The Resonance Interpretation of the Double-Slit Experiment

This work presents The Resonance Interpretation of the Double-Slit Experiment, a reformulation of one of the most iconic experiments in quantum mechanics. Traditionally, the double-slit experiment demonstrates the paradox of wave–particle duality: light and matter appear to behave as waves in interference, but as particles when measured. R-theory offers an alternative perspective. It proposes that particles are not fundamental entities but resonance nodes, emerging through deterministic phase-locking between a free field wave and the resonant response of a medium or detector. In this view, the interference pattern reflects real field dynamics in a coherent zero field, rather than probabilistic wave functions. A detection event—the familiar “dot on the screen”—is reinterpreted as the local stabilization of energy in a resonance node. By dissolving the particle–wave duality, R-theory positions resonance as the underlying principle of physical reality. This perspective connects the double-slit experiment to Einstein’s relation E = mc², reframing mass as concentrated energy within a resonant field. The report further outlines a validation strategy, including nanostructure measurements and phase-perturbation tests, to provide experimental access to the predicted node structures. This reinterpretation contributes to ongoing discussions in quantum foundations, suggesting that coherence and resonance may underlie not only interference but the very emergence of observable reality.