grant

The effect of genetic variation on mRNA splicing in chondrocytes responding to cartilage matrix damage

Organization UNIV OF NORTH CAROLINA CHAPEL HILLLocation CHAPEL HILL, UNITED STATESPosted 1 Aug 2024Deadline 31 Jul 2027
NIHUS FederalResearch GrantFY2025AffectAlternate SplicingAlternative RNA SplicingAlternative SplicingArthroplastyAssayBioassayBiological AssayBody TissuesCRISPRCRISPR/Cas systemCartilage MatrixCell Communication and SignalingCell SignalingChondrocytesChromosome MappingChronicClustered Regularly Interspaced Short Palindromic RepeatsCold-Insoluble GlobulinsComplexDataDegenerative ArthritisDegenerative polyarthritisDevelopmentDevelopment and ResearchDiseaseDisease ProgressionDisorderDrug TargetingEcological impactEnvironmental FactorEnvironmental ImpactEnvironmental Risk FactorEventFN1FemurFibronectin 1FibronectinsFunctional RNAGWA studyGWASGene ExpressionGene LocalizationGene MappingGene Mapping GeneticsGene SplicingGene variantGenesGeneticGenetic DiversityGenetic VariationHourHumanIndividualIntracellular Communication and SignalingIsoformsJoint DiseasesJoint Prosthesis ImplantationKnee jointLETS ProteinsLarge External Transformation-Sensitive ProteinLinkage DisequilibriumLinkage MappingMapsMessenger RNAModern ManMolecularNatureNoncoding RNANontranslated RNAOntologyOperative ProceduresOperative Surgical ProceduresOpsonic GlycoproteinOpsonic alpha(2)SB GlycoproteinOsteoarthritisOsteoarthrosisOutcomePathogenesisPathway interactionsPatternPersonsPhenotypeProtein IsoformsQTLQuantitative Trait LociR & DR&DRNA SplicingReplacement ArthroplastyResearchRestRiskRisk FactorsRisk-associated variantRoleSignal TransductionSignal Transduction SystemsSignalingSpliced GenesSplicingStimulusSurgicalSurgical InterventionsSurgical ProcedureSystemTestingTissuesTotal Human and Non-Human Gene MappingTranscriptUntranslated RNAValidationVariantVariationWorkallelic variantalpha 2-Surface Binding Glycoproteinarthropathicarthropathiesarthropathybiological signal transductioncausal allelecausal genecausal mutationcausal variantcausative mutationcausative variantcell typecohortdegenerative joint diseasedevelopmentaldisease riskdisorder riskeffective therapyeffective treatmentenvironmental riskgene functiongenetic mappinggenetic variantgenome wide analysisgenome wide associationgenome wide association scangenome wide association studygenome wide studiesgenome-wide analysisgenome-wide identificationgenomewide association scangenomewide association studygenomic varianthuman diseasehypertrophic arthritisjoint arthroplastyjoint disorderjoint replacementmRNAnoncodingnovelpathwaypreventpreventingprotein functionresearch and developmentresponserisk allelerisk generisk genotyperisk locirisk locusrisk variantsocial rolesurgerytherapeutic agent developmenttherapeutic developmenttoolvalidationswhole genome association analysiswhole genome association study
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Full Description

Project Summary
Osteoarthritis (OA) is a prevalent joint disease that affects over 250 million individuals globally. Despite

extensive research, there are no known cures or therapies to prevent the disease's progression. Understanding

the complex molecular mechanisms responsible for its development and progression is crucial. Genome-wide

association studies (GWAS) have identified over 100 loci associated with OA disease risk; however, identifying

the putative causal variants and the affected genes has been challenging due to the non-coding nature of

most OA risk variants and the linkage disequilibrium between nearby variants.

Alternative mRNA splicing can alter transcript and protein function, and its dysregulation has been implicated

in a wide variety of human diseases. Previous studies have found differentially spliced transcripts in OA tissue,

suggesting it may play a role in OA pathogenesis; however, the genetic causes and OA-related impacts of

alternative splicing in human chondrocytes have not yet been explored.

The overall objective is to identify genetic variants that alter OA risk by influencing RNA splicing in either

resting or stimulated chondrocytes. The project will identify differential splicing events in chondrocytes

responding to cartilage matrix damage (Aim 1), identify genetic variants that influence splicing patterns (i.e.,

splicing QTLs) in both resting and activated chondrocytes (Aim 2), and integrate these results with OA GWAS

data to identify putative disease-relevant variants and genes, followed by experimental validation. (Aim 3). The

findings from this research will pave the way for developing new treatments and drug targets for OA.

Grant Number: 5F31AR083722-02
NIH Institute/Center: NIH

Principal Investigator: SEYOUN BYUN

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