Universmodel Protocol v2.4 – Extension (Part 3) The Micro-Hydraulics of Quantum Non-Locality and Material Energy Transfer: 4D Resonances, Sub-Spatial Exhaust Venting, and Helicoidal Boundary Conditions

This paper establishes the formal fluid-mechanical and quantitative laws governing the degradation of sub-spatial information, the mechanical stability thresholds of free nucleons, and the structural limits of material thermal conduction within a crystalline 3D superfluid. By evaluating the continuous energy leakage of a photon wavefront into the cosmic microwave background (CMB), we prove that EPR entanglement is mechanically non-infinite, possessing an absolute dimensional decay parameter locked to the lattice friction coefficient. Furthermore, we derive the exact spatial volume gradient of the neutron's external torsional stress cloud (Vstress ≈ 2.37 × 10-43 m3), physically demonstrating why high-velocity ram-pressure and sub-spatial Venturi exhaust venting into adjacent proton sinks dictate radioactive decay rates and nuclear binding energy. Finally, we mathematically model thermal energy transfer, proving that solid-state conduction efficiency is governed by structural shielding thresholds that isolate the 4D sub-spatial channel circuit against the universal cosmostatic base pressure P0.