Compiled environment
27,794 public declarations across 250 modules, including 14,454 theorem-kind declarations and 7,347 assumption-free theorem-kind declarations. Exactly 15,008 private compiler auxiliaries are excluded.
The current 88-page report is generated from the compiled Lean inventory. It records scoped results, assumptions, and missing work. It does not report an established proof of P = NP.
The report is deterministically rendered from the status and publication map that are themselves derived from the compiled Lean environment.
27,794 public declarations across 250 modules, including 14,454 theorem-kind declarations and 7,347 assumption-free theorem-kind declarations. Exactly 15,008 private compiler auxiliaries are excluded.
2,589 theorem candidates have reviewed kernel-type SHA-256 pins. Earned milestones require every named theorem to be present, theorem-kind, type-matched, bound to the reviewed source closure, and free of project or unapproved axioms.
Publication requires the strict conjunction of concrete target, root, type/value, axiom-closure, and source-closure checks. Unconfigured null fingerprints never match.
The latest result is an exact finite PkgC ambient-BN4-ledger embedding. Given an explicit ambient ledger, typed restorer, exact multiset certificate, and successful candidate-derived kernel, Lean preserves duplicates, decomposes per-key mass, and reduces signed mass and executable residual contribution to an explicit remainder. Those inputs remain explicit and are not derived from a terminal candidate. The result does not prove full PkgC route integration or silence, complete global routing, or polynomial generation and runtime. Scope labels and non-claims are part of every milestone row.
Concrete machine/cost semantics and raw-machine compilation; universal concrete CNF-SAT verifier correctness, no-timeout and NP membership; Cook-Levin semantics, size and schedule bounds, and a bounded formula-building prefix; typed locked-NAND semantics, strict codecs, fixed machines, concrete polynomial reductions, and the report-facing all-bitstring locked-NAND reduction theorem; verified residual-gain chains and a semantic stopping criterion; terminal carriers, projection minima, finite support construction, four-corner coherence and tight-basis results; computed BN2 structural square legitimacy; a canonical positive terminal BCEL anchor nucleus; candidate-derived terminal saturation traces and finite routing; the finite terminal positive-saturation composition; the fixed ten-coordinate residual RankWF; the finite candidate-derived BN3 request envelope; the finite BN4 activation-exact same-key cancellation kernel; the finite BN5 full-shadow localization kernel; the finite PkgC separating-consumer restoration dichotomy, typed restoration realization, typed-restoration same-key cancellation, and ambient-BN4-ledger embedding; the finite V54 consumer-antichain normal form; the finite V53 constant-cut hypergraph classification; and the finite BN6 grouped hypergraph-packet bridge with payload witnesses. The BN4 ledger, BN5 payload and shadow universe, PkgC consumer antichain, typed restoration operation and coordinate maps, V54 minimal-consumer antichain and singletonization premise, and BN6 survivor family, grouping, payloads, and constant-cut equation remain explicit inputs. The ambient ledger, typed restorer, exact embedding certificate, and successful candidate kernel are not derived from a terminal candidate. The full historical BN4, BN5, PkgC, and BN6 results, a decreasing complete global route system, selector and realizer completeness, manuscript-wide SaturatePositive, Package E, BCELReady, ZeroSlack, PCCMin, polynomial runtime, and the final theorem remain outside this earned scope.
SAT NP-hardness or CNF-SAT NP-completeness, global ZeroSlack, PCCMin, residual minimization and polynomial runtime, a complete Cook-Levin formula builder, CNF-SAT in P, and a concrete standard P-versus-NP target with an eligible root theorem. The legacy abstract string-handle bridge remains quarantined and publication-ineligible. P = NP is not established.
The existing PNP.PEqualsNP structure uses string handles for languages and witness code. It is trivially inhabitable and explicitly publication-ineligible. The finite charged-pipeline target PNP.Main.ConcretePEqualsNP and raw-machine linkage are formalized, but reviewed activation fingerprints and compatibility root PNP.Main.p_eq_np remain absent. The gate therefore fails, and all public theorem-emission fields remain false or null.
Use the published digest ledger for file identity, then reproduce the compiled inventory and publication generation in the Lean repository. A hash match is not proof of a theorem.
The historical manuscript is preserved at source tag final-pnp-proof-report-hardened-7072f8d, commit 7072f8d0bda6d44d240f9bb3fad624fd357e1278, with provenance in archive/legacy-v0/ARCHIVE.json. Its checker-mediated claim language is superseded and never controls current theorem status or the canonical download aliases.