rsRNASP1: a distance and dihedral dependent statistical potential for RNA 3D structure evaluation.

IF 3.2 3区 生物学 Q2 BIOPHYSICS
En Lou,Chen-Chen Zheng,Shixiong Yu,Ya-Lan Tan,Zhi-Jie Tan
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引用次数: 0

Abstract

Knowledge-based statistical potentials have been shown to be rather important for RNA 3-dimensional (3D) structure prediction and evaluation. Recently, several statistical potentials/scoring functions have been developed for RNA 3D structure evaluation, while their performances are still at an unsatisfied level for the datasets from various 3D structure prediction methods. In this work, we developed an all-atom distance and torsion-angle dependent statistical potential with residue separation for RNA 3D structure evaluation, named as rsRNASP1, through considering torsion angles for the backbone, sugar ring and base to involve local structure features. The extensive examinations against available RNA test datasets show that rsRNASP1 has an overall higher performance than existing top statistical potentials/scoring functions in identifying native/near-native structures and ranking the decoy structures. Especially, rsRNASP1 shows the apparently improved performance on a new dataset from the CASP15 competition. rsRNASP1 is available at https://github.com/Tan-group/rsRNASP1.
rsRNASP1:用于RNA三维结构评估的距离和二面体依赖的统计势。
基于知识的统计势在RNA三维(3D)结构预测和评价中非常重要。近年来,人们开发了几种用于RNA三维结构评价的统计电位/评分函数,但对于各种三维结构预测方法的数据集来说,它们的性能还不尽如人意。在这项工作中,我们通过考虑主链、糖环和碱基的扭转角来涉及局部结构特征,开发了一个基于残基分离的全原子距离和扭转角依赖的RNA三维结构评价统计势,命名为rsRNASP1。对现有RNA测试数据集的广泛检验表明,rsRNASP1在识别原生/近原生结构和对诱饵结构进行排序方面,总体上比现有的顶级统计潜力/评分函数具有更高的性能。特别是,rsRNASP1在来自CASP15竞赛的新数据集上表现出明显改善的性能。rsRNASP1可从https://github.com/Tan-group/rsRNASP1获取。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Biophysical journal
Biophysical journal 生物-生物物理
CiteScore
6.10
自引率
5.90%
发文量
3090
审稿时长
2 months
期刊介绍: BJ publishes original articles, letters, and perspectives on important problems in modern biophysics. The papers should be written so as to be of interest to a broad community of biophysicists. BJ welcomes experimental studies that employ quantitative physical approaches for the study of biological systems, including or spanning scales from molecule to whole organism. Experimental studies of a purely descriptive or phenomenological nature, with no theoretical or mechanistic underpinning, are not appropriate for publication in BJ. Theoretical studies should offer new insights into the understanding ofexperimental results or suggest new experimentally testable hypotheses. Articles reporting significant methodological or technological advances, which have potential to open new areas of biophysical investigation, are also suitable for publication in BJ. Papers describing improvements in accuracy or speed of existing methods or extra detail within methods described previously are not suitable for BJ.
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