Kelvin’s programme was richer than “spinning balls.”
Persistent vortical structure, topology and normal modes were explicit research commitments; the literal vortex-atom implementation did not mature into atomic physics.
PUBLIC EVIDENCE GATE · v0.1.0
What is earned?
The programme separates historical survival, mathematical availability, physical realization elsewhere, and CKC-specific derivation. Similarity is cheap; numerical recovery and discriminating prediction are expensive.
✓
Established inputs.
Cosserat media carry local orientation.
A continuum can possess independent rotational structure and generalized stresses beyond displacement-only Cauchy mechanics.
Emergence occurs in quantum liquids.
Known condensed matter supports quasiparticles, vortices, order-parameter topology and effective low-energy field structures.
…
Open CKC gates.
finite-energy defect: OPEN Lorentz recovery: OPEN SU(2) lift: OPEN spin ħ/2: OPEN g-factor: OPEN Fermi statistics: OPEN scattering bounds: OPEN unique prediction: OPEN
CKC is presently a reconstruction-driven theoretical programme, not an experimentally competitive replacement for QED or the Standard Model.
✕
Already rejected shortcuts.
Rigid spinning electron sphere
The classical sphere is not rescued by renaming its rotation “vorticity.”
Kelvin atom = modern atom
The literal nineteenth-century identification is not the hypothesis under reconstruction.
Belt trick = electron mechanism
The topology of rotations is a clue and constraint, not a derivation of electron ontology.
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Next hard target.
Write the simplest explicit energy functional for a Cosserat-like superfluid continuum capable of localized rotational structure. Determine whether the candidate defects possess genuine topological or energetic stability before asking them to imitate spin.