APPLIED SCIENCES: EXPERIMENTAL

Casimir-Resonance 2D CFD Simulation

This engine simulates the Quantum Plenum as a 2D finite-difference spatial grid. The two vertical grey bars represent the rigid 1.220 nm Graphene Lattice walls. Press and hold the exciter to fire the 76.45 MHz Bessel Beam into the center of the cavity.

How to interpret the data:

  • Blue/Red Waves: Acoustic pressure oscillating through the viscous Plenum.
  • Phase Locking: As the waves bounce off the Graphene boundaries, they constructively interfere, stacking the localized pressure (shear stress) higher and higher.
  • Zero-Point Venting: If you trigger the Overload, the acoustic pressure will exceed the $A_{RT}$ (50.41) limit. The $\beta_{TRT}$ Navier-Stokes stabilization cap engages to prevent mathematical blowup. You will visually see a bright flash of magenta—this demonstrates the localized fluid shearing (tearing), dropping the local viscosity to zero and theoretically resulting in the localized elimination of fluid drag.
  • The $V_T$ Link: As the acoustic nodes lock into stable positions within the cavity, they geometrically scale to the Total Vortex count ($V_T = 3A + Z$). The simulation demonstrates the raw kinetic energy required to sustain these nodal lattices against the fluid's baseline viscosity.

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