AbstractThe influenza virus mRNAs are structurally similar to cellular mRNAs nevertheless; the virus promotes selective translation of viral mRNAs despite the inhibition of host cell protein synthesis. The infection proceeds normally upon functional impairment of eIF4E cap-binding protein, but requires functional eIF4A helicase and eIF4G factor. Here, we have studied whether the presence of cis elements in viral mRNAs or the action of viral proteins is responsible for this eIF4E-independence. The eIF4E protein is required for viral mRNA translation in vitro, indicating that cis-acting RNA sequences are not involved in this process. We also show that PB2 viral polymerase subunit interacts with the eIF4G protein. In addition, a chimeric mRNA ...
Influenza viruses subvert the transcriptional machinery of their hosts to synthesise their own viral...
Like the majority of host cell mRNAs, the mRNAs of influenza virus are capped and polyadenylated. Th...
Influenza viruses replicate and transcribe their segmented negative-sense single-stranded RNA genome...
AbstractThe influenza virus mRNAs are structurally similar to cellular mRNAs nevertheless; the virus...
Influenza virus mRNAs contain a 5′-cap structure followed by short cell-derived heterogeneous oligon...
AbstractInfluenza virus mRNAs contain a 5′-cap structure followed by short cell-derived heterogeneou...
Influenza virus mRNAs contain a 5′-cap structure followed by short cell-derived heterogeneous oligon...
Influenza virus infection of cells is accompanied by a striking shutoff of cellular protein synthesi...
AbstractInfluenza virus mRNAs contain a 5′-cap structure followed by short cell-derived heterogeneou...
The influenza virus RNA polymerase synthesizes three types of RNA: genomic vRNA, anti-genomic cRNA a...
AbstractInfluenza virus, a negative strand RNA virus, cannibalizes host cell, capped RNA polymerase ...
mRNAs are capped at their 5'-end by a unique cap structure containing N7-methyl guanine. Recognition...
AbstractWe test the hypothesis that the translation machinery in cells infected by influenza A virus...
mRNAs are capped at their 5'-end by a unique cap structure containing N7-methyl guanine. Recognition...
mRNAs are capped at their 5'-end by a unique cap structure containing N7-methyl guanine. Recognition...
Influenza viruses subvert the transcriptional machinery of their hosts to synthesise their own viral...
Like the majority of host cell mRNAs, the mRNAs of influenza virus are capped and polyadenylated. Th...
Influenza viruses replicate and transcribe their segmented negative-sense single-stranded RNA genome...
AbstractThe influenza virus mRNAs are structurally similar to cellular mRNAs nevertheless; the virus...
Influenza virus mRNAs contain a 5′-cap structure followed by short cell-derived heterogeneous oligon...
AbstractInfluenza virus mRNAs contain a 5′-cap structure followed by short cell-derived heterogeneou...
Influenza virus mRNAs contain a 5′-cap structure followed by short cell-derived heterogeneous oligon...
Influenza virus infection of cells is accompanied by a striking shutoff of cellular protein synthesi...
AbstractInfluenza virus mRNAs contain a 5′-cap structure followed by short cell-derived heterogeneou...
The influenza virus RNA polymerase synthesizes three types of RNA: genomic vRNA, anti-genomic cRNA a...
AbstractInfluenza virus, a negative strand RNA virus, cannibalizes host cell, capped RNA polymerase ...
mRNAs are capped at their 5'-end by a unique cap structure containing N7-methyl guanine. Recognition...
AbstractWe test the hypothesis that the translation machinery in cells infected by influenza A virus...
mRNAs are capped at their 5'-end by a unique cap structure containing N7-methyl guanine. Recognition...
mRNAs are capped at their 5'-end by a unique cap structure containing N7-methyl guanine. Recognition...
Influenza viruses subvert the transcriptional machinery of their hosts to synthesise their own viral...
Like the majority of host cell mRNAs, the mRNAs of influenza virus are capped and polyadenylated. Th...
Influenza viruses replicate and transcribe their segmented negative-sense single-stranded RNA genome...