质粒DNA基因治疗

S. R. Bathula, Leaf Huang
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引用次数: 5

摘要

基因治疗是一种很有前途的治疗方式,用于治疗遗传性和获得性遗传疾病。它可以被定义为使用核酸转移,无论是RNA还是DNA,来治疗或预防疾病。虽然最初大多数基因治疗的研究都集中在开发病毒介导的方法,将治疗基因传递到体外和体内的细胞上,但非病毒基因药物已经成为一种潜在的安全有效的基因治疗方法,可用于治疗各种获得性和遗传性疾病。与病毒载体相比,这种传递系统由于其几个有利的特性而受到广泛关注,包括低毒性和免疫原性,对核酸酶的抗性,以及它们的效率与遗传货物的大小无关。最简单的传递方法之一是直接将基因与裸质粒DNA转移到感兴趣的器官。质粒dna (pDNAs)携带重组基因,用于将基因引入细胞和器官。各种物理方法,如基因枪、电穿孔、超声穿孔、激光照射等,都可以提高裸DNA结合的效率。人工合成的基因传递载体,如阳离子脂质和阳离子聚合物,在体内具有保护DNA免受内源性DNA酶降解的优势,并且在某些特殊情况下可以靶向特定的细胞位点。各种各样的脂基体系已经被设计出来,它们大多含有不同结构的阳离子脂质。含有聚合物的载体,无论是合成的还是天然的,也已被开发出来。尽管已经取得了重大进展,但非病毒载体的效率仍然有限,并且受到细菌pDNA中遗传的一些细胞毒性的限制,pDNA承载了感兴趣的基因。了解克服DNA传递的细胞障碍的机制和方法无疑将促进DNA介导的基因传递的进一步发展。近年来,通过非病毒载体递送包括siRNA在内的寡核苷酸方面取得了巨大进展。这是因为核膜不是大多数寡核苷酸的传递屏障。关键词:基因治疗;lipoplex;lipopolyplex;非病毒基因传递;polyplex
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Gene Therapy with Plasmid DNA
Gene therapy is a promising therapeutic modality for the treatment of inherited as well as acquired genetic disorders. It can be defined as the use of nucleic acid transfer, either RNA or DNA, to treat or prevent a disease. Although initially most research on gene therapy has focused on the development of viral-mediated approaches to deliver therapeutic genes to cells both ex vivo and in vivo, nonviral gene medicines have emerged as a potentially safe and effective gene therapy method for the treatment of a wide variety of acquired and inherited disorders. Compared to viral vectors, this delivery system has received great attention due to their several favorable properties, including low toxicity and immunogenicity, resistance to nuclease, and their efficiency is independent on size of the genetic cargo. One of the simplest approaches of delivery is direct gene transfer with naked plasmid DNA to the organs of interest. Plasmid DNAs (pDNAs), which carry recombinant genes of interest, are used for introducing genes to cells and organs. Various physical methods, for example, gene gun, electroporation, sonoporation, and laser irradiation increase the efficiency of the naked DNA incorporation. Synthetic gene delivery vectors such as cationic lipids and cationic polymers have the advantage of protecting the DNA against degradation by endogenous DNase in vivo, and can be targeted to a specific cellular site in some special cases. Varieties of lipid-based systems have been designed, mostly containing cationic lipids of different structures. Vectors containing polymers, either synthetic or natural, have also been developed. Although significant progress has been made, nonviral vectors are still limited in their efficiency and by some cytotoxicity inherited in the bacterial pDNA, which hosts the gene of interest. Understanding mechanisms and means to overcome the cellular barriers for the DNA delivery will undoubtedly promote further development of pDNA-mediated gene delivery. Great advancement has recently been made in the delivery of oligonucleotides, including siRNA, by nonviral vectors. This is because the nuclear membrane is not a delivery barrier for most of the oligonucleotides. Keywords: gene therapy; lipoplex; lipopolyplex; nonviral gene delivery; polyplex
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