grant

Develop new bioinformatics infrastructures and computational tools for epitranscriptomics data

Organization UNIVERSITY OF CHICAGOLocation CHICAGO, UNITED STATESPosted 15 May 2023Deadline 28 Feb 2027
NIHUS FederalResearch GrantFY2026AchievementAchievement AttainmentAddressAffectAffinityAllelesAllelomorphsAssayBase PairingBioassayBiological AssayBiological FunctionBiological ProcessBiologyBiotechBiotechnologyBody TissuesCatalogsChemicalsCommunitiesComplexComputational toolkitComputing MethodologiesDNADNA mutationDataData BasesData SetDatabasesDeoxyribonucleic AcidDetectionDevelopmentDimensionsDiseaseDisorderFoundationsGene Action RegulationGene Expression RegulationGene RegulationGene Regulation ProcessGene TranscriptionGenesGenetic ChangeGenetic TranscriptionGenetic defectGenetic mutationGenomicsGoalsHealthHumanInduced DNA AlterationInduced MutationInduced Sequence AlterationInnate Immune ResponseIntermediary MetabolismInvestigatorsMeasuresMessenger RNAMetabolic ProcessesMetabolismMethodsMethylationModern ManModificationMolecularMutationNatureNon-Polyadenylated RNANucleotidesOrganismPathway interactionsPhasePhenotypePost-Transcriptional ControlPost-Transcriptional RegulationProbabilistic ModelsProbability ModelsProteinsProtocolProtocols documentationPublishingRNARNA ExpressionRNA Gene ProductsRNA methylationRNA-Binding ProteinsRegulationResearchResearch PersonnelResearch ResourcesResearchersResolutionResourcesRibonucleic AcidRoleSingle Base PolymorphismSingle Nucleotide PolymorphismSpecificityStandardizationStatistical MethodsStatistical ModelsStructureTechnologyTissuesTranscriptionTranslationsVariantVariationbasebasesbio-informatics infrastructurebioinformatics infrastructurecatalogcell typecomputational methodologycomputational methodscomputational toolboxcomputational toolscomputational toolsetcomputer based methodcomputer methodscomputerized toolscomputing methoddata basedevelopmentalepitranscriptomeepitranscriptomicsfrontiergenetic informationgenome mutationgenomic datagenomic datasetglobal gene expressionglobal transcription profilehigh definitionhigh-resolutionhuman diseaseinterestinternet portalliving systemmRNAnew approachesnovelnovel approachesnovel strategiesnovel strategyon-line portalonline portalpathwaypost-transcriptional gene regulationprotein functionrapid growthresolutionssingle nucleotide variantsocial rolestatistic methodsstatistical linear mixed modelsstatistical linear modelssuccesstranscriptometranscriptome profilingtranscriptomic profilingtranslationuser friendly computer softwareuser friendly softwareweb portalweb serverweb-based portal
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Full Description

Project Summary
Dynamic mRNA modifications, such as the m6A-dependent regulation at the mRNA level, add a

critical new dimension to post-transcriptional regulation of gene expression. The rapid development

of sequencing technologies has transformed the field of epitranscriptomics studies by resulting in the

successful profiling transcriptome-wide RNA modifications under different states and conditions. They

hold the promise to reveal regulatory machinery of RNA modifications, which contributes to almost

every phase of mRNA metabolism and function, thereby impacting diverse biological processes. How-

ever, analytical developments in epitranscriptomics lag far behind the pace of technological discovery,

and the bioinformatic infrastructure available for epitranscriptomic studies remains limited. The overar-

ching goal of this proposal is to address three most pressing challenges facing profiling and interpreting

epitranscriptomics. Specifically, we will achieve the following aims: Aim1. Develop statistical methods

for RNA modification detection at single nucleotide resolution. Aim 2. Develop computational meth-

ods for cell type-specific methylation analysis. Aim 3. Develop web servers that enable integrating

RNA modification with a rich catalog of genomics features. All the methods will be implemented in

user-friendly software and disseminated to the scientific community. Successful achievement of all

aims will dramatically increase the power of epitranscriptomes analysis, leading to better understand-

ing of regulatory mechanisms in RNA modifications and their implications in phenotypes and human

diseases.

Grant Number: 5R01HG012927-04
NIH Institute/Center: NIH

Principal Investigator: Mengjie Chen

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