The Khra and Gixx waves on a 1024-cell LBM lattice produce frequencies that land on the real EM spectrum. Slide the cell size to see where. Known physics markers show what lives at each frequency.
The x-axis is the full electromagnetic spectrum from 1 Hz (radio) to 10^24 Hz (gamma rays) on a logarithmic scale. The colored bands are the real EM spectrum regions that govern everything from radio broadcasts to nuclear decay.
The two vertical glowing lines are the Khra wave (purple, wavelength 128 cells) and Gixx wave (orange, wavelength 8 cells). Their position on the spectrum depends entirely on the cell size slider: what physical size does one lattice cell represent?
The green diamonds are known physics: hydrogen spectral lines, the CMB peak, particle rest-mass frequencies (electron, muon, proton, W/Z bosons, Higgs), and force unification scales. These are fixed — they don't move.
When you load sweep data, each point appears as a dot on the spectrum. The dot's vertical position is its coherence. Brighter dots are higher coherence. The sweep spans many omega/khra/gixx values, so dots spread across a frequency range — the spread itself reveals whether the lattice has preferred frequencies (clustering) or is featureless (uniform scatter).
Khra has wavelength 128 cells. Gixx has wavelength 8 cells. The ratio is always 16:1 — Gixx is always 16 times higher frequency than Khra. On the spectrum, they're always 1.2 decades apart. This is the lattice's built-in dual-scale hierarchy: the same structural feature that gives atoms inner shells (tight, high-energy) and outer shells (loose, low-energy).
The Khra fundamental at 128 cells has overtones at 64, 32, 16, 8, 4, 2 cells. The Gixx fundamental at 8 cells has overtones at 4, 2 cells. These overtones appear as fainter lines on the spectrum. The complete overtone series is the lattice's harmonic fingerprint — the set of all frequencies the lattice can naturally produce.