grant

Machine Learning Based Analysis of Longitudinal Changes in the Congenital Heart Disease Electrocardiogram

Organization EMORY UNIVERSITYLocation ATLANTA, UNITED STATESPosted 1 Aug 2024Deadline 31 Jul 2027
NIHUS FederalResearch GrantFY202521+ years oldAI AugmentedAI assistedAI basedAI drivenAI enhancedAI integratedAI poweredAI systemAccess to CareAdultAdult HumanAdverse ExperienceAdverse eventAgeAlgorithmsAnatomic SitesAnatomic structuresAnatomyArtificial IntelligenceArtificial Intelligence enhancedAtrialAtrial FibrillationAugmented by AIAugmented by the AIAugmented with AIAugmented with the AIAuricular FibrillationBayesian AnalysisBayesian computationBayesian inferenceBayesian network analysisBayesian spatial analysisBayesian statistical analysisBayesian statistical inferenceBayesian statisticsBiological MarkersBirth DefectsCAT scanCT X RayCT XrayCT imagingCT scanCardiacCardiac AtriumCardiac MalformationCardiac defectCessation of lifeCharacteristicsClinicalClinical DataClinical MarkersComputed TomographyComputer ReasoningComputer softwareComputerized Medical RecordConfidence IntervalsCongenital AbnormalityCongenital Anatomical AbnormalityCongenital Cardiac DefectsCongenital DefectsCongenital DeformityCongenital Heart DefectsCongenital MalformationControl GroupsDataData AnalysesData AnalysisData BasesData SetDatabasesDeathDetectionDevicesDiagnosisDilatationDilatation - actionDysfunctionECGEKGEchocardiogramEchocardiographyElectrocardiogramElectrocardiographyElectronic Medical RecordEthnic OriginEthnicityEvaluationEventEvolutionFailureFibrosisFunctional disorderFutureGuidelinesHealth Services AccessibilityHeartHeart AtriumHeart MalformationHeart failureHospital AdmissionHospitalizationHypertrophyImageImaging ProceduresImaging TechnicsImaging TechniquesIndividualIntensive Care UnitsInterventionIschemiaLeadLeftLesionLinkLongitudinal StudiesMR ImagingMR TomographyMRIMRIsMachine IntelligenceMachine LearningMagnetic Resonance ImagingMeasurableMedical Imaging, Magnetic Resonance / Nuclear Magnetic ResonanceMethodsModalityModelingMonitorMyocardial depressionMyocardial dysfunctionNMR ImagingNMR TomographyNuclear Magnetic Resonance ImagingOperative ProceduresOperative Surgical ProceduresOrganOut-patientsOutcomeOutpatientsPatientsPatternPb elementPeriodicalsPhysiopathologyPopulationRaceRacesRecommendationReportingResearchResidualResidual stateRiskSepsisSoftwareSpecialtySurgicalSurgical InterventionsSurgical ProcedureTechnologyTestingTimeTime Series AnalysisTomodensitometryTrainingTransthoracic EchocardiographyTravelVariantVariationVentricularX-Ray CAT ScanX-Ray Computed TomographyX-Ray Computerized TomographyXray CAT scanXray Computed TomographyXray computerized tomographyZeugmatographyabnormal heart developmentaccess to health servicesaccess to servicesaccess to treatmentaccessibility to health servicesadulthoodadverse consequenceadverse outcomeagesanalyzing longitudinalartificial intelligence assistedartificial intelligence augmentedartificial intelligence basedartificial intelligence drivenartificial intelligence integratedartificial intelligence poweredavailability of servicesbio-markersbiologic markerbiomarkercardiac dysfunctioncardiac failurecardiac rhythmcare accesscatscanclinical biomarkersclinically useful biomarkerscohortcomputed axial tomographycomputer tomographycomputerized axial tomographycomputerized tomographycongenital cardiac abnormalitycongenital cardiac anomaliescongenital cardiac diseasecongenital cardiac disordercongenital cardiac malformationcongenital heart abnormalitycongenital heart anomalycongenital heart diseasecongenital heart disordercongenital heart malformationcostdata basedata interpretationdeep learning based modeldeep learning modeldetection methoddetection proceduredetection techniqueenhanced with AIenhanced with Artificial Intelligencehealth equityhealth service accesshealth services availabilityheart defectheart dysfunctionheart rhythmheart sonographyheavy metal Pbheavy metal leadimagingimaging studyimprovedinnovateinnovationinnovativelong-term studylongitudinal analysislongitudinal outcome studiesm-HealthmHealthmachine based learningmachine learned algorithmmachine learning algorithmmachine learning based algorithmmachine learning based methodmachine learning based modelmachine learning methodmachine learning methodologiesmachine learning modelmedical specialtiesmobile healthnon-contrast CTnoncontrast CTnoncontrast computed tomographynovelpathophysiologyperiodicperiodicalpoint of careportabilitypreventpreventingracialracial backgroundracial originrepairrepairedresponseservice availabilitysexstandard of caresurgerysurveillance imagingtooltreatment accessvectorwearablewearable devicewearable electronicswearable systemwearable technologywearable toolwearables
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Full Description

PROJECT SUMMARY
Delayed intervention for congenital heart defect residua and sequelae can lead to heart failure and end-organ

damage. Identifying the optimal time for intervention to avoid both adverse outcomes and to minimize the

number of interventions over a lifetime for any given heart defect relies on routine surveillance with expensive

imaging and centralized expertise. Data from the widely available electrocardiogram (ECG) can be transferred

from point-of-care to remote data analysis centers. Machine learning and time-series analysis of ECG waves

related to atrial depolarization, ventricular depolarization and ventricular repolarization, conduction intervals

and waveform durations can consistently calculate parameters that can be tracked as biomarkers

longitudinally. ECG patterns may reflect dysrhythmia, ischemia, hypertrophy, chamber dilatation, ventricular

fibrosis and dysfunction, and can change over time in response to subclinical changes in the cardiac

chambers. A significant problem in detecting subtle changes in the ECG is the reliance on normal intervals and

pattern descriptions that lack nuance to detect longitudinal changes on an individual basis that may reflect

impending ventricular failure. We propose to apply artificial intelligence-based methods to analyze longitudinal

ECG changes by age, sex, race and ethnicity in an adult congenital heart disease population. Once we identify

and characterize ECG changes over time, we will use the change in ECG parameters to develop a machine

learning algorithm to predict the need for cardiac intervention or occurrence of adverse events.

Grant Number: 5R21HL172209-02
NIH Institute/Center: NIH

Principal Investigator: Wendy Book

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