Sexual Network Structure and Sexually Transmitted Disease Prevention
- 1 November 2000
- journal article
- research article
- Published by Wolters Kluwer Health in Sexually Transmitted Diseases
- Vol. 27 (10) , 627-635
- https://doi.org/10.1097/00007435-200011000-00011
Abstract
Background: Mathematical modeling techniques are being used increasingly to plan public health policy for the prevention of sexually transmitted diseases. Goal: An introduction to various aspects of network structure and sexually transmitted disease prevention using mathematical and simulation models. Study Design: A short overview is given about some modeling approaches that are presently available. The effect of partnership duration on the spread of sexually transmitted diseases is discussed in the context of pair-formation models. Network models, which take concurrent partnerships into account, are discussed as a natural extension of pair-formation models. Results: Results obtained by applying different modeling approaches to analyzing the efficacy of contact tracing in reducing the prevalence of sexually transmitted diseases are summarized. Conclusion: Partnership duration and network structure should be taken into account when estimating the impact of sexually transmitted disease prevention. Contact tracing can contribute significantly to reducing incidence and prevalence of sexually transmitted diseases. modeling has to be developed further to gain a better understanding of the relationship of network structure and the spread of specific sexually transmitted diseases.Keywords
This publication has 17 references indexed in Scilit:
- A microsimulation study of the effect of concurrent partnerships on the spread of HIV in UgandaMathematical Population Studies, 2000
- The effect of pair formation and variable infectivity on the spread of an infection without recoveryMathematical Biosciences, 1998
- Concurrent partnerships and the spread of HIVAIDS, 1997
- Measures of concurrency in networks and the spread of infectious diseaseMathematical Biosciences, 1996
- Concurrent partnerships and transmission dynamics in networksSocial Networks, 1995
- Susceptible-infected-removed epidemic models with dynamic partnershipsJournal of Mathematical Biology, 1995
- Concurrent Partnerships Could Cause AIDS EpidemicsInternational Journal of STD & AIDS, 1993
- On the transmission dynamics of HIVMathematical Biosciences, 1988
- Epidemiological models for sexually transmitted diseasesJournal of Mathematical Biology, 1988
- A contribution to the mathematical theory of epidemicsProceedings of the Royal Society of London. Series A, Containing Papers of a Mathematical and Physical Character, 1927