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Add lean source and binary files (part 62)
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import Mathlib
import OAI.Computability.MinUncut.Games.FinalCNFPattern
import OAI.Computability.MinUncut.Machines.RawInitialMachineFinish
namespace OAI
namespace MinUncutGames.Foundations.Complexity.FinalCNFMachine.Program
open Turing
open PCP.AlphabetTable
def headerFrame (input archive vertices darts rowIndex tail head accumulator : List Bool) :
Tape → List Bool
| .input => input
| .archive => archive
| .vertices => vertices
| .darts => darts
| .rowIndex => rowIndex
| .tail => tail
| .head => head
| .accumulator => accumulator
| _ => []
def headerInputTapes (input : List Bool) : Tape → List Bool :=
headerFrame input [] [] [] [] [] [] []
def headerResultTapes (n m : Nat) (rowsBits : List Bool) : Tape → List Bool :=
headerFrame rowsBits (encodeWords [n, m] ++ rowsBits)
(encodeWord n) (encodeWord m) (encodeWord 0) [] []
(encodeWords [6 * n + 36864 * m, 40960 * m]).reverse
@[simp] theorem headerResultTapes_input (n m : Nat) (rowsBits : List Bool) :
headerResultTapes n m rowsBits .input = rowsBits := rfl
@[simp] theorem headerResultTapes_archive (n m : Nat) (rowsBits : List Bool) :
headerResultTapes n m rowsBits .archive = encodeWords [n, m] ++ rowsBits := rfl
@[simp] theorem headerResultTapes_accumulator (n m : Nat) (rowsBits : List Bool) :
headerResultTapes n m rowsBits .accumulator =
(encodeWords [6 * n + 36864 * m, 40960 * m]).reverse := rfl
@[simp] theorem headerResultTapes_rowIndex (n m : Nat) (rowsBits : List Bool) :
headerResultTapes n m rowsBits .rowIndex = encodeWord 0 := rfl
noncomputable def headerTimePolynomial : Polynomial Nat :=
Polynomial.C 25 * Polynomial.X + Polynomial.C 52
@[simp] theorem headerTimePolynomial_eval (length : Nat) :
headerTimePolynomial.eval length = 25 * length + 52 := by
simp [headerTimePolynomial]
def headerInTime (rowPlan : Plan) (n m : Nat) (rowsBits : List Bool) (ambient : Ambient) :
StateTransition.EvalsToInTime (TM2.step (program headerPlan rowPlan))
⟨some .copyFirst, ((ambient, ()), none),
headerInputTapes (encodeWords [n, m] ++ rowsBits)⟩
(some ⟨some .guard, ((ambient, ()), none), headerResultTapes n m rowsBits⟩)
(headerTimePolynomial.eval (encodeWords [n, m] ++ rowsBits).length) := by
let word := encodeWords [n, m] ++ rowsBits
let bits := encodeWords [6 * n + 36864 * m, 40960 * m]
let b₀ := headerInputTapes word
let b₁ := headerFrame word word [] [] [] [] [] []
let b₂ := headerFrame (encodeWord m ++ rowsBits) word (encodeWord n) [] [] [] [] []
let b₃ := headerFrame rowsBits word (encodeWord n) (encodeWord m) [] [] [] []
let b₄ := headerFrame rowsBits word (encodeWord n) (encodeWord m)
(encodeWord 0) (encodeWord 0) (encodeWord 0) []
let b₅ := headerFrame rowsBits word (encodeWord n) (encodeWord m)
(encodeWord 0) (encodeWord 0) (encodeWord 0) bits.reverse
let b₆ := headerFrame rowsBits word (encodeWord n) (encodeWord m)
(encodeWord 0) [] (encodeWord 0) bits.reverse
let b₇ := headerResultTapes n m rowsBits
have h₀ : Function.update b₀ Tape.archive (b₀ .input ++ b₀ .archive) = b₁ := by
funext tape; cases tape <;> simp [b₀, b₁, headerInputTapes, headerFrame]
have h₁ : Hastad.SourceMachine.fieldTapes Tape.input Tape.vertices b₁
(encodeWord m ++ rowsBits) (encodeWord n ++ b₁ .vertices) = b₂ := by
funext tape; cases tape <;> simp [Hastad.SourceMachine.fieldTapes, b₁, b₂, headerFrame]
have h₂ : Hastad.SourceMachine.fieldTapes Tape.input Tape.darts b₂
rowsBits (encodeWord m ++ b₂ .darts) = b₃ := by
funext tape; cases tape <;> simp [Hastad.SourceMachine.fieldTapes, b₂, b₃, headerFrame]
have h₄ : Emitter.resultTapes Tape.accumulator b₄
(Emitter.prefixBits (Emitter.listCommands headerPlan) (values n m 0 0 0)
ambient headerPlan.length) = b₅ := by
rw [Emitter.bits_listCommands, headerPlan_bits]
funext tape; cases tape <;> simp [Emitter.resultTapes, b₄, b₅, bits, headerFrame]
have h₅ : Function.update b₅ Tape.tail [] = b₆ := by
funext tape; cases tape <;> simp [b₅, b₆, headerFrame]
have h₆ : Function.update b₆ Tape.head [] = b₇ := by
funext tape; cases tape <;> simp [b₆, b₇, headerResultTapes, bits, word, headerFrame]
have hn : n ≤ word.length := by
simp only [word, List.length_append, encodeWords_length, List.sum_cons,
List.sum_nil, List.length_cons, List.length_nil] ; omega
have hm : m ≤ word.length := by
simp only [word, List.length_append, encodeWords_length, List.sum_cons,
List.sum_nil, List.length_cons, List.length_nil] ; omega
let p₀ := MachineCopy.copyInTime Tape.input Tape.archive Tape.scratch
(by decide) (by decide) (by decide) false .copyFirst .copySecond (some .startVertices)
(program headerPlan rowPlan) rfl rfl b₀ (by rfl) (ambient, ()) none
have p₀' : StateTransition.EvalsToInTime (TM2.step (program headerPlan rowPlan))
⟨some .copyFirst, ((ambient, ()), none), b₀⟩
(some ⟨some .startVertices, ((ambient, ()), none), b₁⟩) (2 * (word.length + 1)) := by
have h := p₀
rw [h₀] at h
simpa only [show b₀ .input = word from rfl] using h
let p₁ := Hastad.SourceMachine.fieldInTime Tape.input Tape.vertices (by decide)
.startVertices .readVertices (some .startDarts) (program headerPlan rowPlan)
rfl rfl b₁ n (encodeWord m ++ rowsBits)
(by simp [b₁, headerFrame, word, encodeWords, List.append_assoc]) (ambient, ()) none
have p₁' : StateTransition.EvalsToInTime (TM2.step (program headerPlan rowPlan))
⟨some .startVertices, ((ambient, ()), none), b₁⟩
(some ⟨some .startDarts, ((ambient, ()), none), b₂⟩) (n + 2) := by
simpa only [h₁] using p₁
let p₂ := Hastad.SourceMachine.fieldInTime Tape.input Tape.darts (by decide)
.startDarts .readDarts (some .seedIndex) (program headerPlan rowPlan)
rfl rfl b₂ m rowsBits rfl (ambient, ()) none
have p₂' : StateTransition.EvalsToInTime (TM2.step (program headerPlan rowPlan))
⟨some .startDarts, ((ambient, ()), none), b₂⟩
(some ⟨some .seedIndex, ((ambient, ()), none), b₃⟩) (m + 2) := by
simpa only [h₂] using p₂
let p₃ : StateTransition.EvalsToInTime (TM2.step (program headerPlan rowPlan))
⟨some .seedIndex, ((ambient, ()), none), b₃⟩
(some ⟨some (.header (Emitter.labelAt headerPlan.length 36864 0 .entry)),
((ambient, ()), none), b₄⟩) 1 := {
steps := 1
evals_in_steps := by
simp only [Function.iterate_one]
change TM2.step (program headerPlan rowPlan)
⟨some .seedIndex, ((ambient, ()), none), b₃⟩ = _
have ht : Function.update (Function.update (Function.update b₃ Tape.rowIndex [false])
Tape.tail [false]) Tape.head [false] = b₄ := by
funext tape; cases tape <;> simp [b₃, b₄, headerFrame, encodeWord]
simp only [TM2.step, program, TM2.stepAux]
apply congrArg some
exact congrArg (TM2.Cfg.mk _ _) ht
steps_le_m := Nat.le_refl _ }
let p₄ := Emitter.planInTime (Emitter.listCommands headerPlan) source Tape.scratch
Tape.accumulator source_ne_scratch source_ne_accumulator (by decide)
Label.header (some .headerClearTail) (program headerPlan rowPlan) (fun _ => rfl)
(values n m 0 0 0) b₄
(by intro i; fin_cases i <;> rfl) rfl ambient word.length
(by
intro i
fin_cases i
· exact hn
· exact hm
· exact Nat.zero_le _
· exact Nat.zero_le _
· exact Nat.zero_le _)
have p₄' : StateTransition.EvalsToInTime (TM2.step (program headerPlan rowPlan))
⟨some (.header (Emitter.labelAt headerPlan.length 36864 0 .entry)),
((ambient, ()), none), b₄⟩
(some ⟨some .headerClearTail, ((ambient, ()), none), b₅⟩)
(7 * (3 * (word.length + 1) + 3) + 1) := by
have h := p₄
rw [h₄] at h
simpa only [headerPlan_length] using h
let p₅ := MachineLookup.discardInTime Tape.tail .headerClearTail .headerClearHead
(program headerPlan rowPlan) rfl b₅ 0 [] (by simp [b₅, headerFrame]) (ambient, ()) none
have p₅' : StateTransition.EvalsToInTime (TM2.step (program headerPlan rowPlan))
⟨some .headerClearTail, ((ambient, ()), none), b₅⟩
(some ⟨some .headerClearHead, ((ambient, ()), none), b₆⟩) 1 := by
simpa only [h₅] using p₅
let p₆ := MachineLookup.discardInTime Tape.head .headerClearHead .guard
(program headerPlan rowPlan) rfl b₆ 0 [] (by simp [b₆, headerFrame]) (ambient, ()) none
have p₆' : StateTransition.EvalsToInTime (TM2.step (program headerPlan rowPlan))
⟨some .headerClearHead, ((ambient, ()), none), b₆⟩
(some ⟨some .guard, ((ambient, ()), none), b₇⟩) 1 := by
simpa only [h₆] using p₆
let p₀₁ := StateTransition.EvalsToInTime.trans _ _ _ _ _ _ p₀' p₁'
let p₀₁₂ := StateTransition.EvalsToInTime.trans _ _ _ _ _ _ p₀₁ p₂'
let p₀₁₂₃ := StateTransition.EvalsToInTime.trans _ _ _ _ _ _ p₀₁₂ p₃
let p₀₁₂₃₄ := StateTransition.EvalsToInTime.trans _ _ _ _ _ _ p₀₁₂₃ p₄'
let p₀₁₂₃₄₅ := StateTransition.EvalsToInTime.trans _ _ _ _ _ _ p₀₁₂₃₄ p₅'
let p := StateTransition.EvalsToInTime.trans _ _ _ _ _ _ p₀₁₂₃₄₅ p₆'
exact {
toEvalsTo := p.toEvalsTo
steps_le_m := by
have h := p.steps_le_m
change _ ≤ headerTimePolynomial.eval word.length
rw [headerTimePolynomial_eval]
omega }
def tableRowsBits (table : PCP.GenericGraphTables.Table 64) : List Bool :=
encodeWords ((PCP.GenericGraphTables.rowList table).flatMap PCP.GenericGraphTables.rowWords)
theorem tableBits_header_rows (table : PCP.GenericGraphTables.Table 64) :
PCP.GenericGraphTables.tableBits table =
encodeWords [table.vertices, table.darts] ++ tableRowsBits table := by
simp only [PCP.GenericGraphTables.tableBits, PCP.GenericGraphTables.tableWords,
encodeWords_append, tableRowsBits]
def tableHeaderInTime (rowPlan : Plan) (table : PCP.GenericGraphTables.Table 64)
(ambient : Ambient) :
StateTransition.EvalsToInTime (TM2.step (program headerPlan rowPlan))
⟨some .copyFirst, ((ambient, ()), none),
headerInputTapes (PCP.GenericGraphTables.tableBits table)⟩
(some ⟨some .guard, ((ambient, ()), none),
headerResultTapes table.vertices table.darts (tableRowsBits table)⟩)
(headerTimePolynomial.eval (PCP.GenericGraphTables.tableBits table).length) := by
rw [tableBits_header_rows]
exact headerInTime rowPlan table.vertices table.darts (tableRowsBits table) ambient
theorem headerInput_configuration (rowPlan : Plan) (input : List Bool) :
initList (machine headerPlan rowPlan) input =
⟨some .copyFirst, ((((), fun _ => false), ()), none), headerInputTapes input⟩ := by
have ht : (initList (machine headerPlan rowPlan) input).stk = headerInputTapes input := by
funext tape
cases tape <;> simp [initList, machine, headerInputTapes, headerFrame]
all_goals rfl
exact congrArg (TM2.Cfg.mk _ _) ht
def initializedTableHeaderInTime (rowPlan : Plan) (table : PCP.GenericGraphTables.Table 64) :
StateTransition.EvalsToInTime (machine headerPlan rowPlan).step
(initList (machine headerPlan rowPlan) (PCP.GenericGraphTables.tableBits table))
(some ⟨some .guard, ((((), fun _ => false), ()), none),
headerResultTapes table.vertices table.darts (tableRowsBits table)⟩)
(headerTimePolynomial.eval (PCP.GenericGraphTables.tableBits table).length) := by
rw [headerInput_configuration]
exact tableHeaderInTime rowPlan table ((), fun _ => false)
open Turing PCP PCP.AlphabetTable
def endpointTapes (base : Tape → List Bool) (tail reverse : Nat) (rest : List Bool) :=
Hastad.SourceMachine.fieldTapes Tape.input Tape.reverseIndex
(Hastad.SourceMachine.fieldTapes Tape.input Tape.tail base
(encodeWord reverse ++ rest) (encodeWord tail ++ base .tail))
rest (encodeWord reverse ++ base .reverseIndex)
def endpointsInTime (headerPlan plan : Plan) (base : Tape → List Bool)
(tail reverse : Nat) (rest : List Bool)
(hinput : base .input = encodeWord tail ++ encodeWord reverse ++ rest)
(ambient : Ambient) :
StateTransition.EvalsToInTime (TM2.step (program headerPlan plan))
⟨some .startTail, ((ambient, ()), none), base⟩
(some ⟨some .headTableFirst, ((ambient, ()), none),
endpointTapes base tail reverse rest⟩) (tail + reverse + 4) := by
let first := Hastad.SourceMachine.fieldTapes Tape.input Tape.tail base
(encodeWord reverse ++ rest) (encodeWord tail ++ base .tail)
let run₁ := Hastad.SourceMachine.fieldInTime Tape.input Tape.tail (by decide)
.startTail .readTail (some .startReverse) (program headerPlan plan) rfl rfl
base tail (encodeWord reverse ++ rest) (by simpa only [List.append_assoc] using hinput)
(ambient, ()) none
have input₁ : first .input = encodeWord reverse ++ rest := by
simp [first, Hastad.SourceMachine.fieldTapes]
have reverse₁ : first .reverseIndex = base .reverseIndex := by
simp [first, Hastad.SourceMachine.fieldTapes]
let run₂ := Hastad.SourceMachine.fieldInTime Tape.input Tape.reverseIndex (by decide)
.startReverse .readReverse (some .headTableFirst) (program headerPlan plan) rfl rfl
first reverse rest input₁ (ambient, ()) none
have joined := StateTransition.EvalsToInTime.trans _ _ _ _ _ _ run₁ run₂
simpa only [first, reverse₁, endpointTapes, Nat.add_assoc,
Nat.add_left_comm, Nat.add_comm] using joined
def relationInTime (headerPlan plan : Plan) (base : Tape → List Bool)
(relation : GraphTables.RelationTable) (rest : List Bool)
(hinput : base .input = encodeWords (GraphTables.relationWords relation) ++ rest)
(ambient : Ambient) :
StateTransition.EvalsToInTime (TM2.step (program headerPlan plan))
⟨some .readRelation, ((ambient, ()), none), base⟩
(some ⟨some (.row (Emitter.labelAt plan.length 36864 0 .entry)),
((((), fun i => relation[i]), ()), none), Function.update base .input rest⟩) 1 where
steps := 1
evals_in_steps := by
change some (TM2.stepAux (program headerPlan plan .readRelation) _ _) = _
rw [program, stepAux_readRelationAt _ _ _ _ _ _ _ _ _ hinput]
steps_le_m := Nat.le_refl _
def emitInTime (headerPlan plan : Plan) (base : Tape → List Bool)
(operands : Fin 5 → Nat) (hoperands : ∀ i, base (source i) = encodeWord (operands i))
(hscratch : base .scratch = []) (ambient : Ambient)
(N : Nat) (hbounded : ∀ i, operands i ≤ N) :
StateTransition.EvalsToInTime (TM2.step (program headerPlan plan))
⟨some (.row (Emitter.labelAt plan.length 36864 0 .entry)),
((ambient, ()), none), base⟩
(some ⟨some .clearTail, ((ambient, ()), none),
Function.update base .accumulator
((plan.flatMap (Emitter.commandBits operands ambient)).reverse ++ base .accumulator)⟩)
(plan.length * (3 * (N + 1) + 3) + 1) := by
have run := Emitter.planInTime (Emitter.listCommands plan)
source Tape.scratch Tape.accumulator source_ne_scratch source_ne_accumulator (by decide)
Label.row (some .clearTail) (program headerPlan plan) (fun _ => rfl)
operands base hoperands hscratch ambient N hbounded
simpa only [Emitter.bits_listCommands, Emitter.resultTapes] using run
def finishTapes (base : Tape → List Bool) (row : Nat) : Tape → List Bool :=
Function.update
(Function.update (Function.update (Function.update base Tape.tail []) Tape.head [])
Tape.reverseIndex []) Tape.rowIndex (encodeWord (row + 1))
def finishInTime (headerPlan plan : Plan) (base : Tape → List Bool)
(tail head reverse row : Nat)
(htail : base .tail = encodeWord tail) (hhead : base .head = encodeWord head)
(hreverse : base .reverseIndex = encodeWord reverse)
(hrow : base .rowIndex = encodeWord row) (ambient : Ambient) :
StateTransition.EvalsToInTime (TM2.step (program headerPlan plan))
⟨some .clearTail, ((ambient, ()), none), base⟩
(some ⟨some .guard, ((ambient, ()), none), finishTapes base row⟩)
(tail + head + reverse + 4) := by
let t₁ := Function.update base Tape.tail []
let t₂ := Function.update t₁ Tape.head []
let t₃ := Function.update t₂ Tape.reverseIndex []
let run₁ := MachineLookup.discardInTime Tape.tail .clearTail .clearHead
(program headerPlan plan) rfl base tail [] (by simpa using htail) (ambient, ()) none
have hhead₁ : t₁ .head = encodeWord head := by simp [t₁, hhead]
let run₂ := MachineLookup.discardInTime Tape.head .clearHead .clearReverse
(program headerPlan plan) rfl t₁ head [] (by simpa using hhead₁) (ambient, ()) none
have hreverse₂ : t₂ .reverseIndex = encodeWord reverse := by simp [t₂, t₁, hreverse]
let run₃ := MachineLookup.discardInTime Tape.reverseIndex .clearReverse .nextRow
(program headerPlan plan) rfl t₂ reverse [] (by simpa using hreverse₂) (ambient, ()) none
let run₄ : StateTransition.EvalsToInTime (TM2.step (program headerPlan plan))
⟨some .nextRow, ((ambient, ()), none), t₃⟩
(some ⟨some .guard, ((ambient, ()), none), finishTapes base row⟩) 1 := {
steps := 1
evals_in_steps := by
change some (TM2.stepAux (program headerPlan plan .nextRow) _ _) = _
simp only [program, TM2.stepAux]
congr 2
simp [t₃, t₂, t₁, finishTapes, hrow, encodeWord, List.replicate_succ]
steps_le_m := Nat.le_refl _ }
let r₁₂ := StateTransition.EvalsToInTime.trans _ _ _ _ _ _ run₁ run₂
let r₁₂₃ := StateTransition.EvalsToInTime.trans _ _ _ _ _ _ r₁₂ run₃
have run := StateTransition.EvalsToInTime.trans _ _ _ _ _ _ r₁₂₃ run₄
simpa only [Nat.add_assoc, Nat.add_left_comm, Nat.add_comm] using run
end MinUncutGames.Foundations.Complexity.FinalCNFMachine.Program
namespace MinUncutGames.Foundations.Complexity.FinalCNFTableAdapter
open PCP
def genericRow {n m : Nat} (row : GraphTables.DartRow n m) :
GenericGraphTables.DartRow 64 n m :=
⟨row.tail, row.reverseIndex, row.relation⟩
@[simp] theorem genericRow_tail {n m : Nat} (row : GraphTables.DartRow n m) :
(genericRow row).tail = row.tail := rfl
@[simp] theorem genericRow_reverseIndex {n m : Nat} (row : GraphTables.DartRow n m) :
(genericRow row).reverseIndex = row.reverseIndex := rfl
@[simp] theorem genericRow_relation {n m : Nat} (row : GraphTables.DartRow n m) :
(genericRow row).relation = row.relation := rfl
def genericRows {n m : Nat} (rows : GraphTables.Rows n m) :
GenericGraphTables.Rows 64 n m := rows.map genericRow
@[simp] theorem genericRows_get {n m : Nat} (rows : GraphTables.Rows n m) (e : Fin m) :
(genericRows rows)[e] = genericRow rows[e] := by
simp [genericRows]
@[simp] theorem genericRows_reverseAt {n m : Nat} (rows : GraphTables.Rows n m)
(e : Fin m) :
GenericGraphTables.reverseAt (genericRows rows) e = GraphTables.reverseAt rows e := by
change (genericRows rows)[e].reverseIndex = rows[e].reverseIndex
rw [genericRows_get]
rfl
@[simp] theorem genericRows_acceptsAt {n m : Nat} (rows : GraphTables.Rows n m)
(e : Fin m) (a b : Fin 64) :
GenericGraphTables.acceptsAt (genericRows rows) e a b =
GraphTables.acceptsAt rows e a b := by
simp only [GenericGraphTables.acceptsAt, genericRows_get, genericRow_relation]
rfl
theorem genericRows_valid {n m : Nat} (rows : GraphTables.Rows n m)
(valid : GraphTables.Valid rows) : GenericGraphTables.Valid (genericRows rows) := by
constructor
· intro e
simpa only [genericRows_reverseAt] using valid.1 e
· intro e a b
simpa only [genericRows_reverseAt, genericRows_acceptsAt] using valid.2 e a b
def genericTable (table : GraphTables.Table) : GenericGraphTables.Table 64 where
vertices := table.vertices
darts := table.darts
rows := genericRows table.rows
valid := genericRows_valid table.rows table.valid
@[simp] theorem genericTable_vertices (table : GraphTables.Table) :
(genericTable table).vertices = table.vertices := rfl
@[simp] theorem genericTable_darts (table : GraphTables.Table) :
(genericTable table).darts = table.darts := rfl
@[simp] theorem genericTable_row (table : GraphTables.Table) (e : Fin table.darts) :
(genericTable table).rows[e] = genericRow table.rows[e] := genericRows_get _ _
@[simp] theorem genericTable_tail (table : GraphTables.Table) (e : Fin table.darts) :
(genericTable table).rows[e].tail = table.rows[e].tail := by
rw [genericTable_row]
rfl
@[simp] theorem genericTable_reverseIndex (table : GraphTables.Table) (e : Fin table.darts) :
(genericTable table).rows[e].reverseIndex = table.rows[e].reverseIndex := by
rw [genericTable_row]
rfl
@[simp] theorem genericTable_relation (table : GraphTables.Table) (e : Fin table.darts) :
(genericTable table).rows[e].relation = table.rows[e].relation := by
rw [genericTable_row]
rfl
@[simp] theorem genericRow_words {n m : Nat} (row : GraphTables.DartRow n m) :
GenericGraphTables.rowWords (genericRow row) = GraphTables.rowWords row := rfl
theorem genericTable_rowList (table : GraphTables.Table) :
GenericGraphTables.rowList (genericTable table) =
(GraphTables.rowList table).map genericRow := by
simp only [GenericGraphTables.rowList, GraphTables.rowList, genericTable,
genericRows, Vector.toList_map]
@[simp] theorem genericTable_tableWords (table : GraphTables.Table) :
GenericGraphTables.tableWords (genericTable table) = GraphTables.tableWords table := by
simp only [GenericGraphTables.tableWords, GraphTables.tableWords,
genericTable_vertices, genericTable_darts, genericTable_rowList, List.flatMap_map,
genericRow_words]
@[simp] theorem genericTable_tableBits (table : GraphTables.Table) :
GenericGraphTables.tableBits (genericTable table) = GraphTables.tableBits table := by
simp only [GenericGraphTables.tableBits, GraphTables.tableBits, genericTable_tableWords]
@[simp] theorem genericTable_semantics_tail (table : GraphTables.Table) (e : Fin table.darts) :
(GenericGraphTables.semantics (genericTable table)).tail e =
(GraphTables.semantics table).tail e := genericTable_tail table e
@[simp] theorem genericTable_semantics_reverse (table : GraphTables.Table)
(e : Fin table.darts) :
(GenericGraphTables.semantics (genericTable table)).reverse e =
(GraphTables.semantics table).reverse e := genericTable_reverseIndex table e
@[simp] theorem genericTable_semantics_head (table : GraphTables.Table) (e : Fin table.darts) :
(GenericGraphTables.semantics (genericTable table)).head e =
(GraphTables.semantics table).head e := by
simp only [ConstraintGraph.head, genericTable_semantics_reverse, genericTable_semantics_tail]
rfl
@[simp] theorem genericTable_semantics_accepts (table : GraphTables.Table)
(e : Fin table.darts) (a b : Fin 64) :
(GenericGraphTables.semantics (genericTable table)).accepts e a b =
(GraphTables.semantics table).accepts e a b := genericRows_acceptsAt _ _ _ _
@[simp] theorem genericTable_headIndex (table : GraphTables.Table) (e : Fin table.darts) :
AlphabetTable.Lookup.headIndex (genericTable table) e = table.rows[e].reverseIndex :=
genericTable_reverseIndex table e
@[simp] theorem genericTable_headValue (table : GraphTables.Table) (e : Fin table.darts) :
AlphabetTable.Lookup.headValue (genericTable table) e =
((GraphTables.semantics table).head e).val := by
exact (AlphabetTable.Lookup.headValue_eq_semantics (genericTable table) e).trans
(congrArg Fin.val (genericTable_semantics_head table e))
theorem genericTable_headValue_tableGraph (table : GraphTables.Table) (e : Fin table.darts) :
AlphabetTable.Lookup.headValue (genericTable table) e =
((FinalCNFPattern.tableGraph table).head e).val := by
rw [genericTable_headValue]
rfl
theorem genericTable_pattern_relation (table : GraphTables.Table) (e : Fin table.darts)
(p : VerifierToCNF.PatternIndex 12) :
(genericTable table).rows[e].relation[FinalCNFPattern.patternRelationIndex p] =
(FinalCNFPattern.tableVerifier table).accepts e (VerifierToCNF.patternAt 12 p) := by
rw [genericTable_relation]
exact FinalCNFPattern.pattern_lookup_eq_verifier_accepts table e p
end MinUncutGames.Foundations.Complexity.FinalCNFTableAdapter
namespace MinUncutGames.Foundations.Complexity.FinalCNFMachine.Program
open Turing PCP PCP.AlphabetTable FinalCNFTableAdapter
@[simp] theorem headRoles_zero : headRoles 0 = Tape.archive := rfl
@[simp] theorem headRoles_one : headRoles 1 = Tape.reverseIndex := rfl
@[simp] theorem headRoles_two : headRoles 2 = Tape.scanWork := rfl
@[simp] theorem headRoles_three : headRoles 3 = Tape.indexWork := rfl
@[simp] theorem headRoles_four : headRoles 4 = Tape.head := rfl
@[simp] theorem headRoles_five : headRoles 5 = Tape.scratch := rfl
def rowOperands (table : GraphTables.Table) (e : Fin table.darts) : Fin 5 → Nat :=
values table.vertices table.darts table.rows[e].tail.val
table.rows[table.rows[e].reverseIndex].tail.val e.val
def rowRelation (table : GraphTables.Table) (e : Fin table.darts) : Ambient :=
((), fun i => table.rows[e].relation[i])
def rowRest (table : GraphTables.Table) (e : Fin table.darts) (rest : List Bool) : List Bool :=
encodeWords (GraphTables.relationWords table.rows[e].relation) ++ rest
def preparedTapes (base : Tape → List Bool) (table : GraphTables.Table)
(e : Fin table.darts) (rest : List Bool) : Tape → List Bool :=
Lookup.headLookupTapes headRoles
(endpointTapes base table.rows[e].tail.val table.rows[e].reverseIndex.val
(rowRest table e rest)) (genericTable table) e
theorem prepared_input (base : Tape → List Bool) (table : GraphTables.Table)
(e : Fin table.darts) (rest : List Bool) :
preparedTapes base table e rest .input = rowRest table e rest := by
simp [preparedTapes, Lookup.headLookupTapes, MachineLookup.tapes, endpointTapes,
Hastad.SourceMachine.fieldTapes]
theorem prepared_head (base : Tape → List Bool) (table : GraphTables.Table)
(e : Fin table.darts) (rest : List Bool) :
preparedTapes base table e rest .head =
encodeWord table.rows[table.rows[e].reverseIndex].tail.val := by
simp [preparedTapes, Lookup.headLookupTapes, MachineLookup.tapes,
genericTable_headValue, GraphTables.semantics, ConstraintGraph.head,
GraphTables.reverseAt]
theorem prepared_tail (base : Tape → List Bool) (table : GraphTables.Table)
(e : Fin table.darts) (rest : List Bool) :
preparedTapes base table e rest .tail = encodeWord table.rows[e].tail.val ++ base .tail := by
simp [preparedTapes, Lookup.headLookupTapes, MachineLookup.tapes, endpointTapes,
Hastad.SourceMachine.fieldTapes]
theorem prepared_reverse (base : Tape → List Bool) (table : GraphTables.Table)
(e : Fin table.darts) (rest : List Bool) :
preparedTapes base table e rest .reverseIndex =
encodeWord table.rows[e].reverseIndex.val ++ base .reverseIndex := by
simp [preparedTapes, Lookup.headLookupTapes, MachineLookup.tapes, endpointTapes,
Hastad.SourceMachine.fieldTapes]
theorem prepared_frame (base : Tape → List Bool) (table : GraphTables.Table)
(e : Fin table.darts) (rest : List Bool) (tape : Tape)
(hi : tape ≠ .input) (ht : tape ≠ .tail) (hr : tape ≠ .reverseIndex)
(hh : tape ≠ .head) (hs : tape ≠ .scanWork) (hx : tape ≠ .indexWork) :
preparedTapes base table e rest tape = base tape := by
simp [preparedTapes, Lookup.headLookupTapes, MachineLookup.tapes, endpointTapes,
Hastad.SourceMachine.fieldTapes, hi, ht, hr, hh, hs, hx]
def emittedTapes (plan : Plan) (base : Tape → List Bool) (table : GraphTables.Table)
(e : Fin table.darts) (rest : List Bool) : Tape → List Bool :=
Function.update (Function.update (preparedTapes base table e rest) Tape.input rest)
Tape.accumulator ((plan.flatMap (Emitter.commandBits (rowOperands table e)
(rowRelation table e))).reverse ++ base .accumulator)
def rowResultTapes (plan : Plan) (base : Tape → List Bool) (table : GraphTables.Table)
(e : Fin table.darts) (rest : List Bool) : Tape → List Bool :=
finishTapes (emittedTapes plan base table e rest) e.val
@[simp] theorem rowResult_input (plan : Plan) (base : Tape → List Bool)
(table : GraphTables.Table) (e : Fin table.darts) (rest : List Bool) :
rowResultTapes plan base table e rest .input = rest := by
simp [rowResultTapes, finishTapes, emittedTapes]
@[simp] theorem rowResult_tail (plan : Plan) (base : Tape → List Bool)
(table : GraphTables.Table) (e : Fin table.darts) (rest : List Bool) :
rowResultTapes plan base table e rest .tail = [] := by
simp [rowResultTapes, finishTapes]
@[simp] theorem rowResult_head (plan : Plan) (base : Tape → List Bool)
(table : GraphTables.Table) (e : Fin table.darts) (rest : List Bool) :
rowResultTapes plan base table e rest .head = [] := by
simp [rowResultTapes, finishTapes]
@[simp] theorem rowResult_reverse (plan : Plan) (base : Tape → List Bool)
(table : GraphTables.Table) (e : Fin table.darts) (rest : List Bool) :
rowResultTapes plan base table e rest .reverseIndex = [] := by
simp [rowResultTapes, finishTapes]
@[simp] theorem rowResult_index (plan : Plan) (base : Tape → List Bool)
(table : GraphTables.Table) (e : Fin table.darts) (rest : List Bool) :
rowResultTapes plan base table e rest .rowIndex = encodeWord (e.val + 1) := by
simp [rowResultTapes, finishTapes]
@[simp] theorem rowResult_accumulator (plan : Plan) (base : Tape → List Bool)
(table : GraphTables.Table) (e : Fin table.darts) (rest : List Bool) :
rowResultTapes plan base table e rest .accumulator =
(plan.flatMap (Emitter.commandBits (rowOperands table e) (rowRelation table e))).reverse ++
base .accumulator := by
simp [rowResultTapes, finishTapes, emittedTapes]
theorem rowResult_frame (plan : Plan) (base : Tape → List Bool)
(table : GraphTables.Table) (e : Fin table.darts) (rest : List Bool) (tape : Tape)
(hi : tape ≠ .input) (ht : tape ≠ .tail) (hr : tape ≠ .reverseIndex)
(hh : tape ≠ .head) (hs : tape ≠ .scanWork) (hx : tape ≠ .indexWork)
(ha : tape ≠ .accumulator) (hc : tape ≠ .rowIndex) :
rowResultTapes plan base table e rest tape = base tape := by
simp only [rowResultTapes, finishTapes, emittedTapes, Function.update_of_ne hi,
Function.update_of_ne ht, Function.update_of_ne hr, Function.update_of_ne hh,
Function.update_of_ne ha, Function.update_of_ne hc]
exact prepared_frame base table e rest tape hi ht hr hh hs hx
def guardRowInTime (headerPlan plan : Plan) (base : Tape → List Bool)
(ambient : Ambient) (hinput : base .input ≠ []) :
StateTransition.EvalsToInTime (TM2.step (program headerPlan plan))
⟨some .guard, ((ambient, ()), none), base⟩
(some ⟨some .startTail, ((ambient, ()), none), base⟩) 1 where
steps := 1
evals_in_steps := by
change some (TM2.stepAux (program headerPlan plan .guard) _ _) = _
cases hb : base .input with
| nil => exact False.elim (hinput hb)
| cons b bs => simp [program, guard, TM2.stepAux, hb]
steps_le_m := Nat.le_refl _
def guardEndInTime (headerPlan plan : Plan) (base : Tape → List Bool)
(ambient : Ambient) (hinput : base .input = []) :
StateTransition.EvalsToInTime (TM2.step (program headerPlan plan))
⟨some .guard, ((ambient, ()), none), base⟩
(some ⟨some .reverseOutput, ((ambient, ()), none), base⟩) 1 where
steps := 1
evals_in_steps := by
change some (TM2.stepAux (program headerPlan plan .guard) _ _) = _
simp [program, guard, TM2.stepAux, hinput]
steps_le_m := Nat.le_refl _
theorem prepared_operands (base : Tape → List Bool) (table : GraphTables.Table)
(e : Fin table.darts) (rest : List Bool)
(hn : base .vertices = encodeWord table.vertices)
(hm : base .darts = encodeWord table.darts)
(hr : base .rowIndex = encodeWord e.val)
(ht : base .tail = []) :
∀ i, (Function.update (preparedTapes base table e rest) Tape.input rest) (source i) =
encodeWord (rowOperands table e i) := by
intro i
fin_cases i
· simpa [source, rowOperands, values] using
prepared_frame base table e rest .vertices (by decide) (by decide) (by decide)
(by decide) (by decide) (by decide) |>.trans hn
· change (Function.update (preparedTapes base table e rest) Tape.input rest) Tape.darts = _
simp only [Function.update_of_ne (show Tape.darts ≠ Tape.input by decide)]
exact (prepared_frame base table e rest .darts (by decide) (by decide) (by decide)
(by decide) (by decide) (by decide)).trans hm
· change (Function.update (preparedTapes base table e rest) Tape.input rest) Tape.tail = _
simp only [Function.update_of_ne (show Tape.tail ≠ Tape.input by decide), prepared_tail,
ht, List.append_nil]
rfl
· change (Function.update (preparedTapes base table e rest) Tape.input rest) Tape.head = _
simp only [Function.update_of_ne (show Tape.head ≠ Tape.input by decide), prepared_head]
rfl
· change (Function.update (preparedTapes base table e rest) Tape.input rest) Tape.rowIndex = _
simp only [Function.update_of_ne (show Tape.rowIndex ≠ Tape.input by decide)]
exact (prepared_frame base table e rest .rowIndex (by decide) (by decide) (by decide)
(by decide) (by decide) (by decide)).trans hr
theorem rowOperands_bounded (table : GraphTables.Table) (e : Fin table.darts) :
∀ i, rowOperands table e i ≤ (GraphTables.tableBits table).length := by
intro i
fin_cases i
· exact GraphTables.vertices_le_tableBits_length table
· exact GraphTables.darts_le_tableBits_length table
· exact table.rows[e].tail.isLt.le.trans (GraphTables.vertices_le_tableBits_length table)
· exact table.rows[table.rows[e].reverseIndex].tail.isLt.le.trans
(GraphTables.vertices_le_tableBits_length table)
· exact e.isLt.le.trans (GraphTables.darts_le_tableBits_length table)
def rowTime (plan : Plan) (N : Nat) : Nat :=
plan.length * (3 * (N + 1) + 3) + 12 * N + 15
noncomputable def rowInTime (headerPlan plan : Plan) (base : Tape → List Bool)
(table : GraphTables.Table) (e : Fin table.darts) (rest : List Bool)
(hinput : base .input = encodeWords (GraphTables.rowWords table.rows[e]) ++ rest)
(harchive : base .archive = GraphTables.tableBits table)
(hn : base .vertices = encodeWord table.vertices)
(hm : base .darts = encodeWord table.darts)
(hrow : base .rowIndex = encodeWord e.val)
(ht : base .tail = []) (hh : base .head = []) (hr : base .reverseIndex = [])
(hscratch : base .scratch = []) (ambient : Ambient) :
StateTransition.EvalsToInTime (TM2.step (program headerPlan plan))
⟨some .startTail, ((ambient, ()), none), base⟩
(some ⟨some .guard, ((rowRelation table e, ()), none),
rowResultTapes plan base table e rest⟩)
(rowTime plan (GraphTables.tableBits table).length) := by
let parsed := endpointTapes base table.rows[e].tail.val table.rows[e].reverseIndex.val
(rowRest table e rest)
let ready := preparedTapes base table e rest
let read := Function.update ready Tape.input rest
let output := emittedTapes plan base table e rest
let run₁ := endpointsInTime headerPlan plan base table.rows[e].tail.val
table.rows[e].reverseIndex.val (rowRest table e rest)
(by simpa [GraphTables.rowWords, encodeWords, List.append_assoc, rowRest] using hinput) ambient
have parsed_archive : parsed .archive = GenericGraphTables.tableBits (genericTable table) := by
simpa [parsed, endpointTapes, Hastad.SourceMachine.fieldTapes] using harchive
have parsed_reverse : parsed .reverseIndex =
encodeWord (Lookup.headIndex (genericTable table) e).val := by
simp [parsed, endpointTapes, Hastad.SourceMachine.fieldTapes, hr]
have parsed_head : parsed .head = [] := by
simp [parsed, endpointTapes, Hastad.SourceMachine.fieldTapes, hh]
have parsed_scratch : parsed .scratch = [] := by
simp [parsed, endpointTapes, Hastad.SourceMachine.fieldTapes, hscratch]
let run₂ := headPhaseInTime headerPlan plan parsed (genericTable table) e
parsed_archive parsed_reverse parsed_head parsed_scratch ambient
let run₃ := relationInTime headerPlan plan ready table.rows[e].relation rest
(prepared_input base table e rest) ambient
have read_operands : ∀ i, read (source i) = encodeWord (rowOperands table e i) :=
prepared_operands base table e rest hn hm hrow ht
have read_scratch : read .scratch = [] := by
simp only [read, Function.update_of_ne (show Tape.scratch ≠ Tape.input by decide)]
exact (prepared_frame base table e rest .scratch (by decide) (by decide) (by decide)
(by decide) (by decide) (by decide)).trans hscratch
have read_acc : read .accumulator = base .accumulator := by
simp only [read, Function.update_of_ne (show Tape.accumulator ≠ Tape.input by decide)]
exact prepared_frame base table e rest .accumulator (by decide) (by decide) (by decide)
(by decide) (by decide) (by decide)
have run₄ : StateTransition.EvalsToInTime (TM2.step (program headerPlan plan))
⟨some (.row (Emitter.labelAt plan.length 36864 0 .entry)),
((rowRelation table e, ()), none), read⟩
(some ⟨some .clearTail, ((rowRelation table e, ()), none), output⟩)
(plan.length * (3 * ((GraphTables.tableBits table).length + 1) + 3) + 1) := by
simpa only [read_acc, output, emittedTapes, read, ready] using
emitInTime headerPlan plan read (rowOperands table e) read_operands read_scratch
(rowRelation table e) (GraphTables.tableBits table).length (rowOperands_bounded table e)
have output_tail : output .tail = encodeWord table.rows[e].tail.val := by
simp [output, emittedTapes, prepared_tail, ht]
have output_head : output .head = encodeWord table.rows[table.rows[e].reverseIndex].tail.val := by
simp [output, emittedTapes, prepared_head]
have output_reverse : output .reverseIndex = encodeWord table.rows[e].reverseIndex.val := by
simp [output, emittedTapes, prepared_reverse, hr]
have output_row : output .rowIndex = encodeWord e.val := by
simp only [output, emittedTapes,
Function.update_of_ne (show Tape.rowIndex ≠ Tape.accumulator by decide),
Function.update_of_ne (show Tape.rowIndex ≠ Tape.input by decide)]
exact (prepared_frame base table e rest .rowIndex (by decide) (by decide) (by decide)
(by decide) (by decide) (by decide)).trans hrow
let run₅ := finishInTime headerPlan plan output table.rows[e].tail.val
table.rows[table.rows[e].reverseIndex].tail.val table.rows[e].reverseIndex.val e.val
output_tail output_head output_reverse output_row (rowRelation table e)
let r₁₂ := StateTransition.EvalsToInTime.trans _ _ _ _ _ _ run₁ run₂
let r₁₂₃ := StateTransition.EvalsToInTime.trans _ _ _ _ _ _ r₁₂ run₃
let r₁₂₃₄ := StateTransition.EvalsToInTime.trans _ _ _ _ _ _ r₁₂₃ run₄
let run := StateTransition.EvalsToInTime.trans _ _ _ _ _ _ r₁₂₃₄ run₅
refine { toEvalsTo := run.toEvalsTo, steps_le_m := ?_ }
have hb := run.steps_le_m
have htbound := rowOperands_bounded table e 2
have hhbound := rowOperands_bounded table e 3
have hrbound := table.rows[e].reverseIndex.isLt.le.trans (GraphTables.darts_le_tableBits_length table)
change table.rows[e].tail.val ≤ _ at htbound
change table.rows[table.rows[e].reverseIndex].tail.val ≤ _ at hhbound
simp only [Lookup.headTimePolynomial, Polynomial.eval_add, Polynomial.eval_mul,
Polynomial.eval_C, Polynomial.eval_X, genericTable_tableBits] at hb
unfold rowTime
omega
end MinUncutGames.Foundations.Complexity.FinalCNFMachine.Program
end OAI