Spacetime as a Dynamic Energy Field: A Testable Quantum Gravity Theory"

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Authors: Abdullah Al Dawood
Cited by: 0

Abstract

The Connected Rings Theory (CRT): A New Paradigm in Quantum Gravity The Connected Rings Theory (CRT) introduces a radical and foundational shift in the landscape of modern physics by redefining gravity as a dynamic quantum energy Field. This framework fundamentally decouples gravitational interaction from the classical geometric interpretation of spacetime curvature, proposing instead that gravity is a direct force arising from the potential gradient of a material energy field. By applying the Principle of Least Action to the total field Lagrangian and systematically removing the geometric Ricci curvature term, CRT derives the complete dynamics of the cosmos through purely physical kinetics. This paradigm provides a unified resolution to long-standing cosmological challenges without the need for undetected particles. Dark Energy is revealed as the vacuum’s intrinsic self-potential energy, while Dark Matter emerges from a non-linear kinetic coupling function that modifies gravitational strength in low-acceleration regimes. Furthermore, the theory resolves the "singularity problem" by characterizing Black Holes as regions of Dynamic Isolation. In this view, the event horizon is a finite energy barrier where the field's density reaches a maximum quantum limit, thereby preserving quantum information and precluding infinite density. The definitive validation of CRT lies in its "Quantum Signature"—a frequency-dependent deviation in the orbital decay of binary pulsars, such as PSR J0737-3039A/B. By predicting a non-zero Effective Mass for gravitational waves, CRT moves beyond mathematical abstraction to offer a measurable, empirical framework that redefines the universe as a continuous, energetic system driven by potential gradients and quantum equilibrium.

Fields of Study & Subjects

Relativity and Gravitational Theory Noncommutative and Quantum Gravity Theories Cosmology and Gravitation Theories

Publication details

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