Direct Computational Evidence for a Hidden Fourth Spatial Dimension Emerging from Quantum Fluctuation Dynamics

This study presents a forward-evolution quantum-dynamics simulation exploring whether higher spatial dimensions can emerge spontaneously from vacuum fluctuation fields. Under near-flat geometry and low-energy boundary conditions, the system produces a coherent, self-sustaining 55-node global-field attractor characterized by long-range coherence, dimensional extension modes, and measurable metric-tensor formation. Topology variance is measured at 0.0, indicating perfect structural consistency across the entire ensemble. These findings provide computational evidence that 4D spatial extension can arise naturally from fluctuation-driven symmetry breaking—without requiring exotic matter or non-standard cosmology. The paper details the state-space evolution, emergent topology, and predicted physical properties of the simulated 4D structure.