Hydrogenic orbitals
orbitals/H For each Z (1 → 20), every (n, l, m) eigenstate up to n = 4. Choose an atom, choose quantum numbers, look at the shape. Closed-form for hydrogen-like Z; numerical for screened multi-electron later.
A demonstration platform for quantum-physics phenomena, fed by an offline GPU pipeline. Heavy compute happens on sbl1; the resulting wave-function fields ship as static data files so the viewer renders fast and lives entirely on Cloudflare Pages.
orbitals/H For each Z (1 → 20), every (n, l, m) eigenstate up to n = 4. Choose an atom, choose quantum numbers, look at the shape. Closed-form for hydrogen-like Z; numerical for screened multi-electron later.
td/1d Drag a potential well (square, harmonic, Coulomb-cut, custom), watch eigenstates settle in real time. Matrix-diagonalization for the static case; split-step Fourier when we ramp to TD.
td/2d Wave-packet bouncing / tunneling / diffracting through user-drawn potential landscapes. Split-step Fourier on a WebGPU compute pass; data prebaked when the geometry is fixed.
apps/quantum/sim/) — Python
+ PyTorch/NumPy + CUDA on sbl1's GPU. Computes wave functions
on a 3-D grid for each (atom, quantum numbers) or each
time-evolution scene, emits binary blobs + a small metadata
JSON to apps/quantum/data/.
See apps/quantum on GitHub
and the MONOREPO_NOTES.md there for the current
contract between the three pieces.