Circular Motion Interaction Theory (CMIT): A Multiscale Theoretical Framework of Emergent Reality

This work introduces the Circular Motion Interaction Theory (CMIT), a multiscale theoretical framework proposing that physical reality emerges from a fundamental spacetime fabric governed by the continuous, random spatial and temporal addition and subtraction of elementary spherical segments of variable size and inclination. Within this framework, conventional concepts like "mass" are macroscopic linguistic approximations. We demonstrate that the macroscopic world preserves sharp, predictable trajectories because its dynamics result from the interactions of massive, large-scale spherical segments where individual actors remain distinct. Conversely, in the quantum plane, the frequency of random geometric operations per second increases immensely, causing individual actors to lose distinctiveness and generating highly complex, tangled trajectories. This framework bridges macroscopic determinism and quantum behavior through a unified, purely geometric mechanism.