Chemical probing of RNA 2′-hydroxyl groups by selective 2′-hydroxyl acylation analyzed by primer extension (SHAPE) is a rapid and powerful approach for querying RNA structures in living cells. At reverse transcription, sites of chemical modification can be encoded as mutations in the cDNA, a process called mutational profiling (MaP), enabling their detection via high-throughput sequencing. This chapter describes how to synthesize the SHAPE probe 2-aminopyridine-3-carboxylic acid imidazolide (2A3), how to use it to probe RNA structures in living bacteria, and how to generate Illumina-compatible SHAPE-MaP sequencing libraries. The protocol further describes data analysis using the RNA Framework, from raw sequencing data processing to experime...
Despite great interest in solving RNA secondary structures due to their impact on function, it remai...
RNA is the central conduit for gene expression. This role depends on an ability to encode informatio...
icSHAPE (in vivo click selective 2-hydroxyl acylation and profiling experiment) captures RNA seconda...
Chemical probing of RNA 2′-hydroxyl groups by selective 2′-hydroxyl acylation analyzed by primer ext...
SHAPE chemistries exploit small electrophilic reagents that react with the 2′-hydroxyl group to inte...
RNA is central to the flow of biological information. From transcription to splicing, RNA localizati...
Due to the mounting evidence that RNA structure plays a critical role in regulating almost any physi...
Many biological processes are RNA-mediated, but higher-order structures for most RNAs are unknown, m...
New regulatory roles continue to emerge for both natural and engineered noncoding RNAs, many of whic...
Knowledge of RNA structure is critical to understanding both the important functional roles of RNA i...
Sequence census methods reduce molecular measurements such as transcript abundance and protein-nucle...
Structure mapping is a classic experimental approach for determining nucleic acid structure that has...
Recent analysis of transcriptomes has revealed that RNA molecules perform a myriad of functions beyo...
New regulatory roles continue to emerge for both natural and engineered noncoding RNAs, many of whic...
Despite great interest in solving RNA secondary structures due to their impact on function, it remai...
RNA is the central conduit for gene expression. This role depends on an ability to encode informatio...
icSHAPE (in vivo click selective 2-hydroxyl acylation and profiling experiment) captures RNA seconda...
Chemical probing of RNA 2′-hydroxyl groups by selective 2′-hydroxyl acylation analyzed by primer ext...
SHAPE chemistries exploit small electrophilic reagents that react with the 2′-hydroxyl group to inte...
RNA is central to the flow of biological information. From transcription to splicing, RNA localizati...
Due to the mounting evidence that RNA structure plays a critical role in regulating almost any physi...
Many biological processes are RNA-mediated, but higher-order structures for most RNAs are unknown, m...
New regulatory roles continue to emerge for both natural and engineered noncoding RNAs, many of whic...
Knowledge of RNA structure is critical to understanding both the important functional roles of RNA i...
Sequence census methods reduce molecular measurements such as transcript abundance and protein-nucle...
Structure mapping is a classic experimental approach for determining nucleic acid structure that has...
Recent analysis of transcriptomes has revealed that RNA molecules perform a myriad of functions beyo...
New regulatory roles continue to emerge for both natural and engineered noncoding RNAs, many of whic...
Despite great interest in solving RNA secondary structures due to their impact on function, it remai...
RNA is the central conduit for gene expression. This role depends on an ability to encode informatio...
icSHAPE (in vivo click selective 2-hydroxyl acylation and profiling experiment) captures RNA seconda...