牛痘载体作为候选疫苗:用于抗原递送的修饰型安卡拉牛痘病毒的研制。

Gerd Sutter, Caroline Staib
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引用次数: 194

摘要

表达外源基因的牛痘病毒是生产重组蛋白的有力载体。牛痘病媒源于确保全球根除天花的高效疫苗,其最吸引人的用途是作为异源抗原的疫苗递送系统。基于减毒病毒的载体的发展已经解决了对牛痘病毒安全性的担忧。其中,安卡拉改良牛痘病毒(MVA)是目前临床研究的首选牛痘病毒株。MVA作为天花疫苗的历史发展和使用使其具有非凡的安全性。由于其毒性和在人体细胞中不能有效生长,MVA可在生物安全等级1的条件下使用。近年来,MVA矢量技术的发展取得了重大进展。与具有复制能力的牛痘病毒相比,MVA即使在非允许细胞中也能提供相似水平的重组基因表达。在动物模型中,已发现MVA疫苗具有免疫原性和保护性,可抵抗各种感染因子,包括免疫缺陷病毒、流感、副流感、麻疹病毒、黄病毒或疟原虫。到目前为止,来自临床试验的第一批数据正在变得可用。在本文中,我们简要回顾了MVA的历史和重组MVA疫苗的最新技术,并介绍了针对重要传染病的MVA载体疫苗的研究进展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Vaccinia vectors as candidate vaccines: the development of modified vaccinia virus Ankara for antigen delivery.

Vaccinia viruses engineered to express foreign genes are powerful vectors for production of recombinant proteins. Originating from highly efficacious vaccines securing world-wide eradication of smallpox, the most appealing use of vaccinia vectors is to serve as vaccine delivery system for heterologous antigens. Concerns about the safety of vaccinia virus have been addressed by the development of vectors based on attenuated viruses. One of them, modified vaccinia virus Ankara (MVA) can be considered as current vaccinia virus strain of choice for clinical investigation. Historical development and use of MVA as vaccine against smallpox allowed to establish an extraordinary safety profile. MVA can be used under conditions of biosafety level 1 because of its avirulence and its deficiency to productively grow in human cells. In recent years significant progress has been made with regard to the development of MVA vector technologies. Compared to replication competent vaccinia viruses, MVA provides similar levels of recombinant gene expression even in nonpermissive cells. In animal models, MVA vaccines have been found immunogenic and protective against various infectious agents including immunodeficiency viruses, influenza, parainfluenza, measles virus, flaviviruses, or plasmodium parasites. By now first data from clinical trials are becoming available. In this article we briefly review history of MVA and state-of-the art technologies with regard to generation of recombinant MVA vaccines, and describe the progress to develop MVA vector vaccines against important infectious diseases.

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