背景(考古学)
核糖核酸酶P
生物
干扰素
核糖核酸酶
病毒复制
核糖核酸酶H
炎症
酶
先天免疫系统
动作(物理)
细胞生物学
行动方式
病毒学
促炎细胞因子
外小体复合体
核糖核酸
免疫学
遗传学
信号转导
髓系细胞
信号通路
病毒生命周期
计算生物学
限制
免疫系统
病毒感染
作者
Danyel Lee,Krishnamurthy Malathi,Tsubasa Okano,Koji Nakajima,Aurélie Cobat,Tomohiro Morio,J Casanova,Shen-Ying Zhang
出处
期刊:Science immunology
[American Association for the Advancement of Science]
日期:2026-01-09
卷期号:11 (115): eads9407-eads9407
被引量:3
标识
DOI:10.1126/sciimmunol.ads9407
摘要
The 2′-5′ oligoadenylate synthetases (OASs) are type I interferon–inducible enzymes that, with ribonuclease L (RNase L), have been studied in the context of their coupled action as antiviral effectors. RNase L degrades host and viral ssRNA, affecting diverse cellular processes including translational arrest, interferon response, and apoptosis, all of which are thought to restrict viral replication. Recent studies of recessive inborn errors of human OAS1, OAS2, and RNase L, however, revealed that for SARS-CoV-2 infection, the main protective action of this pathway in natura may be through restricting phagocyte-driven postviral inflammation rather than restricting early viral replication in the respiratory tract. This finding is consistent with the identification of gain-of-function OAS1 mutations in humans with autoinflammation also driven by myeloid cells. Here, we retrace the investigation of the OAS–RNase L pathway, focusing on these recent in natura studies in humans that reposition the pathway as a determinant of the inflammatory response under natural conditions of infection.
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