DomTheDeveloper / DomTheDeveloper/crl
Independent audit: Grand Barrier formalization and 2026 prior-art collision
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- Dominant language
- Lean
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Description
Targets
- canonical branch:
formal/bernstein-bezier-grand-canonical - canonical draft PR: #133
- naming and prior-art ledger:
math/bernstein_obstacle/GRAND_THEOREM_CANONICAL_NAMING_AND_PRIOR_ART.md - formalization map:
math/bernstein_obstacle/GRAND_FORMALIZATION_MAP.md - terminal audit:
math/bernstein_obstacle/lean/GrandCanonicalAudit.lean
Proposed theorem names
- Bernstein–Bézier Grand Barrier Theorem
- Bézier Inner-Cone Certificate
- Bernstein–Bézier Barrier Envelope Theorem
- Bernstein–Bézier Inner-Cone Falk Theorem
- Bernstein–Bézier Codimension–Growth Clipping Law
- Three-Halves Contact Law
- Balanced Contact Exponent Principle
- Bernstein–Bézier Bregman Transfer Theorem
Exact-phrase searches found no mathematically relevant naming collisions. This is not evidence that the underlying results are novel.
Formal audit required
- Run the pinned Lean build on the exact PR head.
- Execute
GrandCanonicalAudit.lean. - Confirm no
sorryAx, project axioms, or hidden unsafe declarations. - Check the imports copied from PRs #117 and #118 remain valid on the v3 base.
- Verify the new proofs:
BilateralBarrierEnvelopeData.moscoConverges;grandBarrier_mosco_and_hilbertConvergence;monotoneInnerCone_falk_sq;threeHalvesContactLaw;balancedContactOrder_equalizes.
- Produce a statement-faithfulness table distinguishing kernel theorems from physical analytical hypotheses.
Prior-art audit required
Compare the exact combined claim against at least:
- Allen–Kirby, arXiv:2104.11819;
- Kirby–Shapero, arXiv:2311.05880;
- the 2026 hp/SEM obstacle paper, DOI
10.1016/j.cnsns.2026.110252; - higher-order p-Laplacian obstacle FEM, DOI
10.1016/j.camwa.2018.07.016; - current Mosco stability literature for obstacle-type moving sets;
- Bernstein/Bezier positivity limiters and bounds-preserving FEM;
- bilateral/double-obstacle finite-element convergence literature.
The key collision question is not whether the ingredients exist separately. It is whether a prior source proves the same combination:
- conservative sampled bilateral obstacle envelopes;
- exact complete-element Bernstein coefficient inner sets;
- direct
W_0^{1,p}strong recovery/Mosco convergence for that computable subset; - nonlinear uniformly convex or strongly monotone transfer;
- codimension/contact exponent synthesis.
Required verdict
Return separate verdicts:
LEAN PASS,LEAN PASS AFTER CORRECTION, orLEAN FAIL;NO EXACT COLLISION FOUND,PARTIAL COLLISION, orFULL COLLISION;- exact strongest defensible theorem statement;
- exact acceptable use of the proposed names.
Repository-owner and automated-agent reports do not count as independent endorsement.
Contributor guide
No contributing guide indexed for this repository
First steps
- Read the whole issue, then the project's contributing guide.
- Comment on the issue to say you are picking it up — it saves two people doing the same work.
- Fork the repository and make your change on a branch.
- Open a pull request that references the issue number.
Research direction
Start with the pinned Lean build on the exact head of PR #133, then execute math/bernstein_obstacle/lean/GrandCanonicalAudit.lean. Check the listed theorem proofs, imports from PRs #117 and #118, and the absence of sorryAx, project axioms, and unsafe declarations. Compare the combined claim with the cited literature and finish with the required Lean, collision, theorem-statement, naming, and faithfulness-table verdicts.
Written by the indexing model from the issue text.
Assessment
- Domain
- tooling
- Issue type
- Documentation
- Difficulty
- 5/5
- Estimated time
- Over a week
- Activity status
- Quiet
- Clarity
- Clearly specified
- Newbie friendliness
- 25/100