VIRUS-LIKE PARTICLE ENDOCYTOSIS PATHWAYS AND CAPTURED ANTIGEN PRESENTATION

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Abstract

The proteins of many viruses can be assembled into strictly organized structures virus-like particles bearing antigens of the original viruses and may also be artificially decorated with antigens of other pathogens. These particles contain no viral genome and lack infectivity but can be highly immunogenic and therefore being actively used for vaccine development. Undoubtedly, while designing vaccines, it is necessary to take into account information about the interaction of vaccine components with immune system particularly antigen-presenting cells. This is especially important for virus-like particles because, like other nanometer-sized particles, they can enter antigen-presenting cells using various endocytosis pathways. The latter exploit multiple receptors, generate endocytic vesicles of different sizes, and, most importantly, are associated with varying fates of captured material. Here we review the mechanisms of phagocytosis, macropinocytosis, clathrin-mediated endocytosis, rapid endophilin-mediated endocytosis, and several endocytic pathways associated with lipid rafts. The data are presented on the relationship between various endocytic pathways and sorting of absorbed cargo in early endosomes as well as enzymatic degradation of the late endosomes contents. We also describe the mechanisms of distribution of absorbed antigens within antigen-presenting cells to be loaded onto the class I and II major histocompatibility complex molecules. The data are presented on the endocytosis of various viruses during cell infection, as well as a comparative analysis of the endocytosis pathways for virus-like particles and related viruses. It has been noted that virus-like particles, along with the absorption pathway specific for parent virus, can rely on additional endocytic pathways to be also artificially targeted at the selected endocytic receptor and relevant absorption pathway. It allows to select or design particles with optimal endocytosis and antigen presentation to induce a protective immune response upon vaccination. It should be assumed that most prophylactic vaccines require particles that are well engulfed by antigen presenting cells and direct material to endolysosomal degradation, or particles whose uptake directs material to both late and static early endosomes, making antigens available for "direct" and cross presentations. Finally, we discuss virus-like particles for the delivery of drugs or genetically engineered constructs, as well as optimal endocytic pathways that should protect the payload of these particles from endolysosomal degradation.
病毒样颗粒内吞途径和捕获抗原呈递
许多病毒的蛋白质可以组装成严格有组织的结构——带有原病毒抗原的病毒样颗粒,也可以用其他病原体的抗原人工修饰。这些颗粒不含病毒基因组,缺乏传染性,但具有高度免疫原性,因此被积极用于疫苗开发。毫无疑问,在设计疫苗时,有必要考虑疫苗成分与免疫系统,特别是抗原提呈细胞相互作用的信息。这对病毒样颗粒尤其重要,因为像其他纳米大小的颗粒一样,它们可以通过各种内吞途径进入抗原呈递细胞。后者利用多个受体,产生不同大小的内吞囊泡,最重要的是,它们与捕获物质的不同命运有关。本文综述了吞噬作用、巨噬细胞作用、网格蛋白介导的内吞作用、快速内噬蛋白介导的内吞作用以及与脂筏相关的几种内吞途径的机制。数据提出了各种内吞途径和早期核内体中吸收货物的分类以及后期核内体内容物的酶降解之间的关系。我们还描述了吸收抗原在抗原呈递细胞内的分布机制,这些抗原被装载到I类和II类主要组织相容性复合体分子上。本文介绍了细胞感染过程中各种病毒的内吞作用,并对病毒样颗粒和相关病毒的内吞作用途径进行了比较分析。已经注意到,病毒样颗粒与亲本病毒特有的吸收途径一起,可以依靠额外的内吞途径,也可以人为地靶向选定的内吞受体和相关的吸收途径。它允许选择或设计具有最佳内吞作用和抗原呈递的颗粒,以在接种疫苗时诱导保护性免疫反应。应该假定,大多数预防性疫苗需要被抗原呈递细胞很好地吞噬的颗粒,并将物质引导到内溶酶体降解,或者颗粒的摄取将物质引导到晚期和静态早期内体,使抗原可用于“直接”和交叉呈递。最后,我们讨论了用于递送药物或基因工程构建物的病毒样颗粒,以及应保护这些颗粒有效载荷免受内溶酶体降解的最佳内吞途径。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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