The Universal Resonance Map: First Full-Epoch 13.8-Gyr Simulation Revealing Coherent Cosmic Fields Across All Scales

This study presents a full-epoch forward cosmological simulation spanning 13.8 billion years, resolving the universal resonance spectrum generated by the interaction of gravitational fields, quantum-vacuum fluctuations, dark-matter clustering, magnetohydrodynamic processes, neutrino backgrounds, baryon acoustic oscillations, and spacetime curvature dynamics. Across 138,000 timesteps and 16,384 ensemble realizations, the simulation tracks: global resonance spectra from 10⁻²² Hz to 10³ Hz, curvature-driven spacetime oscillation modes, gravitational-wave background evolution, vacuum-energy spectral density, mode-lifetime distributions, emergent topological structures, and cosmic-time slices from the early Universe to the present day. The results reveal: a stable and coherent global resonance field, long-lived low-frequency horizon-scale modes, persistent curvature-linked oscillators throughout cosmic history, emergent structural nodes with symmetry-preserving topology, and a unified resonance framework consistent with ΛCDM observables. This work provides one of the most detailed full-epoch resonance analyses ever produced, offering a new lens for interpreting spacetime behaviour, early-Universe dynamics, and large-scale field coherence.