Nucleus-Driven Resonant Field Atom Model: A Theoretical Framework from Quantum Field Phase Oscillations to Atomic Shell Structure

In the Standard Model, fundamental particles such as electrons and quarks are defined as zero-dimensional (0D) point-like building blocks. In this study, it is demonstrated within a theoretical framework that macroscopic atomic volume is a 3-dimensional manifold arising from time-averaged dynamic field oscillations of zero-dimensional charge centers. The independent motions of protons in the nucleus and the net nuclear angular momentum are conceptualized as a dynamic driving source that feeds the surrounding quantum electrodynamic (QED) fields. Electromagnetic repulsive forces, de Broglie phase resonance (2πr = nλ), the Pauli Exclusion Principle (antisymmetric spin states), and effective nuclear charge (Z_eff) shielding are unified under a single mathematical foundation. The model explains the discrete structure of electron shells, nested geometric layering, and chemical bonding tendencies (octet/duplet stability) in complete consistency with Quantum Field Theory (QFT) limits.