grant

Metabolic and hemodynamic sensor for monitoring throughout the continuum of care

Organization UNIVERSITY OF CALIFORNIA-IRVINELocation IRVINE, UNITED STATESPosted 1 May 2023Deadline 30 Apr 2027
NIHUS FederalResearch GrantFY2026AddressAdmissionAdmission activityAlkalosisAmericanAreaBleedingBloodBlood Reticuloendothelial SystemBody TissuesCardiac ChronotropismCell Communication and SignalingCell SignalingCirculatory CollapseContinuity of CareContinuity of Patient CareContinuum of CareControl GroupsD-GlucoseDataDepartment of DefenseDevelopment and ResearchDevicesDextroseDiabetes MellitusDiagnosisEarly DiagnosisEducational workshopEnvironmentFeedbackGlucoseGoalsGrantHealth SciencesHealth Services EvaluationHealth Services ResearchHeart RateHemoglobinHemorrhageHospitalsHumanHybridsIn VitroInjuryInternationalInterventionIntracellular Communication and SignalingIntramuscularLactic AcidosisLegal patentMeasurementMeasuresMechanicsMedicalMedical Care ResearchMetabolicModern ManMonitorMorbidityNIBIBNational Institute of Biomedical Imaging and BioengineeringNational Institutes of HealthO elementO2 elementObstructive Lung DiseasesOperative ProceduresOperative Surgical ProceduresOutcomeOxygenPatentsPatientsPerformancePeripheralPhysiologicPhysiologic MonitoringPhysiologicalPhysiological MonitoringPoint of Care TechnologyProcessPublishingPulse OximetryR & DR&DRecommendationReportingResearchRespiratory AcidosisResuscitationRiskRunningSepsisShockSignal TransductionSignal Transduction SystemsSignalingSkinSurgicalSurgical InterventionsSurgical ProcedureSymptomsSystemTechnologyTelemetriesTelemetryTestingTimeTissuesTrainingTransmissionTransportationTraumaTriageUnited States National Institutes of HealthUniversity Health ServicesWorkWorkshopbiological signal transductionblood losscardiac rhythmcasualty carecirculatory shockclinical research siteclinical sitecombat casualtycontinuous monitoringdata exchangedata transferdata transmissiondesign and constructdesign and constructiondiabetesearly detectionflexibilityflexibleglucose sensorglycemic controlheart rate monitorheart rhythmhemodynamicshuman subjecthypercapnic acidosisimprovedimproved outcomein vivoinjuredinjuriesinterestmechanicmechanicalminimally invasivemortalityobstructive pulmonary diseasesoperationoperationspig modelpiglet modelpoint of injuryporcine modelprogramsprolonged field carereal time monitoringrealtime monitoringresearch and developmentsensing technologysensorsensor technologysensor-based technologyservices researchshocksstandard of caresubcutaneoussubdermalsurgeryswine modeltelemetrictooltransmission processtrauma caretrendvascular constrictionvasoconstrictionwearablewearable devicewearable electronicswearable systemwearable technologywearable toolwearableswirelesswireless transmission
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Full Description

Project Summary
This project will develop a wearable continuous monitor for reporting and predicting physiological state during

trauma, shock and sepsis with the goal of predicting morbidity, mortality, and providing feedback during medical

intervention. I can also be used as a triage tool. The proposed technology responds to technology gaps published

by the Department of Defense Combat Casualty Care Research Program and an NIH Notice of Special Interest

in Physiological Monitoring and Point of Care Technologies for Trauma Care. The hybrid technology has an ultra-

thin flexible multiple analyte sensor placed just under the skin attached to a flexible wearable patch for non-

invasive hemodynamic monitoring. Together these technologies provide real time monitoring of blood

oxygenation, heart rate, lactate, tissue oxygen, glucose, and pH. In Aim 1 we will design and construct a

minimally invasive continuous sensor for glucose, lactate, oxygen and pH. It has been shown that frequent

monitoring of these analytes not only identifies risk at initial injury, but can predict morbidity and outcomes, guide

intervention, and stratify medical conditions associated with trauma that may have overlapping or cryptic

symptoms. In Aim 2 we will design and construct a wearable patch that operates the sensor developed in Aim1

and further includes the non-invasive technology of pulse oximetry, autonomous operation, and wireless

telemetry. The wearable and sensor are both made of flexible circuits providing comfort and mechanical

matching of the indwelling component, and conformal attachment of the wearable to the skin. In Aim 3 we will

conduct a study using a porcine model of hemorrhagic injury and sensor-guided resuscitation. At the completion

of the grant, we will have a validated monitoring technology and can begin the process of applying for an

Investigational Device Exemption from the FDA to proceed to human studies.

Grant Number: 5R01EB033417-04
NIH Institute/Center: NIH

Principal Investigator: Elliot Botvinick

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