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.‎