Selective neuronal silencing to study cognitive decline in Alzheimer's disease
选择性神经元沉默研究阿尔茨海默病的认知能力下降
基本信息
- 批准号:7429627
- 负责人:
- 金额:$ 22.2万
- 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
- 起止时间:2007-09-30 至 2008-07-31
- 项目状态:已结题
- 来源:
- 关键词:3&apos Splice SiteActinsAction PotentialsAcuteAddressAdoptedAdultAdverse effectsAffectAgeAgonistAlzheimer&aposs DiseaseAmygdaloid structureAmyloidAmyloid beta-Protein PrecursorAmyloid depositionAmyloidosisAnimal BehaviorAnimal ModelAnimalsAntimitotic AgentsAnxietyAppearanceAreaAstrocytesAtlasesAxonBacterial Artificial ChromosomesBehaviorBehavioralBindingBiochemicalBiological AssayBirthBrainBreedingBromodeoxyuridineCaenorhabditis elegansCell DeathCell LineCell NucleusCell divisionCellsCephalicCessation of lifeCharacteristicsChemicalsCherry - dietaryChloride ChannelsCholinergic AgentsChromosome PairingChromosome abnormalityClassClinicalCodeCognitiveCollaborationsCommunitiesComplementary DNAComputer information processingConditionCorpus striatum structureCultured CellsCytoplasmCytoplasmic GranulesCytostaticsDNA Sequence RearrangementDataDatabasesDaughterDementiaDepositionDepthDevelopmentDiagnosisDisadvantagedDiscriminationDiseaseDistantDoseDrug usageEarly InterventionEctopic ExpressionEducational process of instructingElectrophysiology (science)ElementsEmbryoEmbryonic DevelopmentEmotionalEmotionsEngineeringEnhancersEnsureEquilibriumEstrogen AnaloguesEstrogen ReceptorsEstrogensExcisionFOS geneFacility Construction Funding CategoryFailureFamily PicornaviridaeFiberFire - disastersFrightFunctional disorderFutureG-Protein-Coupled ReceptorsGanciclovirGene ExpressionGenesGeneticGenetic RecombinationGenetic TranscriptionGenomic SegmentGenomicsGlutamatesGoalsHarvestHeartHippocampus (Brain)HourHumanImageImmune responseImmunohistochemistryImpaired cognitionImpairmentIn VitroIndiumIndividualInflammationInflammatory ResponseInheritedInjection of therapeutic agentInjuryIntermediate FilamentsInternal Ribosome Entry SiteInterneuronsInterventionIntronsInvestmentsIon ChannelIvermectinKnowledgeLabelLaboratoriesLacZ GenesLateralLearningLeftLesionLifeLigandsLightLinkLocalizedLocationLong-Term PotentiationMammalian CellMediatingMembrane PotentialsMemoryMemory impairmentMessenger RNAMethodsMicrotubule-Associated ProteinsMindMinorMitoticModelingMorphologyMusMuscimolMutant Strains MiceMyocardial InfarctionNamesNatureNeomycinNeuroanatomyNeurobehavioral ManifestationsNeurobiologyNeuroblastomaNeurodegenerative DisordersNeurologicNeurologistNeuronal DysfunctionNeuronsNeurosciencesNewborn InfantNucleic Acid Regulatory SequencesNumbersOlder PopulationOpen Reading FramesOperative Surgical ProceduresOutcomeOutputParkinson DiseasePartner in relationshipPathogenesisPathologyPathway interactionsPatientsPatternPeptidesPerforant PathwayPerformancePeripheralPersonal CommunicationPersonal SatisfactionPharmaceutical PreparationsPharmacologic SubstancePharmacological TreatmentPhasePlacementPlaguePliabilityPopulationPopulation StudyPositioning AttributePostdoctoral FellowPreparationPreventionProcessProductionPropertyProtein EngineeringProtein OverexpressionProtein SProteinsPublicationsPublishingQualifyingRNA SplicingRangeRattusReceptor GeneRecoveryRegulatory ElementReporterReportingReproducibilityResearchResidual stateResolutionResourcesRewardsRodentRoleRouteScienceSeizuresSenile PlaquesSiblingsSignal TransductionSiteSleepSliceSolutionsSouthern BlottingSpecific qualifier valueSpecificityStagingStandards of Weights and MeasuresStructureStudentsStudy modelsSymptomsSynapsesSystemTamoxifenTarget PopulationsTechniquesTechnologyTestingTetanus Helper PeptideTetanus ToxinTetracyclineTetracyclinesTherapeuticTherapeutic InterventionThinkingThymidine KinaseTimeToxinTrainingTranscriptTranscriptional ActivationTransfectionTransgenesTransgenic AnimalsTransgenic MiceTransgenic ModelTransgenic OrganismsTreatment ProtocolsUpper armVariantVeinsVertebral columnVesicleViralViral VectorWeekWoodchuck Hepatitis B VirusWorkZebrafishamyloid pathologybasal forebrainbasebehavior testblastocystblastomere structurebody systemcholinergiccholinergic neuronclinically relevantcognitive functionconditioned feardaughter celldaydentate gyrusdesigndesiredisease characteristicdrug-sensitiveembryonic stem cellentorhinal cortexexperiencefeedingfunctional restorationglutamate-gated chloride channelgranule cellhealthy aginghippocampal pyramidal neuronhomologous recombinationhuman diseaseimprovedin vivoinnovationinsightinterestinward rectifier potassium channelirradiationkillingslateral ventricleligand gated channellink proteinmature animalmemory retentionmigrationmorris water mazemossy fibermouse modelnerve stem cellnestin proteinneuroblastneurogenesisneuropathologyneurotransmitter releasenewsnext generationnovelpeptide Apreventprogenitorpromoterprotein expressionreceptorreceptor expressionrecombinaserelating to nervous systemresearch studyresponserestorationselective expressionskillsstem cellsstoichiometrysuccesstooltransgene expressionvector
项目摘要
Our understanding of neurodegenerative diseases is currently hindered by lack of a firm
neurobiological link between the patient's symptoms and the underlying neuropathology. To
advance, we must identify not only key biochemical changes, but also how these changes alter
the function of specific circuits to cause neurological symptoms. I seek to understand how
impairment of particular circuits initiates early symptoms of Alzheimer's disease (AD), and how
addition of further dysfunction leads to the disease's ultimate decline. I will apply a new method
of selective neuronal silencing in transgenic mice to examine the behavioral impact of
inactivating neuronal circuits damaged in AD. My postdoctoral laboratory has developed a
novel chloride channel that responds specifically to ivermectin by producing hyperpolarization
that results in selective, reversible suppression of neuronal activity. I will use my expertise in
transgenic technology to create a mouse in which the ivermectin channel is conditionally
expressed under control of Cre recombinase. Mating this mouse to animals expressing Cre in
selected neuronal populations will allow those cells to be silenced with systemic ivermectin. My
goal is to explore the function of adult-born hippocampal neurons, as this population is severely
diminished in mouse models for AD. I will examine the role of these cells in learning and
memory by selectively silencing them at critical times in the acquisition, consolidation, and recall
of new information. Additional studies will address the effect of silencing on the migration,
morphology, and survival of these adult-born cells. My long-term plans are to examine the
behavioral impact of silencing other circuits damaged later in the course of disease to
understand how diminished activity in multiple domains results in the progressive cognitive
decline of AD. In the process, I will generate a transgenic mouse for selective neuronal
silencing that will be broadly useful to the neuroscience community.
我们对神经退行性疾病的理解目前由于缺乏公司而受到阻碍
患者症状与潜在神经病理学之间的神经生物学联系。到
进步,我们不仅必须确定关键的生化变化,而且还必须确定这些变化的变化
特定电路引起神经系统症状的功能。我试图了解如何
特定电路的损害会引起阿尔茨海默氏病(AD)的早期症状,以及如何
进一步的功能障碍会导致该疾病的最终下降。我将应用一种新方法
转基因小鼠中选择性神经元沉默,以检查
在AD中损坏的神经元电路失活。我的博士后实验室已经开发了
新型氯化物通道通过产生超极化对伊维菌素有反应
这会导致选择性,可逆性抑制神经元活性。我将使用我的专业知识
创建鼠标的转基因技术,其中伊维菌素通道是有条件的
在控制CRE重组酶的控制下表达。将此鼠标与表达Cre的动物交配
选定的神经元种群将使这些细胞用全身性伊维菌素沉默。我的
目标是探索成人出生的海马神经元的功能,因为该人群严重
在AD的鼠标模型中减少。我将研究这些细胞在学习和
通过在收购,合并和召回的关键时期选择性沉默来记忆来记忆
新信息。其他研究将解决沉默对迁移的影响,
这些成年出生细胞的形态和存活。我的长期计划是检查
在疾病的后期损坏的其他电路对沉默的行为影响
了解多个领域的活动如何减少导致渐进的认知
AD的下降。在此过程中,我将生成一种用于选择性神经元的转基因小鼠
沉默对神经科学社区至关重要。
项目成果
期刊论文数量(0)
专著数量(0)
科研奖励数量(0)
会议论文数量(0)
专利数量(0)
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JOANNA L JANKOWSKY其他文献
JOANNA L JANKOWSKY的其他文献
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{{ truncateString('JOANNA L JANKOWSKY', 18)}}的其他基金
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10172237 - 财政年份:2021
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内嗅海马回路的可塑性是 AD 的一个弱点
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10078733 - 财政年份:2017
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9438665 - 财政年份:2017
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