An atlas of continuous adaptive evolution in endemic human viruses.

Cell host & microbe Pub Date : 2023-11-08 Epub Date: 2023-10-25 DOI:10.1016/j.chom.2023.09.012
Kathryn E Kistler, Trevor Bedford
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Abstract

Through antigenic evolution, viruses such as seasonal influenza evade recognition by neutralizing antibodies. This means that a person with antibodies well tuned to an initial infection will not be protected against the same virus years later and that vaccine-mediated protection will decay. To expand our understanding of which endemic human viruses evolve in this fashion, we assess adaptive evolution across the genome of 28 endemic viruses spanning a wide range of viral families and transmission modes. Surface proteins consistently show the highest rates of adaptation, and ten viruses in this panel are estimated to undergo antigenic evolution to selectively fix mutations that enable the escape of prior immunity. Thus, antibody evasion is not an uncommon evolutionary strategy among human viruses, and monitoring this evolution will inform future vaccine efforts. Additionally, by comparing overall amino acid substitution rates, we show that SARS-CoV-2 is accumulating protein-coding changes at substantially faster rates than endemic viruses.

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地方性人类病毒持续适应性进化图谱。
通过抗原进化,季节性流感等病毒通过中和抗体逃避识别。这意味着,一个抗体能够很好地适应最初感染的人,几年后将无法抵御同样的病毒,疫苗介导的保护作用将减弱。为了扩大我们对哪些地方性人类病毒以这种方式进化的理解,我们评估了28种地方性病毒基因组的适应性进化,这些病毒涵盖了广泛的病毒家族和传播模式。表面蛋白始终显示出最高的适应率,据估计,该组中的10种病毒会经历抗原进化,以选择性地修复突变,从而逃脱先前的免疫。因此,抗体逃避在人类病毒中并不罕见,监测这种进化将为未来的疫苗工作提供信息。此外,通过比较总体氨基酸替代率,我们发现严重急性呼吸系统综合征冠状病毒2型正在以比地方性病毒快得多的速度积累蛋白质编码变化。
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