PopMod: a longitudinal population model with two interacting disease states

Jeremy A. Lauer*, Klaus Röhrich, Harald Wirth, Claude Charette, Steve Gribble, Christopher J.L. Murray

*Corresponding author for this work

Research output: Contribution to journalArticlepeer-review

54 Citations (Scopus)

Abstract

This article provides a description of the population model PopMod, which is designed to simulate the health and mortality experience of an arbitrary population subjected to two interacting disease conditions as well as all other "background" causes of death and disability. Among population models with a longitudinal dimension, PopMod is unique in modelling two interacting disease conditions; among the life-table family of population models, PopMod is unique in not assuming statistical independence of the diseases of interest, as well as in modelling age and time independently. Like other multi-state models, however, PopMod takes account of "competing risk" among diseases and causes of death. PopMod represents a new level of complexity among both generic population models and the family of multi-state life tables. While one of its intended uses is to describe the time evolution of population health for standard demographic purposes (e.g. estimates of healthy life expectancy), another prominent aim is to provide a standard measure of effectiveness for intervention and cost-effectiveness analysis. PopMod, and a set of related standard approaches to disease modelling and cost-effectiveness analysis, will facilitate disease modelling and cost-effectiveness analysis in diverse settings and help make results more comparable.

Original languageEnglish
Article number6
Number of pages15
JournalCost Effectiveness and Resource Allocation
Volume1
DOIs
Publication statusPublished - 26 Feb 2003

Keywords

  • longitudinal population models
  • health
  • mortality
  • interacting disease conditions

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