Quantum Metric Phase Array (qmpa)
Year: 2025
Type: article
Abstract: This deposit discloses the Quantum Metric Phase Array (QMPA), a spacetime-metric modulation engine intended to enable light-speed transit and apparent superluminal (coordinate) transport while maintaining strictly subluminal local proper velocities. The QMPA integrates (i) a toroidal lattice of cryogenic, high-Q superconducting cavities; (ii) phase-programmable parametric squeezing to generate spatially and temporally shaped negative- and positive-energy density bands; (iii) Casimir metasurface stacks and photonic-crystal waveguides to sculpt boundary conditions; and (iv) a plasma-magnet shaper that tunes anisotropic μ(ω)/ε(ω) to steer electromagnetic invariants and the resulting stress–energy tensor TμνT_{\mu\nu}Tμν. A real-time control stack (“Asyn Core OS”) solves reduced Einstein field equations in a 3+1 decomposition, co-simulated with quantum-optical cavity dynamics. The controller minimizes a metric-compliance functional while enforcing quantum inequality (QI) constraints and stability margins via predictive optimization. Two primary modes are defined: (A) a luminal corridor that suppresses transverse curvature and drives neff→1n_{\text{eff}}\to 1neff→1 along the travel axis; and (B) an asymmetric warp gradient using a front–aft shift-vector profile β(x,t)\boldsymbol{\beta}(\mathbf{x},t)β(x,t) to advect a protected interior region at a commanded coordinate velocity vbv_bvb. An enablement-grade bench demonstrator is specified (≤1 m ring, 9–18 GHz cavities, Q≈10⁹, r≈1.5–2.0 squeezing, 50–200 nm Casimir gaps, 1–5 T solenoid, cold plasma), together with metrology (atom interferometry, superconducting gravimetry) to detect a phase-locked gravitational signature consistent with the synthesized annular T00T_{00}T00 profile. The deposit includes claims, mathematical framework, control cost function, safety constraints, and a validation plan. IP note: This is a provisional-style disclosure intended to support priority and community visibility. All Rights Reserved — 2025. Patent pending. Apparent superluminal transport remains subject to experimental verification, QI bounds, and engineering scale-up.
Author: Langhorne, Jason
Language: English
Subfield: Atomic and Molecular Physics, and Optics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7075934669
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