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LeanPool.Erdos132ConvexK3.Assembly

Thirteen-word assembly #

This file kernelizes the exact Section 7 routing table, routes its thirteen tags through four shared geometric realization predicates, and transports the four corresponding closure theorems through one word-indexed family. The final section separately records the stronger global reduction still needed to obtain the source-facing convex theorem.

The five exceptional rows of draft table (3.5).

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    The thirteen and only thirteen row/cover words in draft Section 7.

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      The four local kernels named in the Section 7 destination column.

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        Row projection for the thirteen-word audit.

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          Exact destination column of the draft Section 7 table.

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            Transparent finite check that the audit datatype has exactly 13 words.

            theorem LeanPool.Erdos132ConvexK3.thirteen_word_route_table :
            ExceptionalCoverWord.row1_B32.row = ExceptionalRow.row1 ExceptionalCoverWord.row1_B32.route = WordClosureRoute.terminalCage ExceptionalCoverWord.row1_B31.row = ExceptionalRow.row1 ExceptionalCoverWord.row1_B31.route = WordClosureRoute.antiSaturation ExceptionalCoverWord.row1_B21.row = ExceptionalRow.row1 ExceptionalCoverWord.row1_B21.route = WordClosureRoute.fullTwoRung ExceptionalCoverWord.row2_AB.row = ExceptionalRow.row2 ExceptionalCoverWord.row2_AB.route = WordClosureRoute.fullTwoRung ExceptionalCoverWord.row2_BA.row = ExceptionalRow.row2 ExceptionalCoverWord.row2_BA.route = WordClosureRoute.antiSaturation ExceptionalCoverWord.row3_BB_DD.row = ExceptionalRow.row3 ExceptionalCoverWord.row3_BB_DD.route = WordClosureRoute.fullTwoRung ExceptionalCoverWord.row4_D32.row = ExceptionalRow.row4 ExceptionalCoverWord.row4_D32.route = WordClosureRoute.terminalCage ExceptionalCoverWord.row4_D31.row = ExceptionalRow.row4 ExceptionalCoverWord.row4_D31.route = WordClosureRoute.antiSaturation ExceptionalCoverWord.row4_D21.row = ExceptionalRow.row4 ExceptionalCoverWord.row4_D21.route = WordClosureRoute.fullTwoRung ExceptionalCoverWord.row4_CD.row = ExceptionalRow.row4 ExceptionalCoverWord.row4_CD.route = WordClosureRoute.fullTwoRung ExceptionalCoverWord.row4_DC.row = ExceptionalRow.row4 ExceptionalCoverWord.row4_DC.route = WordClosureRoute.antiSaturation ExceptionalCoverWord.row4_DD.row = ExceptionalRow.row4 ExceptionalCoverWord.row4_DD.route = WordClosureRoute.fourEdgeCage ExceptionalCoverWord.row5_BB_DD.row = ExceptionalRow.row5 ExceptionalCoverWord.row5_BB_DD.route = WordClosureRoute.fullTwoRung

            Kernel rendering of every row and destination in the Section 7 table.

            theorem LeanPool.Erdos132ConvexK3.full_two_rung_shared_tip_degree_le_six {degree : } {F_s A B C : } (hSplit : F_s = A F_s = B F_s C) (hAImpossible : F_s = AFalse) (hB : F_s = Bdegree 6) (hLow : F_s Cdegree 1) :
            degree 6

            Logical closure of the shared-tip F_s=A/B/≤C split after the reflection and metric/sign sublemmas have discharged their branches.

            def LeanPool.Erdos132ConvexK3.WordRealization {n : } (word : ExceptionalCoverWord) (P : Fin nPoint ) (d₁ d₂ d₃ : ) :

            A word is realized when the geometric predicate selected by its route is inhabited.

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              theorem LeanPool.Erdos132ConvexK3.realization_degree_bound {n : } {P : Fin nPoint } {d₁ d₂ d₃ : } (route : WordClosureRoute) (hRealizes : WordClosureRealization route P d₁ d₂ d₃) :
              ∃ (v : Fin n), vertexDegree P d₁ d₂ d₃ v route.degreeBound

              One transport theorem closes each of the four shared realization routes.

              def LeanPool.Erdos132ConvexK3.RealizesGeom {n : } (P : Fin nPoint ) (d₁ d₂ d₃ : ) (word : ExceptionalCoverWord) :

              A tag is realized when its routed shared geometric predicate is inhabited.

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                Route-indexed local closure interface. Realizes w supplies the local geometric data for the corresponding exceptional word.

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                  theorem LeanPool.Erdos132ConvexK3.concrete_word_closures {n : } (P : Fin nPoint ) (d₁ d₂ d₃ : ) :
                  DraftWordClosureInterface (vertexDegree P d₁ d₂ d₃) (RealizesGeom P d₁ d₂ d₃)

                  All thirteen tags close unconditionally through the four shared geometric realization predicates.

                  Direct short-arc closure or one of the thirteen exceptional words.

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                    theorem LeanPool.Erdos132ConvexK3.thirteen_word_assembly {n : } {degree : Fin n} {Realizes : ExceptionalCoverWordProp} (hReduction : HasThirteenWordReduction degree Realizes) (hClosures : DraftWordClosureInterface degree Realizes) :
                    ∃ (v : Fin n), degree v 6

                    Exact thirteen-word logical assembly. Every constructor is routed by ExceptionalCoverWord.route, with anti-saturation's stronger bound weakened from five to six only at the final interface.

                    def LeanPool.Erdos132ConvexK3.HasConvexK3DraftReduction {n : } [_nonzero : NeZero n] (P : Fin nPoint ) (d₁ d₂ d₃ : ) :

                    The proof-producing reduction package still required for an arbitrary convex configuration.

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                      theorem LeanPool.Erdos132ConvexK3.convex_top_three_min_degree_le_six_of_draft_reduction {n : } [_nonzero : NeZero n] {P : Fin nPoint } {d₁ d₂ d₃ : } (hReduction : HasConvexK3DraftReduction P d₁ d₂ d₃) :
                      ∃ (v : Fin n), vertexDegree P d₁ d₂ d₃ v 6

                      A global reduction package and its thirteen kernel routes produce a vertex of degree at most six.

                      The k = 3 degree-six statement suggested by the paper's p. 542 "perhaps degree at most 2k" question.

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                        Bridge from the two public geometric hypotheses to the complete draft reduction package.

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                          Abstract entry point from a complete reduction bridge to the convex degree-six statement.