Stephen M Rawlinson, Tianyue Zhao, Katie Ardipradja, Yilin Zhang, Patrick F Veugelers, Jennifer A Harper, Cassandra T David, Vinod Sundaramoorthy, Gregory W Moseley
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引用次数: 0
摘要
核仁是病毒和病毒蛋白的共同靶标,但对于许多病毒来说,这种靶标的功能结果和意义仍未得到解决。最近,人们首次发现了细胞质复制的负义 RNA 病毒(NSV)蛋白的核内功能,发现亨德拉病毒(HeV)(副粘病毒科,Henipavirus 属)的基质(M)蛋白与核小区内的 Treacle 蛋白相互作用,并模拟细胞核 DNA 损伤反应(DDR)机制来抑制核糖体 RNA(rRNA)的合成。至于其他病毒是否也利用了这一机制,我们尚未进行研究。我们报告说,核仁下 Treacle 靶向和调节功能在包括尼帕病毒和其他潜在人畜共患病毒在内的多种禽流感病毒的 M 蛋白之间是一致的。此外,不同 RNA 病毒科(Rhabdoviridae)的原型病毒狂犬病毒的 P3 蛋白也具有这种功能,细胞中 Treacle 的耗竭也会影响病毒的产生。这些数据表明,不同科病毒的不相关蛋白具有独立的细胞核/Treacle靶向功能,但对Treacle的调节对感染有不同的影响。因此,Treacle的颠覆可能是多种NSV感染的一个重要过程,从而为具有广泛特异性的抗病毒方法提供了新的靶点。
Henipaviruses and lyssaviruses target nucleolar treacle protein and regulate ribosomal RNA synthesis.
The nucleolus is a common target of viruses and viral proteins, but for many viruses the functional outcomes and significance of this targeting remains unresolved. Recently, the first intranucleolar function of a protein of a cytoplasmically-replicating negative-sense RNA virus (NSV) was identified, with the finding that the matrix (M) protein of Hendra virus (HeV) (genus Henipavirus, family Paramyxoviridae) interacts with Treacle protein within nucleolar subcompartments and mimics a cellular mechanism of the nucleolar DNA-damage response (DDR) to suppress ribosomal RNA (rRNA) synthesis. Whether other viruses utilise this mechanism has not been examined. We report that sub-nucleolar Treacle targeting and modulation is conserved between M proteins of multiple Henipaviruses, including Nipah virus and other potentially zoonotic viruses. Furthermore, this function is also evident for P3 protein of rabies virus, the prototype virus of a different RNA virus family (Rhabdoviridae), with Treacle depletion in cells also found to impact virus production. These data indicate that unrelated proteins of viruses from different families have independently developed nucleolar/Treacle targeting function, but that modulation of Treacle has distinct effects on infection. Thus, subversion of Treacle may be an important process in infection by diverse NSVs, and so could provide novel targets for antiviral approaches with broad specificity.
期刊介绍:
Traffic encourages and facilitates the publication of papers in any field relating to intracellular transport in health and disease. Traffic papers span disciplines such as developmental biology, neuroscience, innate and adaptive immunity, epithelial cell biology, intracellular pathogens and host-pathogen interactions, among others using any eukaryotic model system. Areas of particular interest include protein, nucleic acid and lipid traffic, molecular motors, intracellular pathogens, intracellular proteolysis, nuclear import and export, cytokinesis and the cell cycle, the interface between signaling and trafficking or localization, protein translocation, the cell biology of adaptive an innate immunity, organelle biogenesis, metabolism, cell polarity and organization, and organelle movement.
All aspects of the structural, molecular biology, biochemistry, genetics, morphology, intracellular signaling and relationship to hereditary or infectious diseases will be covered. Manuscripts must provide a clear conceptual or mechanistic advance. The editors will reject papers that require major changes, including addition of significant experimental data or other significant revision.
Traffic will consider manuscripts of any length, but encourages authors to limit their papers to 16 typeset pages or less.