Nucleic Acids Research · 2023 · 33 citations · 30 references
Life SciencesBioinformaticsMolecular BiologyComputational BiologyStructural BioinformaticsStructural BiologyBinding Affinity PredictionRna-binding ProteinsRna-protein InteractionsBinding Site PredictionPost-transcriptional RegulationRna Motif DiscoveryRna Secondary StructureRna Structure PredictionSaliency MappingSecondary Rna StructureSequence Motif Discovery
Fundamental to post-transcriptional regulation, the in vivo binding of RNA binding proteins (RBPs) on their RNA targets heavily depends on RNA structures. To date, most methods for RBP-RNA interaction prediction are based on RNA structures predicted from sequences, which do not consider the various intracellular environments and thus cannot predict cell type-specific RBP-RNA interactions. Here, we present a web server PrismNet that uses a deep learning tool to integrate in vivo RNA secondary structures measured by icSHAPE experiments with RBP binding site information from UV cross-linking and immunoprecipitation in the same cell lines to predict cell type-specific RBP-RNA interactions. Taking an RBP and an RNA region with sequential and structural information as input ('Sequence & Structure' mode), PrismNet outputs the binding probability of the RBP and this RNA region, together with a saliency map and a sequence-structure integrative motif. The web server is freely available at http://prismnetweb.zhanglab.net.
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In vitro selection of RNA molecules that bind specific ligands
Andrew D. Ellington, Jack W. Szostak · Nature · 1990 · 9.7K citations