Orbital effects in superconductivity involving correlated electron pairs oscillating in resonant quantum States

At the start of the twenty-first century, it was proven incorrect to assume that electron-phonon interaction is the only mechanism for superconductivity. At very low temperatures, where metals become superconductive, particle movements are mostly ‘frozen,’ except for their zero-point oscillations. Therefore, we should investigate the interaction of super-particles through the electromagnetic fields generated by these zero-point oscillations. The arrangement of zero-point oscillations occurs because paired electrons influence each other. During this interaction, their amplitudes, frequencies, and phases align and become synchronized. This work explores the orbital effects in superconductivity involving correlated electron pairs oscillating in resonant quantum states. The formation of molecular structures in solids reflects their specific chemistry. We emphasize that this non-classical analysis could serve as a generalized or universal model of correlated pair formation and superconductivity.