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呼吸系统基因治疗的进展。

Progress in Respiratory Gene Therapy.

机构信息

The Roslin Institute & R(D)SVS, University of Edinburgh, Edinburgh, United Kingdom.

UK Respiratory Gene Therapy Consortium, London, United Kingdom.

出版信息

Hum Gene Ther. 2022 Sep;33(17-18):893-912. doi: 10.1089/hum.2022.172.

Abstract

The prospect of gene therapy for inherited and acquired respiratory disease has energized the research community since the 1980s, with cystic fibrosis, as a monogenic disorder, driving early efforts to develop effective strategies. The fact that there are still no approved gene therapy products for the lung, despite many early phase clinical trials, illustrates the scale of the challenge: In the 1990s, first-generation non-viral and viral vector systems demonstrated proof-of-concept but low efficacy. Since then, there has been steady progress toward improved vectors with the capacity to overcome at least some of the formidable barriers presented by the lung. In addition, the inclusion of features such as codon optimization and promoters providing long-term expression have improved the expression characteristics of therapeutic transgenes. Early approaches were based on gene addition, where a new DNA copy of a gene is introduced to complement a genetic mutation: however, the advent of RNA-based products that can directly express a therapeutic protein or manipulate gene expression, together with the expanding range of tools for gene editing, has stimulated the development of alternative approaches. This review discusses the range of vector systems being evaluated for lung delivery; the variety of cargoes they deliver, including DNA, antisense oligonucleotides, messenger RNA (mRNA), small interfering RNA (siRNA), and peptide nucleic acids; and exemplifies progress in selected respiratory disease indications.

摘要

自 20 世纪 80 年代以来,基因治疗遗传性和获得性呼吸疾病的前景激发了研究界的兴趣,囊性纤维化作为一种单基因疾病,推动了开发有效治疗策略的早期努力。尽管进行了许多早期临床试验,但迄今为止,仍没有批准用于肺部的基因治疗产品,这说明了这项挑战的规模:在 20 世纪 90 年代,第一代非病毒和病毒载体系统证明了概念验证,但疗效较低。此后,人们一直在稳步改进载体,以克服肺部带来的一些严峻障碍。此外,包含密码子优化和提供长期表达的启动子等功能,改善了治疗性转基因的表达特征。早期的方法基于基因添加,即引入一个新的基因 DNA 拷贝来补充遗传突变:然而,基于 RNA 的产品的出现,这些产品可以直接表达治疗性蛋白质或操纵基因表达,以及用于基因编辑的工具范围不断扩大,刺激了替代方法的发展。这篇综述讨论了正在评估用于肺部递送的各种载体系统;它们递送的各种有效载荷,包括 DNA、反义寡核苷酸、信使 RNA (mRNA)、小干扰 RNA (siRNA) 和肽核酸;并举例说明了选定的呼吸疾病适应症的进展。

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