1 · The network: route a packet
A node's address is a point of F34. Two nodes are linked iff their
symplectic inner product B(x,y)=0 — one ALU operation. The address is the route; diameter 2.
Valid addresses are 4 base-3 digits, normalized (first nonzero = 1): e.g. 1000, 0100, 0010, 0001, 1011, 0121. There are 40.
2 · The processor: a Clifford register
A 2-qutrit register as a stabilizer tableau over F3. Apply gates and watch the
stabilizers evolve by the symplectic group — in polynomial time, exactly Gottesman–Knill.
3 · The contextual fuel: a state-independent witness
The 40 contexts (orthonormal Witting tetrads) give a Cabello–Severini–Winter witness
χ = ∑v P(v). Noncontextual models obey χ ≤ α = 7 (the independence number);
quantum mechanics gives χ = 10 for any state. The gap is the magic fuel.
The contextual fraction is (40−36)/40 = 1/10, derived from the no-ovoid geometry (W(q) has no
ovoid for q odd; the max partial ovoid is 7 < 10). One bench measurement clears α=7 at 5σ with a few hundred photons.
4 · Self-reproduction: splice a child
The fractal law Hn replaces each of the 40 points by Hn−1. A node
reproduces by splicing a W(3,3) copy — address grows one digit, diameter grows by 8.
5 · The datasheet
6 · The machine audits itself
The device specification is its own audit. Every constant below is recomputed live in
your browser from the single integer
q = 3 (rows tagged LIVE) — the page
rebuilds W(3,3), counts the fabric, derives the spectrum and the line-contexts, and checks the
arithmetic. The three solver-heavy rows (contextual fraction, magic robustness, code threshold) are
tagged PY: verified by the Python witness holonet audit and shown for completeness.
The parity row is the punchline: the machine is contextual because q = 3 is odd.