Lessons learned from the rapid development of a statewide simulation model for predicting COVID-19's impact on healthcare resources and capacity

The first case of COVID-19 was detected in North Carolina (NC) on March 3, 2020. By the end of April, the number of confirmed cases had soared to over 10,000. NC health systems faced intense strain to support surging intensive care unit admissions and avert hospital capacity and resource saturation....

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Veröffentlicht in:PloS one 2021-11, Vol.16 (11), p.e0260310-e0260310
Hauptverfasser: Endres-Dighe, Stacy, Jones, Kasey, Hadley, Emily, Preiss, Alexander, Kery, Caroline, Stoner, Marie, Eversole, Susan, Rhea, Sarah
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container_title PloS one
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Jones, Kasey
Hadley, Emily
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Rhea, Sarah
description The first case of COVID-19 was detected in North Carolina (NC) on March 3, 2020. By the end of April, the number of confirmed cases had soared to over 10,000. NC health systems faced intense strain to support surging intensive care unit admissions and avert hospital capacity and resource saturation. Forecasting techniques can be used to provide public health decision makers with reliable data needed to better prepare for and respond to public health crises. Hospitalization forecasts in particular play an important role in informing pandemic planning and resource allocation. These forecasts are only relevant, however, when they are accurate, made available quickly, and updated frequently. To support the pressing need for reliable COVID-19 data, RTI adapted a previously developed geospatially explicit healthcare facility network model to predict COVID-19's impact on healthcare resources and capacity in NC. The model adaptation was an iterative process requiring constant evolution to meet stakeholder needs and inform epidemic progression in NC. Here we describe key steps taken, challenges faced, and lessons learned from adapting and implementing our COVID-19 model and coordinating with university, state, and federal partners to combat the COVID-19 epidemic in NC.
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subjects Adaptation
Biology and Life Sciences
Calibration
Computer and Information Sciences
Control
Coronaviruses
COVID-19
COVID-19 - epidemiology
Delivery of Health Care
Disease
Engineering and Technology
Epidemics
Evaluation
Forecasting
Forecasting techniques
Health care
Health care facilities
Health care industry
Hospital Bed Capacity - statistics & numerical data
Hospitalization
Hospitalization - trends
Hospitals
Humans
Impact prediction
Intensive Care Units - trends
Iterative methods
Mathematical models
Medical care
Medicine and Health Sciences
Modelling
North Carolina - epidemiology
Pandemics
Pandemics - statistics & numerical data
Probability
Public health
Quality management
Resource allocation
Severe acute respiratory syndrome coronavirus 2
Social Sciences
Supervision
title Lessons learned from the rapid development of a statewide simulation model for predicting COVID-19's impact on healthcare resources and capacity
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