The Sohail Substrate Unified Theory (SSUT)
Abstract
The Sohail Substrate Unified Theory (SSUT) presents a unified physical framework in which spacetime is treated as a real, elastic medium rather than a purely geometric background. In this formulation, gravity, quantum behavior, and electromagnetic phenomena emerge naturally from the elastic response of spacetime to energy and momentum. A single nonlinear field equation is introduced, describing spacetime deformation in terms of an intrinsic stiffness parameter and a scalar deformation field. From this master equation, the classical gravitational limit, relativistic dynamics, quantum uncertainty, and electromagnetic constants are derived consistently. The theory reproduces Newtonian gravity and Einstein’s field equations in the appropriate limits, while simultaneously yielding the Planck scale, vacuum permittivity, vacuum permeability, and the fine-structure constant from first principles. A central feature of the theory is the Sohail constant, a dimensionless parameter that characterizes the elastic strength of spacetime and governs the transition between classical and quantum regimes. Quantum phenomena, including wave–particle duality and the uncertainty principle, arise naturally from the finite stiffness and minimum deformation scale of spacetime. The double-slit experiment is interpreted as elastic wave interference within the spacetime substrate rather than probabilistic particle behavior. Unlike conventional approaches, SSUT requires no additional dimensions, hidden variables, or quantization postulates. All known interactions emerge from a single geometric mechanism. The theory provides a coherent unification of gravity, electromagnetism, and quantum mechanics and offers a physically intuitive framework for understanding spacetime, matter, and energy as manifestations of an underlying elastic medium.
Fields of Study & Subjects
Relativity and Gravitational Theory
Noncommutative and Quantum Gravity Theories
Advanced Mathematical Theories and Applications
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 31 January 2026