3D Holographic Guidance, Navigation, and Control (3D GN&C) for Endovascular Aortic Repair (EVAR)
3D Holographic Guidance, Navigation, and Control (3D GN&C) for Endovascular Aortic Repair (EVAR)
批准号:
10001634
负责人:
Vikash Goel
金额:
$80.68万
依托单位国家:
美国
项目类别:
财政年份:
2018
资助国家:
美国
项目状态:
已结题
起止时间:
2018-02-15 至 2024-08-31
关键词:
3-Dimensional3D PrintAgreementAnatomyAneurysmAngiographyAortaAortic AneurysmArteriesAugmented RealityBlood VesselsCardiacCaregiversClinicClinicalClinical ResearchComplexContrast MediaDataDepth PerceptionDevelopmentDevicesDiseaseDoseEconomicsEffectivenessElectromagneticsElementsEngineeringEvaluationExposure toFamily suidaeFeasibility StudiesFeedbackFluoroscopyFocus GroupsFundingFutureGeneral HospitalsGoalsHealth BenefitHealthcareHealthcare SystemsInstitutional Review BoardsInterventionInvestigationLabelLow Dose RadiationManufacturer NameMassachusettsMedical centerMethodsModelingModernizationMonitorNeckNorth CarolinaNotificationOperative Surgical ProceduresOutcomePatientsPerformancePhasePositioning AttributePostoperative ComplicationsPreparationProceduresProtocols documentationQuality of CareQuestionnairesRadiationRadiation Dose UnitRecording of previous eventsResearchRoentgen RaysSafetyScallopSmall Business Innovation Research GrantSmall Business Technology Transfer ResearchSpecific qualifier valueStentsSurgeonSurveysSystemTechnologyTestingTimeTranslationsUniversitiesVendorVisualizationbasebench to bedsidecommercializationcostdesigndigitalexperiencefirst-in-humanhead mounted displayhealth care qualityhologramholographic visualization human studyimprovedinnovationmigrationminimally invasivemixed realitymortalitymultidisciplinarynephrotoxicitypatient populationperioperative morbiditypre-clinicalpreventprototyperepairedsensorthree-dimensional visualizationusability
中文摘要
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英文摘要
Project Summary/Abstract
This SBIR Phase II project will advance the commercialization of our 3D guidance, navigation, and control (3D-
GNC) system to improve stent-graft (SG) deployment during endovascular aortic aneurysm repair (EVAR) by
overcoming limitations of 2D x-ray fluoroscopy (“fluoro”). 3D-GNC will increase safety, effectiveness, and
efficiency as a result of better visualization, particularly when deploying SGs within hostile aortic anatomy, with
challenges such as short and/or angled landing zones. True 3D (360°), radiation-free GNC that is not limited
by a 2D display will decrease radiation to patients and OR staff, reduce procedure time, and enable accurate
SG positioning leading to fewer postoperative complications or need for re-intervention. Converting this
innovation to a product will expand the patient population eligible for EVAR, particularly those with highly
unfavorable aortic anatomy, as the demand and utilization of the minimally-invasive approach continues to rise.
In Phase I, a 3D-GNC research prototype was developed and integrated with our Intra-Operative Positioning
System (IOPS). The Guidance subsystem digitally augments the patient-specific aortic model to the surgical
field using a modern, self-contained augmented/mixed reality head mounted display. Navigation accurately
tracks in real-time the 3D position and orientation (P&O) of a sensor-equipped wire (IOPS-SG1 Wire) for
projecting a SG hologram in spatial registration with the aorta hologram. Our holographic Control panel
suggests P&O maneuvers as the delivery system approaches the aneurysm's proximal neck landing zone.
Phase I results met all acceptance criteria for Specific Aims in terms of 1) usability in bench testing by a focus
group of 10 surgeons, 2) accuracy for SG delivery system positioning in six 3D-printed aortic models with
complex anatomy, and 3) benefits of 3D-GNC in our preclinical protocol relative to fluoro: radiation dose and
contrast dose (100% decrease), procedure time (56.4% decrease), and orientation accuracy (41.5% increase).
In Phase II, we will develop, verify and validate the 3D-GNC system based on Phase I outcomes, on-going
user feedback, and our quality management system (QMS). We will evaluate usability at 3 leading aortic
medical centers (Aim 1) and verify accuracy on the bench by deploying SGs from at least 2 manufacturers in
3D-printed models using designed controlled system components (Aim 2). After IDE and IRB clearance, we will
conduct a first-in-human study in Aim 3 to demonstrate that use of 3D-GNC as an adjunct to and confirmed by
fluoro is safe and effective and can lower radiation dose, while obtaining feedback for design finalization. All
development will be in compliance with our QMS, toward preparation for FDA premarket clearance (Aim 4).
Overcoming limitations of fluoro and improving SG placement will pave the way to realizing the full clinical and
economic benefits of EVAR over highly invasive open surgical repair. Commercialization of our technology will
have implications beyond aneurysmal disease to include many emerging vascular and cardiac procedures to
benefit a broader population of patients, caregivers, and enable delivery of better quality healthcare globally.
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会议论文
IOPSxV: Novel Visualization for Non-Fluoroscopic 3D Image Guidance for Peripheral Vascular Interventions.
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批准号:9908555
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项目类别:
-
资助金额:$63.69万
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财政年份:2020
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负责人:Vikash Goel
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依托单位:
海外基金