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GI.4 诺如病毒变异体与人血型抗原结合的定性和定量分析。

Qualitative and quantitative analysis of the binding of GII.4 norovirus variants onto human blood group antigens.

机构信息

National Reference Center for Enteric Viruses, Public Hospital, Dijon, France.

出版信息

J Virol. 2011 May;85(9):4057-70. doi: 10.1128/JVI.02077-10. Epub 2011 Feb 23.

Abstract

Noroviruses (NoVs) are one of the leading causes of gastroenteritis in children and adults. For the last 2 decades, genogroup II genotype 4 (GII.4) NoVs have been circulating worldwide. GII.4 NoVs can be divided into variants, and since 2002 they have circulated in the population before being replaced every 2 or 3 years, which raises questions about the role of their histo-blood group antigen (HBGA) ligands in their evolution. To shed light on these questions, we performed an analysis of the interaction between representative GII.4 variants and HBGAs, and we determined the role of selected amino acids in the binding profiles. By mutagenesis, we showed that there was a strict structural requirement for the amino acids, directly implicated in interactions with HBGAs. However, the ablation of the threonine residue at position 395 (ΔT395), an epidemiological feature of the post-2002 variants, was not deleterious to the binding of the virus-like particle (VLP) to the H antigen, while binding to A and B antigens was severely hampered. Nevertheless, the ΔT395 VLPs gained the capacity to bind to the Lewis x and sialyl-Lewis x antigens in comparison with the wild-type VLP, demonstrating that amino acid residues outside the HBGA binding site can modify the binding properties of NoVs. We also analyzed the attachment of baculovirus-expressed VLPs from six variants (Bristol, US95/96, Hunter, Yerseke, Den Haag, and Osaka) that were isolated from 1987 to 2007 to phenotyped saliva samples and synthetic HBGAs. We showed that the six variants could all attach to saliva of secretors irrespective of the ABO phenotype and to oligosaccharides characteristic of the secretor phenotype. Interestingly, Den Haag and Osaka variants additionally bound to carbohydrates present in the saliva of Lewis-positive nonsecretors. The carbohydrate binding profile and the genetic and mutagenesis analysis suggested that GII.4 binding to Lewis x and sialyl-Lewis x antigens might be a by-product of the genetic variation of the amino acids located in the vicinity of the binding site. Analysis of the binding properties for the six variants by surface plasmon resonance showed that only post-2002 variants (i.e., Hunter, Yerseke, Den Haag, and Osaka) presented strong binding to A and B antigens, suggesting that the GII.4 evolution could be related to an increased affinity for HBGAs for the post-2002 variants. The combination of increased affinity for ABH antigens and of a newly acquired ability to recognize glycans from Lewis-positive nonsecretors could have contributed to the epidemiological importance of strains such as the Den Haag GII.4 subtype.

摘要

诺如病毒(NoV)是导致儿童和成人肠胃炎的主要原因之一。在过去的 20 年中,基因型 II 组 4 型(GII.4)诺如病毒一直在全球传播。GII.4 诺如病毒可以分为变体,自 2002 年以来,它们在人群中传播,每 2 到 3 年就会被取代一次,这引发了人们对其组织血型抗原(HBGA)配体在进化中的作用的质疑。为了阐明这些问题,我们对代表性 GII.4 变体与 HBGA 之间的相互作用进行了分析,并确定了选择氨基酸在结合谱中的作用。通过突变,我们发现氨基酸存在严格的结构要求,这些氨基酸直接参与与 HBGA 的相互作用。然而,后 2002 年变体的一个流行病学特征——位置 395 的苏氨酸残基的缺失(ΔT395),对病毒样颗粒(VLP)与 H 抗原的结合并没有不利影响,而与 A 和 B 抗原的结合则受到严重阻碍。然而,与野生型 VLP 相比,ΔT395 VLPs 获得了与 Lewis x 和唾液酸-Lewis x 抗原结合的能力,表明 HBGA 结合位点以外的氨基酸残基可以改变诺如病毒的结合特性。我们还分析了从 1987 年到 2007 年分离的六种变体(布里斯托尔、美国 95/96、亨特、耶尔塞克、登哈格和大阪)的杆状病毒表达的 VLPs 对表型唾液样本和合成 HBGA 的附着。结果表明,六种变体都可以附着在分泌者的唾液上,而与 ABO 表型无关,也可以附着在分泌者表型特有的寡糖上。有趣的是,登哈格和大阪变体还可以与 Lewis 阳性非分泌者唾液中的碳水化合物结合。碳水化合物结合谱以及遗传和突变分析表明,GII.4 与 Lewis x 和唾液酸-Lewis x 抗原的结合可能是结合位点附近氨基酸遗传变异的副产品。通过表面等离子体共振对六种变体的结合特性进行分析表明,只有后 2002 年的变体(即亨特、耶尔塞克、登哈格和大阪)与 A 和 B 抗原具有强烈的结合能力,这表明 GII.4 的进化可能与其对后 2002 年变体的 HBGA 亲和力增加有关。对 ABH 抗原亲和力的增加以及对 Lewis 阳性非分泌者糖的新识别能力的结合可能导致了像登哈格 GII.4 亚型这样的菌株的流行病学重要性。

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