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Optimization & Pre-clinical Testing of Implantable, In-Line High Density 32-Channel Connector

Optimization & Pre-clinical Testing of Implantable, In-Line High Density 32-Channel Connector
优化
批准号:
10600081
负责人:
Janet L Gbur
金额:
$0.0万
依托单位国家:
美国
项目类别:
财政年份:
2019
资助国家:
美国
项目状态:
已结题
起止时间:
2019-05-01 至 2024-09-30
关键词:
AccelerationAffectAmendmentAmputationAmputeesAnimal ModelAnimalsArtificial ImplantsChronicClinicalClinical ResearchClinical TrialsCustomDataDevelopmentDevicesDocumentationElectrodesEncapsulatedEnhancement TechnologyEquipment MalfunctionEsthesiaExperimental DesignsExposure toFPS-FES OncogeneFamily FelidaeFunctional disorderFundingFutureGenerationsGoalsHealthHip region structureHistologicImplantIn VitroInterventionKneeLaboratoriesLifeLocationMechanicsMedical DeviceMethodsMissionModelingMonitorMotorMuscleNerveNeurologic DeficitOperative Surgical ProceduresParaplegiaPartner in relationshipPathologicPatient CarePatientsPeripheralPeripheral NervesPeripheral Nervous System DiseasesPhantom LimbPhysical activityPostoperative PeriodPreclinical TestingProcessProsthesisPublishingQualifyingRehabilitation therapyResearchResearch PersonnelRunningSafetySalineScienceSensorySiteSolidSpinal cord injurySterilizationStrokeSystemTechniquesTechnologyTest ResultTestingTissuesUpdateUpper ExtremityValidationVariantVendorVeteransWalkingWorkbiomaterial compatibilityco-clinical trialcombatdensitydesigndevices for disabled personselectric impedanceexperimental studyfabricationfunctional electrical stimulationfunctional independencegait rehabilitationimplantable deviceimplantationimprovedin vitro testinginteroperabilitylimb amputationmilitary veteranminiaturizenanoscaleneuralneural prosthesisneurological rehabilitationneuroprosthesisnext generationpost strokeprocess optimizationprogramsrecruitsealsensory feedbacksensory systemsilicon carbide

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中文摘要
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英文摘要
The aim of this proposal is to optimize the design and materials and to perform necessary pre-clinical testing of next-generation miniature, high-density multi-channel connectors suitable for chronic implantation in a patient's body. These `HD Connectors' will be part of systems that are used, for example, to treat disorders of the peripheral nervous system. Maladies that could be treated in this way are problems with walking, such as after a stroke, and restoring natural sensations in a phantom limb after amputation, among other examples. In this study, we will use custom-microfabricated, solid-filled connector bodies to facilitate interconnections within and among long-lasting neural interfaces. Custom encapsulation and assembly methods for the miniature connectors, developed with pilot funding, will be optimized. Under this proposal, we will fabricate variants of new HD connectors for mating with existing micro-neurostimulator designs. We will also evaluate the long-term biocompatibility and bio-stability of these connectors through both benchtop experiments and animal surgical trials. The data collected will then facilitate our application to the FDA to do follow-on clinical studies of medical devices incorporating this HD connector technology. The relationship between the proposed effort and the patient care mission of the VA is that these improvements are expected to increase the interchangeability of components of implantable neurostimulation systems for rehabilitation that have high channel counts. This will improve the safety and inter-operability of new devices under development, such as implantable walking aids and devices for restoring natural sensation in amputated limbs.
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Optimization & Pre-clinical Testing of Implantable, In-Line High Density 32-Channel Connector
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