The Magnitude and Frequency Variations of Vector-Borne Infections Outbreaks with the Ross-Macdonald Model: Explaining and Predicting Outbreaks of Dengue Fever
Marcos Amaku, Franciane Azevedo, Marcelo Nascimento Burattini,, Francisco Antonio Bezerra Coutinho, Luis Fernandez Lopez, Eduardo Massad

TL;DR
This paper demonstrates that, with proper modifications, the Ross-Macdonald model can effectively explain and predict the recurrence patterns of dengue fever outbreaks by accounting for human movement and seasonal variations.
Contribution
It introduces a modified Ross-Macdonald model that incorporates human movement and seasonal factors to better understand and predict dengue fever outbreak patterns.
Findings
The model explains the recurrence and absence of outbreaks in different regions.
It allows estimation of susceptible populations based on initial outbreak size.
The approach successfully predicts the likelihood and magnitude of future outbreaks.
Abstract
It is possible to model vector-borne infection using the classical Ross-Macdonald model. This attempt, however fails in several respects. First, using measured (or estimated) parameters, the model predicts a much greater number of cases than what is usually observed. Second, the model predicts a single huge outbreaks that is followed after decades of much smaller outbreaks. This is not what is observed. Usually towns or cities report a number of cases that recur for many years, even when environmental changes cannot explain the disappearance of the infection in-between the peaks. In this paper we continue to examine the pitfalls in modeling this class of infections, and explain that, in fact, if properly used, the Ross-Macdonald model works, can be used to understand the patterns of epidemics and even, to some extents, to make some predictions. We model several outbreaks of dengue fever…
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