Poincaré — one closed loop, no holes
ab3e7c0b-4a21-8c31-a6a2-23155325ebb2Type anything and watch its uuidna recompute — deterministic, reproducible by anyone, no key. A theorem is alive when you interact with it. A content-address proves integrity, not truth. 0/7.
- theorem key ·
poincare_single_closed_loop - content-address (receipt) ·
8ca406b4-e588-8063-81cc-375d2788644f - status · decidable, re-verified on every build — recomputes from
src/ - entails ·
0/7
Statement — Lean 4 (machine-checked, axiom-free)
The Clay problem Poincaré Conjecture (resolved), to the honest floor. The statement below is a true fact computed from the ℤ/9 doubling sequence — genuinely adjacent to the problem, and not the conjecture.
theorem poincare_single_closed_loop :
orbit 6 == orbit 0
∧ (List.range 6).all (fun i => (List.range 6).all (fun j => (orbit i == orbit j) == (i == j))) := by decideVerified sorry-free by lean src/proof/index.lean; #print axioms poincare_single_closed_loop → does not depend on any axioms. No Mathlib, no native_decide, no sorry.
Honest bound. the sequence closes into a single simple loop of six distinct steps — not the 3-sphere characterization; Poincaré is Perelman's theorem (2003), not proved here — this framework proves 0 of the 7 (provenHere = 0).
References — qualified outlets
- The problem: Clay Mathematics Institute — Poincaré Conjecture — the authoritative statement.
- The resolution: Perelman, G. — The entropy formula for the Ricci flow (arXiv:math/0211159) — the resolution.
- This work: Rouschev, T. Millennium Solutions — the ℤ/9 vortex framework. CC BY-NC 4.0. Zenodo DOI 10.5281/zenodo.21819217.
- Source (verify): src/proof/index.lean — clone and run
lean src/proof/index.lean.
A content-address proves integrity, not truth. entails → 0/7.
The 7D rosetta-ray vortex is plotted from this theorem's microdata (its content-address); the slowly rotating hero background is computed from its seven surrounding theorems' hues — the mesh, seen locally, in analog rotation of dimensions. Each object is the hero of its own page: this theorem at the centre, its neighbours as the field.