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从印度分离的禽流感病毒的受体特异性和红细胞结合偏好。

Receptor specificity and erythrocyte binding preferences of avian influenza viruses isolated from India.

机构信息

National Institute of Virology (NIV)-Microbial Containment Complex (MCC), 130/1, Sus Road, Pashan, Pune 411021, India.

出版信息

Virol J. 2012 Oct 30;9:251. doi: 10.1186/1743-422X-9-251.

DOI:10.1186/1743-422X-9-251
PMID:23110802
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC3502366/
Abstract

INTRODUCTION

Hemagglutination (HA) and hemagglutination inhibition (HI) assays are conventionally used for detection and identification of influenza viruses. HI assay is also used for detection of antibodies against influenza viruses. Primarily turkey or chicken erythrocytes [red blood cells (RBCs)] are used in these assays, as they are large, nucleated, and sediment fast, which makes it easy to determine the titer. Human influenza viruses agglutinate RBCs from chicken, human, and guinea pig, but not from horse. Human influenza viruses bind preferentially to sialic acid (SA) linked to galactose (Gal) by α 2, 6 linkage (SA α 2, 6-Gal), whereas avian influenza (AI) viruses bind preferentially to SA α 2, 3-Gal linkages. With this background, the present study was undertaken to study erythrocyte binding preferences and receptor specificities of AI viruses isolated from India.

MATERIALS AND METHODS

A total of nine AI virus isolates (four subtypes) from India and three reference AI strains (three subtypes) were tested in HA and HI assays against mammalian and avian erythrocytes. The erythrocytes from turkey, chicken, goose, guinea pig and horse were used in the study. The receptor specificity determination assays were performed using goose and turkey RBCs. The amino acids present at 190 helix, 130 and 220 loops of the receptor-binding domain of the hemagglutinin protein were analyzed to correlate amino acid changes with the receptor specificity.

RESULTS

All tested highly pathogenic avian influenza (HPAI) H5N1 viruses reacted with all five types of RBCs in the HA assay; AI H9N2 and H5N2 viruses did not react with horse RBCs. For H5N1 viruses guinea pig and goose RBCs were best for both HA and HI assays. For H9N2 viruses, guinea pig, fowl and turkey RBCs were suitable. For other tested AI subtypes, avian and guinea pig RBCs were better. Eight isolates of H5N1, one H4N6 and one H7N1 virus showed preference to avian sialic acid receptors. Importantly, two isolates of HPAI H5N1, H9N2 and H11N1 viruses showed receptor specificity preference to both avian and mammalian sialic acid (α-2, 3 and α-2, 6) receptors.

CONCLUSIONS

Use of different types of RBCs resulted in titer variations in HA and HI assays. This showed that RBCs giving optimum HA and HI titers would increase sensitivity of detection and would be more appropriate for identification and antigenic analysis of AI viruses. Analysis of 16 amino acids in the receptor-binding domain of the hemagglutinin of HPAI H5N1 viruses revealed that the only variation observed was in S221P amino acid position. Two H5N1 viruses showed S221P amino acid change, out of which only one H5N1 virus showed preference to α 2, 6 sialic acid receptor. One H5N1 virus isolate with amino acid S at 221 position, showed preference to α 2,3 as well as α 2,6 sialic acid receptors. This indicated that factor(s) other than S221P mutation in the hemagglutinin are probably involved in determining receptor specificity of H5N1 viruses. This is the first report of receptor specificity and erythrocyte binding preferences of AI viruses from India.

摘要

简介

血凝(HA)和血凝抑制(HI)试验通常用于检测和鉴定流感病毒。HI 试验也用于检测针对流感病毒的抗体。这些试验主要使用火鸡或鸡的红细胞[红细胞(RBC)],因为它们体积大、有核、沉降快,这使得确定效价变得容易。人类流感病毒可凝集鸡、人、豚鼠的 RBC,但不能凝集马的 RBC。人类流感病毒优先与通过α 2,6 键(SA α 2,6-Gal)连接到半乳糖(Gal)的唾液酸(SA)结合,而禽流感(AI)病毒优先与 SA α 2,3-Gal 键结合。基于此背景,本研究旨在研究从印度分离的 AI 病毒的 RBC 结合偏好和受体特异性。

材料和方法

本研究共检测了来自印度的 9 株 AI 病毒分离株(4 个亚型)和 3 株参考 AI 株(3 个亚型),这些病毒株在针对哺乳动物和禽类 RBC 的 HA 和 HI 试验中进行了检测。本研究使用了火鸡、鸡、鹅、豚鼠和马的 RBC。使用鹅和火鸡的 RBC 进行受体特异性测定试验。分析血凝素蛋白受体结合域 190 螺旋、130 和 220 环中存在的氨基酸,以将氨基酸变化与受体特异性相关联。

结果

所有检测到的高致病性禽流感(HPAI)H5N1 病毒在 HA 试验中均与五种类型的 RBC 反应;AI H9N2 和 H5N2 病毒与马 RBC 不反应。对于 H5N1 病毒,豚鼠和鹅 RBC 最适合用于 HA 和 HI 试验。对于 H9N2 病毒,豚鼠、家禽和火鸡 RBC 较为适用。对于其他检测到的 AI 亚型,禽类和豚鼠 RBC 更好。8 株 H5N1、1 株 H4N6 和 1 株 H7N1 病毒显示出对禽源唾液酸受体的偏好。重要的是,两种 HPAI H5N1、H9N2 和 H11N1 病毒对禽源和哺乳动物源唾液酸(α-2,3 和 α-2,6)受体具有受体特异性偏好。

结论

使用不同类型的 RBC 会导致 HA 和 HI 试验中的效价变化。这表明,能够获得最佳 HA 和 HI 效价的 RBC 将提高检测的灵敏度,并且更适合用于 AI 病毒的鉴定和抗原分析。对 HPAI H5N1 病毒血凝素受体结合域的 16 个氨基酸分析表明,观察到的唯一变化是在 S221P 氨基酸位置。两种 H5N1 病毒发生了 S221P 氨基酸变化,其中只有一种 H5N1 病毒对α 2,6 唾液酸受体具有偏好。一株 H5N1 病毒分离株的 221 位氨基酸为 S,其对α 2,3 和α 2,6 唾液酸受体均具有偏好。这表明,除了血凝素中的 S221P 突变之外,可能还有其他因素参与了 H5N1 病毒受体特异性的决定。这是首次报道印度 AI 病毒的受体特异性和 RBC 结合偏好。