Abstract Background Influenza A viruses exhibit complex epidemiological patterns in a number of mammalian and avian hosts. Understanding transmission of these viruses necessitates taking into account their evolution, which represents a challenge for developing mathematical models. This is because the phrasing of multi-strain systems in terms of traditional compartmental ODE models either requires simplifying assumptions to be made that overlook important evolutionary processes, or leads to complex dynamical systems that are too cumbersome to analyse. Results Here, we develop an Individual-Based Model (IBM) in order to address simulta...
Population epidemiological models where hosts can be infected sequentially by different strains have...
Rapidly evolving pathogens like influenza viruses can persist by changing their antigenic properties...
Recent advances in sequencing technology and computing power mean that we are in an unprecedented p...
Background: Influenza A viruses exhibit complex epidemiological patterns in a number of mammalian an...
While influenza is a quite common infectious disease, the pattern of its global circulation and evol...
In many cases, analyses on infectious diseases focus on how the epidemic arises, spreads, and whethe...
Between pandemics, the influenza virus exhibits periods of incremental evolution via a process known...
Abstract Background Since its emergence in 1968, infl...
Many pathogens exist in phenotypically distinct strains that interact with each other through compet...
In this thesis we develop a mathematical cross-scale model for the evolution of influenza within a s...
Pathogens that consist of multiple antigenic variants are a serious public health concern. These inf...
The main objective of the thesis is to implement a mathematical epidemic model developed by Koelle e...
<p>Influenza A virus is a major source of morbidity and mortality, annually resulting in over 9000 d...
Host-pathogen interactions, especially those involving RNA viruses and bacteria, are often character...
Background: Agent based models (ABM) are useful to explore population-level scenarios of disease spr...
Population epidemiological models where hosts can be infected sequentially by different strains have...
Rapidly evolving pathogens like influenza viruses can persist by changing their antigenic properties...
Recent advances in sequencing technology and computing power mean that we are in an unprecedented p...
Background: Influenza A viruses exhibit complex epidemiological patterns in a number of mammalian an...
While influenza is a quite common infectious disease, the pattern of its global circulation and evol...
In many cases, analyses on infectious diseases focus on how the epidemic arises, spreads, and whethe...
Between pandemics, the influenza virus exhibits periods of incremental evolution via a process known...
Abstract Background Since its emergence in 1968, infl...
Many pathogens exist in phenotypically distinct strains that interact with each other through compet...
In this thesis we develop a mathematical cross-scale model for the evolution of influenza within a s...
Pathogens that consist of multiple antigenic variants are a serious public health concern. These inf...
The main objective of the thesis is to implement a mathematical epidemic model developed by Koelle e...
<p>Influenza A virus is a major source of morbidity and mortality, annually resulting in over 9000 d...
Host-pathogen interactions, especially those involving RNA viruses and bacteria, are often character...
Background: Agent based models (ABM) are useful to explore population-level scenarios of disease spr...
Population epidemiological models where hosts can be infected sequentially by different strains have...
Rapidly evolving pathogens like influenza viruses can persist by changing their antigenic properties...
Recent advances in sequencing technology and computing power mean that we are in an unprecedented p...