Coulomb Force Emergence from Complex Wave Phase Interference

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Authors: Greg Partin
Cited by: 0

Abstract

This paper demonstrates that the Coulomb electromagnetic force emerges naturally from the Lattice Field Medium (LFM) governing equations when the wave field is extended to complex values. KEY DISCOVERY: Electric charge is encoded in the phase of complex wave functions.- θ = 0 → negative charge (electron)- θ = π → positive charge (positron) THE MECHANISM:When two charged particles (waves with phase) overlap, their total energy density is:|Ψ₁ + Ψ₂|² = |Ψ₁|² + |Ψ₂|² + 2|Ψ₁||Ψ₂|cos(θ₁ - θ₂) The interference cross-term depends on relative phase:• Same phase (Δθ = 0): constructive interference → MORE energy → REPULSION• Opposite phase (Δθ = π): destructive interference → LESS energy → ATTRACTION Force = -dE/dr gives exactly the Coulomb sign rule: like charges repel, unlike attract. VALIDATED PHENOMENA (all using only GOV-01 and GOV-02):1. ✓ Coulomb force sign: Same phase repels, opposite attracts2. ✓ Inverse square law: Emerges in point-charge limit3. ✓ Fine structure constant: α = 11/(480π) = 1/137.088 (0.04% error)4. ✓ Charge quantization: Only θ = 0, π give stable interactions5. ✓ Pair annihilation: |e^(i0) + e^(iπ)|² = 0 (complete cancellation) SIGNIFICANCE:• The U(1) gauge symmetry of QED is NOT postulated but EMERGES from complex wave phase freedom• Electromagnetism joins gravity, dark matter, and quantum mechanics as emergent LFM phenomena• No external electromagnetic axioms are required This is Paper 65 in the LFM series. Keywords: Coulomb force, electric charge, wave phase, emergent electromagnetism, charge quantization, pair annihilation, LFM, Klein-Gordon, U(1) symmetry Related: LFM-PAPER-004 (Maxwell Analogues), LFM-PAPER-061 (χ₀ = 19 Constants)

Fields of Study & Subjects

Quantum and Classical Electrodynamics Advanced Mathematical Theories and Applications Relativity and Gravitational Theory

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
6 February 2026
Document type
Preprint