USP Field Theory — Resonant Bonding and Inverted Magnetic Arrays (msf:45716 v2.0)
This paper unifies atomic, chemical, and macroscopic magnetic bonding under Δf-controlled resonance geometry. Attraction arises from Δf inflow (frequency convergence), and repulsion from Δf outflow (frequency divergence). Bonding is shown not as a quantized electron exchange, but as an analog continuum of oscillatory equilibrium—a rhythmic energy exchange within the USP Field. The work demonstrates that inverted magnetic arrays, molecular bonds, and fusion processes all follow the same law: F_bond ∝ – d(Δf)/dt Hovering, crystallization, and energy release each emerge from Δf → 0 equilibrium, replacing classical “force” models with frequency geometry. Figures include: Molecular Resonance Geometry — how linear, bent, and tetrahedral shapes minimize ΣΔf. Atomic Bonding Spectrum — the Δf-based continuum from gas → liquid → solid. H₂ + O₂ Simulation — resonance alignment pathway producing 54.4 eV energy release. Conclusion: Magnetic and molecular bonding share one mechanism: Δf minimization. Every stable system—atomic, magnetic, or cosmic—breathes through resonance. --- 🧩 Harmonization Note This version harmonizes with: msf:45706 — Reversal Genesis (Δf → 0 transparency) msf:45714 — Black-Hole Re-Expansion (spin corridors) msf:44696 — Voltage–Δf alignment law USP Field Theory — Temperature & Resonance: Testable Experiments (2025), DOI 10.5281/zenodo.16788099 These collectively form the USP Field Bonding Series, linking atomic, magnetic, and thermal resonance in one coherent geometric framework.
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2025-11-05
- DOI
- https://doi.org/10.5281/zenodo.15576219
- Primary Topic
- Crystallography and molecular interactions
- Type
- article
- Field-Weighted Citation Impact
- 0.00