Download lean/OAI/Computability/VertexCover/Machines/InitialTable.lean from roseking/openAI-math-dataset: direct link, hf CLI and curl.
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6.26 kB
| import Mathlib | |
| import OAI.Computability.VertexCover.PCP.AlphabetRetraction | |
| import OAI.Computability.VertexCover.PCP.RawInitialTables | |
| import OAI.Computability.VertexCover.Machines.DenseParse | |
| import OAI.Computability.VertexCover.Machines.TableBase | |
| import OAI.Computability.VertexCover.Machines.FinCode | |
| import OAI.Computability.VertexCover.Machines.Codec | |
| import OAI.Computability.VertexCover.Machines.Cardinal | |
| namespace OAI | |
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| namespace VertexCover.Machine | |
| open UniqueGames.Foundations | |
| open PCP PCP.GraphTables | |
| open FormulaParser TableMachine | |
| namespace InitialTable | |
| abbrev ClauseData := Triple (Bool × ℕ) | |
| abbrev Signs := Triple Bool | |
| def signsCode : Signs → List Bool := tripleCode boolBits | |
| def clauseDefault : ClauseData := (((false,0),(false,0)),(false,0)) | |
| def signs (cs : ClauseData) : Signs := ((cs.1.1.1,cs.1.2.1),cs.2.1) | |
| def lit (cs : ClauseData) (slot : Fin 3) : Bool × ℕ := | |
| if slot=0 then cs.1.1 else if slot=1 then cs.1.2 else cs.2 | |
| def accepts (s : Signs) (slot : Fin 3) (a b : InitialGraph.Label) : Bool := | |
| InitialGraph.variableValid b && | |
| (((PCP.literalValue s.1.1 a.1 || PCP.literalValue s.1.2 a.2.1) || | |
| PCP.literalValue s.2 a.2.2) && | |
| decide ((if slot=0 then a.1 else if slot=1 then a.2.1 else a.2.2) = b.1)) | |
| def relation (p : Signs × (Fin 3 × Bool)) : RelationTable := | |
| relationOf (fun a b => | |
| let x := AlphabetRetraction.decode64 (RawInitialTables.labelOrder.symm a) | |
| let y := AlphabetRetraction.decode64 (RawInitialTables.labelOrder.symm b) | |
| if p.2.2 then accepts p.1 p.2.1 y x else accepts p.1 p.2.1 x y) | |
| def row (p : FormulaData × ℕ) : Row := | |
| let F := p.1 | |
| let i := p.2 | |
| let cs := F.2.getD (i/6) clauseDefault | |
| let slot : Fin 3 := ⟨(i/2)%3,Nat.mod_lt _ (by decide)⟩ | |
| let flip := decide (i%2=1) | |
| if i < 6*F.2.length then | |
| ((if flip then (lit cs slot).2 else F.1+i/6, | |
| if flip then i-1 else i+1),relation (signs cs,(slot,flip))) | |
| else ((F.1+F.2.length,6*F.2.length),relationOf (fun _ _ => true)) | |
| def output (F : FormulaData) : Data := | |
| (F.1+F.2.length+1,(List.range (6*F.2.length+1)).map (fun i => row (F,i))) | |
| noncomputable def signsPoly : Poly unaryClauseCode signsCode signs := by | |
| let ab := Poly.fst (prodBits unaryLiteralCode unaryLiteralCode) unaryLiteralCode | |
| let a := (ab.comp (Poly.fst unaryLiteralCode unaryLiteralCode)).comp (Poly.fst boolBits natBits) | |
| let b := (ab.comp (Poly.snd unaryLiteralCode unaryLiteralCode)).comp (Poly.fst boolBits natBits) | |
| let c := (Poly.snd (prodBits unaryLiteralCode unaryLiteralCode) unaryLiteralCode).comp (Poly.fst boolBits natBits) | |
| exact (a.pair b).pair c | |
| noncomputable def litPoly : Poly (prodBits unaryClauseCode (finCode (n := 3))) unaryLiteralCode | |
| (fun p : ClauseData × Fin 3 => lit p.1 p.2) := by | |
| let cs := Poly.fst unaryClauseCode (finCode (n := 3)) | |
| let slot := Poly.snd unaryClauseCode (finCode (n := 3)) | |
| let test (i : Fin 3) := slot.comp (Poly.finite finCode boolBits (finCode_injective 3) (fun j => decide (j=i))) | |
| let ab := cs.comp (Poly.fst (prodBits unaryLiteralCode unaryLiteralCode) unaryLiteralCode) | |
| let a := ab.comp (Poly.fst unaryLiteralCode unaryLiteralCode) | |
| let b := ab.comp (Poly.snd unaryLiteralCode unaryLiteralCode) | |
| let c := cs.comp (Poly.snd (prodBits unaryLiteralCode unaryLiteralCode) unaryLiteralCode) | |
| exact ((test 0).ite a ((test 1).ite b c)).congr (by intro p; simp only [Function.comp_apply,lit,decide_eq_true_eq]) | |
| noncomputable def relationPoly : Poly (prodBits signsCode (prodBits (finCode (n := 3)) boolBits)) | |
| relationCode relation := | |
| Poly.finite _ _ (prodBits_injective | |
| (prodBits_injective (prodBits_injective boolBits_injective boolBits_injective) boolBits_injective) | |
| (prodBits_injective (finCode_injective 3) boolBits_injective)) relation | |
| noncomputable def rowPoly : Poly (prodBits FormulaParser.dataCode natBits) rowCode row := by | |
| let enc := prodBits FormulaParser.dataCode natBits | |
| let c (n : ℕ) := Poly.const enc natBits n | |
| let F := Poly.fst FormulaParser.dataCode natBits | |
| let i := Poly.snd FormulaParser.dataCode natBits | |
| let n := F.comp (Poly.fst natBits (listBits unaryClauseCode)) | |
| let clauses := F.comp (Poly.snd natBits (listBits unaryClauseCode)) | |
| let len := clauses.comp (Poly.listLength unaryClauseCode clauseDefault) | |
| let darts := ((c 6).pair len).comp Poly.natMul | |
| let j := (i.pair (c 6)).comp Poly.natDiv | |
| let cs := (j.pair clauses).comp (Poly.listGetD unaryClauseCode clauseDefault) | |
| let slot := ((i.pair (c 2)).comp Poly.natDiv).comp (Poly.finMod 3 (by decide)) | |
| let flip := (((i.pair (c 2)).comp Poly.natMod).pair (c 1)).comp Poly.natBEq | |
| let v := ((cs.pair slot).comp litPoly).comp (Poly.snd boolBits natBits) | |
| let tail := flip.ite v ((n.pair j).comp Poly.natAdd) | |
| let rev := flip.ite ((i.pair (c 1)).comp Poly.natSub) (i.comp Poly.natSucc) | |
| let rel := ((cs.comp signsPoly).pair (slot.pair flip)).comp relationPoly | |
| let normal := (tail.pair rev).pair rel | |
| let dummy := (((n.pair len).comp Poly.natAdd).pair darts).pair | |
| (Poly.const enc relationCode (relationOf (fun _ _ => true))) | |
| let test := (i.pair darts).comp Poly.natLT | |
| refine (test.ite normal dummy).congr ?_ | |
| intro p | |
| simp only [Function.comp_apply,row,List.headD_eq_head?_getD,List.head?_drop, | |
| List.getD_eq_getElem?_getD,decide_eq_true_eq] | |
| noncomputable def outputPoly : Poly FormulaParser.dataCode TableMachine.dataCode output := by | |
| let n := Poly.fst natBits (listBits unaryClauseCode) | |
| let len := (Poly.snd natBits (listBits unaryClauseCode)).comp (Poly.listLength unaryClauseCode clauseDefault) | |
| let darts := (((Poly.const FormulaParser.dataCode natBits 6).pair len).comp Poly.natMul).comp Poly.natSucc | |
| let rows := Poly.tabulate FormulaParser.dataCode rowCode (0,[]) rowDefault darts rowPoly | |
| exact (((n.pair len).comp Poly.natAdd).comp Poly.natSucc).pair rows | |
| end InitialTable | |
| end VertexCover.Machine | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end | |
| end OAI | |