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Rnavlab: A Virtual Laboratory For Studying Rna Secondary Structures Based On Grid Computing Technology

机译:Rnavlab:基于网格计算技术研究Rna二级结构的虚拟实验室

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As ribonucleic acid (RNA) molecules play important roles in many biological processes including gene expression and regulation, their secondary structures have been the focus of many recent studies. Despite the computing power of supercomputers, computationally predicting secondary structures with thermodynamic methods is still not feasible when the RNA molecules have long nucleotide sequences and include complex motifs such as pseudoknots. This paper presents RNAVLab (RNA Virtual Laboratory), a virtual laboratory for studying RNA secondary structures including pseudoknots that allows scientists to address this challenge. Two important case studies show the versatility and functionalities of RNAVLab. The first study quantifies its capability to rebuild longer secondary structures from motifs found in systematically sampled nucleotide segments. The extensive sampling and predictions are made feasible in a short turnaround time because of the grid technology used. The second study shows how RNAVLab allows scientists to study the viral RNA genome replication mechanisms used by members of the virus family Nodaviridae.
机译:由于核糖核酸(RNA)分子在包括基因表达和调控在内的许多生物学过程中起着重要作用,因此其二级结构一直是许多近期研究的重点。尽管超级计算机具有强大的计算能力,但是当RNA分子的核苷酸序列较长且包含复杂的基序(例如假结)时,用热力学方法预测二级结构仍然不可行。本文介绍了RNAVLab(RNA虚拟实验室),该虚拟实验室用于研究包括假结在内的RNA二级结构,从而使科学家能够应对这一挑战。两个重要的案例研究显示了RNAVLab的多功能性和功能性。第一项研究量化了其从系统采样的核苷酸片段中发现的基序重建更长的二级结构的能力。由于使用了网格技术,因此可以在很短的周转时间内进行广泛的采样和预测。第二项研究表明RNAVLab如何使科学家研究病毒科Nodaviridae成员使用的病毒RNA基因组复制机制。

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