The Infinite Rearrangement Hypothesis: Identity Recurrence in Finite-Matter, Infinite-Time Cosmology

This work presents a rigorous mathematical and physical analysis of identity recurrence in an infinite-time universe with finite matter. Beginning from the author's long-standing conceptual question—if the universe persists indefinitely, what prevents the complete atomic configuration constituting an individual from reappearing arbitrarily far into the future?—the paper formalises this intuition using tools from Markov processes, ergodic theory, quantum recurrence, and cosmological boundary conditions. The universe is modelled as a finite or countably infinite microstate space Ω governed by a stochastic evolution {X_t}. Under irreducibility and aperiodicity, every measurable region with non-zero stationary probability is recurrent. The identity of an individual is represented as a coarse-grained Carlo Identity Field U ⊂ Ω, with functional consciousness density f(ω) and measure: \[\mu_C(U) = \int_U f(\omega)\, d\omega.\] Recurrence of identity follows from the Markov Chain Recurrence Theorem: \[P(X_t \in U \text{ for infinitely many } t) = 1.\] Quantum recurrence is established through quasi-periodic unitary evolution: \[\| U(t)\psi - \psi \| < \varepsilon,\] for arbitrarily large t and any ε > 0. The paper introduces the Carlo Temporal Equivalence relation: \[t_1 \sim t_2 \iff X_{t_1} \in U \text{ and } X_{t_2} \in U,\] and defines the full Carlo Loop: \[L = \{ t \in \mathbb{R} \mid X_t \in U \},\] representing all times at which identity is instantiated. A reversal analysis examines whether the present moment itself is almost certainly a recurrence of a prior instantiation of U, concluding that the probability of the present being the first occurrence is effectively zero. This document formalises a thought personally explored by the author for many years, now expressed in a complete Carlo-logical framework integrating physics, mathematics, and identity philosophy. This upload also features an accompanying interactive 3D WebGL visualiser built in HTML and Three.js, running stochastic ergodic phase-space models, Markov recurrence lattices, and topological transformations governed by the Infinite Rearrangement Hypothesis. Keywords: identity recurrence, ergodic theory, Markov processes, cosmology, quantum recurrence, entropy fluctuations, Carlo Identity Field, infinite-time universe, temporal equivalence, functional identity.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-13
DOI
https://doi.org/10.5281/zenodo.22734105
Primary Topic
Advanced Mathematical Theories and Applications
Type
article
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0.00
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article

The Infinite Rearrangement Hypothesis: Identity Recurrence in Finite-Matter, Infinite-Time Cosmology

Matthew Arthur Carlo
Zenodo (CERN European Organization for Nuclear Research)
Advanced Mathematical Theories and Applications
article

The Infinite Rearrangement Hypothesis: Identity Recurrence in Finite-Matter, Infinite-Time Cosmology

Matthew Arthur Carlo
article en

Abstract

This work presents a rigorous mathematical and physical analysis of identity recurrence in an infinite-time universe with finite matter. Beginning from the author's long-standing conceptual question—if the universe persists indefinitely, what prevents the complete atomic configuration constituting an individual from reappearing arbitrarily far into the future?—the paper formalises this intuition using tools from Markov processes, ergodic theory, quantum recurrence, and cosmological boundary conditions. The universe is modelled as a finite or countably infinite microstate space Ω governed by a stochastic evolution {X_t}. Under irreducibility and aperiodicity, every measurable region with non-zero stationary probability is recurrent. The identity of an individual is represented as a coarse-grained Carlo Identity Field U ⊂ Ω, with functional consciousness density f(ω) and measure: \[\mu_C(U) = \int_U f(\omega)\, d\omega.\] Recurrence of identity follows from the Markov Chain Recurrence Theorem: \[P(X_t \in U \text{ for infinitely many } t) = 1.\] Quantum recurrence is established through quasi-periodic unitary evolution: \[\| U(t)\psi - \psi \| < \varepsilon,\] for arbitrarily large t and any ε > 0. The paper introduces the Carlo Temporal Equivalence relation: \[t_1 \sim t_2 \iff X_{t_1} \in U \text{ and } X_{t_2} \in U,\] and defines the full Carlo Loop: \[L = \{ t \in \mathbb{R} \mid X_t \in U \},\] representing all times at which identity is instantiated. A reversal analysis examines whether the present moment itself is almost certainly a recurrence of a prior instantiation of U, concluding that the probability of the present being the first occurrence is effectively zero. This document formalises a thought personally explored by the author for many years, now expressed in a complete Carlo-logical framework integrating physics, mathematics, and identity philosophy. This upload also features an accompanying interactive 3D WebGL visualiser built in HTML and Three.js, running stochastic ergodic phase-space models, Markov recurrence lattices, and topological transformations governed by the Infinite Rearrangement Hypothesis. Keywords: identity recurrence, ergodic theory, Markov processes, cosmology, quantum recurrence, entropy fluctuations, Carlo Identity Field, infinite-time universe, temporal equivalence, functional identity.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 10%
Advanced Mathematical Theories and Applications
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