Published December 4, 2025 | Version v1

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

  • 1. Independent Researcher

Description

The Academic Model of Connected Ring Theory (CRT): Deriving Gravity from First Principles

Connected Ring Theory (CRT) presents a unified theoretical framework for quantum gravity, radically separating gravity from the concept of geometric spacetime curvature. It establishes a unified physical system based on the existence of a single, dynamic quantum energy field whose value varies across the cosmos.

I. Foundational Methodology and Mathematical Derivation

The theory relies on a rigorous mathematical methodology for deriving its laws, which grants it high theoretical power:

Derivation of the Characteristic Field Equation: The fundamental law of motion for the field (the Characteristic Field Equation) is not an assumption but the result of a complete derivation achieved by applying the Principle of Least Action to the field's total energy function (the Lagrangian). This derivation was performed after the explicit removal of geometric curvature terms (such as the Ricci curvature), making the law depend entirely on the potential and kinetic energy dynamics of the quantum field.

Functional Ansatz: Following the field equation's derivation, explicit functional forms are posited for two fundamental functions appearing within the equation (the Potential Energy Function and the Kinetic Coupling Function). This determination is not a derivation but a Functional Ansatz aimed at:

Explaining Dark Energy: The form of the Potential Energy Function defines the vacuum potential energy density, which represents dark energy.

Explaining Dark Matter: The form of the Kinetic Coupling Function dictates how the strength of gravity is modified in the low-acceleration regime.

II. The Mechanism of Gravity and the Interpretation of Time

Gravity and time are interpreted as intrinsic properties of the field's varying value:

Law of Motion (Minimum Stress): Mass acts as a source that generates a gradient in the field's value. The movement of a body within this gradient does not follow a curved path; instead, it follows the path of minimum stress or minimum effort, accelerating in the direction where the field value decreases.

Kinetic Interpretation of Time: The passage of time is linked to the effective speed of light within the field. When the field's value changes (due to proximity to a mass), the effective speed of light is locally modified. To uphold the constancy of the ultimate speed of light as a physical law, the local rate of time passage must slow down proportionally. Thus, time dilation is a kinetic resistance imposed by the field.

III. Quantum Signatures and Crucial Tests

The theory offers two quantum signatures that are observationally falsifiable, separating it from other models:

Dark Matter Solution (Unified Acceleration Law):

Prediction: In the limit of weak accelerations (such as in the outer regions of galaxies), the field's dynamics cause an additional gravitational force to emerge.

Result: This leads to the derivation of a Unified Gravitational Acceleration Law that mathematically combines the classical Newtonian acceleration with an inherent cosmic fundamental acceleration. This new law successfully matches the flat rotation curves of galaxies without requiring the assumption of dark matter, proving the effect is an intrinsic property of the field.

Gravitational Wave Dispersion (Effective Mass):

Derivation: A dispersion equation is derived from the Linearization analysis of the field equation. During this derivation, a Gravitational Wave Effective Mass term appears as a direct consequence of the second derivative of the Potential Energy Function.

Crucial Signature: This mass proves that gravitational waves disperse and travel at a speed less than the speed of light. This is tested via the Quantum Signature Equation, which predicts that the orbital decay rate of binary pulsars must be slower than General Relativity's prediction, and that this deviation is frequency-dependent

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