Department of Biosystems Science and Engineering ETH Zurich Mattenstrasse 26 Basel 4058 Switzerland.
Faculty of Biology University of Freiburg Schänzlestraße 1 Freiburg 79104 Germany.
Adv Sci (Weinh). 2021 Feb 26;8(9):2004018. doi: 10.1002/advs.202004018. eCollection 2021 May.
Three recent approvals and over 100 ongoing clinical trials make adeno-associated virus (AAV)-based vectors the leading gene delivery vehicles in gene therapy. Pharmaceutical companies are investing in this small and nonpathogenic gene shuttle to increase the therapeutic portfolios within the coming years. This prospect of marking a new era in gene therapy has fostered both investigations of the fundamental AAV biology as well as engineering studies to enhance delivery vehicles. Driven by the high clinical potential, a new generation of synthetic-biologically engineered AAV vectors is on the rise. Concepts from synthetic biology enable the control and fine-tuning of vector function at different stages of cellular transduction and gene expression. It is anticipated that the emerging field of synthetic-biologically engineered AAV vectors can shape future gene therapeutic approaches and thus the design of tomorrow's gene delivery vectors. This review describes and discusses the recent trends in capsid and vector genome engineering, with particular emphasis on synthetic-biological approaches.
三种最近获得批准的方法和 100 多项正在进行的临床试验使腺相关病毒 (AAV) 载体成为基因治疗中领先的基因传递载体。制药公司正在投资这种小型且非致病性的基因穿梭载体,以在未来几年内增加治疗产品组合。这一有望在基因治疗领域开创一个新时代的前景,既促进了对基本 AAV 生物学的研究,也促进了增强传递载体的工程研究。由于具有很高的临床潜力,新一代合成生物学工程化的 AAV 载体正在兴起。合成生物学的概念使得可以在细胞转导和基因表达的不同阶段控制和微调载体功能。预计,新兴的合成生物学工程化 AAV 载体领域可以塑造未来的基因治疗方法,从而设计出明天的基因传递载体。本文描述并讨论了衣壳和载体基因组工程的最新趋势,特别强调了合成生物学方法。