Mass and Gravitational Interaction Emergence as an Information Minimization Phenomenon at the Planck Scale

This paper presents a novel theoretical framework proposing that mass and gravitational interactions emerge as an optimization and information minimization phenomenon at the Planck scale. By analyzing quantum vacuum excitations through an information-theoretic lens, we introduce the concept of "quantum blinking," where particles alternate dynamically between active states and spatial latency. This mechanism reduces the required holographic boundary area by approximately 20.63%, offering a highly efficient geometric representation of spacetime. The framework aligns the principle of least action with thermodynamic entropy, providing a fresh perspective on the microstructural origin of inertia and the holographic principle.