A unified theoretical framework that derives Newton's gravitational constant G from first principles — with zero free parameters and 0.064% accuracy. Spanning particle physics, emergent gravity, and cosmic evolution.

A physical mechanism from gluon condensation — the nonzero gluon condensate induces persistent strain in the quantum vacuum, producing the mass gap with zero free parameters. Predicts m = 1.65 ± 0.15 GeV vs. lattice value 1.71 ± 0.05 GeV.
Effective Potential
V(φ) = (λ/4)φ⁴ − Jφ
Mass Gap
m² = 3λ1/3J2/3
Confinement
V(r) = σr, σ ≈ (440 MeV)²
Both λ and J derived from QCD — no fitting
Two major unsolved problems — the Yang-Mills mass gap (Clay Millennium Problem) and the origin of Newton's G — emerge from a single mechanism: persistent vacuum strain induced by the gluon condensate. No free parameters. No extra dimensions.
ΔG/G ≈ -3 Δα/α — If the fine-structure constant varies, G must vary proportionally. Falsifiable with current precision experiments.
The Ashebo Method bridges quantum mechanics, gravity, and cosmology through a field-first ontology. Particles, forces, and cosmic structure all emerge from the dynamics of two scalar fields.
Particles emerge as Resonance Valley geometries in fundamental fields. The valley [neutron] is a geometric structure formed by proton-electron synchronization.
Explore Valley TheoryGravity emerges from baryon asymmetry and symmetry restoration. The gravitational coupling G = A(t) × R(t) yields g(t) = G·M/r², with Lorentz symmetry as an effective symmetry.
Explore GravityThe universe evolves through feedback loops between fields and matter. Structure formation, tidal forces, and spacetime curvature emerge naturally.
Explore CosmologyThe future shapes the present. Gravity emerges as net field tension (g = φ_c − R) between two temporal waves, with the Final Symmetry State as anchor.
Explore RetrocausalityThe alpha-layered restoration model passed blind validation with 1.03% mean absolute error (R² = 0.9156) predicting 11 unseen nuclei. Multi-cluster analysis of 4,572 galaxies (subset of 10,847 across ten clusters) shows velocity anisotropy (p < 0.0001) consistent with predictions.View validation →
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11 publications covering the complete framework, from foundations to observational evidence.
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