3D view needs WebGL + the Three.js CDN.
The governance bench on the right runs entirely without it — every number is computed in-page.
Stream α(trefoil + inverse · offset 0)
Stream β(trefoil + inverse · 2π/3)
Stream γ(trefoil + inverse · 4π/3)
Emergent Φ₄(quaternion centroid → core)
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Experimental Systems · Building Block
Trefoil Streams
Three (2,3) torus-knot data streams wound around one golden toroid at the
cube-root-of-unity offsets. Their quaternion centroid is an emergent 4th phase that
collapses to the torus core at equilibrium — and a Polycentria Dual-Helix governs it:
an oracle proposes, an exact certifier decides.
Stream quadrance scaling sₖ
Emergent phase Φ₄ — equilibrium meter
off-core residual ρ = minorR·|Σ sₖ eiψₖ|0.000
Ψ₄ = Σₖ₌₁³ (Sₖ + Sₖ⁻¹) → 1 + ω + ω² = 0
At balanced scalings and cube-root offsets the three minor-radius phasors
cancel exactly — Φ₄ falls onto the torus core (the "zero point"). Imbalance re-grows ρ
linearly: a δ bump on one stream gives ρ = minorR·δ.
Topological parity channel
ρ = ‖Z‖ flags that a stream drifted; the
argument arg(Z) points at which — no training, exact. (Reference: 100% single-stream
localization over 3000 trials.)
Polycentria Dual-Helix
Governance — oracle proposes, certifier decides
Drift the streams off balance and observe them
through noise. Helix A (geometric oracle) and a blind-random baseline each spend
the same budget of Helix B exact-residual evaluations; we measure the
Oracle Bias ε = (random best ρ) − (oracle best ρ).
method
best ρ found
blind random
—
geometric oracle
—
Oracle Bias ε (±2σ over trials)—
Like the Router, ε > 0 because the objective is
the geometry. The certifier's ρ is exact and oracle-independent — the chosen equilibrium is
always correct, whatever the oracle proposed.
Reference
All numbers above are computed in-page and match the Python reference
trefoil_streams.py (run it for the exact-arithmetic checks in ℚ[√3] and ℚ[√5],
the linearity table, and the governance ε with its 2σ band). The 3D view adapts the
triple-trefoil equilibrium algorithm: Frenet-frame quaternion rotation
P' = q·P·q⁻¹, three twistor pairs, and a centroid core.