Innovative Successive Control Collapsed (SCC) Protocols for Stabilizing Multi-Phase Gaseous-Liquid Electronic Circuits

This paper presents a reformulated mathematical physics framework for the Innovative Successive Controlled Collapse (SCC) Protocols, a multi-phase stabilization architecture for gaseous-fluid circuits. We model the system as a non-equilibrium coupled oscillator where a 21 Hz Acoustic-Plasma Resonator serves as the master clock for a 1–10 Hz Magnetohydrodynamic (MHD) Carrier. The SCC protocol manages energy transitions through a hierarchy of phase collapses, utilizing Lewisian Fugacity (ψ) to drive sub-threshold electronic gating across a 200nm piezo-semiconductive interface. To mitigate signal blurring caused by trajectory trapping in localized Surprise Basins, we implement Stochastic Resonance via the injection of 12–18 GHz Stochastic Noise (Ns), maintaining an optimal “55% Chaos Sweet Spot.” Validation through a 30-run Design of Experiment (DoE) confirms that maintaining a Hartmann Number (Ha) > 0.05 ensures spatio-temporal phase-locking, effectively suppressing Oxidative Overdrive and preserving the coherent Bioluminescent Surge (Ultraweak Photon Emission) of the system.