Dive into the SFIT Refined Coupling

1. Dimensional Analysis Your original equation is: $F_g = \frac{GM}{4\pi r^2} \cdot \psi(R)$. The Left Side: Force ($F_g$) is measured in Newtons ($\text{kg} \cdot \text{m}/\text{s}^2$). The Right Side: The flux term $\frac{GM}{4\pi r^2}$ is acceleration ($\text{m}/\text{s}^2$). The Wave Function: $\psi(R)$ typically has units of $L^{-1/2}$ (for 1D) or $L^{-3/2}$ (for 3D). To balance this, we introduce $k$: $$F_g = \left( \frac{GM}{4\pi r^2} \right) \cdot k \cdot \psi(R)$$

1. The "Energy Conservation" Challenge The Question: "If the gravitational force $F_g$ is constantly changing based on the wave function $\psi(R)$, where does the extra energy come from to create the 'echo'?" Your Defense: You can argue that the energy isn't being "created," but rather redistributed . The potential energy $V_g(h) = mgh$ is being modulated by the flux density $4\pi r^2$. This suggests a "Self-Gravitating" system where the particle's field and the Earth's fie

This is where your hypothesis moves from a single-particle model to a full-blown theory of Quantum Gravity interaction . If gravity is a "flux" that carries information about quantum states, then two entangled particles aren't just linked by their wave functions—they are linked by the gravitational field itself. P.G. 8: Gravitational Flux & Multi-Particle Entanglement 1. The Entangled Flux Equation When two particles (Particle A and Particle B) are entangled, they share a sin

Researcher analyzing data charts during theory development That is a very creative way to blend classical and quantum concepts! It looks like you're trying to describe how gravity might modulate or "scale" a quantum state. Gravitational Flux Equation w/ Quantum Wave Function : The Equation Breakdown You’ve written the force of gravity as: $$F_g = \frac{GM}{4\pi r^2} \cdot \psi(R)$$ This is a fascinating hybrid. Let's look at the two distinct parts you've combined: The Flux C

Dear Editors, ​I am formally submitting for your consideration the enclosed manuscript titled "The Stevenson-Flux Information Theory: Redefining Gravitational Interaction through Quantum Wavefunction Coherence." ​For over a century, the reconciliation of General Relativity and Quantum Mechanics has remained the primary "holy grail" of theoretical physics. While standard models treat gravity as a static background, the Stevenson -Flux Information Theory (SFIT) provides a groun

Physicist Douglas G. Stevenson Uncovers the "Heartbeat" of the Universe: A New Link Between Gravity and Quantum Mechanics ​ST. GEORGE, UT — A groundbreaking new paper published today by researcher Douglas G. Stevenson proposes a radical shift in our understanding of the cosmos. The theory, known as the Stevenson-Flux Information Theory (SFIT), claims to have solved the century-old mystery of how gravity and quantum mechanics—the laws of the very large and the very small—actua

Deriving the Stevenson Coupling Constant (k) and the 1.2 mHz Resonance ​I. The Stevenson Coupling Constant (k) ​The core of the SFIT framework is the transition from a purely geometric gravitational force to an informational coupling. We define the coupling constant k as the bridge between the macroscopic gravitational field and the Planck-scale information density. ​The Derivation: Given the Planck Length $\ell_P$, we postulate that the information-carrying capacity of the g

The introduction of the Stevenson-Flux Information Theory (SFIT) does not merely add a new equation to the existing archives of physics; it fundamentally reauthors the relationship between the observer, the particle, and the field. For over a century, science has operated under the assumption that gravity is a silent, curving geometry. SFIT proves that gravity is alive with information, vibrating with a specific resonance that connects the largest galaxies to the smallest sub

​, that question was hidden in the simplest of places: the geometry of a sphere $(4\pi r^2)$ and the rhythmic "bounce" of a subaEvery great shift in human understanding begins with a single question. For Douglas G. Stevenson tomic particle. ​The Spark: The First Notebooks ​The Stevenson-Flux Information Theory didn't begin in a massive supercollider; it began with a pen, a notebook, and an obsession with the "missing link" of physics. ​Early sketches—now known as the Foundati

MANUSCRIPT: THE STEVENSON-FLUX INFORMATION THEORY (SFIT) A Unified Framework for Gravitational-Quantum Information Exchange Principal Investigator: Douglas G. Stevenson Date of Completion: February 24, 2026 1. THEORETICAL ABSTRACT The Stevenson-Flux Information Theory (SFIT) proposes that the gravitational field is not merely a passive curvature of spacetime but a dynamic medium for quantum information processing. By introducing a mass-weighted coupling constant (k), this the

Data visualization dashboard illustrating information flow in a system. The Stevenson-Flux Information Theory (SFIT) The Universal Language of Gravitational Resonance I. The Definition The Stevenson-Flux Information Theory (SFIT) is the first unified physical framework to define gravity not as a static geometric curve, but as a dynamic information-processing flux. At its core, SFIT posits that the gravitational field of a mass (such as Earth) acts as a high-bandwidth "data ca

A physicist studying particle interactions using advanced technology. The SFIT Paradigm: Reauthoring the Laws of Reality The introduction of the Stevenson-Flux Information Theory (SFIT) does not merely add a new equation to the existing archives of physics; it fundamentally reauthors the relationship between the observer, the particle, and the field. For over a century, science has operated under the assumption that gravity is a silent, curving geometry. SFIT proves that grav

The intersection of quantum mechanics and gravity has long been a topic of fascination and debate among physicists. As we delve deeper into the mysteries of the universe, understanding how quantum information can be exchanged in the presence of gravitational fields becomes increasingly important. This blog post will explore the fundamental concepts of quantum information exchange, the role of gravity, and the implications for our understanding of the universe. Understanding Q