RNA结构分析和RNA靶向方法指南。

Rodrigo Aguilar, Constanza Mardones, Adrian A Moreno, Marjorie Cepeda-Plaza
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摘要

rna越来越被认为是有前景的治疗靶点,容易受到包括小分子靶向、反义寡核苷酸、脱氧核酶(DNAzymes)或CRISPR/Cas13等策略的调节。然而,尽管针对蛋白质的药物开发遵循基于其三维结构精确知识的合理设计的既定路径,但RNA靶向策略具有挑战性,因为全面的RNA结构仍然稀缺且难以获得。已经开发了许多方法来阐明rna的二级和三维结构,包括x射线晶体学,冷冻电子显微镜,核磁共振,SHAPE, DMS和生物信息学方法,但它们经常揭示灵活的转录本和共存的群体,而不是单一定义的结构。因此,旨在靶向rna的研究人员面临着一个关键的决定:是提前获取转录本的详细结构,还是采用独立于结构的表型筛选或基于序列的方法。尽管如此,即使在似乎只依赖于核苷酸序列的策略中(如反义寡核苷酸的设计),研究人员也可能需要有关化合物对折叠RNA分子的可及性的信息。在这篇简明的指南中,我们为对靶向RNA感兴趣的研究人员提供了一个概述:我们首先回顾当前用于定义二级或三维RNA结构的方法,然后我们探索RNA靶向策略,这些策略可能需要或可能不需要深入了解RNA结构。我们设想,互补的方法可能会加速rna靶向分子的发展,以对抗疾病。
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A guide to RNA structure analysis and RNA-targeting methods.

RNAs are increasingly recognized as promising therapeutic targets, susceptible to modulation by strategies that include targeting with small molecules, antisense oligonucleotides, deoxyribozymes (DNAzymes), or CRISPR/Cas13. However, while drug development for proteins follows well-established paths for rational design based on the accurate knowledge of their three-dimensional structure, RNA-targeting strategies are challenging since comprehensive RNA structures are yet scarce and challenging to acquire. Numerous methods have been developed to elucidate the secondary and three-dimensional structure of RNAs, including X-ray crystallography, cryo-electron microscopy, nuclear magnetic resonance, SHAPE, DMS, and bioinformatic methods, yet they have often revealed flexible transcripts and co-existing populations rather than single-defined structures. Thus, researchers aiming to target RNAs face a critical decision: whether to acquire the detailed structure of transcripts in advance or to adopt phenotypic screens or sequence-based approaches that are independent of the structure. Still, even in strategies that seem to rely only on the nucleotide sequence (like the design of antisense oligonucleotides), researchers may need information about the accessibility of the compounds to the folded RNA molecule. In this concise guide, we provide an overview for researchers interested in targeting RNAs: We start by revisiting current methodologies for defining secondary or three-dimensional RNA structure and then we explore RNA-targeting strategies that may or may not require an in-depth knowledge of RNA structure. We envision that complementary approaches may expedite the development of RNA-targeting molecules to combat disease.

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