Macroscopic Resonant Inductive Coupling via Fractal Metamaterial Antennas for Non-Radiative Civilian Power Distribution

This paper demonstrates the extension of near-field resonant inductive coupling to macroscopic distances, bypassing the far-field radiative losses dictated by the inverse-square law. By engineering high-Q fractal metamaterial antennas with precise asymmetrical chiral geometries, we establish a highly focused, non-radiative magnetic "tunnel" between transmitter and receiver. Coupled Mode Theory confirms that this localized magnetic resonance completely suppresses ambient electromagnetic scattering, allowing for high-efficiency wireless power transfer. Operating in a biologically inert, low-frequency magnetic band, the system seamlessly penetrates urban infrastructure. Empirical models cap the maximum coherence range at approximately 5 kilometers due to atmospheric decoherence. Furthermore, the projected deployment costs offer a 66% reduction in capital expenditure compared to traditional conductive wiring, establishing this architecture as the optimal, zero-loss replacement for high-voltage civilian power grids.