Emergent Meta-Law Convergence in a 65,536-Universe Early-Epoch Simulation Framework

This study presents a large-ensemble early-universe simulation exploring whether physical laws can emerge from pre-geometric dynamics rather than being predefined. Using 65,536 independent cosmological variants initialized near the Planck-scale epoch, the system evolves across a 5.5-billion-year equivalent integration window under relativistic gravity, curvature response, vacuum fluctuations, symmetry breaking, and field-mode interactions. Across all ensemble members, the simulation converges toward an identical 55-node invariant structure with zero topology variance, stable global-field alignment, and reproducible state-vector organization. These results reveal strong universal attractor behaviour and the presence of deeper constraint structures—consistent with the hypothesis that physical rules may arise as emergent meta-laws. The study demonstrates one of the largest and most stable recoveries of coherent physical behaviour from non-predefined conditions, offering insight into the origin of physical law, symmetry-breaking inevitability, and the statistical foundations of cosmology. For collaboration or research enquiries, contact: Lumenis IO Research Group.