Relativistic and gravitational transformations in electrochemistry and nuclear magnetic resonance spectroscopy

Abstract

A relativistic transformation of the electrode potential has been derived to account for time dilation effects in electrode processes. This newly formulated Lorentz transformation is interpreted in terms of the generation of spin-2 boson gravitons originating from the fusion of spin-1 virtual photons, which subsequently escape into higher dimensions. Gravitational transformations of the electrode potential have also been derived, explaining the observed decrease in cell potential under stronger gravitational fields. The reduction in electrode potential near a gravitational source is attributed to a greater flux of gravitons escaping into higher dimensions in stronger gravitational fields compared to weaker ones. Similarly, the potential energy associated with the spin of magnetically active nuclei in an applied magnetic field, as observed in nuclear magnetic resonance (NMR) spectroscopy, is shown to be Lorentz-variant. This provides a mathematical demonstration that the Hamiltonian describing the energy of such nuclei is also Lorentz-variant. The relativistic and gravitational transformations of both the electrode potential and the spin-related potential energy in magnetic fields are shown to be analogous.