Mathematical Models and Methods in Applied Sciences · 2004 · 84 citations · 20 references
EngineeringBiologyMathematicsDynamical SystemsGame TheoryStochastic ProcessesComplex Systems ModelingContinuous Dynamical SystemsDynamic Systems ModelingStochastic Differential EquationsStochastic GamesStochastic Systems ModelingContinuous DynamicsIntegrodifference EquationsPopulation Dynamics Partial Differential EquationsProbability Density EvolutionStochastic Processes In Biology
This paper deals with some methodological aspects related to the discretization of a class of integro-differential equations modelling the evolution of the probability distribution over the microscopic state of a large system of interacting individuals. The microscopic state includes both mechanical and socio-biological variables. The discretization of the microscopic state generates a class of dynamical systems defining the evolution of the densities of the discretized state. In general, this yields a system of partial differential equations replacing the continuous integro-differential equation. As an example, a specific application is discussed, which refers to modelling in the field of social dynamics. The derivation of the evolution equation needs the development of a stochastic game theory.
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