Composite Regions — Protium Corridor Coupling / Atoms
Protium, or hydrogen-1, is the simplest stable two-Region system called a composite Region. It provides the first observable realization of corridor-mediated coupling within the lattice. Curvature absorption or emission corresponds to transitions between these corridor-coupling eigenmodes.
The following atomic-scale relations describe admissible post Freeze-Out configurations. The proton Region and electron Region continuously emit spherical corridor disturbances determined by their intrinsic wavelengths:
The total corridor field within the proton-electron separation is therefore:
The equilibrium separation of the electron from the proton is determined by phase-closure compatibility of these two disturbance fields. Thus the electron-proton separation arises from wave-coupled equilibrium of two spherical sources, not from discrete particle shells or orbital mechanics.
Deterministic Spatial Constants
The wave-coupled equilibrium described above yields specific, discrete distances where the fabric achieves minimal stress. These distances correspond exactly to fundamental physical constants.
| Constant | Geometric Derivation | Derived Value (\(L_0\)) | Accuracy |
|---|---|---|---|
| Bohr Radius (\(a_0\)) | Phase-Locked Standing Wave Bridge | \(29,447,706~L_0\) | 0.036% Match |
Derivation Trace: Bohr Radius (\(a_0\))
Summary
- Protium is the simplest stable two-Region composite system.
- The proton and electron emit disturbances at \(\lambda_p = 1836L_0\) and \(\lambda_e = 816L_0\).
- Equilibrium separation is determined by phase-closure compatibility, not orbitals.
- The Bohr Radius is a deterministic discrete cell count of \(29,447,706~L_0\).
- Disturbance fields follow the Helmholtz point-source form.