
doi: 10.3390/e17042432
Interdependencies of stochastically interacting units are usually quantified by the Kullback-Leibler divergence of a stationary joint probability distribution on the set of all configurations from the corresponding factorized distribution. This is a spatial approach which does not describe the intrinsically temporal aspects of interaction. In the present paper, the setting is extended to a dynamical version where temporal interdependencies are also captured by using information geometry of Markov chain manifolds.
information geometry, Kullback-Leibler divergence, Science, QC1-999, Separability, Astrophysics, Kullback-leibler divergence, Stochastic interaction, Markov chains, separability, Physics, Q, Complexity, QB460-466, random fields, Random fields, stochastic interaction, Information geometry, complexity
information geometry, Kullback-Leibler divergence, Science, QC1-999, Separability, Astrophysics, Kullback-leibler divergence, Stochastic interaction, Markov chains, separability, Physics, Q, Complexity, QB460-466, random fields, Random fields, stochastic interaction, Information geometry, complexity
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