The Universal Attractor: Massive 32,768-Trajectory Simulation Reveals a Hidden Order in the Early Universe

This study presents a landmark early-universe simulation exploring the emergence of attractor structures under ultra-low-entropy primordial conditions. Using 32,768 independent cosmological trajectories spanning 4 billion simulated years, the model integrates relativistic gravity, spacetime curvature response, vacuum fluctuation fields, and multi-branch symmetry breaking to search for stable universal behaviors. Across all simulations, a coherent 55-node global field lattice emerges with zero topology variance and a global stability metric of 6.825376. The system also produces a reproducible high-dimensional encoded structure composed of five symbolic field modes (H, D, Φ, χ, Q), each exhibiting unique quantum-state vectors and consistent spatial organization. These results offer strong computational evidence that the early universe may contain built-in attractoric behaviors—self-organizing structures arising spontaneously from vacuum–curvature interactions. The findings provide a quantitative foundation for new approaches to cosmic emergence, vacuum stability theory, and global field dynamics in the first instants after the Big Bang.