Spatial Displacement Theory · Paper 02 · Prepared for Submission

Torus-Knot Quantisation of Persistent Displacement Vortices: The Winding Spectrum, the W+1 Radius Relation, and the 6π⁵ Identity

J. C. Harvey

Melbourne, Australia · July 2026 · Domain 02 — Particle Physics & Topology

Abstract. Stable particles are persistent (p,q) torus-knot circulation states of the relay substrate (Theorem T18). We prove the winding spectrum from knot invariants: a (p,q) mode is a true knot iff gcd(p,q) = 1 and min(p,q) ≥ 2, and its Alexander polynomial Δ(t) ≠ 1 is invariant under continuous deformation. The (1,1) unknot (electron, W = 1) is stable by displacement confinement; the (1,2) mode is unknotted and merely metastable, hence never observed; the (2,3) trefoil (proton, W = 3) is topologically protected. The mode-velocity partition follows exactly from the movement budget, vT = c√(p/(p+q)), vP = c√(q/(p+q)). The W+1 relation Rwake = (W+1)ℏ/(mc) reproduces the measured proton boundary radius to 0.02% with no adjustable parameter, and the topological identity 6π⁵ = 3·(2π²)·π³ = 1836.118 matches the proton-to-electron mass ratio to −0.0019%. All conjectural links are flagged.

Keywords: winding number · Alexander polynomial · trefoil · movement budget partition · traction ratio · mass ratio 6π⁵

1. The winding spectrum from knot invariants (PPT09, class A)

Let a circulation state occupy a (p,q) torus mode. It is a true knot iff gcd(p,q) = 1 and min(p,q) ≥ 2; its Alexander polynomial is then a deformation invariant:

(1,1): Δ = 1 — unknot; stable only by Vdisp confinement (electron)(1)
(1,2): Δ = 1 — unknot; metastable, barrier ≈ 0.1 GeV, τ ~ 10⁻²¹ s — never observed(2)
(2,3): Δ(t) = t⁻² − t⁻¹ + 1 − t + t² ≠ 1 — protected; τp > 10³⁴ yr(3)

Exactly two stable charged configurations exist. This is a theorem of the substrate topology, not a parameter choice, and it is the whole of the framework's particle taxonomy: W = 0 open winding (neutrino), W = 1 unknot (electron/positron by circulation sense), W = 3 trefoil (proton/antiproton). Higher protected knots (W = 5, 7, …) are permitted and await discovery.

2. Mode-velocity partition from the movement budget (PPT01)

The budget vT² + vP² = c² (Law V) fixes the toroidal/poloidal partition of any (p,q) state exactly:

vT = c√(p/(p+q)),  vP = c√(q/(p+q)),  R/a = √(q/p)(4)

Electron (1,1): vT = vP = c/√2. Proton (2,3): vT = c√(2/5) = 0.632c, vP = c√(3/5) = 0.775c. The budget residual (vT² + vP²)/c² is identically 1 for all (p,q).

3. The W+1 radius relation

Rwake = (W+1)·ℏ/(mc) ⟹ Rp = 4ℏ/(mpc) = 0.84124 fm(5)

Against the muonic-hydrogen boundary radius 0.8414 fm the residual is 0.02%; the effective winding read from measurement is Weff = Rp·mp·c/ℏ − 1 = 3.0008. Certification: class C-flagged — the W+1 scaling is conjectural pending derivation from trefoil geometry; the falsification gate is pre-registered (the conjecture dies if Weff departs from the integer 3 beyond 3σ). We record the boundary radius as a boundary radius; the literature's term for the observable obscures that no charge substance is involved.

4. Traction: how the substrate is driven

The trefoil demands phase velocity vphase = c/kp-surf = 1.831c at Rp, while the substrate relays at ≤ c. The demanded angular rate and the relay ceiling are

ωdemand = 3mpc²/ℏ = 4.27 × 10²⁴ s⁻¹,  ωmax = c/Rp = 3.56 × 10²³ s⁻¹(6)
T = ωdemandmax = 3(W+1) = 12(7)

This mismatch is the mechanical origin of the wake hierarchy: the ℓ = 1 (Coulomb), ℓ = 2 (dipole circulation), and ℓ ≥ 3 (short-reach) components are the substrate's graded response to a rotation it cannot fully relay. The nuclear-to-atomic gear ratio 3a₀mpc/(αℏ) = 1.03 × 10⁸ places atomic structure as nuclear circulation geared down through k = 1/α = 137.036.

5. Confinement as collimated convergence (PPT05)

The isotropic share Pconv/3 collimates deflected throughput into a tube of constant cross-section, so tube energy grows linearly, E(L) = σL with σ = 1.23 GeV/fm. The community lattice-computation value ≈ 0.9 GeV/fm is cited only as a convergence target: the SDT figure is 37% above it — a convergence on mechanism and scale, not an exact match, and it is labelled so. Two contraband flags recorded in the canon are reproduced here verbatim rather than hidden: (i) the string-breaking length 0.23 fm carries a silent import of the pion mass, which is not in the measured whitelist; (ii) the pair-snap mode assignment collides with the winding table's assignment of (1,1). Both stand flagged, unresolved, awaiting adjudication — neither is used downstream in this paper.

6. The 6π⁵ identity

6π⁵ = 3·(2π²)·π³ = 1836.1181  vs  mp/me = 1836.15267  (−0.0019%)(8)

The decomposition reads: 3 (winding lobes) × 2π² (unit 3-sphere surface-volume) × π³ (isotropic-pressure factor). No mass measurement enters the left-hand side. Certification: class B-flagged — the identity is exact and parameter-free, but the mapping 6π⁵ ↔ Vdisp(W=3)/Vdisp(W=1) is asserted, not derived; it remains OPEN pending the equilibrium solver (OP-1). The same discipline applies to g(1) = remec/ℏ ≡ α: this is a definitional identity (class F), disclosed as such; the non-trivial claim in the wake-ratio family is g(3) = 4.0008 (proton).

7. Certification

ResultValueStatus
Winding spectrum (1,1)/(2,3) onlyeqs. (1)–(3)DERIVED — class A, analytic (PPT09)
Mode partition vT, vPeq. (4)DERIVED — class A, exact from budget
Rp = 4ℏ/(mpc)0.84124 fm (0.02%)C-flagged — W+1 conjectural; exclusion criterion pre-registered
Traction T = 3(W+1) = 12eq. (7)DERIVED — class C
σ = 1.23 GeV/fm+37% vs convergence targetclass C — mechanism-level convergence; 2 contraband flags disclosed
6π⁵ mass-ratio identity−0.0019%B-flagged — mapping to Vdisp OPEN
g(1) ≡ αidentityclass F — definitional, not evidence

Methodological declaration. No quark or gluon degrees of freedom, no gauge field, no wavefunction, and no quantised-action postulate appear at any step. Knot theory is used as mathematics, not as imported physics. Community lattice-computation and measured-radius values enter exclusively as convergence targets and falsification anchors. Both canon contraband flags in the confinement sector are disclosed above rather than laundered.

References

  1. Engine/include/sdt/laws.hpp — namespace sdt::laws::law_VI (winding, topology, confinement, traction, mass_ratio, angular), with in-situ provenance blocks and contraband flags.
  2. Investigations/02_Particle_Physics_and_Topology — PPT01 (mode equations), PPT05 (confinement), PPT06 (traction), PPT09 (winding spectrum, class A).
  3. Antognini et al., muonic-hydrogen proton boundary-radius determination (measured anchor, 2019 adjustment).
  4. CODATA 2018 (mp/me = 1836.15267 — comparison datum only).
  5. Laws/ — Law VI paper (vortex topology quantisation).