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2007 NIH Director's Pioneer Award Program (DP1)

2007 NIH Director's Pioneer Award Program (DP1)
2007 NIH 院长先锋奖计划 (DP1)
批准号:
7341368
负责人:
RUSTEM F ISMAGILOV
金额:
$76.75万
依托单位:
依托单位国家:
美国
项目类别:
财政年份:
2007
资助国家:
美国
项目状态:
已结题
起止时间:
2007-09-30 至 2012-07-31
关键词:
AchievementAddressAffectAgeAgingAging-Related ProcessAirAlzheimer&aposs DiseaseAnimal ModelAntibodiesAreaAwardAxonBehaviorBehavioralBindingBiochemicalBiochemical ReactionBiologicalBiological AssayBiological Neural NetworksBiologyBiomedical ResearchBlood ClotBlood coagulationBrainCaenorhabditis elegansCell DeathCellsChemical StimulationChemicalsChemistryChicagoChimeric ProteinsChromosome PairingCoagulation ProcessCognitiveCommunitiesCompatibleComplexConditionCrystallizationCultured CellsDataDevelopmentDevicesDiagnosisDiagnosticDiffusionDisciplineDiseaseDisease ProgressionDisease modelDrosophila genusElectrodesElementsEmbryoEmbryonic DevelopmentEndopeptidasesEngineeringEnvironmentEquilibriumEventExhibitsFellowshipField Flow FractionationFigs - dietaryFire - disastersFluorescenceFoundationsGenerationsGenesGenetic PolymorphismGenomicsGoalsGrantGrowthHandHeat-Shock ResponseHemostatic functionHumanHuntington DiseaseIn VitroIndividualInjection of therapeutic agentInstitutionInsulinInvestigationIon ChannelIonsKineticsKnowledgeLaboratoriesLeadLearningLifeLinkLipidsLiquid substanceLongevityMathematicsMeasuresMechanical StimulationMediatingMembraneMembrane LipidsMembrane ProteinsMemoryMetalsMethodsMicrofluidic MicrochipsMicrofluidicsMiniaturizationModelingMolecularMolecular ChaperonesMonitorMorphologyNatureNerve DegenerationNeurodegenerative DisordersNeuronsNeurosciencesNon-Insulin-Dependent Diabetes MellitusNumbersOrganismOxidantsPacemakersParalysedParkinson DiseasePathway interactionsPatternPeptide HydrolasesPharmaceutical PreparationsPharmacologic SubstancePhenotypePhosphoric Monoester HydrolasesPhosphotransferasesPhysicsPhysiologicalPlasmaPlug-inPositioning AttributePreclinical Drug EvaluationPrionsProbabilityProceduresProcessProteinsProteolysisPublicationsRNA InterferenceRangeRateReactionReactive Oxygen SpeciesReagentRecording of previous eventsRelative (related person)ResearchResearch PersonnelResearch Project GrantsResolutionResourcesRestRiskSamplingScientistScreening procedureSignal PathwaySliceSmell PerceptionSocietiesSolutionsSpatial DistributionStagingStandards of Weights and MeasuresStochastic ProcessesStreamStressStructureSurfaceSymptomsSynapsesSystemTechniquesTechnologyTechnology TransferTemperatureTestingThioflavin TThromboplastinTimeTissue ModelTissuesTouch sensationToxic effectUnited States National Institutes of HealthVariantWaterWorkage effectagedanimal tissuebasebeta pleated sheetcareercytotoxicitydata acquisitiondaydesigndesireexperienceextracellularhuman DICER1 proteinhuman diseasein vitro Assayin vivoinnovationinsightinterdisciplinary approachinterestinterfacialknowledge basemillisecondmonomermutantneutrophilnovel diagnosticsoptical imagingoxidationpreventprofessorprogramsprotein aggregateprotein aggregationprotein misfoldingprototypereceptorresearch studyresponsesingle moleculesizesmall moleculespatiotemporaltechnology developmenttooltool development

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英文摘要
This proposal describes a multi-disciplinary research program that aims to develop, validate, and disseminate microfluidic technologies for quantitative studies of protein aggregation and aging. Protein aggregation is associated with aging and with a number of human diseases that affect both quality and duration of life. Many fundamental aspects of protein aggregation remain elusive, including connections between protein aggregation and toxicity, and the connection between protein aggregation and initiation and progression of diseases. Microfluidic platforms will be developed to understand these complex processes from both bottom-up and top-down perspectives. Bottom-up, new droplet-based microfluidic systems will be developed to characterize quantitatively the connection between protein aggregation and toxicity in vitro. This system will allow the reproducible real-time generation, manipulation, and characterization of aggregates for in vitro and in vivo toxicity screens. Multidimensional statistical analysis of toxicity patterns obtained in these devices may elucidate the connection between protein aggregation and toxicity, clarify the mechanism of action of existing drug candidates that target aggregation, and accelerate development of new drugs and drug cocktails. Top-down, microfluidic technologies will be developed to induce and monitor aggregation in vivo with high spatiotemporal resolution, and to observe the effects of aging, physiological state, neuronal activity, and presence of drug candidates on the initiation and progression of protein aggregation diseases. These two technologies will be used together to understand protein aggregation and aging, and may lead to new hypothesis and molecules for controlling these processes.
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Digital SlipChip Technology for POC and Resource-Limited Viral Load Measurements
  • 批准号:
    8064597
  • 项目类别:
  • 资助金额:
    $33.35万
  • 财政年份:
    2011
  • 负责人:
    RUSTEM F ISMAGILOV
  • 依托单位:
Digital SlipChip Technology for POC and Resource-Limited Viral Load Measurements
Digital SlipChip Technology for POC and Resource-Limited Viral Load Measurements
Digital SlipChip Technology for POC and Resource-Limited Viral Load Measurements
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