Electric Current as Resonance Alignment: A USP Field Theory Interpretation of Conduction Across Media (msf:49500)

Electric current is traditionally described as the drift of charge carriers through matter. While effective for circuit-level modeling, this interpretation obscures the physical mechanism that differentiates conductors, semiconductors, insulators, gaseous discharges, and vacuum devices. In this paper, electric current is reinterpreted within USP Field Theory as a process of resonance alignment and frequency-tension (Δf) relaxation, rather than particle transport. Using cathode ray tubes (CRTs), Tesla-scale gas discharges, metallic conductors, semiconductors, and insulating solids as comparative systems, the work shows that electrical behavior emerges from how each medium permits or resists the formation of stable resonance corridors. Visible electrical phenomena are identified as photon release from alignment collapse, not direct observation of electrons. Shot noise, magnetic effects, and beam deflection are explained as localized corridor interactions rather than evidence of granular transport. This framework provides a unified physical mechanism for electric current across media, eliminating the need for separate particle-based explanations and offering a coherent geometric foundation for future treatments of magnetism, impedance, and field dynamics.