Beijing Advanced Innovation Center for Biomedical Engineering, School of Biological Science and Medical Engineering, Beihang University, Beijing, 100191, China.
Department of General Surgery and Obesity and Metabolic Disease Center, China-Japan Friendship Hospital, Beijing, 100029, China.
Nanoscale. 2024 Jun 6;16(22):10500-10521. doi: 10.1039/d4nr01408a.
Gene therapy is a promising disease treatment approach by editing target genes, and thus plays a fundamental role in precision medicine. To ensure gene therapy efficacy, the effective delivery of therapeutic genes into specific cells is a key challenge. Electroporation utilizes short electric pulses to physically break the cell membrane barrier, allowing gene transfer into the cells. It dodges the off-target risks associated with viral vectors, and also stands out from other physical-based gene delivery methods with its high-throughput and cargo-accelerating features. In recent years, with the help of advanced micro/nanotechnology, micro/nanostructure-integrated electroporation (micro/nano-electroporation) techniques and devices have significantly improved cell viability, transfection efficiency and dose controllability of the electroporation strategy, enhancing its application practicality especially . This technical advancement makes micro/nano-electroporation an effective and versatile tool for gene therapy. In this review, we first introduce the evolution of electroporation technique with a brief explanation of the perforation mechanism, and then provide an overview of the recent advancements and prospects of micro/nano-electroporation technology in the field of gene therapy. To comprehensively showcase the latest developments of micro/nano-electroporation technology in gene therapy, we focus on discussing micro/nano-electroporation devices and current applications at both and levels. Additionally, we outline the ongoing clinical studies of gene electrotransfer (GET), revealing the tremendous potential of electroporation-based gene delivery in disease treatment and healthcare. Lastly, the challenges and future directions in this field are discussed.
基因治疗是一种通过编辑靶基因来治疗疾病的有前途的方法,因此在精准医学中起着至关重要的作用。为了确保基因治疗的疗效,将治疗基因有效递送到特定细胞是一个关键挑战。电穿孔利用短电脉冲物理地打破细胞膜屏障,允许基因转移到细胞中。它规避了与病毒载体相关的脱靶风险,并且与其他基于物理的基因传递方法相比,其具有高通量和货物加速的特点。近年来,在先进的微纳技术的帮助下,微纳结构集成电穿孔(微纳电穿孔)技术和设备显著提高了电穿孔策略的细胞活力、转染效率和剂量可控性,增强了其应用的实用性。这项技术进步使微纳电穿孔成为基因治疗的一种有效且多功能的工具。在这篇综述中,我们首先介绍了电穿孔技术的演变,简要解释了穿孔机制,然后概述了微纳电穿孔技术在基因治疗领域的最新进展和前景。为了全面展示微纳电穿孔技术在基因治疗中的最新发展,我们重点讨论了微纳电穿孔设备和目前在和 水平的应用。此外,我们概述了基因电转移(GET)的正在进行的临床研究,揭示了基于电穿孔的基因传递在疾病治疗和医疗保健中的巨大潜力。最后,讨论了该领域的挑战和未来方向。
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