Information integration in elementary cellular automata
K\'atia K. Cassiano, Valmir C. Barbosa

TL;DR
This paper investigates how information integration emerges in elementary cellular automata by measuring total correlation in their long-term behavior, considering both deterministic and probabilistic rules, and identifying rules with high information integration potential.
Contribution
It introduces the application of total correlation to quantify information integration in elementary CA and analyzes all unique rules under negation and reflection, including probabilistic variants.
Findings
Certain rules generate high total correlation, especially in Wolfram classes 2 and 3.
Probabilistic CA rules can exhibit near-maximal information integration.
Some rules may serve as models for information integration phenomena.
Abstract
We study the emergence of information integration in cellular automata (CA) with respect to states in the long run. Information integration is in this case quantified by applying the information-theoretic measure known as total correlation to the long-run distribution of CA states. Total correlation is the amount by which the total uncertainty associated with cell states surpasses the uncertainty of the CA state taken as a whole. It is an emergent property, in the sense that it can only be ascribed to how the cells interact with one another, and has been linked to the rise of consciousness in the brain. We investigate total correlation in the evolution of elementary CA for all update rules that are unique with respect to negation or reflection. For each rule we consider the usual, deterministic CA behavior, assuming that the initial state is chosen uniformly at random, and also the…
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Taxonomy
TopicsCellular Automata and Applications · Theoretical and Computational Physics · Neural dynamics and brain function
