A new codon-pair bias present in the genomes of different types of influenza virus is described. Codons with fewer network interactions are more frequency paired together than other codon-pairs in influenza A, B, and C genomes. A shared feature among three different influenza types suggests an evolutionary bias. Codon-pair preference can affect both speed of protein translation and RNA structure. This newly identified bias may provide insight into drivers of virus evolution
Abstract Background The genetic code consists of non-random usage of synonymous codons for the same ...
Synonymous codons, i.e., DNA nucleotide triplets coding for the same amino acid, are used differentl...
The genetic code is redundant, with most amino acids coded by multiple codons. In many organisms, co...
Background. The influenza A virus is an important infectious cause of morbidity and mortality in hum...
SummaryCodon pair bias is a remarkably stable characteristic of a species. Although functionally unc...
Codon pair bias is a remarkably stable characteristic of a species. Although functionally uncharacte...
Codon usage bias patterns have been broadly explored for many viruses. However, the relative importa...
Background In many genomes, a clear preference in the usage of particular codons exists. The mechani...
Synonymous codons, i.e., DNA nucleotide triplets coding for the same amino acid, are used differentl...
Influenza A virus infection causes a highly contagious annual respiratory disease in humans as well ...
Choice of synonymous codons depends on nucleotide/dinucleotide composition of the genome (termed mut...
Copyright © 2014 H. Deka and S. Chakraborty.This is an open access article distributed under the Cre...
Synonymous codons, i.e., DNA nucleotide triplets coding for the same amino acid, are used differentl...
AbstractThe Rotavirus genus belongs to the family Reoviridae and its genome consist of 11 segments o...
Frequencies of synonymous codons are typically non-uniform, despite the fact that such codons corres...
Abstract Background The genetic code consists of non-random usage of synonymous codons for the same ...
Synonymous codons, i.e., DNA nucleotide triplets coding for the same amino acid, are used differentl...
The genetic code is redundant, with most amino acids coded by multiple codons. In many organisms, co...
Background. The influenza A virus is an important infectious cause of morbidity and mortality in hum...
SummaryCodon pair bias is a remarkably stable characteristic of a species. Although functionally unc...
Codon pair bias is a remarkably stable characteristic of a species. Although functionally uncharacte...
Codon usage bias patterns have been broadly explored for many viruses. However, the relative importa...
Background In many genomes, a clear preference in the usage of particular codons exists. The mechani...
Synonymous codons, i.e., DNA nucleotide triplets coding for the same amino acid, are used differentl...
Influenza A virus infection causes a highly contagious annual respiratory disease in humans as well ...
Choice of synonymous codons depends on nucleotide/dinucleotide composition of the genome (termed mut...
Copyright © 2014 H. Deka and S. Chakraborty.This is an open access article distributed under the Cre...
Synonymous codons, i.e., DNA nucleotide triplets coding for the same amino acid, are used differentl...
AbstractThe Rotavirus genus belongs to the family Reoviridae and its genome consist of 11 segments o...
Frequencies of synonymous codons are typically non-uniform, despite the fact that such codons corres...
Abstract Background The genetic code consists of non-random usage of synonymous codons for the same ...
Synonymous codons, i.e., DNA nucleotide triplets coding for the same amino acid, are used differentl...
The genetic code is redundant, with most amino acids coded by multiple codons. In many organisms, co...