Threading the trefoil…

The Trefoil Hopfion (QH=3)

The Quark Sector. Three quark colours from one knot · T2,3, R0=3, r0=0.874

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Energy density cloud
Tube surface (radius 1/C*)
Colour-mixing surface  wk(t) at tube wall
Seff(t) = sin⁴θT6
Flux rays — 3 colour/anti pairs
Trefoil centre curve T2,3
Three crossing regions
3 symmetry axis
24-cell of 2T  binary tetrahedral group
Why three concentrations exactly
The map t→t+π combined with z→−z is an exact isometry of T2,3: over-strand and under-strand at every crossing have identical curvature κ=0.399. Each crossing is one symmetric concentration, so the count is exactly 3 = one per quark colour.
Confinement: separating one tube would require simultaneously crossing all three energy barriers. The universe makes a quark–antiquark pair instead.
Seff(t) = sin⁴θT6: θT = angle between tube tangent and ℤ3 axis (z). Peaks at all three crossings (θT=90°, tangent exactly horizontal)
Flux rays: at each crossing midpoint, two tangent directions (over-strand and under-strand, 47.2° apart) define the colour/anti-colour pair axis. The crossing midpoints all lie in the z=0 plane and their geometric center is the origin — the ℤ3 fixed point.
Colour mixing wk(t): shows Gaussian proximity weights — pure colour at crossings, equally mixed midway between. Ribbon twist is uniform per arc length (Option C): 120° per crossing, 270° total, encoding θ3/23 = i (prop:wrt_phase).
24-cell of 2T: the 24 unit quaternions of the binary tetrahedral group (order 24), stereographically projected S³→ℝ³. then rotated so the group's ℤ3 axis [1,1,1]/√3 aligns with the trefoil's physical ℤ3 axis (z). The McKay chain 2T ↔ E6 ↔ SU(3)1 (§1, eq:mckay) identifies 2T as the group-theoretic backbone of the QH=3 quark sector, not this rotation itself. Vertices coloured by dominant imaginary axis (red=i, green=j, blue=k) — the ℤ3 orbit {i,j,k} maps to three quark colours. Edges connect pairs with positive quaternion inner product.
C*₃ = 2.5062  ·  λ₃ = φ⁶ = 17.944
Tube radius 1/C* = 0.399  ·  Separation 4.4× radii
Analytically proved — Theorem thm:sector_assignment
λ₃ = φ⁶  ·  C* = 2.506
Proved · Thm. thm:sector_assignment
0.30C*crit=1.1442.506
Seff:
low→high · vacuum
condensate