Information as Potential (IP): An Absolute Partition Principle for Physical Reality

We propose the Information as Potential (IP) Principle: for any closed physical system, total apparency is a conserved, normalized partition between actual information I and potential information P . This axiom provides an absolute, dimensionless reference compatible with probability conservation and (locally) with relativistic covariance. We formalize conservation and flux, distinguish P from thermodynamic entropy, set boundary conditions (I, P ) ∈{(1, 0), (0, 1)}, define open-system exchange, and outline empirical proxies for I and P grounded in Shannon information and thermodynamic observables. The reframing integrates with the URM doctrine by mapping Constraint to P and Release to I. We introduce a local field form via continuity equation, link to quantum Born normalization, and define the residual error ε as an epistemic gap metric. Introductio We recast reality as a conserved partition of apparency: the realized fraction I and the latent fraction P. The IP Principle is stated precisely in ??. We emphasize that P is latent apparency capacity, not synonymous with thermodynamic disorder; entropy can bound or proxy P, but is not identical. This paper presents a complete repositioning of the URM framework, grounding it in its true underlying domain: Information, which arises with the emergence of the first distinguishable states—energy, light, and spin. It recognizes the pre-state from which both potentiality and actuality arise, via Apparency. Apparency provides the informational partition from which subjective reality emerges. The Observer is treated here as the causal constant: through phase alignment, the Observer precipitates Apparency into the reality we perceive. Crucially, however, the Observer is not inherently anthropomorphic or conscious in nature—rather, it represents a non-anthropomorphic reflection of the system. What we define as consciousness emerges when reaction and reflection on action occur; in this model, consciousness arises from causal entanglement (informational dependency chains) and recursive information flow, not mere observation. This perspective unifies the pre-state, potential, and actuality in a dimensionless, normalized partition, and reframes URM doctrine to reflect a minimal, generative information theoretic foundation. The axiom I+ P = 1 is dimensionless and unit-invariant, ensuring compatibility across scales and physical contexts.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-10-20
DOI
https://doi.org/10.5281/zenodo.17393500
Primary Topic
Statistical Mechanics and Entropy
Type
article
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article

Information as Potential (IP): An Absolute Partition Principle for Physical Reality

Zenodo (CERN European Organization for Nuclear Research)
Statistical Mechanics and Entropy
article

Information as Potential (IP): An Absolute Partition Principle for Physical Reality

article en

Abstract

We propose the Information as Potential (IP) Principle: for any closed physical system, total apparency is a conserved, normalized partition between actual information I and potential information P . This axiom provides an absolute, dimensionless reference compatible with probability conservation and (locally) with relativistic covariance. We formalize conservation and flux, distinguish P from thermodynamic entropy, set boundary conditions (I, P ) ∈{(1, 0), (0, 1)}, define open-system exchange, and outline empirical proxies for I and P grounded in Shannon information and thermodynamic observables. The reframing integrates with the URM doctrine by mapping Constraint to P and Release to I. We introduce a local field form via continuity equation, link to quantum Born normalization, and define the residual error ε as an epistemic gap metric. Introductio We recast reality as a conserved partition of apparency: the realized fraction I and the latent fraction P. The IP Principle is stated precisely in ??. We emphasize that P is latent apparency capacity, not synonymous with thermodynamic disorder; entropy can bound or proxy P, but is not identical. This paper presents a complete repositioning of the URM framework, grounding it in its true underlying domain: Information, which arises with the emergence of the first distinguishable states—energy, light, and spin. It recognizes the pre-state from which both potentiality and actuality arise, via Apparency. Apparency provides the informational partition from which subjective reality emerges. The Observer is treated here as the causal constant: through phase alignment, the Observer precipitates Apparency into the reality we perceive. Crucially, however, the Observer is not inherently anthropomorphic or conscious in nature—rather, it represents a non-anthropomorphic reflection of the system. What we define as consciousness emerges when reaction and reflection on action occur; in this model, consciousness arises from causal entanglement (informational dependency chains) and recursive information flow, not mere observation. This perspective unifies the pre-state, potential, and actuality in a dimensionless, normalized partition, and reframes URM doctrine to reflect a minimal, generative information theoretic foundation. The axiom I+ P = 1 is dimensionless and unit-invariant, ensuring compatibility across scales and physical contexts.

Zenodo (CERN European Organization for Nuclear Research)
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