Bragg-Williams approximation for the dynamics of prey-predator biological associations
E.M. De la Calleja, J. L. Carrillo, I. Santamar\'ia-Holek

TL;DR
This paper applies a Bragg-Williams approximation to model prey-predator dynamics, introducing time correlations to evaluate ecosystem lifetime and analyze temporal evolution, bridging theoretical models with real ecosystem data.
Contribution
It presents a novel application of the Bragg-Williams approximation to ecological prey-predator models, incorporating time correlations to assess ecosystem lifetime.
Findings
The model provides a characteristic ecosystem lifetime estimate.
It captures general trends of prey-predator dynamics.
The approach links theoretical predictions with real ecosystem data.
Abstract
The dynamics of an association of interactive biological species is studied theoretically. We explore a mean field approximation to describe the temporal evolution of an ecological system with the basic prey-predator interspecies relation, as well as an approximation to introduce time correlations in the dynamics. We start by discussing the solution of the Volterra-Lotka model in a mean field approximation based in an analogy with the Weiss solution to the Ising model for ferromagnetic materials. In order to explore the effects of long-range time correlations, we describe the time evolution of the system within a kind of Bragg-Williams approximation. This approach allows us to evaluate a characteristic life-time of the ecosystem. This quantity could be very useful to discuss the time evolution of the system under a wide diversity of environmental conditions of the ecosystem which is not…
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Taxonomy
TopicsOpinion Dynamics and Social Influence · Complex Network Analysis Techniques · Theoretical and Computational Physics
