# 2018 Annual Meeting of the Society for Mathematical Biology & the Japanese Society for Mathematical Biology

8-12 July 2018
Australia/Sydney timezone

## Models for the spread of $\textit{Wolbachia}$ in mosquito populations

9 Jul. 2018, 6:00 pm
2h
Holme Building---The Refectory (University of Sydney)

### Holme Building---The Refectory

#### University of Sydney

20
Board: 201
Poster Presentation Disease - infectious

### Speaker

Sarah Belet (Monash University)

### Description

The vector-borne Dengue fever poses a major health issue in tropic environments, which includes areas such as far-north Queensland. Historically, attempts at curtailing the spread of dengue have focused on controlling the size and spread of mosquito populations that carry the virus. Several factors make this an astronomically difficult task to accomplish on any reasonable scale, however, and so more novel methods of suppressing dengue outbreaks are being explored. One such method is the introduction of bacteria called Wolbachia into mosquito populations, which prevents mosquitoes from passing on viruses to humans. A Wolbachia invasion has strong potential to completely saturate mosquito populations due to a mechanism called cytoplasmic incompatibility. The mathematical modelling problem here becomes twofold-first, the task of inferring the position of mosquito populations, and then the modelling of Wolbachia spreading through these populations. Here, we will be discussing the effects and mechanisms of Wolbachia in more detail, including the phenomenon of cytoplasmic incompatibility. Next, recent developments in modelling mosquito populations such as the use of semi agent-based models will be outlined, within the context of predicting the spread of Wolbachia.

### Primary author

Sarah Belet (Monash University)

### Co-authors

Jennifer Flegg (The University of Melbourne) Jonathan Keith (Monash University) Kate Smith-Miles (The University of Melbourne)

### Presentation Materials

There are no materials yet.
###### Your browser is out of date!

Update your browser to view this website correctly. Update my browser now

×