Topological Resonance and Stability in a $1536^3$ Cosmic Lattice

Description / Abstract This dataset contains the high-resolution results of a cosmological simulation investigating a 73-Resonance Topology within a $1536^3$ grid. Executed on an NVIDIA H100 GPU cluster using CuPy-accelerated fluid dynamics, the simulation demonstrates rapid numerical convergence. The Cosmic Drag coefficient ($H_0$) stabilized at a precise value of 71.5625 by Step 100 and remained constant through Step 900, indicating a high degree of topological stability. The repository includes: Raw Data: A 6.75 GB tensor (.npy format) representing the final 3D vorticity state at convergence. Scientific Logs: Time-series CSV data capturing $H_0$ stability and primordial black hole (PBH) seed counts. Visualization: A high-definition rendered vorticity map showing the transition from initial lattice perturbations to a homogenized steady-state. Source Code: The original Python framework (simulate.py and visualize.py) utilized for the computation and rendering of the $1,536 \times 1,536 \times 1,536$ domain Technical Notes (Internal Context) Grid Resolution: $1536 \times 1536 \times 1536$ voxels. Primary Result: $H_0 = 71.5625$. Algorithm: CUDA-accelerated Laplacian feedback loop with a sponge boundary condition ($64$-pixel thickness). Convergence Step: Step 900 (Steady State).