Resonant Nuclear Interaction as the Basis of Chemical Bonding: A Quantum-Mechanical Approach

In classical chemistry, a chemical bond arises from the distribution of electron density between atoms. However, quantum-mechanical models suggest that vibrational states of nuclei also play an active role in forming stable structures. Atomic nuclei in a molecule undergo quantum oscillations within potential wells shaped by the electron cloud and neighboring nuclei. These oscillations exhibit characteristic frequencies that depend on the nuclear mass and the form of the potential, as well as a spatiotemporal structure expressed through vibrational wave functions. When two or more nuclei in a system possess similar or commensurate vibrational frequencies, resonance interaction between them can emerge. This resonance may increase coherence time, minimize the energy of the vibrational subsystem, and induce effective interactions without electron participation. In a water molecule, nuclear coherence plays a key role in enhancing the stability of its geometry. This property of the water molecule becomes especially significant under conditions of strong ionization, when electrons are almost absent and classical orbital models lose applicability. In high-temperature environments, water maintains structural integrity through harmonic nuclear oscillations with phase coherence. In biomolecular systems, water provides the background of coherent vibrations that sustain the stability of complex biochemical structures. Thus, the water molecule serves as a universal model that demonstrates the action of the nuclear vibrational resonance mechanism as one of the fundamental principles of chemical bonding. Water not only preserves coherence under the destabilization of electron clouds but also gives a platform for energetic interactions between molecules.