grant

Fair risk profiles and predictive models for outcomes of obstructive sleep apnea through electronic medical record data

Organization VANDERBILT UNIVERSITYLocation Nashville, UNITED STATESPosted 1 Jun 2023Deadline 31 May 2026
NIHUS FederalResearch GrantFY2025AccountingAcuteAddressAffectAgeAlgorithmsAmentiaAsian groupAsian individualAsian peopleAsian populationAsiansAutomobile collisionAutomobile crashCOVID-19CPAPCPAP VentilationCV-19Car collisionCar crashCardiovascular DiseasesCharacteristicsChronicClassificationClinicalClinical DataComputer ModelsComputerized Medical RecordComputerized ModelsComputing MethodologiesContinuous Positive Airway PressureCoronavirus Infectious Disease 2019DataData SetDementiaDiabetic Kidney DiseaseDiabetic NephropathyDiagnosisDiseaseDisorderDisparitiesDisparityDrowsy DrivingDysfunctionElectronic Medical RecordEthnic OriginEthnicityExhibitsFoundationsFunctional disorderFutureGenderGeographic AreaGeographic LocationsGeographic RegionGeographical LocationGrantIndividualInterventionIntuitionInvestigationMachine LearningMeasurementMetabolic syndromeMethodsModelingModernizationMotor vehicle collisionMotor vehicle crashObstructive Sleep ApneaOperative ProceduresOperative Surgical ProceduresOutcomeOutcomes ResearchPatient CarePatient Care DeliveryPatient CompliancePatientsPatternPerformancePersonsPhenotypePhysiciansPhysiopathologyPopulationPredicting RiskPrevalenceProcessQuestionnairesRaceRacesRecommendationResearchResearch EthicsResearch ResourcesResourcesRiskSeveritiesSleep ApneaSleep Apnea SyndromesSleep HypopneaSleep-Disordered BreathingSocio-economic statusSocioeconomic StatusSubgroupSurgicalSurgical InterventionsSurgical ProcedureSymptomsSyndrome, Sleep Apnea, ObstructiveSystematicsTestingTimeTranslatingVehicle crashVehicular collisionVehicular crashWomanagesbenefit sharingcardiovascular disordercare for patientscare of patientscareercaring for patientsclinical practiceclinically actionableco-morbidco-morbiditycomorbiditycomputational methodologycomputational methodscomputational modelingcomputational modelscomputer based methodcomputer based modelscomputer based predictioncomputer methodscomputerized modelingcomputing methodcoronavirus disease 2019coronavirus disease-19coronavirus infectious disease-19demographicsdisparate effectdisparate impactdisparate resultforecasting riskgeographic siteimprovedindividual patientinequitable effectinequitable impactinequitable outcomeinsightintuitivemachine based learningmachine learning based classifiermachine learning based prediction modelmachine learning based predictive modelmachine learning classifiermachine learning predictionmachine learning prediction modelmodel buildingneuropsychiatric diseaseneuropsychiatric disorderoutcome disparitiesoutcome inequalityoutcome inequitypathophysiologypatient adherencepatient cooperationpatient screeningpredict riskpredict riskspredicted riskpredicted riskspredicting riskspredictive modelingpredictive riskpredicts riskracialracial backgroundracial originresponse to therapyresponse to treatmentrisk predictionrisk predictionsskillssleep-related breathing disordersocio-economic positionsocioeconomic positionsurgerytherapeutic responsetherapy responsetraffic collisiontraffic crashtreatment effecttreatment guidelinestreatment responsetreatment responsivenesstreatment strategyunequal effectunequal impactunequal outcome
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Full Description

PROJECT SUMMARY
Obstructive sleep apnea (OSA) is a sleep-related breathing disorder associated with major co-morbidities and is

estimated to affect nearly one billion people worldwide. Moreover, there are differences in prevalence, diagnosis

rates, and co-morbid outcomes for OSA based on the demographics of a patient, such as age, race, and gender.

The diversity of the clinical manifestations, objective measurements, and outcomes – the phenotype – of OSA

underscores the opportunity for predictive models to improve care of patients with OSA. Predicting future (i.e. 5-

year post-diagnosis) risks of OSA co-morbid outcomes and predicting how different treatments for OSA affect

these risks can help clinicians and patients choose the best treatment strategies.

Current OSA outcomes research has key limitations. Prior studies have characterized groups of OSA patients

that exhibit similar characteristics, referred to as sub-phenotypes of OSA. However, these studies have been

limited by analyzing relatively few variables obtainable from questionnaires. To address this limitation, we will

use rich longitudinal electronic medical records (EMR) data to characterize OSA sub-phenotypes and to predict

OSA outcome risks for individual patients. To extract insights from EMR data, we will leverage modern

computational methods based in machine learning (ML). A second major limitation of existing OSA research is

worse predictive model performance for some groups. Model biases have real-world negative implications. The

ubiquitous STOP-BANG questionnaire used to screen patients for further OSA testing performs worse for women

and Asian individuals, leading to potential delayed, under-, or misdiagnosis of OSA in these groups. To address

this limitation, this proposed project will assess and mitigate biases present in our predictive models.

To better understand patient factors associated with OSA outcomes, this project has two aims. In Aim 1

clustering methods will be applied to identify groups of OSA patients who share similar sub-phenotypes

according to combinations of clinical features and objective measurements present in EMR data. Then, sub-

phenotypes will be compared by the rates at which they exhibit different OSA outcomes, providing intuition into

potential underlying pathophysiologic differences. In Aim 2, ML classifiers will be applied to build and validate

algorithmically fair predictive models for future OSA outcome risks as well as effects of OSA treatments. Patient-

specific factors that are consistently associated with differences in OSA outcome risks through Aims 1 and 2 will

provide both personalized insights into treatment options and stronger evidence of underlying pathophysiology

worthy of further investigation.

Grant Number: 5F30HL168976-03
NIH Institute/Center: NIH

Principal Investigator: Victor Borza

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