A mathematical model of chlamydial infection incorporating movement of chlamydial particles


Autoria(s): Mallet, Dann G.; Bagher-Oskouei, Masoumeh; Farr, Anna Charisse; Simpson, Daniel Peter; Sutton, Kelly-Jean
Data(s)

2013

Resumo

We present a spatiotemporal mathematical model of chlamydial infection, host immune response and spatial movement of infectious particles. The re- sulting partial differential equations model both the dynamics of the infection and changes in infection profile observed spatially along the length of the host genital tract. This model advances previous chlamydia modelling by incorporating spatial change, which we also demonstrate to be essential when the timescale for movement of infectious particles is equal to, or shorter than, the developmental cycle timescale. Numerical solutions and model analysis are carried out, and we present a hypothesis regarding the potential for treatment and prevention of infection by increasing chlamydial particle motility.

Formato

application/pdf

Identificador

http://eprints.qut.edu.au/41766/

Publicador

Springer

Relação

http://eprints.qut.edu.au/41766/1/41766A.pdf

DOI:10.1007/s11538-013-9891-9

Mallet, Dann G., Bagher-Oskouei, Masoumeh, Farr, Anna Charisse, Simpson, Daniel Peter, & Sutton, Kelly-Jean (2013) A mathematical model of chlamydial infection incorporating movement of chlamydial particles. Bulletin of Mathematical Biology, 75(11), pp. 2257-2270.

Direitos

Copyright 2011 Springer

The original publication will be available at SpringerLink http://www.springerlink.com

Fonte

Faculty of Science and Technology; Institute of Health and Biomedical Innovation; Science & Engineering Faculty; Mathematical Sciences

Palavras-Chave #010202 Biological Mathematics #chlamydia #partial differential equation #mathematical model #infectious diseases
Tipo

Journal Article