This paper presents the modeling of a host immune system, more precisely the immune effector cell and immune memory cell population, and its interaction with an invading pathogen population. It will tackle two issues of interest; on the one hand, in defining a stochastic model accounting for the inherent nature of organisms in population dynamics, namely multiplication with mutation and selection; on the other hand, in providing a description of pathogens that may vary their antigens through mutations during infection of the host. Unlike most of the literature, which models the dynamics with first-order differential equations, this paper proposes a Galton-Watson type branching process to describe stochastically by whole distributions the population dynamics of pathogens and immune cells. In the first model case, the pathogen of a given type is either eradicated or shows oscillatory chronic response. In the second model case, the pathogen shows variational behavior changing its antigen resulting in a prolonged immune reaction.
Immune Response to a Variable Pathogen: A Stochastic Model with Two Interlocked Darwinian Entities
Published 2012 in Comput. Math. Methods Medicine
ABSTRACT
PUBLICATION RECORD
- Publication year
2012
- Venue
Comput. Math. Methods Medicine
- Publication date
2012-12-02
- Fields of study
Biology, Medicine, Mathematics, Computer Science
- Identifiers
- External record
- Source metadata
Semantic Scholar, PubMed
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