Biological arrow of time: Emergence of tangled information hierarchies and self-modelling dynamics

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Autori principali: Prokopenko, Mikhail, Davies, Paul C. W., Harré, Michael, Heisler, Marcus, Kuncic, Zdenka, Lewis, Geraint F., Livson, Ori, Lizier, Joseph T., Rosas, Fernando E.
Natura: Preprint
Pubblicazione: 2024
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author Prokopenko, Mikhail
Davies, Paul C. W.
Harré, Michael
Heisler, Marcus
Kuncic, Zdenka
Lewis, Geraint F.
Livson, Ori
Lizier, Joseph T.
Rosas, Fernando E.
author_facet Prokopenko, Mikhail
Davies, Paul C. W.
Harré, Michael
Heisler, Marcus
Kuncic, Zdenka
Lewis, Geraint F.
Livson, Ori
Lizier, Joseph T.
Rosas, Fernando E.
contents We study open-ended evolution by focusing on computational and information-processing dynamics underlying major evolutionary transitions. In doing so, we consider biological organisms as hierarchical dynamical systems that generate regularities in their phase-spaces through interactions with their environment. These emergent information patterns can then be encoded within the organism's components, leading to self-modelling "tangled hierarchies". Our main conjecture is that when macro-scale patterns are encoded within micro-scale components, it creates fundamental tensions (computational inconsistencies) between what is encodable at a particular evolutionary stage and what is potentially realisable in the environment. A resolution of these tensions triggers an evolutionary transition which expands the problem-space, at the cost of generating new tensions in the expanded space, in a continual process. We argue that biological complexification can be interpreted computation-theoretically, within the Gödel--Turing--Post recursion-theoretic framework, as open-ended generation of computational novelty. In general, this process can be viewed as a meta-simulation performed by higher-order systems that successively simulate the computation carried out by lower-order systems. This computation-theoretic argument provides a basis for hypothesising the biological arrow of time.
format Preprint
id arxiv_https___arxiv_org_abs_2409_12029
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Biological arrow of time: Emergence of tangled information hierarchies and self-modelling dynamics
Prokopenko, Mikhail
Davies, Paul C. W.
Harré, Michael
Heisler, Marcus
Kuncic, Zdenka
Lewis, Geraint F.
Livson, Ori
Lizier, Joseph T.
Rosas, Fernando E.
Populations and Evolution
Formal Languages and Automata Theory
Logic in Computer Science
Adaptation and Self-Organizing Systems
Cellular Automata and Lattice Gases
03Dxx, 68Qxx, 92Dxx, 37N25
F.1.1
We study open-ended evolution by focusing on computational and information-processing dynamics underlying major evolutionary transitions. In doing so, we consider biological organisms as hierarchical dynamical systems that generate regularities in their phase-spaces through interactions with their environment. These emergent information patterns can then be encoded within the organism's components, leading to self-modelling "tangled hierarchies". Our main conjecture is that when macro-scale patterns are encoded within micro-scale components, it creates fundamental tensions (computational inconsistencies) between what is encodable at a particular evolutionary stage and what is potentially realisable in the environment. A resolution of these tensions triggers an evolutionary transition which expands the problem-space, at the cost of generating new tensions in the expanded space, in a continual process. We argue that biological complexification can be interpreted computation-theoretically, within the Gödel--Turing--Post recursion-theoretic framework, as open-ended generation of computational novelty. In general, this process can be viewed as a meta-simulation performed by higher-order systems that successively simulate the computation carried out by lower-order systems. This computation-theoretic argument provides a basis for hypothesising the biological arrow of time.
title Biological arrow of time: Emergence of tangled information hierarchies and self-modelling dynamics
topic Populations and Evolution
Formal Languages and Automata Theory
Logic in Computer Science
Adaptation and Self-Organizing Systems
Cellular Automata and Lattice Gases
03Dxx, 68Qxx, 92Dxx, 37N25
F.1.1
url https://arxiv.org/abs/2409.12029