Published June 7, 2026 | Version v11
Preprint Open

Quantum Informational Geometrodynamics of the Bulk (QIG-Bulk): A Unified Topological and Riemann-Cartan, Version 7.4 (Expanded Formulation)

Description

We present the finalized formulation of the Quantum Informational Geometrodynamics of the Bulk (QIG-Bulk, Version 7.4), establishing a rigid bridge between microscopic quantum information and higher-dimensional spacetime manifold constraints. By expanding the pseudo-Riemannian continuum into a seven-dimensional (7D) Riemann-Cartan geometry
U4 ×M3 characterized by G2 manifolds with intrinsic torsion, we resolve long-standing limits of causal latency and electromagnetic coupling. Spacetime torsion, driven by asymmetric quantum spin density tensors, introduces a localized repulsive interaction acting as a geometric “anti-latency” filter during multi-body quantum tunneling. Under the Tripartite
Information Normalization constraint, (1/ϕ) + (1/ϕ3) + (1/ϕ4) = 1, the exact inverse finestructure constant (α−1) is analytically derived as a locked topological invariant matching the global CODATA target at 137.03599910. The model eliminates empirical free parameters and provides immediate predictive applications for macroscopic Schr¨odinger cat state retention in multi-atom clusters.

Acknowledgments:
The author reflects on the utility of advanced computational language models, specifically Gemini (Google), in facilitating the LaTeX typesetting, structural verification, and proofreading phases of this manuscript.

Files

TZIORTZIOS.pdf

Files (222.3 kB)

Name Size Download all
md5:4f367e0b818e6320cf67d353d3a5032f
222.3 kB Preview Download

Additional details

Related works

Is new version of
Preprint: 10.5281/zenodo.20528712 (DOI)

Dates

Issued
2026-05-26

References

  • [1] V. E. Tziortzios. The Wave Genesis of Spacetime. Zenodo Preprint, DOI: 10.5281/zenodo. 20275933, May 2026. [2] F. W. Hehl, P. von der Heyde, G. D. Kerlick, and J. M. Nester. General relativity with spin and torsion: Foundations and prospects. Reviews of Modern Physics, 48(3):393–416, 1976. [3] C. Cheung and G. N. Remmen. Hidden Simplicity of the Gravity Action. Journal of High Energy Physics, 2017(9):002, 2017. [4] E. Gazta˜naga. The Cosmological Constant as a Geometry-Matter Interface. Foundations of Physics, 52(4):85, 2022. [5] G. Amelino-Camelia. Quantum-Spacetime Phenomenology. Living Reviews in Relativity, 16(1):5, 2013. [6] C. Brukner. Quantum Causality. Nature Physics, 10(4):259–263, 2014. [7] E. Cartan. Sur les vari´et´es `a connexion affine et la th´eorie de la relativit´e g´en´erale. Annales Scientifiques de l' ´ Ecole Normale Sup´erieure, 40:325–412, 1923. [8] I. L. Shapiro. Physical Aspects of Spacetime Torsion. Physics Reports, 357(2):113–213, 2002. [9] V. E. Tziortzios. Quantum Informational Geometrodynamics of the Bulk (QIG-Bulk v7.2). Zenodo Repository, DOI: 10.5281/zenodo.20518949, June 2026. [10] E. Gazta˜naga, K. S. Kumar, and J. Marto. A new understanding of Einstein–Rosen bridges. Classical and Quantum Gravity, 43(2):025001, January 2026. [11] M. Gorski, L. Murchikova, et al. Discovery of an Energetic Wind from Sagittarius A*. The Astrophysical Journal Letters, 998(2):L14, June 2026. [12] V. E. Tziortzios. Quantum Informational Geometrodynamics of the Bulk (QIG-Bulk v7.3 - Initial Submission). Zenodo Repository, DOI: 10.5281/zenodo.20528712, June 2026. Submitted to Foundations of Physics (Springer Nature), June 2026.