Nature Biotechnology · 2024 · 52 citations · 52 references
Life SciencesBiologyMolecular BiologyMolecular VirologyStructural BiologyVirologyRna StructureRna-binding ProteinsRna-protein InteractionsViral Rna BiologyViral StructureVirus StructureLabelingRna Virus BiologyRna-protein BindingRna-rna InteractionsStructural VirologyViral Replication ComplexesViral Replication ControlViral Rna Structure
Abstract RNA fate and function are affected by their structures and interactomes. However, how RNA and RNA-binding proteins (RBPs) assemble into higher-order structures and how RNA molecules may interact with each other to facilitate functions remain largely unknown. Here we present KARR-seq, which uses N 3 -kethoxal labeling and multifunctional chemical crosslinkers to covalently trap and determine RNA–RNA interactions and higher-order RNA structures inside cells, independent of local protein binding to RNA. KARR-seq depicts higher-order RNA structure and detects widespread intermolecular RNA–RNA interactions with high sensitivity and accuracy. Using KARR-seq, we show that translation represses mRNA compaction under native and stress conditions. We determined the higher-order RNA structures of respiratory syncytial virus (RSV) and vesicular stomatitis virus (VSV) and identified RNA–RNA interactions between the viruses and the host RNAs that potentially regulate viral replication.
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