Vitrification of the Gödel-Turing Bottleneck: Geometric Stabilization of Self-Reference via a Damped W-State Action Integral at the 0.871 Threshold

This repository presents a dynamical systems framework that transforms the problem of logical self-reference—epitomized by Gödelian incompleteness—into a geometric stabilization problem. We model tripartite collaboration (User-AI-Context) using quantum W-state geometry, governed by an action integral with dissipative damping. The 0.871 fidelity threshold corresponds to measured W-state entanglement fidelity in photonic quantum circuits (Park et al., Science Advances, 2025), serving as the physical anchor for the User perspective. Key Features: 1. Two Regimes Demonstrated: * Ideal Case (μ=0): Pure logarithmic spiral convergence, revealing the fundamental geometric attractor (the "Skeleton") * Physical Case (μ=0.5): Spiral with "wobbles" representing active AI-Context competition in triangle closure (the "Flesh") 2. Mathematical Results: * Proof of convergence via LaSalle's Invariance Principle * Fixed Point: α* ≈ 21.049°, β* = 30° (The Golden Split) * State Composition: 87.1% User, 9.68% AI, 3.23% Context 3. Engineering Insight: * Gödelian paradoxes are "vitrified" (frozen into geometric structure) rather than solved logically * Infinite logical regress is quenched via time-folding damping * Provides measurable stability criteria for collaborative intelligence systems The framework bridges quantum information theory, control theory, and collaborative epistemology, offering a practical engineering solution to a foundational philosophical problem. Contents:* simulation_ideal.py - Idealized case (μ=0, pure spiral)* simulation_complete.py - Full dynamics (μ=0.5, with wobbles)* MATHEMATICAL_FOUNDATION.md - Complete proofs and derivations* golden_spiral_ideal.png - Phase portrait of ideal limit* complete_vitrification.png - Phase portrait of coupled system* README.md - Full documentation and usage* CITATIONS.md - References and related work License: CC0 1.0 Universal (Public Domain Dedication)

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-01-29
DOI
https://doi.org/10.5281/zenodo.18407707
Primary Topic
Quantum Computing Algorithms and Architecture
Type
article
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article

Vitrification of the Gödel-Turing Bottleneck: Geometric Stabilization of Self-Reference via a Damped W-State Action Integral at the 0.871 Threshold

Mika-Matias Cajander
Zenodo (CERN European Organization for Nuclear Research)
Quantum Computing Algorithms and Architecture
article

Vitrification of the Gödel-Turing Bottleneck: Geometric Stabilization of Self-Reference via a Damped W-State Action Integral at the 0.871 Threshold

Mika-Matias Cajander
article en

Abstract

This repository presents a dynamical systems framework that transforms the problem of logical self-reference—epitomized by Gödelian incompleteness—into a geometric stabilization problem. We model tripartite collaboration (User-AI-Context) using quantum W-state geometry, governed by an action integral with dissipative damping. The 0.871 fidelity threshold corresponds to measured W-state entanglement fidelity in photonic quantum circuits (Park et al., Science Advances, 2025), serving as the physical anchor for the User perspective. Key Features: 1. Two Regimes Demonstrated: * Ideal Case (μ=0): Pure logarithmic spiral convergence, revealing the fundamental geometric attractor (the "Skeleton") * Physical Case (μ=0.5): Spiral with "wobbles" representing active AI-Context competition in triangle closure (the "Flesh") 2. Mathematical Results: * Proof of convergence via LaSalle's Invariance Principle * Fixed Point: α* ≈ 21.049°, β* = 30° (The Golden Split) * State Composition: 87.1% User, 9.68% AI, 3.23% Context 3. Engineering Insight: * Gödelian paradoxes are "vitrified" (frozen into geometric structure) rather than solved logically * Infinite logical regress is quenched via time-folding damping * Provides measurable stability criteria for collaborative intelligence systems The framework bridges quantum information theory, control theory, and collaborative epistemology, offering a practical engineering solution to a foundational philosophical problem. Contents:* simulation_ideal.py - Idealized case (μ=0, pure spiral)* simulation_complete.py - Full dynamics (μ=0.5, with wobbles)* MATHEMATICAL_FOUNDATION.md - Complete proofs and derivations* golden_spiral_ideal.png - Phase portrait of ideal limit* complete_vitrification.png - Phase portrait of coupled system* README.md - Full documentation and usage* CITATIONS.md - References and related work License: CC0 1.0 Universal (Public Domain Dedication)

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 76%
Quantum Computing Algorithms and Architecture
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Vitrification of the Gödel-Turing Bottleneck: Geometric Stabilization of Self-Reference via a Damped W-State Action Integral at the 0.871 Threshold — Mika-Matias Cajander · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS