A Data-Backed Framework for Stabilized Traversable Wormholes: Multilayer Casimir Cavity Arrays and Dynamic Field Confinement

This Version 2 (V2) preprint presents an updated, data-backed numerical framework for stabilizing a traversable wormhole throat. To overcome the positive plasma pressure (+1.00 × 10⁸ J/m³ at B = 15.8 T), we calculate a minimum requirement of N ≥ 145 layers of nanometer Casimir cavity arrays to achieve a net negative energy-momentum tensor (T₀₀ < 0). Dynamic time-series simulation confirms that an active feedback control loop α(t) successfully mitigates vacuum fluctuations, driving the system to stable equilibrium within 30 seconds and activating a fully traversable throat at t = 65 s under a peak power requirement of 42 MW.