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环状RNA的合成与工程

Synthesis and Engineering of Circular RNAs.

作者信息

Petkovic Sonja, Müller Sabine

机构信息

Institut für Molekulare Medizin, UK S-H, Campus Lübeck, Universität zu Lübeck, Lübeck, Germany.

Institut für Biochemie, Universität Greifswald, Greifswald, Germany.

出版信息

Methods Mol Biol. 2018;1724:167-180. doi: 10.1007/978-1-4939-7562-4_14.

Abstract

Circular RNAs (circRNAs) have been discovered in all kingdoms of life. They are produced from introns as well as from exons. However, strongest interest is in circRNAs that are transcribed and spliced from exons of protein and noncoding genes in eukaryotic cells including humans. Therefore, synthesis and engineering of circRNAs as models for structure and function studies are strongly required. In vitro, methods for RNA synthesis and circularization are available. Chemical synthesis allows for preparation of RNAs incorporating nonnatural nucleotides in small RNA segments, whereas enzymatic synthesis is advantageous for production of long RNAs, however, without the possibility for site-specific modification. Strategies for chemical and enzymatic RNA synthesis may be combined to obtain long modified linear RNA strands for subsequent circularization. Here, we describe two alternative protocols for synthesis and circularization in dependence on downstream applications and template structure.

摘要

环状RNA(circRNAs)已在所有生命王国中被发现。它们由内含子以及外显子产生。然而,人们最感兴趣的是在包括人类在内的真核细胞中由蛋白质和非编码基因的外显子转录和剪接而成的circRNAs。因此,迫切需要合成和构建circRNAs作为结构和功能研究的模型。在体外,已有RNA合成和环化的方法。化学合成可用于制备在小RNA片段中掺入非天然核苷酸的RNA,而酶促合成有利于长链RNA的产生,然而,无法进行位点特异性修饰。化学和酶促RNA合成策略可结合起来,以获得用于后续环化的长链修饰线性RNA链。在此,我们根据下游应用和模板结构描述了两种合成和环化的替代方案。

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