COMPREHENSIVE DOSSIER: THE FLUX DRIVE PROPULSION & METROLOGY SYSTEM

Title: The Flux Drive Propulsion & Metrology System: Superseding Continuous Spacetime Metrics with Flat Minkowski Velocity Slicing

Abstract:
Continuous-metric warp bubble architectures (such as the Alcubierre and Fuchs metrics) inherently fail to provide physically realizable interstellar transit mechanisms due to severe boundary violations. Frame-independent geometric scanning reveals that smoothing out metric step-functions over a finite width inevitably triggers Hawking-Ellis Type-IV stress-energy configurations containing complex eigenvalues. These configurations cannot be measured by a local physical observer and strictly violate thermodynamic causality. Furthermore, macroscopic stabilization requires unphysical negative energy densities (~ -4.82 × 10⁴⁰ J/m³), violating the Null Energy Condition (NEC), while the resulting forward-edge trapping horizons causally disconnect internal operators from steering or deactivating the field.

To preserve strict compliance with the NEC ( ) and eliminate boundary horizons, this dossier presents a mathematically consistent alternative: a Subluminal Time-Dilation Drive (Flux Drive) operating entirely within flat Minkowski spacetime. By restricting the constant cruise velocity profile to v = 0.9999962 ⋅ c, the system exploits kinematic time dilation to achieve a target Lorentz factor of γ = 365. This reduces a 4.3 light-year interstellar journey to a perceived duration of just 4.3 days for the internal payload.

To bridge theoretical relativistic physics with immediate laboratory validation, this work derives a physically closed engineering systems architecture. Crucially, the platform rejects un-testable macro-scale concepts in favor of a strict, Falsification-First Metrology Philosophy. We detail high-precision diagnostics designed to isolate and eliminate laboratory measurement artifacts—such as thermal-induced sensor drift, magnetic field leakages, and mechanical frame resonance—before active hardware integration. Key re-engineered subsystems specified include:

This comprehensive dossier includes the core mathematical proof, subsystem control diagnostic matrices, a 9-month work plan blueprint aligned with federal grant parameters, and the peer-review error tracking logs addressing sensor artifacts and inductive back-EMF coil quenching.