While the conventional model of gravity arises from the curvature of space-time due to mass-energy (as described by Einstein’s General Relativity), this framework offers an alternate but compatible origin: gravity as a manifestation of vacuum pressure acting upon the internal polarity fields of atomic matter.
As matter condensed from the torque-induced collapse of the vacuum, each stable structure—be it a proto-particle or atomic nucleus—developed an internal field gradient, a spatially coherent distribution of charge or polarization. These structures do not sit passively in the quantum vacuum; rather, they resist the random fluctuations of the quantum foam.
The quantum vacuum, as observed in phenomena like the Casimir effect, exerts measurable force due to suppressed field modes in confined geometries. Similarly, the presence of matter polarizes the surrounding vacuum, creating asymmetries in vacuum pressure. These asymmetries do not pull objects together in the Newtonian sense, but rather result in a net inward push—compressing space between stable atomic fields.
Let Φ_atom represent the polarity coherence potential of an atom. The gradient of vacuum pressure P_vac interacting with this internal field produces a force:
F_grav ≈ -∇(P_vac · Φ_atom)
This mirrors the form of forces in fluid mechanics, specifically the Marangoni effect, where differences in surface tension produce lateral motion. In our context, the “surface tension” is the energetic response of the vacuum to internal polarity structures.
This model reframes gravity as an emergent statistical and geometric interaction between:
- The polarized matter field,
- The quantum vacuum’s fluctuating energy density,
- And the inherent pressure gradients produced by suppressed or redirected quantum modes.
This view is supported by experimental results in quantum field theory:
- The Casimir force is already a form of vacuum pressure between conducting plates,
- The Lamb shift in atomic spectra shows vacuum-induced modifications of energy levels,
- And vacuum polarization effects in QED show how the vacuum behaves like a nonlinear dielectric medium.
In this framework, gravity arises when atomic systems with coherent internal fields alter the structure of the vacuum surrounding them. The more massive and coherently polarized the structure, the more significant the pressure gradient it generates. These gradients overlap in space, creating collective curvature effects in the vacuum field—a pressure geometry we experience as gravity.
Unlike the direct attraction proposed by Newton, or the space-time curvature in Einstein’s formulation, this model describes gravity as a compression effect—arising from the interaction of structured atomic fields with an inherently pressurized and reactive vacuum.
Thus, matter falls not because it is pulled, but because the vacuum compresses space around polarity-stable fields. Gravity is the vacuum's response to the emergence of order.
