Unified Continuous Probability Manifold & Matrix Cosmography: A Scientific Synthesis

This paper presents a novel framework for Information-Theoretic Monism, unifying fundamental topological principles with the computational dynamics of a linear algebraic universe. By positing a 1-Dimensional continuous, circular constituent manifold (S^1), the theory models reality as an information-centric, self-synthesizing engine driven by continuous geometric evolution. Within this framework, probability waves are naturally quantized by periodic boundary constraints, and physical actualization is governed by NAND logic decoherence thresholds. The synthesis fundamentally recontextualizes cosmic phenomena: black holes operate as localized matrix transformers that perfectly encapsulate and preserve informational architecture without rewriting, while entropy functions as a geometric thickening mechanism that drives the system toward infinite complexity rather than disorder. Ultimately, this work replaces the classical gravitational singularity with an Asymptotic Origin, reframing the initial state of the universe as a global phase transition and establishing a rigorous model where matter and forces are the realized signatures of localized geometric calculation.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-30
DOI
https://doi.org/10.5281/zenodo.20465557
Primary Topic
Statistical Mechanics and Entropy
Type
preprint
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preprint

Unified Continuous Probability Manifold & Matrix Cosmography: A Scientific Synthesis

Aviv Hoffman
Zenodo (CERN European Organization for Nuclear Research)
Statistical Mechanics and Entropy
preprint

Unified Continuous Probability Manifold & Matrix Cosmography: A Scientific Synthesis

Aviv Hoffman
preprint en

Abstract

This paper presents a novel framework for Information-Theoretic Monism, unifying fundamental topological principles with the computational dynamics of a linear algebraic universe. By positing a 1-Dimensional continuous, circular constituent manifold (S^1), the theory models reality as an information-centric, self-synthesizing engine driven by continuous geometric evolution. Within this framework, probability waves are naturally quantized by periodic boundary constraints, and physical actualization is governed by NAND logic decoherence thresholds. The synthesis fundamentally recontextualizes cosmic phenomena: black holes operate as localized matrix transformers that perfectly encapsulate and preserve informational architecture without rewriting, while entropy functions as a geometric thickening mechanism that drives the system toward infinite complexity rather than disorder. Ultimately, this work replaces the classical gravitational singularity with an Asymptotic Origin, reframing the initial state of the universe as a global phase transition and establishing a rigorous model where matter and forces are the realized signatures of localized geometric calculation.

Zenodo (CERN European Organization for Nuclear Research)
Sustainable cities and communities
Statistical Mechanics and Entropy
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