grant

Cellular Mechanisms and Therapeutic Potential of NR4A1 in Pain Resolution

Organization UNIVERSITY OF CINCINNATILocation CINCINNATI, UNITED STATESPosted 1 Jun 2024Deadline 31 May 2027
NIHUS FederalResearch GrantFY20242aR phosphoprotein I2ar peptide3-D3-Dimensional3DAccelerationAddressAffectiveAgonistAnalgesic AgentsAnalgesic DrugsAnalgesic PreparationAnalgesicsAnimal ModelAnimal Models and Related StudiesAnodynesAntibodiesAntinociceptive AgentsAntinociceptive DrugsApplications GrantsAutoregulationBack AcheBack PainBackacheBehavioral AssayBiochemicalBiologicalBiological MarkersBlood SerumBlood monocyteBody TissuesCell Communication and SignalingCell SignalingChronicCommon Rat StrainsDataDegenerative Neurologic DisordersDexamethasoneDiseaseDisorderElectrophysiologyElectrophysiology (science)Eta-1 proteinEta-1-Op proteinFDA approvedFlow CytofluorometriesFlow CytofluorometryFlow CytometryFlow MicrofluorimetryFlow MicrofluorometryFunding OpportunitiesFutureGFRP1GrantGrant ProposalsGrowth Factor Response Protein 1Growth Factor-Inducible Nuclear Protein N10HEAL InitiativeHealthHelping End Addiction Long-termHelping End Addiction LongtermHelping to End Addiction Long-termHelping to End Addiction LongtermHomeostasisHumanIn VitroIndividualInflammationInflammatoryInfumorphIntracellular Communication and SignalingKO miceKadianKnock-outKnock-out MiceKnockoutKnockout MiceLaboratoriesLow Back AcheLow Back PainLow BackacheLumbagoMGC9485MS ContinMSirMacrophageMarrow monocyteMeasuresMediatorMiceMice MammalsModelingModern ManMorphiaMorphineMurineMusN10NAK-1NAK1NGFI-B proteinNGFIBNP10NR4A1NR4A1 geneNUR77Nerve CellsNerve UnitNervous System Degenerative DiseasesNeural CellNeural Degenerative DiseasesNeural degenerative DisordersNeurocyteNeurodegenerative DiseasesNeurodegenerative DisordersNeuroimmuneNeuroimmune MechanismsNeuroimmune ProcessesNeuroimmunomodulationNeurologic Degenerative ConditionsNeuronsNeuropathyNeurophysiology / ElectrophysiologyNr4a1 proteinNuclear Hormone Receptor TR3Nuclear Receptor Subfamily 4, Group A, Member 1Null MouseOramorphOramorph SROrphan Nuclear Receptor HMROtomyPainPain ControlPain TherapyPain managementPainfulPeripheralPhasePhysiological HomeostasisPlayPost-OperativePost-operative PainPostoperativePostoperative PainPostoperative PeriodProtein SecretionRadiculopathyRatRats MammalsRattusRecombinant ProteinsRecoveryReflexReflex actionReporterResolutionRewardsRoleRoxanolSerumSignal TransductionSignal Transduction SystemsSignalingSkin TissueSocietiesStatex SRSteroid Receptor TR3Surgical incisionsTR3TestingTherapeuticTissuesTransgenic MiceValidationVisualizationabuse liabilityabuse potentialbio-markersbiologicbiologic markerbiological signal transductionbiomarkerbone sialoprotein 1bone sialoprotein Ichronic painchronic pain controlchronic pain interventionchronic pain managementchronic pain therapychronic pain treatmentconditional knock-outconditional knockoutcutaneous tissuecytokinedegenerative diseases of motor and sensory neuronsdegenerative neurological diseasesearly T-lympocyte activation-1 proteinelectrophysiologicalexperimentexperimental researchexperimental studyexperimentsflow cytophotometryhigh riskhuman tissueimprovedin vivoincisionmodel of animalmonocytemouse modelmurine modelnerve growth factor-inducible Bneurodegenerative illnessneuronalneuronal excitabilityneuropathicnew markernon-medical opioid usenonmedical opioid usenovelnovel biomarkernovel markeropiate abuseopiate crisisopiate drug abuseopiate misuseopioid abuseopioid crisisopioid drug abuseopioid epidemicopioid misuseorphan nuclear receptor NGFI-Borphan nuclear receptor NR4A1osteopontinpain after surgerypain killerpain medicationpain modelpain relieverpain treatmentpainkillerpharmacologicpost-operative recoverypost-surgical painpostoperative recoverypostsurgical painpreventpreventingrecovery after surgeryrecovery following surgeryresolutionsresponserestorationsecreted phosphoprotein 1sialoprotein 1small moleculesocial roletherapeutic targetthree dimensionaltranslational opportunitiestranslational potentialtreat chronic painvalidation studiesvalidations
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Full Description

ABSTRACT
Chronic pain and opioid misuse are two intertwined health crises in the US. We know more about how chronic

pain develops than how it naturally resolves. Our hypothesis is that the disruption of endogenous pro-resolution

mechanisms causes chronic pain, and targeting these mechanisms can lead to more effective and safe pain

treatment. Our grant proposal entitled "Cellular Mechanisms and Therapeutic Potential of NR4A1 in Pain

Resolution" aims to investigate the nuclear receptor subfamily 4, group A, member 1 (NR4A1) as an endogenous

mediator for pain resolution. Evidence suggests that NR4A1 limits inflammation and restores homeostasis in

various diseases. However, its role in pain is unknown. In our preliminary studies, we discovered that NR4A1 is

expressed in macrophages and increases during the resolution phase of in a mouse model of postoperative

pain. Furthermore, we demonstrated that lack of NR4A1 expression results in chronic postoperative pain,

whereas its activation accelerates recovery from postoperative pain. Thus, we hypothesize that NR4A1 in

monocytes/macrophages is essential for pain resolution and limits chronic pain, and as a peripheral and

endogenous mechanism may offer a more effective and safer therapeutic target for the treatment of pain. We

have three specific aims to test this hypothesis. Specific Aim 1 will test whether NR4A1 in macrophages controls

the resolution of inflammation and postoperative pain induced by plantar incision in mice. Specific Aim2 will test

the hypothesis that natural and FDA-approved NR4A1 agonists promote pain resolution without major liabilities.

Specific Aim3 aims to test whether NR4A1 regulates the release of the secreted protein 1 (SPP1), a potential

biological and functional biomarker for NR4A1 target engagement and pain resolution. Successfully achieving

our specific aims is highly significant for the HEAL initiative because it will reveal new endogenous mechanisms

of pain resolution and provide a translational validation of NR4A1 as a new, non-addictive, therapeutic target for

two pain conditions at high risk of opioid abuse: postoperative pain and low back pain. Additionally, we will reveal

SPP1 as a novel biological and functional biomarker for future testing and improve of multiple NR4A1 agonists

aiming to prevent and treat chronic pain.

Grant Number: 1RF1NS136108-01
NIH Institute/Center: NIH

Principal Investigator: Temugin Berta

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