Adenovirus prevents dsRNA formation by promoting efficient splicing of viral RNA

Abstract Eukaryotic cells recognize intracellular pathogens through pattern recognition receptors, including sensors of aberrant nucleic acid structures. Sensors of double-stranded RNA (dsRNA) are known to detect replication intermediates of RNA viruses. It has long been suggested that annealing of...

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Veröffentlicht in:Nucleic acids research 2022-02, Vol.50 (3), p.1201-1220
Hauptverfasser: Price, Alexander M, Steinbock, Robert T, Di, Chao, Hayer, Katharina E, Li, Yize, Herrmann, Christin, Parenti, Nicholas A, Whelan, Jillian N, Weiss, Susan R, Weitzman, Matthew D
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container_issue 3
container_start_page 1201
container_title Nucleic acids research
container_volume 50
creator Price, Alexander M
Steinbock, Robert T
Di, Chao
Hayer, Katharina E
Li, Yize
Herrmann, Christin
Parenti, Nicholas A
Whelan, Jillian N
Weiss, Susan R
Weitzman, Matthew D
description Abstract Eukaryotic cells recognize intracellular pathogens through pattern recognition receptors, including sensors of aberrant nucleic acid structures. Sensors of double-stranded RNA (dsRNA) are known to detect replication intermediates of RNA viruses. It has long been suggested that annealing of mRNA from symmetrical transcription of both top and bottom strands of DNA virus genomes can produce dsRNA during infection. Supporting this hypothesis, nearly all DNA viruses encode inhibitors of dsRNA-recognition pathways. However, direct evidence that DNA viruses produce dsRNA is lacking. Contrary to dogma, we show that the nuclear-replicating DNA virus adenovirus (AdV) does not produce detectable levels of dsRNA during infection. In contrast, abundant dsRNA is detected within the nucleus of cells infected with AdV mutants defective for viral RNA processing. In the presence of nuclear dsRNA, the cytoplasmic dsRNA sensor PKR is relocalized and activated within the nucleus. Accumulation of viral dsRNA occurs in the late phase of infection, when unspliced viral transcripts form intron/exon base pairs between top and bottom strand transcripts. We propose that DNA viruses actively limit dsRNA formation by promoting efficient splicing and mRNA processing, thus avoiding detection and restriction by host innate immune sensors of pathogenic nucleic acids. Graphical Abstract Graphical Abstract Inefficient splicing of overlapping viral transcripts can lead to intermolecular dsRNA formation. During wildtype virus infection the presence of the E1B55K/E4orf6 viral hijacked ubiquitin ligase leads to the ubiquitination of cellular RNA binding proteins (RBPs) RALY and hnRNPC, which precludes their binding to viral RNA. In the presence of RALY and hnRNPC viral transcripts are poorly spliced, leading to the formation of dsRNA between the exonic regions of viral RNAs to the intronic regions of transcripts derived from the opposing strand. After these dsRNA molecules form, a fraction of the cytoplasmic dsRNA-sensor PKR translocates into the nucleus, where it co-localizes with viral dsRNA and is activated by auto-phosphorylation.
doi_str_mv 10.1093/nar/gkab896
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Sensors of double-stranded RNA (dsRNA) are known to detect replication intermediates of RNA viruses. It has long been suggested that annealing of mRNA from symmetrical transcription of both top and bottom strands of DNA virus genomes can produce dsRNA during infection. Supporting this hypothesis, nearly all DNA viruses encode inhibitors of dsRNA-recognition pathways. However, direct evidence that DNA viruses produce dsRNA is lacking. Contrary to dogma, we show that the nuclear-replicating DNA virus adenovirus (AdV) does not produce detectable levels of dsRNA during infection. In contrast, abundant dsRNA is detected within the nucleus of cells infected with AdV mutants defective for viral RNA processing. In the presence of nuclear dsRNA, the cytoplasmic dsRNA sensor PKR is relocalized and activated within the nucleus. Accumulation of viral dsRNA occurs in the late phase of infection, when unspliced viral transcripts form intron/exon base pairs between top and bottom strand transcripts. We propose that DNA viruses actively limit dsRNA formation by promoting efficient splicing and mRNA processing, thus avoiding detection and restriction by host innate immune sensors of pathogenic nucleic acids. Graphical Abstract Graphical Abstract Inefficient splicing of overlapping viral transcripts can lead to intermolecular dsRNA formation. During wildtype virus infection the presence of the E1B55K/E4orf6 viral hijacked ubiquitin ligase leads to the ubiquitination of cellular RNA binding proteins (RBPs) RALY and hnRNPC, which precludes their binding to viral RNA. In the presence of RALY and hnRNPC viral transcripts are poorly spliced, leading to the formation of dsRNA between the exonic regions of viral RNAs to the intronic regions of transcripts derived from the opposing strand. 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We propose that DNA viruses actively limit dsRNA formation by promoting efficient splicing and mRNA processing, thus avoiding detection and restriction by host innate immune sensors of pathogenic nucleic acids. Graphical Abstract Graphical Abstract Inefficient splicing of overlapping viral transcripts can lead to intermolecular dsRNA formation. During wildtype virus infection the presence of the E1B55K/E4orf6 viral hijacked ubiquitin ligase leads to the ubiquitination of cellular RNA binding proteins (RBPs) RALY and hnRNPC, which precludes their binding to viral RNA. In the presence of RALY and hnRNPC viral transcripts are poorly spliced, leading to the formation of dsRNA between the exonic regions of viral RNAs to the intronic regions of transcripts derived from the opposing strand. 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source MEDLINE; Full-Text Journals in Chemistry (Open access); DOAJ Directory of Open Access Journals; Oxford Open; PubMed Central
subjects Adenoviridae - genetics
Adenoviridae - metabolism
NAR Breakthrough
RNA Splicing
RNA, Double-Stranded - genetics
RNA, Double-Stranded - metabolism
RNA, Messenger - metabolism
RNA, Viral - genetics
RNA, Viral - metabolism
title Adenovirus prevents dsRNA formation by promoting efficient splicing of viral RNA
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