斑马鱼肠道微生物群和单细胞鲸鱼杆菌通过 TLR2 I 型 IFN 信号轴抑制病毒感染

IF 13.8 1区 生物学 Q1 MICROBIOLOGY Microbiome Pub Date : 2024-11-18 DOI:10.1186/s40168-024-01958-y
Hui Liang, Ming Li, Jie Chen, Wenhao Zhou, Dongmei Xia, Qianwen Ding, Yalin Yang, Zhen Zhang, Chao Ran, Zhigang Zhou
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引用次数: 0

摘要

背景:已有越来越多的证据表明,肠道微生物群可以抑制病毒感染。然而,我们对介导抗病毒反应的信号传导途径和特定共生微生物的身份了解有限。斑马鱼已成为研究脊椎动物与微生物群相互作用的强大动物模型。在这里,我们利用斑马鱼的横纹肌病毒感染模型来研究微生物介导的抗病毒效应的作用模式:结果:我们观察到,口服抗生素处理过的斑马鱼和无菌斑马鱼在感染鲤鱼病毒(SVCV)后表现出更高的春季病毒血症。从机理上讲,肠道微生物群耗竭会改变 TLR2-Myd88 信号传导,削弱中性粒细胞反应和 I 型干扰素(IFN)抗病毒先天免疫。通过对对照组和抗生素处理过的鱼的肠道内容物进行 16S rRNA 测序,我们发现了一种单一的共生细菌物种--梭杆菌(Cetobacterium somerae),它能恢复 TLR2-和中性粒细胞依赖的 I 型 IFN 反应,从而限制斑马鱼的 SVCV 感染。此外,我们还发现,单胞菌外多糖(CsEPS)是参与TLR2介导I型IFN依赖性抗病毒功能的效应分子:总之,我们的研究结果表明,肠道微生物群在调节脊椎动物I型IFN抗病毒反应中发挥着保守作用,并揭示了斑马鱼肠道微生物群通过CsEPS-TLR2-I型IFN信号轴抑制病毒感染。视频摘要。
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The intestinal microbiome and Cetobacterium somerae inhibit viral infection through TLR2-type I IFN signaling axis in zebrafish.

Background: Evidence has accumulated to demonstrate that intestinal microbiome can inhibit viral infection. However, our knowledge of the signaling pathways and identity of specific commensal microbes that mediate the antiviral response is limited. Zebrafish have emerged as a powerful animal model for study of vertebrate-microbiota interactions. Here, a rhabdoviral infection model in zebrafish allows us to investigate the modes of action of microbiome-mediated antiviral effect.

Results: We observed that oral antibiotics-treated and germ-free zebrafish exhibited greater spring viremia of carp virus (SVCV) infection. Mechanistically, depletion of the intestinal microbiome alters TLR2-Myd88 signaling and blunts neutrophil response and type I interferon (IFN) antiviral innate immunity. Through 16S rRNA sequencing of the intestinal contents from control and antibiotic(s)-treated fish, we identified a single commensal bacterial species, Cetobacterium somerae, that can restore the TLR2- and neutrophil-dependent type I IFN response to restrict SVCV infection in gnotobiotic zebrafish. Furthermore, we found that C. somerae exopolysaccharides (CsEPS) was the effector molecule that engaged TLR2 to mediate the type I IFN-dependent antiviral function.

Conclusions: Together, our results suggest a conserved role of intestinal microbiome in regulating type I IFN antiviral response among vertebrates and reveal that the intestinal microbiome inhibits viral infection through a CsEPS-TLR2-type I IFN signaling axis in zebrafish. Video Abstract.

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来源期刊
Microbiome
Microbiome MICROBIOLOGY-
CiteScore
21.90
自引率
2.60%
发文量
198
审稿时长
4 weeks
期刊介绍: Microbiome is a journal that focuses on studies of microbiomes in humans, animals, plants, and the environment. It covers both natural and manipulated microbiomes, such as those in agriculture. The journal is interested in research that uses meta-omics approaches or novel bioinformatics tools and emphasizes the community/host interaction and structure-function relationship within the microbiome. Studies that go beyond descriptive omics surveys and include experimental or theoretical approaches will be considered for publication. The journal also encourages research that establishes cause and effect relationships and supports proposed microbiome functions. However, studies of individual microbial isolates/species without exploring their impact on the host or the complex microbiome structures and functions will not be considered for publication. Microbiome is indexed in BIOSIS, Current Contents, DOAJ, Embase, MEDLINE, PubMed, PubMed Central, and Science Citations Index Expanded.
期刊最新文献
Correction: Parabacteroides distasonis regulates the infectivity and pathogenicity of SVCV at different water temperatures. The intestinal microbiome and Cetobacterium somerae inhibit viral infection through TLR2-type I IFN signaling axis in zebrafish. Multi-omics investigation into long-distance road transportation effects on respiratory health and immunometabolic responses in calves. The fall armyworm converts maize endophytes into its own probiotics to detoxify benzoxazinoids and promote caterpillar growth. Integrated multi-approaches reveal unique metabolic mechanisms of Vestimentifera to adapt to deep sea.
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