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病毒进化与昆虫作为一个可能的病毒学转折点

Viral evolution and insects as a possible virologic turning table.

作者信息

Koblet H

机构信息

Institute for Medical Microbiology, University of Berne, Switzerland.

出版信息

In Vitro Cell Dev Biol Anim. 1993 Apr;29A(4):274-83. doi: 10.1007/BF02633955.

Abstract

Three lines of observation demonstrate the role of arthropods in transmission and evolution of viruses. a) Recent outbreaks of viruses from their niches took place and insects have played a major role in propagating the viruses. b) Examination of the list of viral families and their hosts shows that many infect invertebrates (I) and vertebrates (V) or (I) and plants (P) or all kingdoms (VIPs). This notion holds true irrespective of the genome type. At first glance the argument seems to be weak in the case of enveloped and non-enveloped RNA viruses with single-stranded (ss) segmented or non-segmented genomes of positive (+) or negative polarity. Here, there are several families infecting V or P only; no systematic relation to arthropods is found. c) In the non-enveloped plant viruses with ss RNA genomes there is a strong tendency for segmentation and individual packaging of the genome pieces. This is in contrast to ss+ RNA animal viruses and can only be explained by massive transmission by seed or insects or both, because individual packaging necessitates a multihit infection. Comparisons demonstrate relationships in the nonstructural proteins of double-stranded and ss+ RNA viruses irrespective of host range, segmentation, and envelope. Similar conclusions apply for the negative-stranded RNA viruses. Thus, viral supergroups can be created that infect V or P and exploit arthropods for infection or transmission or both. Examples of such relationships and explanations for viral evolution are reviewed and the arthropod orders important for cell culture are given.

摘要

三条观察结果表明了节肢动物在病毒传播和进化中的作用。a) 病毒从其生态位近期爆发,昆虫在传播病毒方面发挥了主要作用。b) 对病毒科及其宿主的列表进行检查发现,许多病毒感染无脊椎动物(I)和脊椎动物(V)或(I)和植物(P)或所有界(VIP)。无论基因组类型如何,这一概念都成立。乍一看,对于具有单链(ss)分段或不分段基因组、正(+)或负极性的包膜和非包膜RNA病毒来说,这种说法似乎缺乏说服力。在这里,有几个科仅感染V或P;未发现与节肢动物有系统关系。c) 在具有ss RNA基因组的非包膜植物病毒中,基因组片段有强烈的分段和单独包装倾向。这与ss + RNA动物病毒形成对比,并且只能通过种子或昆虫或两者的大量传播来解释,因为单独包装需要多次感染。比较表明,双链和ss + RNA病毒的非结构蛋白之间存在关系,而与宿主范围、分段和包膜无关。类似的结论也适用于负链RNA病毒。因此,可以创建感染V或P并利用节肢动物进行感染或传播或两者兼有的病毒超群。本文回顾了此类关系的例子以及病毒进化的解释,并给出了对细胞培养重要的节肢动物目。

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