The Calm Point Protocol: A Framework for Vacuum-Based Transmitting via High-Frequency Topological Saturation

Current engineering endeavors in high-energy physics aimed at generating micro-black holes (spatiotemporal singularities) remain critically constrained by their exceptionally brief lifespans within real spacetime (~10⁻²⁷ seconds) and the accompanying threshold of instantaneous evaporation via Hawking radiation. Deviating from the conventional paradigm of macroscopically sustaining singularities, this paper introduces a novel, laboratory-scale engineering protocol for fabricating and observing bidirectional spatiotemporal channels (black/white hole convective horizons) grounded in a result-oriented inverse deductive methodology. By subjecting a specific vacuum target domain to continuous, ultra-high-frequency, and high-intensity impulse bombardments, the localized spatiotemporal metric is driven into a state of Dynamic Topological Saturation. This induces non-linear destructive phase interference between gravitational waves and quantum vacuum fluctuations at the interface of real and imaginary spaces, thereby artificially generating a zero-noise "Calm Point" horizon channel within an otherwise volatile collision environment. This paper demonstrates the engineering viability of unilaterally transmitting artificially encoded pulse streams into an imaginary space (Generalized Complex Spacetime Metric) via this channel. Furthermore, leveraging the verified phenomena of Vacuum Birefringence and Vacuum Memory, we design a fully empirical, non-destructive optical verification framework utilizing wave-particle duality to confirm cross-dimensional data transmission.