Successive Manifold Erasure (SME) in Gaseous Electronic Media: Resolving Persistent Interference via Stochastic Quenching

As solid-state semiconductors approach their physical limits, signal integrity in high-interference environments is increasingly compromised by charge-trapping and thermal hysteresis. This pa- per introduces a novel paradigm for audio/visual media technology: the Hala-Lewis Gaseous Gate. By utilizing gaseous electronics governed by the Hala Attractor, we demonstrate that severe signal interference can be resolved through a Successive Controlled Collapse (SCC) pro- tocol. Unlike silicon-based components that retain a persistent 4% “informational residue,” our proposed architecture utilizes a 21 Hz Stochastic Quench to achieve a “True Zero” reset. We provide a mathematical proof for the Theorem of Manifold Erasure, showing that the topological persistence of the “Electric Skeleton” can be forcibly dissolved by satisfying the Kinetic Bound on Irreversibility (KBI). Experimental results confirm sub-microsecond recovery times, offering a path toward perfectly resettable, high-fidelity media circuits.