A simulation model of African Anopheles ecology and population dynamics for the analysis of malaria transmission
                Authored by JMO Depinay, CM Mbogo, G Killeen, B Knols, J Beier, J Carlson, J Dushoff, P Billingsley, H Mwambi, J Githure, AM Toure, FE McKenzie
                
                    Date Published: 2004
                
                
                    DOI: 10.1186/1475-2875-3-29
                
                
                    Sponsors:
                    
                        No sponsors listed
                    
                
                
                    Platforms:
                    
                        C++
                        
                
                
                    Model Documentation:
                    
                        Other Narrative
                        
                        Flow charts
                        
                        Mathematical description
                        
                
                
                    Model Code URLs:
                    
                        Model code not found
                    
                
                Abstract
                Background: Malaria is one of the oldest and deadliest infectious
diseases in humans. Many mathematical models of malaria have been
developed during the past century, and applied to potential
interventions. However, malaria remains uncontrolled and is increasing
in many areas, as are vector and parasite resistance to insecticides and
drugs.
Methods: This study presents a simulation model of African malaria
vectors. This individual-based model incorporates current knowledge of
the mechanisms underlying Anopheles population dynamics and their
relations to the environment. One of its main strengths is that it is
based on both biological and environmental variables.
Results: The model made it possible to structure existing knowledge, assembled in a comprehensive review of the literature, and also pointed
out important aspects of basic Anopheles biology about which knowledge
is lacking. One simulation showed several patterns similar to those seen
in the field, and made it possible to examine different analyses and
hypotheses for these patterns; sensitivity analyses on temperature, moisture, predation and preliminary investigations of nutrient
competition were also conducted.
Conclusions: Although based on some mathematical formulae and
parameters, this new tool has been developed in order to be as explicit
as possible, transparent in use, close to reality and amenable to direct
use by field workers. It allows a better understanding of the mechanisms
underlying Anopheles population dynamics in general and also a better
understanding of the dynamics in specific local geographic environments.
It points out many important areas for new investigations that will be
critical to effective, efficient, sustainable interventions.
                
Tags
                
                    Habitats
                
                    Density
                
                    Sensu-stricto diptera
                
                    Culicidae
                
                    Temperature
                
                    Body-size
                
                    Western kenya
                
                    Gambiae complex
                
                    Larval
survival
                
                    Arabiensis