A Multi-Layered Brane Cosmology Driven by Chiral Torsion

Read full text
Authors: Fumika Sakamoto
Cited by: 0

Abstract

Refined the manuscript by correcting minor typos and improving formatting. No structural changes were made to the proposed A-Theory. We propose a speculative but formally grounded cosmological framework, termed A-Theory, in which the universe is modeled as a seven-layered structure (L1–L7) emerging from a pre-geometric informational domain referred to as Space. The dynamics of this layered universe are governed by a chiral torsion field, extending concepts from Einstein–Cartan gravity and brane-world cosmology. Right-handed torsion is associated with entropy production and compressive information flow, while left-handed torsion defines invariant, non-interfering domains that preserve informational structure, enable information preservation, and provide resistance to external torsional disturbance. Within this framework, gravity is reinterpreted as an effective Internal Gravity Gas (IGG)—a macroscopic manifestation of spacetime density and information compression—flowing across layers. We outline how torsional imbalances may contribute to observable phenomena, including cosmological expansion asymmetries and rotational seismic effects. Finally, we discuss a highly speculative extension in which consciousness is modeled as a non-local informational field weakly coupled to torsion, potentially permitting traversal across layers via stable wormhole-like configurations in the primordial domain. This extension is intended as a conceptual inspiration rather than an empirically established physical model. While exploratory in nature, the model yields qualitative predictions that may be testable through cosmological observations and laboratory-scale analog systems.

Fields of Study & Subjects

Cosmology and Gravitation Theories Paranormal Experiences and Beliefs Quantum Mechanics and Applications

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
3 January 2026
Language
EN
Document type
Preprint