Superfluid Vacuum Cosmology: Meso-Scale Hydrodynamics, Acoustic Boundary Friction, and the Closed-Loop Hydraulic Architecture of Solar Systems

We present a scale-invariant extension of the Superfluid Vacuum Cosmology (SVC) framework, transitioning from galactic white hole dynamics to the meso-scale fluid mechanics governing solar system architecture. Rather than treating planets as isolated, passive bodies governed purely by classical gravity, this monograph formalizes the solar system as a closed-loop hydraulic circuit embedded within a compressible Bose-Einstein Condensate (BEC) vacuum substrate. By applying the Gross-Pitaevskii Equation (GPE) and Madelung hydrodynamic transformation to planetary boundary interfaces, we derive explicit field equations for acoustic radiation stress, boundary shear torque, and magnetic inheritance via trapped vortex circulation. We demonstrate that Venusian hyper-thermal conditions and retrograde spin-lock arise naturally from acoustic boundary friction (\tau) in kinematic opposition, while planetary magnetic moments (\mu_{\text{ac}}) scale deterministically with captured stellar vorticity (\Gamma_p). This completes the bridge between micro-quantum vacuum mechanics and macro-scale cosmic topology.