This paper proposes a scale-invariant hydrostatic framework that addresses the foundational divide between macroscopic general relativity and microscopic quantum mechanics. By re-evaluating the relativistic vacuum metric not as an empty spatial container, but as a pressurized, supercritical fluid lattice, we demonstrate that core quantum and relativistic phenomena emerge naturally from a single underlying substrate. The fine-structure constant (alpha approx= 1/137) is physically mapped as an absolute hydrostatic cavitation threshold, wherein subatomic particles act as localized domains of omnidirectional vorticity. Under extreme localized energy densities, this pressurized lattice undergoes structural phase transformations and subsequent geometric collapse, providing a direct fluid-mechanical derivation for relativistic mass scaling, localized mass-generation via lattice drag, and macro-scale astrophysical transients such as Fast Radio Bursts.
Michael Zagar (Sun,) studied this question.