The Nasanjargal Metric and Scale Drive Mechanism: A Positive-Energy Framework for Superluminal Transport via ECSK Gravity and Discrete Hexagonal Lattice Integration

Abstract Traditional faster-than-light (FTL) propulsion concepts, such as the Alcubierre metric, remain bottlenecked by the requirement for unobserved exotic negative mass and astronomical energy thresholds. This paper presents a rigorous theoretical and architectural synthesis of the Nasanjargal Scale Drive Framework, operating within Einstein-Cartan-Sciama-Kibble (ECSK) gravity. By utilizing High-Frequency Gravitational Resonators (HFGRs) to generate concentrated spin density, the system induces repulsive geometric effects via space-time torsion proportional to rotational spin, satisfying the weak energy condition entirely with positive energy. Macroscopic boundary control is achieved through ADM metric decomposition and a hyperbolic tangent shape function, eliminating geometric cliffs. Microscopic stability is maintained via integration with a discrete hexagonal lattice governed by a Mod 9 invariant, a 7-cycle periodic break, the 5184 frequency threshold (72^2), and the 3I pulse sequence (8-13-8-5-13-8). Furthermore, Planck vacuum impedance matching at the Compton frequency yields an extreme resonant Q factor of \sim 10^{40}, scaling energy demands down to an industrial 10^{18}\text{ Joules}.