Inpp5f regulates CNS axon regeneration through phosphoinositide metabolism
Inpp5f regulates CNS axon regeneration through phosphoinositide metabolism
批准号:
8596431
负责人:
Yixiao Zou
金额:
$2.83万
依托单位:
依托单位国家:
美国
项目类别:
财政年份:
2013
资助国家:
美国
项目状态:
已结题
起止时间:
2013-06-16 至 2015-06-15
关键词:
ActinsAcuteAdultAnimalsAxonBehavioral AssayBiochemistryBiologicalBiological AssayBiologyChestComplexCorticospinal TractsDataDevelopmentDorsalElectroporationEnvironmentFailureFiberFutureGenesGeneticGoalsGrowthGrowth ConesHealth Care CostsHumanImmunohistochemistryIn VitroInjuryKnock-outKnockout MiceKnowledgeLeadLesionLightLipidsLocomotor RecoveryMammalsMediatingMedicalMetabolismModelingMolecularMolecular CloningMusNatural regenerationNerve CrushNervous System PhysiologyNervous System TraumaNeuraxisNeurobiologyNeurologicNeuronsOperative Surgical ProceduresOptic NerveOpticsOutcomePI3K/AKTPathway interactionsPatientsPhosphatidylinositolsPhosphoric Monoester HydrolasesPublishingRNA InterferenceRecoveryRecovery of FunctionRegulationRelative (related person)RestRetinalRodent ModelRoleScientistScreening ResultSignal TransductionSirolimusSocietiesSpinal CordSpinal cord injurySynapsesTechniquesTestingTherapeuticTimeTrainingaxon growthaxon regenerationbasecareercentral nervous system injurycohortdepolymerizationdesignhuman FRAP1 proteinimprovedin vivoinjuredinorganic phosphateknock-downloss of functionmTOR Inhibitormouse modelnovelnovel therapeutic interventionoptic nerve regenerationphosphoinositide-3,4,5-triphosphatepolymerizationpreventpublic health relevanceresearch studyresponsespinal cord regenerationsynaptogenesistherapeutic developmenttherapeutic targettreatment strategy
中文摘要
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英文摘要
DESCRIPTION (provided by applicant): Traumatic injury to the Central Nervous System (CNS) damages long-distance projections axons and disconnects pre-synaptic and post-synaptic neurons. Patients often suffer from permanent neurological deficits because severed CNS axons do not regenerate spontaneously in humans or other mammals. Understanding biological mechanisms that limit CNS axon regeneration holds promise for development of safe and effective therapeutics to treat traumatic CNS injury patients. This proposal is designed to characterize the role of INPP5F, a putative suppressor of CNS axon regeneration, in limiting recovery after optic nerve crush and spinal cord dorsal hemisection injury in mice. The proposed experiments use standard techniques in mouse surgery, immunohistochemistry, biochemistry, molecular cloning, and mouse behavioral assays. In addition, the proposed experiments will demonstrate the utility of a novel technique, in vivo retinal electroporation in adult mice, in discovering and dissecting genetic regulation of CNS axon regeneration. Knowledge generated from this proposal will help the field to evaluate the potential of INPP5F as a candidate therapeutic target in traumatic CNS injury treatment. Training provided by completing experiments in this proposal will be pivotal to prepare a young scientist for an independent career in understanding the neurobiology of CNS injury.
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