Space is where nodes are. Time is how fast they tick. Both are frequency — and frequency is color.
Drag orbit · Scroll zoom · Click a particle or atom to identify it
Frequency band — log sliders over rest frequency f = m/me (E = m = 1/R). The visible spectrum is stretched across the band (band-low → red, band-high → violet); closures outside the band dim, and Capture takes only the in-band closures on screen.
Temperature is the vacuum's energy — from absolute zero (a dead vacuum), through the CMB (2.7 K, default) faint red glow, up to the Planck temperature (~10³² K). Heating blues the photons and — once kT nears a rest energy — pairs erupt from the vacuum (e⁺e⁻ ≈10¹⁰ K, then μ⁺μ⁻, then p p̄ — every hadron is already a quantum black hole). Near the Planck top, micro black holes form (Compton = Schwarzschild) and Hawking-evaporate. Or inject a pair yourself. Bodies drift down the latency gradient (no forces), so a free p + e recombine into H (a photon flies off), two H bond into H₂, and H + H̄ annihilate — bound states are generated by the dynamics.
There are no forces, no fields, no action at a distance — only ZFA closures that do close, because in quantum logic things happen every way possible and what you see is what happens in the most ways. A closure's frequency is that number of ways, read out as space (where), time (how fast), and colour. The whole of possibility is balanced to nothing; a world exists only as one limited observer's cut of it.
Heat toward the Planck top to watch QLF's logical bang unfold — Planck-mass black holes Hawking-cascading into hadrons, cooling into atoms — with no dice: the closure census draws the space.
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