Literature DB >> 27932782

CDC Grand Rounds: Modeling and Public Health Decision-Making.

Leah S Fischer, Scott Santibanez, Richard J Hatchett, Daniel B Jernigan, Lauren Ancel Meyers, Phoebe G Thorpe, Martin I Meltzer.   

Abstract

Mathematical models incorporate various data sources and advanced computational techniques to portray real-world disease transmission and translate the basic science of infectious diseases into decision-support tools for public health. Unlike standard epidemiologic methods that rely on complete data, modeling is needed when there are gaps in data. By combining diverse data sources, models can fill gaps when critical decisions must be made using incomplete or limited information. They can be used to assess the effect and feasibility of different scenarios and provide insight into the emergence, spread, and control of disease. During the past decade, models have been used to predict the likelihood and magnitude of infectious disease outbreaks, inform emergency response activities in real time (1), and develop plans and preparedness strategies for future events, the latter of which proved invaluable during outbreaks such as severe acute respiratory syndrome and pandemic influenza (2-6). Ideally, modeling is a multistep process that involves communication between modelers and decision-makers, allowing them to gain a mutual understanding of the problem to be addressed, the type of estimates that can be reliably generated, and the limitations of the data. As models become more detailed and relevant to real-time threats, the importance of modeling in public health decision-making continues to grow.

Entities:  

Mesh:

Year:  2016        PMID: 27932782     DOI: 10.15585/mmwr.mm6548a4

Source DB:  PubMed          Journal:  MMWR Morb Mortal Wkly Rep        ISSN: 0149-2195            Impact factor:   17.586


  6 in total

1.  Science in Emergency Response at CDC: Structure and Functions.

Authors:  John Iskander; Dale A Rose; Neelam D Ghiya
Journal:  Am J Public Health       Date:  2017-09       Impact factor: 9.308

2.  Translation of Real-Time Infectious Disease Modeling into Routine Public Health Practice.

Authors:  David J Muscatello; Abrar A Chughtai; Anita Heywood; Lauren M Gardner; David J Heslop; C Raina MacIntyre
Journal:  Emerg Infect Dis       Date:  2017-05       Impact factor: 6.883

3.  Effectiveness of workplace social distancing measures in reducing influenza transmission: a systematic review.

Authors:  Faruque Ahmed; Nicole Zviedrite; Amra Uzicanin
Journal:  BMC Public Health       Date:  2018-04-18       Impact factor: 3.295

4.  A mesoscale agent based modeling framework for flow-mediated infection transmission in indoor occupied spaces.

Authors:  Debanjan Mukherjee; Gauri Wadhwa
Journal:  Comput Methods Appl Mech Eng       Date:  2022-08-19       Impact factor: 6.588

5.  Predicting the hotspots of age-adjusted mortality rates of lower respiratory infection across the continental United States: Integration of GIS, spatial statistics and machine learning algorithms.

Authors:  Abolfazl Mollalo; Behrooz Vahedi; Shreejana Bhattarai; Laura C Hopkins; Swagata Banik; Behzad Vahedi
Journal:  Int J Med Inform       Date:  2020-08-22       Impact factor: 4.046

6.  Applying infectious disease forecasting to public health: a path forward using influenza forecasting examples.

Authors:  Chelsea S Lutz; Mimi P Huynh; Monica Schroeder; Sophia Anyatonwu; F Scott Dahlgren; Gregory Danyluk; Danielle Fernandez; Sharon K Greene; Nodar Kipshidze; Leann Liu; Osaro Mgbere; Lisa A McHugh; Jennifer F Myers; Alan Siniscalchi; Amy D Sullivan; Nicole West; Michael A Johansson; Matthew Biggerstaff
Journal:  BMC Public Health       Date:  2019-12-10       Impact factor: 3.295

  6 in total

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