Universal Quantum Foam Hypothesis (UQSH): An Ontological Framework
Abstract
This work is a conceptual and ontological framework. It does not propose newequations, numerical predictions, or experimentally testable parameters at thisstage. The Universal Quantum Foam Hypothesis (UQSH) posits a dynamic, continuous field mediumin which physical quantities do not appear as sharply defined entities, but rather as stable stateconfigurations. Uncertainty, dynamics, and stability are not disturbances, but fundamentalconditions of field-mechanical organization. In this context, vagueness is understood not as anepistemic boundary, but as a functional property of stable states. States are not localized aspoints, but exist as spatially and temporally extended organizational forms of an underlyingmedium. Against this backdrop, gravity, matter, radiation, time, and temperature are interpretedas different manifestations of the same field. The UQSH interprets physical space as acontinuous, dynamic field medium (Qu foam) that is constantly excited by radiation.Gravitation, electromagnetism, dark matter effects, dark energy, matter, and time are notconceived as independent fundamental entities, but rather as different states, properties, anddynamics of the same field. The approach is conceptual and speculative, but it does notcontradict established experimental findings in relativity and quantum physics. The aim of thiswork is to formulate a coherent theoretical framework that brings together known physicalphenomena from a field-mechanical perspective and reveals structural relationships betweenpreviously separate areas. The approach presented here differs explicitly from formalized unitfield or origin field theories. The Qu-Foam hypothesis makes no claim to mathematicalunification or the derivation of known equations, but rather understands itself as an interpretiveframework that classifies existing empirical findings from a field-mechanical perspectivewithout postulating new fundamental dynamics.
Fields of Study & Subjects
Quantum Mechanics and Applications
Relativity and Gravitational Theory
Algebraic and Geometric Analysis
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 6 January 2026
- Language
- EN
- Document type
- Preprint