This work introduces the fourth version (v4.0) of the Circular Motion Interaction Theory (CMIT), presenting an advanced formulation of the spacetime fabric as an emergent structure. Within the CMIT framework, physical reality is not composed of massive objects moving through a passive vacuum; rather, it is generated through continuous, three-dimensional operations of addition (+) and subtraction (-) of primordial spherical elements with variable sizes and inclinations. The two major theoretical breakthroughs of this revision lie in the redefinition of foundational randomness and symmetry. First, we demonstrate that the fundamental dynamics of addition and subtraction unfold via "relational randomness": the random nature of geometric events is not abstract but strictly subordinated to, and triggered by, the specific presence, proximity, and configuration of the bodies in play. Second, the Principle of Spherical Degeneration is deeply contextualized: mutual influence inevitably deforms the original perfect geometry. The symmetry exception, which occurs exclusively during the interaction of identical spheres, is herein defined as an inherently precarious equilibrium—a temporary mirage of stability constantly exposed and vulnerable to the unceasing mutation of the surrounding relational flux. Through the Principles of Dominance and Systemic Equilibria, this work elucidates the divergence between macroscopic determinism and quantum probabilism as a pure effect of scale and interactive frequency. It offers a unified framework where conventional concepts such as "mass" and the "straight line" are revealed to be mere perceptual illusions arising from inherently curvilinear geometries.
Matteo Milo D Rienzo (Tue,) studied this question.