Hydrogen-Consciousness Interface (HCI): A Quantitative Framework for Spin-Coherence Mediated Electromagnetic Field Interactions in Biological Systems

This preprint presents the Hydrogen-Consciousness Interface (HCI) theory, proposing that hydrogen bonds function as tunable resonators mediating interactions between endogenous electromagnetic fields and biological structures. The framework quantifies specific mechanisms including: (1) cardiac 0.1 Hz electromagnetic field modulation of hydrogen nuclear spin states, (2) spin-flip coherence in carbon-hydrogen bonds producing 10 kHz carrier waves, (3) energy cascade through microtubules and myelin generating neural synchronization, and (4) biphoton entanglement facilitating non-local information encoding.The model provides falsifiable predictions with experimental validation protocols under $50,000 budget, including NMR detection of spin-flip precedence (50-200ms lead time), deuterium scaling effects on group coherence, and spectroscopic measurement of biphoton emission during focused attention states. Mathematical equations specify hyperfine splitting modulation (ΔE = 1420 MHz → 10 kHz) and electromagnetic-induced bond rearrangement mechanisms.