A Structural–Informational Model of Space-Time: ‎Fundamental Pressure, Cellular Lattice, and Vacuum ‎Architecture

M. Zhussupov‎

doi:10.14331/ijfps.2026.330179

Authors

M. Zhussupov‎ Independent Researcher, Kazakhstan Author

DOI:

https://doi.org/10.14331/ijfps.2026.330179

Keywords:

Structural–informational space–time, fundamental pressure, cellular space–time lattice, background gravitational pulsation, vacuum structure

Abstract

This article establishes the theoretical foundations of a structural–informational model of space–time in which the vacuum is treated as a ‎physically real, material–informational medium rather than an empty geometric background. Space–time is proposed to possess an intrinsic ‎cellular organization governed by a universal fundamental pressure, which acts as the primary stabilizing quantity for localized energy ‎configurations. Within this framework, energy localization is identified with finite space–time volumes, and mass emerges as a structural ‎manifestation of space–time deformation maintained by pressure equilibrium. Two distinct but interconnected structural levels are developed. ‎The normal space–time lattice forms locally in association with matter and underlies electromagnetic interactions, providing geometric ‎interpretations of electric charge and electromagnetic constants as response parameters of the structured vacuum. At a deeper level, a background ‎space–time lattice is introduced as a global, matter-independent structural state of the metric, responsible for gravitational dynamics. Collective ‎oscillations of this background lattice lead naturally to the prediction of a global low-frequency pulsation of space–time with a characteristic ‎frequency near 0.06 Hz, identified as an intrinsic eigenmode of the structured vacuum. The model bridges classical mechanics, general relativity, ‎and quantum behavior by extending the de Broglie relation to include cellular participation of space–time and by interpreting wave–particle ‎duality as a scale-dependent manifestation of cellular dynamics. Experimentally relevant consequences are examined, most notably neutron β-‎decay, where the observed neutron lifetime emerges as a geometric delay associated with electron propagation through the normal space–time ‎lattice. The close agreement between theoretical predictions and experimental measurements supports the physical reality of the proposed ‎structural parameters. Overall, the framework shifts the foundations of physics from material entities to the organization and dynamics of space–‎time itself.‎

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