Context: A hyper-realistic Python scalar tensor directly computing mathematical points on the topological surfaces of $N$-dimensional spheres ($S^0$ to $S^8$). Rendered exclusively in the high-contrast `#FFFFFF` Daylight Protocol.
Variables:
- N-Dimensional Point Boundaries: Rather than generating solid shapes, the protocol generates 3,500 continuous spatial points directly on the surface limits of each higher dimension geometry via mathematical multi-dimensional Gaussian parameters.
- True Volumetric Density: Because a 4D hypersphere is mathematically a hollow shell existing in 4 dimensions, its theoretical projection passing through 3D space exhibits intense particle density around the edges. This establishes true Photorealistic Volume.
- Pure Spatial Isometric Depth-Clamping: Inside the array mapping, depth ($Z_{view}$) dynamically rescales color (Ghostly Steel to Forge Iron) and optical radius per dot. This gives the illusion of physical mass rotating through our native dimension unassisted by external 3D engine interfaces.
Programmed natively entirely in Python. A unified Multiprocessing loop handles all 31,500 vectors. Zero image overlays. Operations Research algorithm methodology.
https://github.com/mattwatts/CGI-Animation-And-Art/blob/main/logic_garden_280_hyperspheres_daylight.py
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