grant

Mechanisms of bacterial RNA degradation

Organization NEW YORK UNIVERSITY SCHOOL OF MEDICINELocation NEW YORK, UNITED STATESPosted 13 May 2022Deadline 31 Mar 2027
NIHUS FederalResearch GrantFY2026AccelerationAntibiotic AgentsAntibiotic DrugsAntibioticsBacteriaBacterial RNABiochemicalBiologicalBiophysicsCell BodyCell FunctionCell PhysiologyCell ProcessCellsCellular FunctionCellular PhysiologyCellular ProcessDiffusionEnvironmentGene Action RegulationGene ExpressionGene Expression RegulationGene RegulationGene Regulation ProcessGeneticGoalsHumanInfectionKnowledgeMessenger RNAMethodsMiscellaneous AntibioticModern ManModificationMolecularNon-Polyadenylated RNAOrganismPathogenesisPhylogenetic AnalysisPhylogeneticsPlayProcessR-Series Research ProjectsR01 MechanismR01 ProgramRNARNA DegradationRNA Gene ProductsRNase EResearchResearch GrantsResearch Project GrantsResearch ProjectsRibonucleic AcidScanningSiteStressSubcellular ProcessTranscriptbiologicbiophysical foundationbiophysical principlesbiophysical sciencesdiffuseddiffusesdiffusingdiffusionsendonucleaseinsightliving systemmRNAmRNA DegradationmRNA Transcript DegradationmRNA cappingmicrobialnovelribonuclease E
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Full Description

PROJECT SUMMARY
The overarching goal of this research project is to understand the basic principles that govern

messenger RNA degradation, a cellular process that plays a key role in regulating gene

expression in all organisms. The immediate goal is to elucidate the impact of the 5′ end on

bacterial mRNA lifetimes. In particular, this research will focus on understanding the influence

of 5′-terminal caps and 5′-end-dependent endonucleolytic cleavage on rates of mRNA

degradation in bacteria. Long thought to reside exclusively on eukaryotic RNA transcripts, caps

of various kinds have now been found on RNA 5′ ends in bacteria, yet many important aspects

of their function remain unexplained. In addition, the regulatory endonuclease RNase E has

recently been shown to locate cleavage sites in monophosphorylated RNA by a novel scanning

mechanism akin to linear diffusion from the 5′ end, but how it does so is unknown. The specific

objectives of this research project are to elucidate the structural and phylogenetic diversity of

bacterial mRNA capping and the interplay between capping, cell physiology, and stress and to

determine the molecular mechanism by which RNase E scans RNA in search of cleavage sites,

the influence of the cellular environment on this process, and the breadth of its regulatory

impact. A combination of molecular biological, biochemical, biophysical, and genetic methods

will be employed to achieve these objectives. The knowledge gained from these studies will

provide fundamental insights into novel aspects of gene regulation that have been implicated in

bacterial pathogenesis and antibiotic sensitivity.

Grant Number: 5R35GM145359-05
NIH Institute/Center: NIH

Principal Investigator: JOEL BELASCO

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