Bioinformatics · 2018 · 14 citations · 10 references
Life SciencesBioinformaticsMolecular BiologyComputational BiologyStructural BioinformaticsStructural BiologyNucleic Acid ModelingRna StructureExperimental Probing Of Rna StructureRna Secondary StructureRna Secondary Structure PredictionRna Structure PredictionRna-rna InteractionsSecondary Rna StructureShapeSplice Site Prediction
SUMMARY: Experimental structure probing data has been shown to improve thermodynamics-based RNA secondary structure prediction. To this end, chemical reactivity information (as provided e.g. by SHAPE) is incorporated, which encodes whether or not individual nucleotides are involved in intra-molecular structure. Since inter-molecular RNA-RNA interactions are often confined to unpaired RNA regions, SHAPE data is even more promising to improve interaction prediction. Here, we show how such experimental data can be incorporated seamlessly into accessibility-based RNA-RNA interaction prediction approaches, as implemented in IntaRNA. This is possible via the computation and use of unpaired probabilities that incorporate the structure probing information. We show that experimental SHAPE data can significantly improve RNA-RNA interaction prediction. We evaluate our approach by investigating interactions of a spliceosomal U1 snRNA transcript with its target splice sites. When SHAPE data is incorporated, known target sites are predicted with increased precision and specificity. AVAILABILITY AND IMPLEMENTATION: https://github.com/BackofenLab/IntaRNA. SUPPLEMENTARY INFORMATION: Supplementary data are available at Bioinformatics online.
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In vivo genome-wide profiling of RNA secondary structure reveals novel regulatory features
Yiliang Ding, Yin Tang, Chun Kit Kwok et al. · Nature · 2013 · 822 citations
Thermodynamics of RNA–RNA binding
Ulrike Mückstein, Hakim Tafer, Jörg Hackermüller et al. · Bioinformatics · 2006 · 388 citations · Full text