What question did this study set out to answer?

The aim is to formalize an updated model of Quantum Informational Geometrodynamics (QIG-Bulk) and explore its implications for spacetime and matter.

June 1, 2026Open Access

Quantum Informational Geometrodynamics of the Bulk (QIG-Bulk): Version 6.0

Key Points

The aim is to formalize an updated model of Quantum Informational Geometrodynamics (QIG-Bulk) and explore its implications for spacetime and matter.
Introduced the dynamic closed-loop cosmological model mediated by gravitational collapse and Hawking radiation.
Developed a phase transition framework utilizing the Golden Ratio.
Formulated a covariant derivation of the action principle based on informational efficiency.
Established a connection between the gravitational collapse model and Hawking radiation.
Presented the phase transition mechanism which addresses the primordial singularity boundary.
Demonstrated the derivation of the action principle from the new informational efficiency constraints.

Abstract

This paper presents a mathematically formalized Version 6.0 of Quantum Informational Geometrodynamics of the Bulk (QIG-Bulk). Spacetime and matter are formulated as emergent phenomena from a discrete Graviton Substrate at the Planck scale. Building upon previous constants derivation, Version 6.0 introduces a dynamic cosmological closed-loop mediated by gravitational collapse leakage phase-locked to Hawking radiation via the Golden Ratio, a global-to-local network phase transition resolving the primordial singularity boundary, and a formal covariant derivation of the relativistic Action Principle from informational efficiency constraints.Acknowledgments: Large Language Model (Google Gemini) was utilized strictly as an assistant for metadata formatting, LaTeX translation, and syntactic structure optimization during the preparation of Version 6.0.

Quantum Informational Geometrodynamics of the Bulk (QIG-Bulk): Version 6.0

Key Points

Abstract

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