We present a unified framework that derives the fundamental forces, quantum properties, and macroscopic cosmic structures of the universe from the classical continuum mechanics of a single, energetic superfluid quantum vacuum. By modeling baryonic matter as localized energetic sinks and sources embedded within this viscous zero-point medium, we demonstrate that the mathematical boundaries between General Relativity and Quantum Mechanics dissolve seamlessly. On the subatomic scale, electric charge emerges as localized phase pumps (sources) and drains (sinks); fundamental spin maps directly to Onsager-Feynman quantized vortex circulation; the strong force manifests as the hydrodynamic tension of vortex filaments; and the weak force is derived as a localized fluid cavitation and vortex reconfiguration event. We resolve the electron proton collapse paradox via a dynamic equilibrium between inward hydrodynamic suction and outward electromagnetic radiation pressure. Crucially, we show that a systemic asymmetry—where vacuum sinking strictly exceeds sourcing due to internal energy conversion—natively derives mass and gravitational pressure gradients without dark matter or dark energy. Finally, we scale this exact fluid mechanism to the galactic level, proving that relativistic polar jets act as a necessary vertical pressure cushion that enforces flat galactic discs while simultaneously driving an equatorial entrainment current that naturally flattens stellar rotation curves.
Tristan Justice (2026) studied this question.