Emergent Gravito-Temporal Dynamics from Quantum Entanglement Networks

The origin of gravity and the fundamental nature of time remain central open questions in modern physics. We propose a novel theoretical framework in which spacetime geometry and gravitational interactions emerge from the global structure of quantum entanglement networks. Local variations in entanglement topology generate effective gravitational fields, while a global network consistency principle preserves causality. This approach unifies quantum information theory with general relativity, yielding experimentally testable predictions: deviations from classical gravitational behavior at quantum scales and the simulation of emergent spacetime dynamics in controlled quantum systems. Our framework provides a transformative pathway to understanding quantum gravity, dark matter phenomena, and the emergent nature of time itself.