JSN01/ECA-GR Hybrid Theory 0.2

Description: This work presents a complete theoretical framework, designated as the hybrid JSN01/ECA-GR model. The system demonstrates how smooth spacetime geometry and gravity can naturally emerge from a microscopic, discrete network of cells (elementary cellular automata) that process information based on memory and geometric rules. By combining all physical properties into a single unified index and employing a sixth-order Ginzburg-Landau energy landscape, the model provides concrete mathematical solutions to long-standing problems in modern physics, particularly regarding black holes. Key physical and mathematical results of this work include: Elimination of singularities: We rigorously prove that as one approaches the center of a collapsing body, the gravitational ratio drops to zero. This completely eliminates the infinite densities and physical singularities found in classical general relativity, replacing them with a stable, high-density core (the ECA core). Optical transparency: We show that light neither freezes nor stops within the core. Instead, the speed of light returns to its normal value at the very center, meaning the core acts as a high-density, non-singular gradient optical medium through which light can pass. Horizon thermodynamics: The formation of a black hole horizon is shown to be a first-order thermodynamic phase transition that expands like a physical bubble upon reaching critical mass. Information retention: By introducing a causal, exponential memory kernel, we demonstrate how the network preserves information. Canonical quantization reveals a stable, discrete energy spectrum within the core, implying that quantum information is securely preserved—thereby resolving the famous black hole information loss paradox. The provided LaTeX source code includes complete axiomatic mathematical derivations, an implementable matrix evolution rule for numerical simulations, and native TikZ/PGFPlots vector graphics that visualize both the energy potential and the curvature regularization.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-27
DOI
https://doi.org/10.5281/zenodo.20959470
Primary Topic
Black Holes and Theoretical Physics
Type
article
Field-Weighted Citation Impact
0.00
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article

JSN01/ECA-GR Hybrid Theory 0.2

Banya Jan
Zenodo (CERN European Organization for Nuclear Research)
Black Holes and Theoretical Physics
article

JSN01/ECA-GR Hybrid Theory 0.2

Banya Jan
article en

Abstract

Description: This work presents a complete theoretical framework, designated as the hybrid JSN01/ECA-GR model. The system demonstrates how smooth spacetime geometry and gravity can naturally emerge from a microscopic, discrete network of cells (elementary cellular automata) that process information based on memory and geometric rules. By combining all physical properties into a single unified index and employing a sixth-order Ginzburg-Landau energy landscape, the model provides concrete mathematical solutions to long-standing problems in modern physics, particularly regarding black holes. Key physical and mathematical results of this work include: Elimination of singularities: We rigorously prove that as one approaches the center of a collapsing body, the gravitational ratio drops to zero. This completely eliminates the infinite densities and physical singularities found in classical general relativity, replacing them with a stable, high-density core (the ECA core). Optical transparency: We show that light neither freezes nor stops within the core. Instead, the speed of light returns to its normal value at the very center, meaning the core acts as a high-density, non-singular gradient optical medium through which light can pass. Horizon thermodynamics: The formation of a black hole horizon is shown to be a first-order thermodynamic phase transition that expands like a physical bubble upon reaching critical mass. Information retention: By introducing a causal, exponential memory kernel, we demonstrate how the network preserves information. Canonical quantization reveals a stable, discrete energy spectrum within the core, implying that quantum information is securely preserved—thereby resolving the famous black hole information loss paradox. The provided LaTeX source code includes complete axiomatic mathematical derivations, an implementable matrix evolution rule for numerical simulations, and native TikZ/PGFPlots vector graphics that visualize both the energy potential and the curvature regularization.

Zenodo (CERN European Organization for Nuclear Research)
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Black Holes and Theoretical Physics
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