The Origin of Light: Photon Formation from Oscillations of the Cosmic Space Element Medium

The fundamental nature of light remains one of the central questions in physics. Although modern quantum theory describes light through the concept of wave–particle duality, the deeper physical mechanism underlying photon formation and propagation is still not fully understood. In this work, we propose a conceptual framework in which photons emerge from oscillatory dynamics within a fundamental cosmic medium composed of Space Elements (SE). Within this model, space is not treated as an empty background but as a continuous medium possessing intrinsic oscillatory properties. These oscillations arise from the dynamic balance between local pressure interactions among SE elements and a restoring influence described as Primordial Centripetal Attraction (PCA). When energy is emitted from physical sources such as atomic transitions or high-energy astrophysical processes, it interacts with the intrinsic oscillatory structure of the SE medium. This interaction generates localized oscillatory disturbances that propagate through the medium as coherent oscillation packets. In this framework, photons are interpreted as propagating oscillatory excitations of the SE medium rather than independent particles traveling through empty space. The localized structure of these oscillation packets naturally accounts for discrete photon interactions with matter, while their oscillatory character explains wave-like phenomena such as interference and diffraction. The model also provides an intuitive explanation for the propagation of light and the decrease of observed intensity with distance due to the geometric spreading of oscillatory energy. Although the present formulation is conceptual, it suggests a possible physical foundation for photon formation and light propagation within a dynamically structured cosmic medium. Further theoretical development and experimental investigation may clarify the role of such oscillatory space dynamics in fundamental physics.