"Quantum Space-Time Dynamics Through the Mechanism of Repulsive Gravity and Newton's Reaction Equilibrium"

Main Idea Formulation: This journal proposes a new model in the quantum realm by applying Newton's third law (Action-Reaction) to the local gravitational field of low-mass particles. We hypothesize that at the subatomic scale, the smaller the mass of an object, the more dominant its repulsive gravitational force (G_repulsive= G/m) becomes. When a particle is subjected to an external force (action), the repulsive gravity amplifies and triggers a backlash in the form of a local space-time contraction toward the particle. This contraction does not collapse entirely because it is held by the equilibrium limit of the particle's attractive gravity (G/c). Consequently, instead of a probabilistic and uncertain particle position, it is the surrounding space-time field that becomes highly dynamic and fluctuates. Main Idea Formulation (Continued): Furthermore, this framework provides a definitive answer to why mini black holes have never been detected in high-energy particle collision experiments. In conventional physics, it is assumed that concentrating massive energy into an ultra-small space would cause space-time to collapse vertically into a singularity. However, under this paradigm, as the mass approaches zero, the exponential surge in horizontal repulsive gravity (G/m) acts as an absolute structural barrier. This massive repulsive backlash prevents space-time from tearing or curving inward into a microscopic singularity, locking it instead at the universal equilibrium limit (G/c). Therefore, the missing mini black holes are not a result of rapid evaporation via Hawking radiation, but rather due to a fundamental mechanism: the architecture of space-time inherently resists microscopic collapse by distributing external energy into dynamic, horizontal space-time fluctuations. This journal proposes a new model in the quantum realm by applying Newton's third law (Action-Reaction) to the local gravitational field of low-mass particles. We hypothesize that at the subatomic scale, the smaller the mass of an object, the more dominant its repulsive gravitational force (G_repulsive = G/m) becomes. Under the Universe Ruler Paradigm, light and time are not independent entities but operate in a strict dynamic duality where time is linearly bound to the local velocity of light (t=c). When a particle is subjected to an external force (action), its low mass triggers an exponential surge in horizontal repulsive gravity, causing a mechanical friction against the space-time fabric—which acts as a primal information fluid. This friction triggers a rapid space-time contraction toward the particle, which is prevented from collapsing into a singularity by the universal equilibrium limit (G/c). Consequently, instead of a probabilistic and uncertain particle position, it is the surrounding space-time field that becomes highly dynamic and fluctuates. Furthermore, this framework provides a definitive answer to why mini black holes have never been detected in high-energy collision experiments; the massive repulsive backlash at low masses acts as a structural barrier that inherently resists microscopic collapse, distributing the input energy into horizontal space-time ripples instead of vertical tears. Ultimately, this unified approach resolves the historic deadlock between Newtonian rigidity and Einsteinian relativity by demonstrating that quantum weirdness is a mechanical consequence of a dynamic, information-dense space-time fabric.