Modeling the 2022 Mpox Outbreak with a Mechanistic Network Model
Emma G. Crenshaw, Jukka-Pekka Onnela

TL;DR
This study uses a dynamic agent-based network model to simulate mpox spread among MSM in the US, demonstrating that behavior change and vaccination, especially early, significantly reduce infections.
Contribution
Introduces a data-informed mechanistic network model capturing behavioral adaptations and intervention effects on mpox transmission in a realistic population.
Findings
Behavior change and vaccination reduce infections by 30%.
Early intervention decreases infections to 5.5%.
One-time partnerships significantly drive early transmission.
Abstract
We implemented a dynamic agent-based network model to simulate the spread of mpox in a United States-based MSM population. This model allowed us to implement data-informed dynamic network evolution to simulate realistic disease spreading and behavioral adaptations. We found that behavior change, the reduction in one-time partnerships, and widespread vaccination are effective in preventing the transmission of mpox and that earlier intervention has a greater effect, even when only a high-risk portion of the population participates. With no intervention, 16% of the population was infected (25th percentile, 75th percentiles of simulations: 15.3%, 16.6%). With vaccination and behavior change in only the 25% of individuals most likely to have a one-time partner, cumulative infections were reduced by 30%, or a total reduction in nearly 500 infections. Earlier intervention further reduces…
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Taxonomy
TopicsPoxvirus research and outbreaks · COVID-19 epidemiological studies · Virology and Viral Diseases
