grant

Aging and Innate immune system resilience in TBI

Organization JAMES A. HALEY VA MEDICAL CENTERLocation TAMPA, UNITED STATESPosted 1 Apr 2022Deadline 31 Mar 2027
VANIHUS FederalResearch GrantFY2025Acquired brain injuryAddressAgeAgingAmentiaAnti-InflammatoriesAnti-Inflammatory AgentsAnti-inflammatoryB cell differentiation factorB cell stimulating factor 2B-Cell Differentiation FactorB-Cell Differentiation Factor-2B-Cell Stimulatory Factor-2BCDFBSF-2BSF2BehaviorBiodistributionBiological FunctionBiological ProcessBlood monocyteBrain InjuriesBrain TraumaCell BodyCell IsolationCell LocomotionCell MigrationCell MovementCell SegregationCell SeparationCell Separation TechnologyCell secretionCellsCellular Immune FunctionCellular MigrationCellular MotilityCellular SecretionChronicClinicDataDementiaDoseEffectiveness of InterventionsElderlyExperimental TherapiesFat progenitor cellFat stem cellFlow CytofluorometriesFlow CytofluorometryFlow CytometryFlow MicrofluorimetryFlow MicrofluorometryFunctional RNAGoalsHPGFHepatocyte-Stimulating FactorHortega cellHourHumanHybridoma Growth FactorIFN-beta 2IFNB2IL-6IL6 ProteinImmune memoryImmune systemImmunoglobulin Enhancer-Binding ProteinImmunohistochemistryImmunohistochemistry Cell/TissueImmunohistochemistry Staining MethodImmunologic MemoryImmunological MemoryImmunomodulationInflammationInflammatoryInflammatory InfiltrateInjuryInnate Immune ResponseInnate Immune SystemInterleukin-6Investigational TherapiesInvestigational TreatmentsIpsilateralKnowledgeMALAT1MALAT1 geneMGI-2Marrow monocyteMass Photometry/Spectrum AnalysisMass SpectrometryMass SpectroscopyMass SpectrumMass Spectrum AnalysesMass Spectrum AnalysisMeasuresMemory DeficitMemory impairmentMethodsMiceMice MammalsMicrogliaModelingModern ManMotorMurineMusMyeloid Differentiation-Inducing ProteinNF-kBNF-kappa BNF-kappaBNFKBNeurologicNeurologicalNon-Polyadenylated RNANoncoding RNANontranslated RNANuclear Factor kappa BNuclear Transcription Factor NF-kBOutcomePatients with traumatic brain injuryPeripheralPersonsPhagocytosisPhenotypePlasmacytoma Growth FactorPlayPopulationPredispositionProteomeProteomicsPublicationsRNARNA Gene ProductsRegenerative MedicineReportingRibonucleic AcidRodentRodentiaRodents MammalsRoleScientific PublicationSeveritiesSusceptibilityTBI PatientsTauopathiesTherapeuticTherapeutic InterventionTranscription Factor NF-kBTranslatingTraumatic Brain InjuryUntranslated RNAVesicleVulnerable PopulationsWorkadipocyte progenitorsadipocyte stem celladipocyte-derived stem celladipose derived stem celladipose progenitoradipose stem celladipose tissue derived stem celladipose tissue stem cellsadvanced ageagedaged brainaged groupaged groupsaged individualaged individualsaged miceaged mouseaged peopleaged personaged personsaged populationaged populationsaged rodentaged rodentsagesaging brainaging populationanamnestic reactionbrain damagebrain-injuredcell motilitycell sortingcell typecognitive functioncontrolled cortical impactelderly miceelderly rodentexosomeexperimental therapeutic agentsexperimental therapeuticsfat derived stem cellflow cytophotometrygeriatricgitter cellhigh riskimmune functionimmune modulationimmune regulationimmunologic reactivity controlimmunomodulatoryimmunoregulationimmunoregulatoryimprovedin vivoinflammation markerinflammatory markerinjuriesinjury responseinterferon beta 2intervention therapykappa B Enhancer Binding Proteinmemory dysfunctionmesogliametastasis-associated lung adenocarcinoma transcript 1microglial cellmicrogliocytemilitary veteranmonocytenano particlenano-sized particlenanoparticlenanosized particleneurogenesisneuropathologic tauneuropathological taunoncodingnovelnuclear factor kappa betaold miceold rodentperivascular glial cellpopulation agingregeneration functionregenerative functionregenerative functionalityrepairrepairedresilienceresilientresponseresponse to injuryresponse to therapyresponse to treatmentsecondary immune responsesenior citizensocial roletargeted drug therapytargeted drug treatmentstargeted therapeutictargeted therapeutic agentstargeted therapytargeted treatmenttau associated neurodegenerationtau associated neurodegenerative processtau driven neurodegenerationtau induced degenerationtau induced neurodegenerationtau mediated neurodegenerationtau neurodegenerative diseasetau neuropathologytau pathologytau pathophysiologytau proteinopathytau related neurodegenerationtau-induced pathologytauopathic neurodegenerative disordertauopathytherapeutic responsetherapy optimizationtherapy responsetraumatic brain damagetraumatic brain injury patientstreatment optimizationtreatment responsetreatment responsivenessveteran populationvulnerable groupvulnerable individualvulnerable people
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Full Description

Traumatic brain injury (TBI) is a leading cause of neurological complications including chronic memory
deficits such as dementia. Older TBI patients are at a higher risk for worsening of outcomes than their younger

counterparts (Chou et al., 2018; Early et al., 2020; Morganti et al., 2016; Ritzel et al., 2019), despite the higher

risk and worse outcomes, there are no targeted therapies targeted for this susceptible population, and only a

few publications looking at therapeutics for this vulnerable population. This is compounded by data suggesting

that older subjects may show less responsiveness to therapeutic interventions (Tajiri et al., 2014) which may

indicate that aged individuals will require optimized treatments that differ from young. We have identified a

therapy exosomes from human adipose derived stem cells (hASC exo) (Patel et al., 2018) that have a

therapeutic window up to at least 48 hours post injury in young rodents (see preliminary data). The extended

therapeutic window of hASC exo would be a major advancement over most current experimental therapeutics,

with a treatment window of only hours and not days. To move this promising therapy forward we must address

critical gaps in our knowledge regarding hASC exo’s mechanism of action, and effectiveness of the

intervention in diverse age populations. Our hypothesis is that a major action of these hASC exosomes is to

modulate the secondary immune response to injury by interacting with the immune system. It is already well

established that in aged rodents aged there is an exaggerated response of innate immune cells to the injury.

Our preliminary data demonstrates the efficacy of hASC exo to improve behavior and reduce inflammatory

markers following CCI is modified in aged rodents . Thus, an unanswered question is how aging impacts

the response to treatment, and specifically treatment with hASC exosomes.

Grant Number: 5I01BX005708-04
NIH Institute/Center: VA

Principal Investigator: PAULA BICKFORD

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