Pilot Investigation of Space-Time Dynamics as a Probe of Low-Frequency Universal Modulation
Abstract
This work proposes a structural–informational model of space–time in which a global low-frequency background oscillation (~0.06 Hz) plays a fundamental role in the dynamics and stability of physical systems across all scales. Based on pendulum experiments and a re-examination of Brownian motion, it is argued that purely stochastic molecular impacts are insufficient to explain sustained particle motion. Instead, both macroscopic oscillators (such as Foucault and torsion pendula) and microscopic particles are interpreted as responding to a universal space–time pulsation. The model further reveals a structural correspondence between this space–time pulsation and the cosmic microwave background, suggesting a common underlying physical origin. Within the proposed framework, gravity emerges from a fundamental vacuum pressure acting on a cellular background structure of space–time, while Newton’s gravitational constant is interpreted as an effective parameter arising from the balance between this pressure and a newly introduced surface mass–energy density (SMED). Modified de Broglie relations explicitly incorporate background space–time cells, providing a unified description of orbital dynamics for both micro- and macro-objects. Elementary particles are interpreted as localized soliton-like excitations of space–time energy, with proton structure described by a Gaussian standing-wave configuration whose internal nodal patterns are associated with quark confinement. Mass generation is treated as a geometric–energetic property of space–time rather than as a consequence of interaction with a scalar Higgs field. The approach links gravitation, electromagnetism, and strong interactions to a single underlying physical mechanism associated with vacuum pressure and predicts that dark matter may correspond to stabilized background space–time cells. Overall, the results suggest that matter, fields, and interactions arise from a common structural dynamic of space–time, accessible in principle through low-frequency oscillatory phenomena.