How is 'Gravity' Originated in the Absolute Medium (AM) Model?
Introduction
In Mishu’s Absolute Medium (AM) Model, gravity is not a force transmitted through empty space nor a curvature of spacetime. Instead, it emerges from the behavior of a universal, ultra‑rigid yet dynamically responsive medium that fills all of existence. This article explains how gravity originates in the AM and how its physical mechanism arises naturally from the structure and flow of the Medium.
1. Mass Creates a Displacement Field in the Medium
Any concentration of mass–energy compresses and displaces the AM around it. This deformation creates an inward gradient—a tension field. The medium attempts to restore equilibrium, producing a steady‑state inflow toward the mass. The deformation is not a force acting at a distance but a change in the medium’s structure surrounding the mass.
2. Gravity Originates from Spherically Symmetric AM Inflow
The primary rule of AM gravity states that the Medium flows inward toward mass with a velocity: v_AM = √(gR). This inflow is universal across planets, stars, and large structures. The inflow is not metaphorical; it is a physical convection of the Medium toward regions of displaced density. Objects immersed in this flow are carried inward—not pulled—creating the phenomenon we recognize as gravity.
3. Interference Mechanism: The 2kε₁ε₂ Term
The enhanced Rule 5 derivation shows that gravitational attraction arises from an interference term between the AM displacements of two bodies: F ∝ 2kε₁ε₂. This term reproduces Newton’s inverse‑square gravitational law. This interference is the fundamental origin of gravity: overlapping displacement fields cause inward acceleration toward the source mass.
4. Gravity as a Result of Nonlinear Elasticity
Due to the Non‑Linear Elasticity Principle (NLEP), AM displacement flux falls as r⁻² while elastic pressure falls as r⁻⁴. This second‑order elasticity naturally produces gravitational potentials and relativistic corrections. Gravity arises from the medium’s resistance to deformation and its attempt to restore equilibrium through inward flow.
5. Gravity Does Not Require Curved Spacetime
In the AM Model, what general relativity describes as curvature is instead interpreted as gradients in the Medium’s density and wave speed. Light bends because it follows refractive paths through a denser medium near mass. Time dilation occurs because wave propagation slows in denser AM regions. These effects are geometric consequences of AM structure, not spacetime curvature.
6. The Source of Gravitational Acceleration
Objects accelerate toward a mass because they are embedded in a flowing medium. Their motion is analogous to leaves drifting toward a drain in water. The AM flow carries objects along geodesics defined by the medium’s structure. The acceleration arises because objects resist rapid relative motion against the AM (Intrinsic Kinetic Resistance, IKR) but move freely when carried by its flow.
7. The AM Pressure and Long‑Range Nature of Gravity
The AM possesses residual pressure that stretches across cosmic distances. Masses generate depressions in this pressure field. Because the medium is continuous and ultra‑rigid, the displacement propagates far, causing gravity to be long‑range. This explains why even distant galaxies influence each other.
8. Gravitational Waves as Elastic Waves in the Medium
When masses accelerate, they disturb the AM elastically, producing gravitational waves. These propagate through the Medium with slight dispersion due to its internal structure. This confirms that gravity is not a geometric abstraction but a physical oscillation in a real substrate.
Conclusion
In the Absolute Medium Model, gravity originates from the interaction between matter and the Medium: mass displaces the AM, the AM flows inward to restore equilibrium, overlapping displacement fields cause attraction, and objects accelerate because they are carried by the flow. Gravity is therefore a mechanical, structural consequence of the Medium—not an abstract force, nor a curvature of emptiness, but the dynamic response of a real physical substrate.