UDEL Simulations Mapped to Empirical Evidence
This page connects runnable lattice simulations (pure UDEL rules: nodes, dynamic adjacency, hop transitions, Δτ-layer fracture) to the observational claims and tensions on the Empirical Evidence page.

Phenomena emerge directly — finite black hole cores, Hawking-like flux, dark-matter-like shell ratios, accelerated expansion, collimated jets, binary BH mergers — without continuum fields or parameters.

Code, CSVs, and archives are public for verification and extension.
Simulation → Evidence Mapping
Simulation Key Emergent Features Linked Evidence Row Run Highlights Code / CSV / Archive Falsifier Note
UDEL Black Hole Collapse v2
Chapter 8 core demo
• Finite saturated core (no singularity)
• Thick Δt-divergence horizon
• Area-law entropy via boundary edges
• Persistent outward flux (Hawking-like shear leakage)
• Conserved total energy
• Growing BH_entropy & flux_out
Black Hole Singularity
(finite core vs GR divergence)
Core saturates rapidly (num_saturated → hundreds), horizon thickens (num_horizon → 100s–1000s), entropy grows ~ boundary edges, net flux_out appears and increases. Code: Full Python (N=15,000 nodes, 400 steps)
CSV: udel_bh_collapse_v2_stats.csv
Tracks: total_E, entropy, num_saturated, num_horizon, BH_entropy, flux_out, peak_shell, c_eff
Animation: inferno energy, cyan horizon, black saturated core
Archive: View Folder
Flux/entropy scaling inconsistent with observed Hawking T ∝ 1/M or area-law → constrains saturation & shear
Full UDEL Genesis
Zero-matrix bootstrap + Δτ fracture
• Zero-energy seed → motif shells
• Temporal fracture → 5:1 invisible:visible ratio
• Growing adjacency radius → accelerated expansion
• Variable c_eff early → stabilization late
• Early rapid clustering (dense adjacency)
Dark Matter (shell gravity leaks)
Dark Energy/Acceleration (vacuum baseline + R growth)
JWST Early Galaxies (accelerated early structure)
Inflation Proliferation (no inflaton needed)
Energy clones into sister layers → dark shells form.
r_mean grows acceleratingly (H_eff > 0).
c_eff fluctuates early, stabilizes.
Early dense adjacency drives fast shell/clustering.
Code: Full Python (N=15,000 nodes, 400 steps, 7 layers)
CSV: udel_stats_full.csv
Tracks: total_E, R_adj, entropy, r_mean, peak_shell, c_eff, H_eff, shell energies
Animation: inferno energy (sum over layers)
Archive: View Folder
No dark-like shell ratio, no late acceleration, or no early rapid clustering if fracture or R_growth removed → constrains Δτ mechanics and vacuum baseline
UDEL Galaxy – Multi-slice BH + Disk (Jet v7)
Δτ-curvature anisotropy (exp(8×|cos θ|))
• Finite BH core + horizon (visible slice)
• NFW-like halo from slice summation
• Collimated polar jets via exponential axis bias
• High jet_contrast (polar vs equatorial)
• Bulk gravity from hidden slices (~85%)
• Rotating BH + thin visible disk
Dark Matter (NFW geometry from slices)
Black Hole Singularity (finite core)
Visible slice shows rotating BH + disk → saturated core → horizon.
Exponential Δτ anisotropy forces polar outflows → high jet_contrast.
Bulk gravity from hidden slices produces NFW-like profile.
Code: Full Python (N=20,000 nodes, 600 steps, 7 slices)
CSV: udel_galaxy_multislice_jets_stats.csv
Tracks: E_visible, num_horizon, BH_entropy, flux_out, jet_contrast, jet_polar_E, jet_equator_E, hor_aspect
Animation: visible-slice energy (inferno), cyan horizon, white jet zones
Archive: View Folder
No collimation (jet_contrast ≈ 1) or NFW-like halo if anisotropy removed or slices decoupled → constrains Δτ-curvature & bulk gravity
Binary UDEL Black Holes (Horizon Merger v1)
Dual seeded cores + merger dynamics
• Two finite saturated cores (no singularities)
• Independent horizons form (cyan/magenta) → merge/interact
• Per-BH saturated regions & boundary entropy (BH_entropy_1/2)
• Global flux_out during merger phase
• Cluster stats (sat1/sat2, hor1/hor2) track asymmetric collapse
Black Hole Singularity (dual finite cores)
Black Hole Information (unitary merger via adjacency + boundary leak)
Two cores collapse independently → horizons emerge and interact.
BH_entropy_total grows during merger.
Flux_out spikes across global horizon.
Animation shows black cores (white/yellow edges), cyan/magenta horizons merging.
Code: Full Python (N=16,000 nodes, 400 steps)
CSV: udel_bh_binary_stats.csv
Tracks: total_E, num_saturated_total/1/2, num_horizon_total/1/2, BH_entropy_total/1/2, flux_out, peak_shell, c_eff
Animation: inferno energy, cyan/magenta horizons, black cores with white/yellow edges
Archive: View Folder
No horizon interaction or merger-phase flux if cores remain isolated → constrains shared adjacency & saturation dynamics
How to Verify Yourself
  • Copy code into Jupyter/Colab/Python 3 (numpy, matplotlib, scipy required).
  • Run main() → generates CSV stats + animation window.
  • Black Hole Collapse v2: saturated core blackens, cyan horizon thickens, flux_out & BH_entropy grow.
  • Full Genesis: energy spreads into dark shells, r_mean accelerates (H_eff > 0), outer shells dominate.
  • Jet v7: polar outflows emerge (white zones), high jet_contrast, NFW-like shell profile.
  • Binary BH Merger v1: two black cores (white/yellow edges) collapse → cyan/magenta horizons merge. CSV shows BH_entropy_total rising, flux_out spiking during interaction.