Implementation and applications of EMOD, an individual-based multi-disease modeling platform Academic Article uri icon

abstract

  • Individual-based models provide modularity and structural flexibility necessary for modeling of infectious diseases at the within-host and population levels, but are challenging to implement. Levels of complexity can exceed the capacity and timescales for students and trainees in most academic institutions. Here we describe the process and advantages of a multi-disease framework approach developed with formal software support. The epidemiological modeling software, EMOD, has undergone a decade of software development. It is structured so that a majority of code is shared across disease modeling including malaria, HIV, tuberculosis, dengue, polio and typhoid. In additional to implementation efficiency, the sharing increases code usage and testing. The freely available codebase also includes hundreds of regression tests, scientific feature tests and component tests to help verify functionality and avoid inadvertent changes to functionality during future development. Here we describe the levels of detail, flexible configurability and modularity enabled by EMOD and the role of software development principles and processes in its development.

authors

  • Bershteyn, Anna
  • Gerardin, Jaline
  • Bridenbecker, Daniel
  • Lorton, Christopher W
  • Bloedow, Jonathan
  • Baker, Robert S
  • Chabot-Couture, Guillaume
  • Chen, Ye
  • Fischle, Thomas
  • Frey, Kurt
  • Gauld, Jillian S
  • Hu, Hao
  • Izzo, Amanda S
  • Klein, Daniel J
  • McCarthy, Kevin A
  • Miller, Joel C
  • Ouedraogo, Andre Lin
  • Titova, Svetlana
  • Wagner, Bradley G
  • Welkhoff, Philip A
  • Wenger, Edward A
  • Wiswell, Christian N

publication date

  • 2018