grant

Mitochondrial-targeting Exosomes for Neuroinflammation

Organization MICHIGAN TECHNOLOGICAL UNIVERSITYLocation HOUGHTON, UNITED STATESPosted 1 Aug 2024Deadline 31 Jul 2027
NIHUS FederalResearch GrantFY2024AD dementiaAcquired brain injuryAddressAffectAlzheimer Type DementiaAlzheimer disease dementiaAlzheimer sclerosisAlzheimer syndromeAlzheimer'sAlzheimer's DiseaseAlzheimers DementiaAmyotrophic Lateral SclerosisAmyotrophic Lateral Sclerosis Motor Neuron DiseaseAnti-InflammatoriesAnti-Inflammatory AgentsAnti-inflammatoryAreaBiomedical ResearchBlood - brain barrier anatomyBlood-Brain BarrierBrainBrain InjuriesBrain Nervous SystemCNS Nervous SystemCell BodyCell FunctionCell PhysiologyCell ProcessCell to Cell Communication and SignalingCell-Cell SignalingCellsCellular FunctionCellular PhysiologyCellular ProcessCellular biologyCentral Nervous SystemCommon Rat StrainsDataDiseaseDisorderDoseDrugsELISAEducationEducational aspectsEffectivenessEncephalonEnsureEnzyme-Linked Immunosorbent AssayFoundationsFutureGehrig's DiseaseGene ExpressionGenesGoalsHemato-Encephalic BarrierHumanImmunoblottingImmunofluorescenceImmunofluorescence ImmunologicImmunohistochemistryImmunohistochemistry Cell/TissueImmunohistochemistry Staining MethodInflammationInflammation MediatorsInflammatoryInflammatory ResponseKnowledgeLigandsLinkLou Gehrig DiseaseMeasuresMedicationMessenger RNAMethodsMicro RNAMicroRNAsMitochondriaModern ManMolecular Biology TechniquesMonitorNerve CellsNerve UnitNervous System DiseasesNervous System DisorderNeural CellNeuraxisNeurocyteNeurologic DisordersNeurological DisordersNeuronsOxidative StressParalysis AgitansParkinsonParkinson DiseasePeripheralPharmaceutical PreparationsPhasePlayPopulationPrimary ParkinsonismPrimary Senile Degenerative DementiaProcessProductionPropertyQOLQuality of lifeRatRats MammalsRattusResearchResolutionRhodamineRodent ModelRoleSafetyScientistStudentsSubcellular ProcessSurfaceTherapeuticTherapeutic EffectTimeToxic effectToxicitiesTrainingTreatment EfficacyTreatment PeriodVesicleWestern BlottingWestern ImmunoblottingWorkassess effectivenessbloodbrain barrierbrain cellbrain damagebrain-injuredcell biologycell typecytokinedesigndesigningdetermine effectivenessdosagedrug/agenteffective therapyeffective treatmenteffectiveness assessmenteffectiveness evaluationeffectiveness studyengineered exosomesenzyme linked immunoassayevaluate effectivenessexamine effectivenessexosomeexperimentexperimental researchexperimental studyexperimentsextracellular vesiclesglial activationglial cell activationimprovedinflammatory mediatorinnovateinnovationinnovativeinsightintercellular communicationintervention efficacymRNAmiRNAmiRNAsmitochondrialmitochondrial dysfunctionmultidisciplinaryneural inflammationneuro-vascular unitneuroinflammationneuroinflammatoryneurological diseaseneuronalneuroprotectionneuroprotectiveneurovascular unitpre-clinical studypreclinical studyprimary degenerative dementiaprimary outcomeprotein blottingresolutionsresponsesenile dementia of the Alzheimer typeside effectskillssocial rolestudent trainingtargeted drug therapytargeted drug treatmentstargeted therapeutictargeted therapeutic agentstargeted therapytargeted treatmenttherapeutic efficacytherapy efficacytreatment daystreatment duration
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Full Description

Project Summary:
Neuroinflammation is a condition that can cause damage to the brain and lead to diseases like

Alzheimer's, Parkinson's, and amyotrophic lateral sclerosis. It is caused by inflammation in the central nervous

system (CNS) and is linked to issues with mitochondria. Unfortunately, treating neuroinflammation is challenging

due to the blood-brain barrier (BBB), which makes it difficult to deliver drugs to affected areas and target specific

neuronal populations. Additionally, drugs that work for peripheral inflammation may not be as effective in the

CNS due to its unique microenvironment and cellular interactions. Our team is exploring ways to reduce

neuroinflammation using exosomes, which are small vesicles that can deliver molecules to recipient cells. We

plan to use exosomes to deliver anti-inflammatory agents directly to the CNS, creating mitochondrial-targeting

exosomes (MTEs) that carry anti-inflammatory microRNA (MTE-miRNA) to treat neuroinflammation. This method

is expected to restore mitochondrial function, reduce oxidative stress, and modulate neuroinflammatory

responses. MTE-miRNAs have the potential to revolutionize the treatment of neuroinflammatory disorders. To

achieve this, we will prepare and evaluate MTEs containing microRNAs with anti-inflammatory properties, assess

the impact of different dosages on reducing neuroinflammation in rats, and evaluate the effectiveness of MTE-

miRNA treatments over different periods. Our primary outcomes are to improve mitochondrial function and inhibit

inflammatory mediator production levels in rats with neuroinflammation. We will also gather crucial data on

potential side effects and an appropriate treatment duration that balances efficacy and safety, informing future

human studies. Another focus of this project is to train students extensively on exosome-based therapy and its

potential use in treating neuroinflammation. Our educational goal is to equip students with the necessary

knowledge and skills to make valuable contributions to biomedical research, and potentially create new and

effective treatments for neuroinflammatory disorders.

Grant Number: 1R15EB035866-01
NIH Institute/Center: NIH

Principal Investigator: Lanrong Bi

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