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作 者:Fei Qi Junjie Chen Yue Chen Jianfeng Sun Yiting Lin Zipeng Chen Philipp Kapranov
机构地区:[1]State Key Laboratory of Cellular Stress Biology,School of Life Sciences,Faculty of Medicine and Life Sciences,Xiamen University,Xiamen 361102,China [2]Institute of Genomics,School of Medicine,Huaqiao University,Xiamen 361021,China [3]Botnar Research Centre,University of Oxford,Oxford,OX37LD,United Kingdom
出 处:《Genomics, Proteomics & Bioinformatics》2024年第3期29-41,共13页基因组蛋白质组与生物信息学报(英文版)
基 金:supported by the National Natural Science Foundation of China(Grant No.32000462 to Fei Qi,Grant No.32170619 to Philipp Kapranov;and Grant No.32201055 to Yue Chen);the Research Fund for International Senior Scientists from the National Natural Science Foundation of China(Grant No.32150710525 to Philipp Kapranov);the Natural Science Foundation of Fujian Province,China(Grant No.2020J02006 to Philipp Kapranov);the Scientific Research Funds of Huaqiao University,China(Grant No.22BS114 to Fei Qi,Grant No.21BS127 to Yue Chen,and Grant No.15BS101 to Philipp Kapranov).
摘 要:Accurate identification of the correct,biologically relevant RNA structures is critical to understanding various aspects of RNA biology since proper folding represents the key to the functionality of all types of RNA molecules and plays pivotal roles in many essential biological processes.Thus,a plethora of approaches have been developed to predict,identify,or solve RNA structures based on various computational,molecular,genetic,chemical,or physicochemical strategies.Purely computational approaches hold distinct advantages over all other strategies in terms of the ease of implementation,time,speed,cost,and throughput,but they strongly underperform in terms of accuracy that significantly limits their broader application.Nonetheless,the advantages of these methods led to a steady development of multiple in silico RNA secondary structure prediction approaches including recent deep learning-based programs.Here,we compared the accuracy of predictions of biologically relevant secondary structures of dozens of self-cleaving ribozyme sequences using seven in silico RNA folding prediction tools with tasks of varying complexity.We found that while many programs performed well in relatively simple tasks,their performance varied significantly in more complex RNA folding problems.However,in general,a modern deep learning method outperformed the other programs in the complex tasks in predicting the RNA secondary structures,at least based on the specific class of sequences tested,suggesting that it may represent the future of RNA structure prediction algorithms.
关 键 词:RNA secondary structure RNA secondary structure prediction RIBOZYME Deep learning PSEUDOKNOT
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