Dual Gravity: Gradient-Based Extension of Gravitation

We propose Dual Gravity (DG), a gradient-based extension of Newtonian and relativistic gravitation. The model introduces three modulation layers: (1) rotational correction including frame-dragging, (2) local energy-density gradients spanning thermal, electromagnetic, and bioenergetic fields, and (3) galactic-scale quantum harmonic coupling. The formalism explicitly defines a normalized energy-density gradient term, constrained by GPS, GRACE, and Gravity Probe B data. Three falsifiable predictions are outlined: (i) quantum/optical clock drift in controlled energy-density gradient fields, (ii) gravimetric anomalies under superconducting excitation, and (iii) null-phase frequency modulations at L2 orbital positions. Motivated by quantum teleportation anomalies observed in laboratory experiments, DG bridges laboratory-scale quantum phenomena with astrophysical gravitation. This framework respects General Relativity at leading order while providing a testable pathway linking local energetic environments to galactic-scale dynamics.