Deterministic Recalculation of the Double-Slit Phenomenon Based on the Space Response Function R_space

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Authors: Seongho Song
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Abstract

This paper demonstrates that the interference patterns observed in double-slit experiments are not the result of wave-particle duality—where particles transform into waves—but are rather phenomena arising from the structural commands imposed upon energy by space. The point of departure for this study is that electrons or photons do not oscillate between being particles and waves; instead, the same solitonic energy simply appears differently depending on whether it is sealed within or released from the spatial structure. In this paper, mass is not an independent entity. Mass is a state that manifests only when solitonic energy vibrations are maintained as standing waves within a cubic spatial structure. When energy is stably confined within this structure, we refer to it as a “particle.” When this seal is broken, the energy ceases to be a particle and becomes an informational state propagating over the spatial medium. The rule of space that seals this energy is defined by 6π⁵. 6π⁵ is not an arbitrarily adjusted figure but a structural sealing specification that arises inevitably from the convergence of three factors: The 6 degrees of freedom (±x, ±y, ±z) inherent in a hexahedron (cube). The final dimensional closure (L⁵) required for information to be transmuted into mass, by adding the core axes of the spatial medium—ε (dielectric response) and μ (magnetic response)—to the 3D volume (L³). The rotational phase condition π necessary to maintain a standing wave. In simpler terms, 6π⁵ is a command issued by space to solitonic vibrations, instructing them to “vibrate only within this range,” and it is an informational structure that exists because only then can a standing wave be maintained. If this range is exceeded, the phase is broken, and the energy cannot be sealed.

Fields of Study & Subjects

Quantum Mechanics and Applications Advanced Mathematical Theories and Applications Quantum and Classical Electrodynamics

Publication details

Journal / source
OSF Preprints (OSF Preprints)
Publication date
1 January 2026
Document type
Preprint