grant

DeepCOPD: Development and Implementation of Deep Learning to Predict and Prevent COPD Health Care Encounters

Organization DARTMOUTH COLLEGELocation HANOVER, UNITED STATESPosted 20 Dec 2021Deadline 30 Nov 2026
NIHUS FederalResearch GrantFY2025AccelerationAcuteAdoptionAdverse ExperienceAdverse eventAmbulatory CareAutomated AnnotationCOPDCalibrationCare GiversCaregiversCaringChronicChronic Obstruction Pulmonary DiseaseChronic Obstructive Lung DiseaseChronic Obstructive Pulmonary DiseaseClinicClinicalCodeCoding SystemCommunitiesConsumptionControlled VocabularyDataDetectionDevelopmentDiagnosisDimensionsDiseaseDisease ProgressionDisorderEarly identificationElectronic Health RecordEventFinancial HardshipFutureHealthHealth CareHealth Care ProvidersHealth Care SystemsHealth Care UtilizationHealth PersonnelHealth PolicyHealth systemHistoryHomeHospital AdmissionHospitalizationHumanIndividualIngestionMachine LearningMaintenanceManualsMapsMedicalMethodsModelingModern ManNHLBINational Heart, Lung, and Blood InstituteNatural Language ProcessingNatureO elementO2 elementOut-patientsOutcomeOutpatient CareOutpatientsOxygenOxygen Inhalation TherapyOxygen Therapy CarePatient CarePatient Care DeliveryPatient Care ManagementPatientsPerformancePersonsPhysiciansProceduresProcessProviderRecording of previous eventsResearchResearch ResourcesResourcesRiskRisk FactorsStructureSymptomsSystemTechniquesTextTimeUpdateValidationVisitVisualization softwareWarburg Therapyannotation schemabiomed informaticsbiomedical informaticscare for patientscare of patientscaring for patientschronic obstructive pulmonary disorderclinical applicabilityclinical applicationclinical careclinical implementationcomputational annotationcomputer annotationcomputer based predictioncostdata streamsdata visualizationdeep learningdeep learning algorithmdeep learning based modeldeep learning methoddeep learning modeldeep learning strategydevelopmentaldiscrete dataelectronic health care recordelectronic health medical recordelectronic health plan recordelectronic health registryelectronic medical health recordend stage diseasefinancial adversityfinancial burdenfinancial distressfinancial insecurityfinancial strainfinancial stressfunctional statushealth and care deliveryhealth care deliveryhealth care personnelhealth care policyhealth care service usehealth care service utilizationhealth care workerhealth delivery systemshealth providerhealth services deliveryhealth workforcehigh riskhistorieshomeshospital re-admissionhospital readmissionimprovedingestmachine based learningmachine learning based methodmachine learning methodmachine learning methodologiesmedical personnelnatural language understandingoutpatient treatmentoxygen administrationoxygen therapypredictive modelingpredictive toolspreventpreventingprogramsprospectivere-admissionre-admission riskre-hospitalizationreadmissionreadmission riskrehospitalizationsocialstructured datasupport toolstooltreatment providerunstructured datausabilityuser centered designvalidationsvisualization toolweb sitewebsite
Sign up free to applyApply link · pipeline · email alerts
— or —

Get email alerts for similar roles

Weekly digest · no password needed · unsubscribe any time

Full Description

In the US, ~24 million persons live with COPD, half undiagnosed, and ~150,000 die of COPD
annually. COPD causes over 700,000 US hospitalizations and costs nearly $50 billion per year. The

human and financial burdens of COPD could likely be reduced if disease progression and other

adverse events could be anticipated, enabling caregivers to focus finite resources on at-risk patients.

We propose to create a decision-support tool that integrates biomedical informatics with advanced

machine learning (ML) and deep learning (DL) algorithms to predict acute and chronic healthcare

encounters (hospital admissions, readmissions, and ED encounters) and major disease progression

events (home oxygen therapy) for outpatients with COPD. Such a tool would confer immediate clinical

benefits and accelerate research on COPD disease progression and treatment. Predictive modeling is

widely used to identify high-risk patients for care management in COPD and other disorders, with a

strong emphasis on readmission risk. However, extant techniques are not sufficiently accurate and do

not identify the specific nature of likely future medical events, estimate time-to-event, and specifically

forecast medical encounters and disease progression events for individuals with COPD. Recent

research in disease progression modeling support the application of DL and other ML methods to

electronic health records (EHRs) to predict aspects of health history. EHRs contain both readily

accessible structured data (e.g., lab results in well-defined fields) and unstructured texts such as

physician’s notes. Unstructured texts contain a great deal of clinical information, but this information is

laborious to access; impeding its routine use in research and the clinic. This has motivated attempts to

use natural language processing (NLP) methods to automate annotation. We will apply NLP to identify

symptoms, treatments, procedures, diagnoses, social risk factors, and functional status from clinical

notes, expanding the data available from EHRs far beyond the usual coded variables. Also, and

distinctively, we will carry out a stepped-wedge clinical implementation of the proposed predictive tool

and evaluate its performance, a first for ML and DL prediction of COPD health events. Therefore, we

propose four Specific Aims: AIM 1: Transform EHR data streams to provision patient-level feature sets

for ML and DL consumption. AIM 2: Develop a set of ML and DL models to predict the time-to-event

for home oxygen therapy initiation and healthcare encounters among patients with COPD. AIM 3: To

develop and implement a prospective performance surveillance and calibration maintenance system to

maintain the final Aim 2 model for each outcome. AIM 4: Evaluate adoption and usability of the

DeepCOPD toolkit in near-realtime clinical use in two healthcare systems. The application is

responsive to the NHLBI IDEA2Health (NOT-HL-19-712).

Grant Number: 5R01HL157130-04
NIH Institute/Center: NIH

Principal Investigator: Jeremiah Brown

Sign up free to get the apply link, save to pipeline, and set email alerts.

Sign up free →

Agency Plan

7-day free trial

Unlock procurement & grants

Upgrade to access active tenders from World Bank, UNDP, ADB and more — with email alerts and pipeline tracking.

$29.99 / month

  • 🔔Email alerts for new matching tenders
  • 🗂️Track tenders in your pipeline
  • 💰Filter by contract value
  • 📥Export results to CSV
  • 📌Save searches with one click
Start 7-day free trial →