Nature Communications · 2019 · 46 citations · 28 references
Life SciencesConservation BiologyEcologyComplex SystemsEvolutionary EcologyPopulation EcologyComplex Systems ModelingComputational ModelingDynamic Systems ModelingEcological ModelingEcological System ModelingPopulation DynamicsAgent-based Ecological ModelsEcosystem ModelingEcosystem SimulationIndividual-based ModelsIndividual-based Population ModelsMathematical EcologyMovement Ecology ModelingSystems Ecology
Individual-based models, 'IBMs', describe naturally the dynamics of interacting organisms or social or financial agents. They are considered too complex for mathematical analysis, but computer simulations of them cannot give the general insights required. Here, we resolve this problem with a general mathematical framework for IBMs containing interactions of an unlimited level of complexity, and derive equations that reliably approximate the effects of space and stochasticity. We provide software, specified in an accessible and intuitive graphical way, so any researcher can obtain analytical and simulation results for any particular IBM without algebraic manipulation. We illustrate the framework with examples from movement ecology, conservation biology, and evolutionary ecology. This framework will provide unprecedented insights into a hitherto intractable panoply of complex models across many scientific fields.
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