genetics
Viruses
title Cell tropism predicts long-term nucleotide substitution rates of mammalian RNA viruses
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