Harmonic Water Splitting via Dimensional Resonance: A Theoretical Framework for Low-Energy Hydrogen Production

This paper introduces a theoretical method for water (H₂O) splitting using dimensional harmonic resonance and corrected quantum constants. Building upon previous research in CO₂ bond destabilization, the proposed method targets the O–H bond's vibrational frequency (~3400 cm⁻¹ or ~102 THz) using tuned terahertz and infrared fields to induce destructive harmonic buildup. By leveraging fifth-dimensional resonance and TrueH (corrected Planck constant), the energy input for electrolysis could be reduced by 60–90%, potentially allowing hydrogen production with as little as 1–4 kWh per 100 ft³ of water. This model contrasts sharply with traditional PEM electrolysis and thermal cracking methods, promising a cleaner, scalable, and more sustainable hydrogen fuel pathway.Note: This concept is theoretical and requires laboratory validation.