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用于纠正基因突变的C到U编辑和定点RNA编辑。

C-to-U editing and site-directed RNA editing for the correction of genetic mutations.

作者信息

Vu Luyen Thi, Tsukahara Toshifumi

机构信息

School of Materials Science, Japan Advanced Institute of Science and Technology (JAIST).

出版信息

Biosci Trends. 2017 Jul 24;11(3):243-253. doi: 10.5582/bst.2017.01049. Epub 2017 May 8.

DOI:10.5582/bst.2017.01049
PMID:28484188
Abstract

Cytidine to uridine (C-to-U) editing is one type of substitutional RNA editing. It occurs in both mammals and plants. The molecular mechanism of C-to-U editing involves the hydrolytic deamination of a cytosine to a uracil base. C-to-U editing is mediated by RNA-specific cytidine deaminases and several complementation factors, which have not been completely identified. Here, we review recent findings related to the regulation and enzymatic basis of C-to-U RNA editing. More importantly, when C-to-U editing occurs in coding regions, it has the power to reprogram genetic information on the RNA level, therefore it has great potential for applications in transcript repair (diseases related to thymidine to cytidine (T>C) or adenosine to guanosine (A>G) point mutations). If it is possible to manipulate or mimic C-to-U editing, T>C or A>G genetic mutation-related diseases could be treated. Enzymatic and non-enzymatic site-directed RNA editing are two different approaches for mimicking C-to-U editing. For enzymatic site-directed RNA editing, C-to-U editing has not yet been successfully performed, and in theory, adenosine to inosine (A-to-I) editing involves the same strategy as C-to-U editing. Therefore, in this review, for applications in transcript repair, we will provide a detailed overview of enzymatic site-directed RNA editing, with a focus on A-to-I editing and non-enzymatic site-directed C-to-U editing.

摘要

胞苷到尿苷(C-to-U)编辑是替换性RNA编辑的一种类型。它在哺乳动物和植物中均有发生。C-to-U编辑的分子机制涉及胞嘧啶水解脱氨生成尿嘧啶碱基。C-to-U编辑由RNA特异性胞苷脱氨酶和几种尚未完全鉴定的互补因子介导。在此,我们综述了与C-to-U RNA编辑的调控和酶学基础相关的最新研究结果。更重要的是,当C-to-U编辑发生在编码区时,它有能力在RNA水平上重新编程遗传信息,因此在转录本修复(与胸苷到胞苷(T>C)或腺苷到鸟苷(A>G)点突变相关的疾病)方面具有巨大的应用潜力。如果能够操控或模拟C-to-U编辑,那么与T>C或A>G基因突变相关的疾病就有可能得到治疗。酶促和非酶促定点RNA编辑是模拟C-to-U编辑的两种不同方法。对于酶促定点RNA编辑,C-to-U编辑尚未成功实现,并且理论上,腺苷到肌苷(A-to-I)编辑与C-to-U编辑涉及相同的策略。因此,在本综述中,对于转录本修复应用,我们将详细概述酶促定点RNA编辑,重点是A-to-I编辑和非酶促定点C-to-U编辑。

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