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| import Mathlib | |
| import OAI.Computability.MaxCut.PCP.LoopOrder | |
| import OAI.Computability.MaxCut.Machines.RuntimeModel | |
| namespace OAI | |
| namespace MaxCutGames.Foundations.Hastad.SourceContextClear | |
| open Turing Complexity MachineComposition | |
| abbrev Tape := SourceContextLoad.Tape | |
| variable {u : Nat} {Extra : Type} | |
| def fieldAt (i : Fin (u * 6)) : Tape u Extra := | |
| .field (finProdFinEquiv.symm i).1 (finProdFinEquiv.symm i).2 | |
| def fields : List (Tape u Extra) := List.ofFn fieldAt | |
| theorem fieldAt_injective : Function.Injective (fieldAt (u := u) (Extra := Extra)) := by | |
| intro i j h | |
| have hpair := SourceContextLoad.Tape.field.inj h | |
| have hp : finProdFinEquiv.symm i = finProdFinEquiv.symm j := | |
| Prod.ext hpair.1 hpair.2 | |
| exact finProdFinEquiv.symm.injective hp | |
| @[simp] theorem fields_length : (fields (u := u) (Extra := Extra)).length = 6 * u := by | |
| simp [fields, Nat.mul_comm] | |
| theorem fields_nodup : (fields (u := u) (Extra := Extra)).Nodup := by | |
| exact List.nodup_ofFn.mpr fieldAt_injective | |
| theorem field_mem (j : Fin u) (s : Fin 6) : | |
| (SourceContextLoad.Tape.field j s : Tape u Extra) ∈ fields := by | |
| apply List.mem_ofFn.mpr | |
| exact ⟨finProdFinEquiv (j, s), by simp [fieldAt]⟩ | |
| theorem mem_fields_iff (p : Tape u Extra) : p ∈ fields ↔ ∃ j s, p = .field j s := by | |
| constructor | |
| · intro h | |
| obtain ⟨i, hi⟩ := List.mem_ofFn.mp h | |
| exact ⟨(finProdFinEquiv.symm i).1, (finProdFinEquiv.symm i).2, hi.symm⟩ | |
| · rintro ⟨j, s, rfl⟩ | |
| exact field_mem j s | |
| def outputTapes (base : Tape u Extra → List Bool) : Tape u Extra → List Bool | |
| | .field _ _ => [] | |
| | p => base p | |
| @[simp] theorem output_field (base : Tape u Extra → List Bool) (j : Fin u) (s : Fin 6) : | |
| outputTapes base (.field j s) = [] := rfl | |
| theorem output_frame (base : Tape u Extra → List Bool) (p : Tape u Extra) | |
| (hp : ∀ j s, p ≠ .field j s) : outputTapes base p = base p := by | |
| cases p <;> simp_all [outputTapes] | |
| abbrev Label (u : Nat) (Extra : Type) := | |
| MachineDrainMany.Label (fields (u := u) (Extra := Extra)) ⊕ Unit | |
| private def entryLabel_inline_SourceContextClear {K : Type} : (chosen : List K) → MachineDrainMany.Label chosen ⊕ Unit | |
| | [] => .inr () | |
| | _ :: _ => .inl (.inl ()) | |
| def main : Label u Extra := entryLabel_inline_SourceContextClear fields | |
| variable [DecidableEq Extra] | |
| def program : Label u Extra → TM2.Stmt (fun _ : Tape u Extra => Bool) | |
| (Label u Extra) (Unit × Option Bool) | |
| | .inl l => MachineDrainMany.instruction fields Sum.inl (some (.inr ())) l | |
| | .inr _ => .load (fun _ => ((), none)) .halt | |
| private theorem entryLabel_eq_inline_SourceContextClear {K : Type} (chosen : List K) : | |
| MachineDrainMany.entry chosen | |
| (Sum.inl : MachineDrainMany.Label chosen → MachineDrainMany.Label chosen ⊕ Unit) | |
| (some (.inr ())) = some (entryLabel_inline_SourceContextClear chosen) := by | |
| cases chosen <;> rfl | |
| omit [DecidableEq Extra] in | |
| private theorem entry_eq_inline_SourceContextClear : | |
| MachineDrainMany.entry (fields (u := u) (Extra := Extra)) Sum.inl (some (.inr ())) = | |
| some (main (u := u) (Extra := Extra)) := entryLabel_eq_inline_SourceContextClear fields | |
| theorem finalTapes_eq (base : Tape u Extra → List Bool) : | |
| MachineDrainMany.finalTapes fields base = outputTapes base := by | |
| funext p | |
| rw [MachineDrainMany.finalTapes_apply] | |
| cases p <;> simp [mem_fields_iff, outputTapes] | |
| private theorem lengthSum_update_inline_SourceContextClear {K : Type} [DecidableEq K] (chosen : List K) | |
| (base : K → List Bool) (source : K) (h : source ∉ chosen) : | |
| MachineDrainMany.lengthSum chosen (Function.update base source []) = | |
| MachineDrainMany.lengthSum chosen base := by | |
| unfold MachineDrainMany.lengthSum | |
| congr 1 | |
| apply List.map_congr_left | |
| intro k hk | |
| rw [Function.update_of_ne (by intro he; subst k; exact h hk)] | |
| /-- Distinct chosen tapes make the pre-cleanup length sum the exact drain cost. -/ | |
| private theorem steps_eq_of_nodup_inline_SourceContextClear {K : Type} [DecidableEq K] (chosen : List K) | |
| (h : chosen.Nodup) (base : K → List Bool) : | |
| MachineDrainMany.steps chosen base = | |
| MachineDrainMany.lengthSum chosen base + chosen.length := by | |
| induction chosen generalizing base with | |
| | nil => rfl | |
| | cons source chosen ih => | |
| obtain ⟨hn, hd⟩ := List.nodup_cons.mp h | |
| rw [MachineDrainMany.steps, ih hd, lengthSum_update_inline_SourceContextClear chosen base source hn] | |
| simp only [MachineDrainMany.lengthSum, List.map_cons, List.sum_cons, List.length_cons] | |
| omega | |
| private theorem trace_trans_inline_SourceContextClear {α : Type*} (f : α → α) {a b : Nat} {x y z : α} | |
| (first : f^[a] x = y) (second : f^[b] y = z) : f^[a + b] x = z := by | |
| rw [Nat.add_comm, Function.iterate_add_apply, first, second] | |
| theorem clearTrace (base : Tape u Extra → List Bool) (register : Option Bool) : | |
| (advance (TM2.step program))^[MachineDrainMany.lengthSum fields base + 6 * u + 1] | |
| (some ⟨some main, ((), register), base⟩) = | |
| some ⟨none, ((), none), outputTapes base⟩ := by | |
| have drain := MachineDrainMany.trace fields Sum.inl (some (.inr ())) | |
| program (fun _ => rfl) base () register | |
| rw [entry_eq_inline_SourceContextClear, finalTapes_eq, steps_eq_of_nodup_inline_SourceContextClear fields fields_nodup, fields_length] at drain | |
| have last : (advance (TM2.step program))^[1] | |
| (some ⟨some (.inr ()), ((), MachineDrainMany.finalRegister (fields (u := u) (Extra := Extra)) register), outputTapes base⟩) = | |
| some ⟨none, ((), none), outputTapes base⟩ := rfl | |
| exact trace_trans_inline_SourceContextClear _ drain last | |
| def clearInTime (base : Tape u Extra → List Bool) (register : Option Bool) : | |
| StateTransition.EvalsToInTime (TM2.step program) | |
| ⟨some main, ((), register), base⟩ (some ⟨none, ((), none), outputTapes base⟩) | |
| (MachineDrainMany.lengthSum fields base + 6 * u + 1) where | |
| steps := MachineDrainMany.lengthSum fields base + 6 * u + 1 | |
| evals_in_steps := clearTrace base register | |
| steps_le_m := Nat.le_refl _ | |
| private theorem lengthSum_le_selected_inline_SourceContextClear {K : Type} (chosen : List K) | |
| (base : K → List Bool) (B : Nat) (h : ∀ k ∈ chosen, (base k).length ≤ B) : | |
| MachineDrainMany.lengthSum chosen base ≤ chosen.length * B := by | |
| induction chosen with | |
| | nil => simp [MachineDrainMany.lengthSum] | |
| | cons source chosen ih => | |
| have hs := h source (by simp) | |
| have ht := ih (by intro k hk; exact h k (by simp [hk])) | |
| simp only [MachineDrainMany.lengthSum, List.map_cons, List.sum_cons, | |
| List.length_cons, Nat.add_mul, Nat.one_mul] at ht ⊢ | |
| omega | |
| theorem clauseField_length_le {n : Nat} (c : Target.Clause n) (s : Fin 6) : | |
| (encodeWord ((clauseWords c)[s.val]'(by simp))).length ≤ n + 2 := by | |
| have h0 := (c)[0].variableIndex.isLt | |
| have h1 := (c)[1].variableIndex.isLt | |
| have h2 := (c)[2].variableIndex.isLt | |
| fin_cases s <;> simp [clauseWords, literalWords, encodeWord_length] | |
| all_goals first | omega | (split <;> omega) | |
| theorem variables_add_two_le_input (F : Target.Formula) : | |
| F.«variables» + 2 ≤ (formulaBits F).length := by | |
| simp only [formulaBits, formulaWords, encodeWords_append, List.length_append, | |
| encodeWords, encodeWord_length, List.length_nil] | |
| omega | |
| omit [DecidableEq Extra] in | |
| theorem loaded_field_length_le (F : Target.Formula) | |
| (tuple : Fin u → Fin F.clauses.length) (base : Tape u Extra → List Bool) | |
| (hfields : ∀ j s, base (.field j s) = []) (j : Fin u) (s : Fin 6) : | |
| (SourceContextLoad.stageTapes F tuple base u (.field j s)).length ≤ | |
| (formulaBits F).length := by | |
| rw [SourceContextLoad.stageTapes_field, ite_eq_left j.isLt, hfields, List.append_nil] | |
| exact (clauseField_length_le _ s).trans (variables_add_two_le_input F) | |
| omit [DecidableEq Extra] in | |
| theorem loaded_cost_le (F : Target.Formula) (tuple : Fin u → Fin F.clauses.length) | |
| (base : Tape u Extra → List Bool) (hfields : ∀ j s, base (.field j s) = []) : | |
| MachineDrainMany.lengthSum fields (SourceContextLoad.stageTapes F tuple base u) + 6 * u + 1 ≤ | |
| 6 * u * ((formulaBits F).length + 1) + 1 := by | |
| have h := lengthSum_le_selected_inline_SourceContextClear fields (SourceContextLoad.stageTapes F tuple base u) | |
| (formulaBits F).length (by | |
| intro p hp | |
| obtain ⟨j, s, rfl⟩ := (mem_fields_iff p).mp hp | |
| exact loaded_field_length_le F tuple base hfields j s) | |
| rw [fields_length] at h | |
| rw [Nat.mul_add, Nat.mul_one] | |
| omega | |
| def clearLoadedInTime (F : Target.Formula) (tuple : Fin u → Fin F.clauses.length) | |
| (base : Tape u Extra → List Bool) (hfields : ∀ j s, base (.field j s) = []) | |
| (register : Option Bool) : | |
| StateTransition.EvalsToInTime (TM2.step program) | |
| ⟨some main, ((), register), SourceContextLoad.stageTapes F tuple base u⟩ | |
| (some ⟨none, ((), none), outputTapes (SourceContextLoad.stageTapes F tuple base u)⟩) | |
| (6 * u * ((formulaBits F).length + 1) + 1) where | |
| steps := MachineDrainMany.lengthSum fields (SourceContextLoad.stageTapes F tuple base u) + 6 * u + 1 | |
| evals_in_steps := clearTrace _ register | |
| steps_le_m := loaded_cost_le F tuple base hfields | |
| omit [DecidableEq Extra] in | |
| theorem output_loaded_eq_base (F : Target.Formula) (tuple : Fin u → Fin F.clauses.length) | |
| (base : Tape u Extra → List Bool) (hfields : ∀ j s, base (.field j s) = []) | |
| (hindex : base .index = []) (hwork : base .work = []) : | |
| outputTapes (SourceContextLoad.stageTapes F tuple base u) = base := by | |
| funext p | |
| cases p with | |
| | field j s => exact (hfields j s).symm | |
| | index => exact (SourceContextLoad.stageTapes_clean F tuple base u hindex hwork).1.trans hindex.symm | |
| | work => exact (SourceContextLoad.stageTapes_clean F tuple base u hindex hwork).2.trans hwork.symm | |
| | _ => exact SourceContextLoad.stageTapes_frame F tuple base u _ (by simp) (by simp) (by simp) | |
| /-- With initially clean fields and lookup work tapes, loading followed by this | |
| cleanup restores the caller's original frame exactly. -/ | |
| def clearLoadedToBaseInTime (F : Target.Formula) (tuple : Fin u → Fin F.clauses.length) | |
| (base : Tape u Extra → List Bool) (hfields : ∀ j s, base (.field j s) = []) | |
| (hindex : base .index = []) (hwork : base .work = []) (register : Option Bool) : | |
| StateTransition.EvalsToInTime (TM2.step program) | |
| ⟨some main, ((), register), SourceContextLoad.stageTapes F tuple base u⟩ | |
| (some ⟨none, ((), none), base⟩) | |
| (6 * u * ((formulaBits F).length + 1) + 1) := by | |
| simpa only [output_loaded_eq_base F tuple base hfields hindex hwork] using | |
| clearLoadedInTime F tuple base hfields register | |
| def machine (u : Nat) (Extra : Type) [DecidableEq Extra] [Fintype Extra] : FinTM2 where | |
| K := Tape u Extra | |
| k₀ := .formula | |
| k₁ := .formula | |
| Γ _ := Bool | |
| Λ := Label u Extra | |
| main := main | |
| σ := Unit × Option Bool | |
| initialState := ((), none) | |
| m := program | |
| end MaxCutGames.Foundations.Hastad.SourceContextClear | |
| namespace MaxCutGames.Foundations.Hastad.SourceQueryOrder | |
| open Turing Complexity Target SourceContexts SourceOccurrences | |
| open SourceLocalSignature SourceAddressDescriptors SourceLoopOrder | |
| def occurrenceBits (F : Formula) (u D : Nat) (p : SourceIndex F u D) : List Bool := | |
| encodeWords (MaxCutGames.Reduction.SourceEncoding.equationWords (sourceEquation F u D p)) | |
| def slotBits (F : Formula) (u D : Nat) (c : ClauseContext F u) (s : SlotContext u) : | |
| List Bool := | |
| (testTapeEncoding u D).enumerate.flatMap (fun t => occurrenceBits F u D ((c, s), t)) | |
| def tupleBits (F : Formula) (u D : Nat) (c : ClauseContext F u) : List Bool := | |
| (slotContextEncoding u).enumerate.flatMap (slotBits F u D c) | |
| theorem equationBits_eq (F : Formula) (u D : Nat) (c : ClauseContext F u) | |
| (s : SlotContext u) (t : SourceQueryLoop.Query u D) : | |
| SourceTestAppend.equationBits u D (baseValue F u c (sampledVariables F c s)) | |
| (ofContext F c s, t) = occurrenceBits F u D ((c, s), t) := by | |
| rw [occurrenceBits, sourceEquation_words] | |
| rfl | |
| theorem prefixBits_eq_slotBits (F : Formula) (u D : Nat) (c : ClauseContext F u) | |
| (s : SlotContext u) (fallback : SourceQueryLoop.Query u D) : | |
| SourceQueryLoop.prefixBits u D (rankedQuery u D fallback) | |
| (baseValue F u c (sampledVariables F c s)) (ofContext F c s) | |
| (testTapeEncoding u D).size = slotBits F u D c s := by | |
| rw [query_prefixBits_eq_enumerate] | |
| unfold slotBits | |
| congr 1 | |
| funext t | |
| exact equationBits_eq F u D c s t | |
| variable {K Λ : Type} [DecidableEq K] | |
| theorem sourceLoopInTime (F : Formula) (u D : Nat) (c : ClauseContext F u) | |
| (s : SlotContext u) (fallback initialQuery : SourceQueryLoop.Query u D) | |
| (layout : SourceTestAppend.Layout K) | |
| (labels : SourceQueryLoop.Label u D (testTapeEncoding u D).size → Λ) | |
| (exit : Option Λ) | |
| (p : Λ → TM2.Stmt (fun _ : K => Bool) Λ (SourceQueryLoop.State u D)) | |
| (atLabels : ∀ l, p (labels l) = SourceQueryLoop.statement u D | |
| (testTapeEncoding u D).size (rankedQuery u D fallback) layout labels exit l) | |
| (base : K → List Bool) | |
| (sourceWords : ∀ side, base (layout.sources side) = | |
| encodeWord (baseValue F u c (sampledVariables F c s) side)) | |
| (scratchEmpty : base layout.scratch = []) | |
| (temporaryEmpty : base layout.temporary = []) : | |
| ∃ lastQuery : SourceQueryLoop.Query u D, | |
| Nonempty (StateTransition.EvalsToInTime (TM2.step p) | |
| ⟨some (labels (.load ⟨0, Nat.zero_lt_succ _⟩)), | |
| ((ofContext F c s, initialQuery), none), base⟩ | |
| (some ⟨exit, ((ofContext F c s, lastQuery), none), | |
| SourceTestAppend.resultTapes layout base (slotBits F u D c s)⟩) | |
| ((testTapeEncoding u D).size * (9 * nBits F u + 21) + 1)) := by | |
| have hbound : ∀ i, i < (testTapeEncoding u D).size → | |
| SourceTestAppend.steps u D (baseValue F u c (sampledVariables F c s)) | |
| (ofContext F c s, rankedQuery u D fallback i) ≤ 9 * nBits F u + 20 := by | |
| intro i hi | |
| let run := SourceTestAppend.sourceAppendInTime F u D | |
| ((c, s), rankedQuery u D fallback i) layout | |
| (fun l => labels (.emit ⟨i, hi⟩ l)) | |
| (some (labels (.load ⟨i + 1, by omega⟩))) p | |
| (fun l => atLabels (.emit ⟨i, hi⟩ l)) base sourceWords | |
| scratchEmpty temporaryEmpty none | |
| exact run.steps_le_m | |
| have h := SourceQueryLoop.loopInTime u D (testTapeEncoding u D).size | |
| (9 * nBits F u + 20) (rankedQuery u D fallback) layout labels exit p atLabels | |
| (ofContext F c s) initialQuery base (baseValue F u c (sampledVariables F c s)) | |
| sourceWords scratchEmpty temporaryEmpty hbound | |
| rw [prefixBits_eq_slotBits] at h | |
| exact h | |
| end MaxCutGames.Foundations.Hastad.SourceQueryOrder | |
| namespace MaxCutGames.Foundations.Hastad.SourceTupleTape | |
| open Turing Complexity SourceContexts SourceRuntimeModel | |
| structure Snapshot where | |
| rank : List Bool := [] | |
| rightBase : List Bool := [] | |
| leftBase : List Bool := [] | |
| zero : List Bool := [] | |
| emitted : List Bool := [] | |
| deriving DecidableEq, Inhabited | |
| variable {u : Nat} {Extra : Type} | |
| def tapes (base : Arena u Extra → List Bool) (s : Snapshot) : Arena u Extra → List Bool | |
| | .extra (.inr .rank) => s.rank | |
| | .extra (.inr .rightBase) => s.rightBase | |
| | .extra (.inr .leftBase) => s.leftBase | |
| | .extra (.inr .zero) => s.zero | |
| | .extra (.inr .accumulator) => s.emitted.reverse ++ base (workTape .accumulator) | |
| | k => base k | |
| @[simp] theorem tapes_rank (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s (workTape .rank) = s.rank := rfl | |
| @[simp] theorem tapes_rightBase (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s (workTape .rightBase) = s.rightBase := rfl | |
| @[simp] theorem tapes_leftBase (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s (workTape .leftBase) = s.leftBase := rfl | |
| @[simp] theorem tapes_zero (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s (workTape .zero) = s.zero := rfl | |
| @[simp] theorem tapes_accumulator (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s (workTape .accumulator) = s.emitted.reverse ++ base (workTape .accumulator) := rfl | |
| @[simp] theorem tapes_coefficient (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s (workTape .coefficient) = base (workTape .coefficient) := rfl | |
| @[simp] theorem tapes_dummy (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s (workTape .dummy) = base (workTape .dummy) := rfl | |
| @[simp] theorem tapes_leftBlock (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s (workTape .leftBlock) = base (workTape .leftBlock) := rfl | |
| @[simp] theorem tapes_queryTemporary (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s (workTape .queryTemporary) = base (workTape .queryTemporary) := rfl | |
| @[simp] theorem tapes_queryScratch (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s (workTape .queryScratch) = base (workTape .queryScratch) := rfl | |
| @[simp] theorem tapes_field (base : Arena u Extra → List Bool) (s : Snapshot) (j : Fin u) (k : Fin 6) : | |
| tapes base s (.field j k) = base (.field j k) := rfl | |
| @[simp] theorem tapes_current (base : Arena u Extra → List Bool) (s : Snapshot) (j : Fin u) : | |
| tapes base s (.current j) = base (.current j) := rfl | |
| @[simp] theorem tapes_formula (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s .formula = base .formula := rfl | |
| @[simp] theorem tapes_index (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s .index = base .index := rfl | |
| @[simp] theorem tapes_work (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s .work = base .work := rfl | |
| @[simp] theorem tapes_variableHeader (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s variableHeader = base variableHeader := rfl | |
| @[simp] theorem tapes_clauseHeader (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes base s clauseHeader = base clauseHeader := rfl | |
| variable [DecidableEq Extra] | |
| theorem update_rank (base : Arena u Extra → List Bool) (s : Snapshot) (value : List Bool) : | |
| Function.update (tapes base s) (workTape .rank) value = tapes base {s with rank := value} := by | |
| funext k | |
| cases k <;> try rfl | |
| rename_i extra | |
| cases extra with | |
| | inl header => simp [tapes, workTape] | |
| | inr role => cases role <;> simp [tapes, workTape] | |
| theorem update_rightBase (base : Arena u Extra → List Bool) (s : Snapshot) (value : List Bool) : | |
| Function.update (tapes base s) (workTape .rightBase) value = tapes base {s with rightBase := value} := by | |
| funext k | |
| cases k <;> try rfl | |
| rename_i extra | |
| cases extra with | |
| | inl header => simp [tapes, workTape] | |
| | inr role => cases role <;> simp [tapes, workTape] | |
| theorem update_leftBase (base : Arena u Extra → List Bool) (s : Snapshot) (value : List Bool) : | |
| Function.update (tapes base s) (workTape .leftBase) value = tapes base {s with leftBase := value} := by | |
| funext k | |
| cases k <;> try rfl | |
| rename_i extra | |
| cases extra with | |
| | inl header => simp [tapes, workTape] | |
| | inr role => cases role <;> simp [tapes, workTape] | |
| theorem update_zero (base : Arena u Extra → List Bool) (s : Snapshot) (value : List Bool) : | |
| Function.update (tapes base s) (workTape .zero) value = tapes base {s with zero := value} := by | |
| funext k | |
| cases k <;> try rfl | |
| rename_i extra | |
| cases extra with | |
| | inl header => simp [tapes, workTape] | |
| | inr role => cases role <;> simp [tapes, workTape] | |
| theorem update_emitted (base : Arena u Extra → List Bool) (s : Snapshot) (value : List Bool) : | |
| Function.update (tapes base s) (workTape .accumulator) | |
| (value.reverse ++ base (workTape .accumulator)) = tapes base {s with emitted := value} := by | |
| funext k | |
| cases k <;> try rfl | |
| rename_i extra | |
| cases extra with | |
| | inl header => simp [tapes, workTape] | |
| | inr role => cases role <;> simp [tapes, workTape] | |
| theorem query_result (base : Arena u Extra → List Bool) (s : Snapshot) (bits : List Bool) : | |
| SourceTestAppend.resultTapes queryLayout (tapes base s) bits = | |
| tapes base {s with emitted := s.emitted ++ bits} := by | |
| change Function.update (tapes base s) (workTape .accumulator) | |
| (bits.reverse ++ tapes base s (workTape .accumulator)) = _ | |
| rw [tapes_accumulator] | |
| have h := update_emitted base s (s.emitted ++ bits) | |
| simpa only [List.reverse_append, List.append_assoc] using h | |
| theorem horner_clause_result (base : Arena u Extra → List Bool) (s : Snapshot) (value : Nat) : | |
| MachineHorner.resultTapes clauseRankSlots (tapes base s) value = | |
| tapes base {s with rank := encodeWord value ++ s.rank} := by | |
| change Function.update (tapes base s) (workTape .rank) | |
| (encodeWord value ++ tapes base s (workTape .rank)) = _ | |
| rw [tapes_rank, update_rank] | |
| theorem horner_variable_result (base : Arena u Extra → List Bool) (s : Snapshot) | |
| (selected : SlotContext u) (value : Nat) : | |
| MachineHorner.resultTapes (variableRankSlots selected) (tapes base s) value = | |
| tapes base {s with rank := encodeWord value ++ s.rank} := by | |
| change Function.update (tapes base s) (workTape .rank) | |
| (encodeWord value ++ tapes base s (workTape .rank)) = _ | |
| rw [tapes_rank, update_rank] | |
| theorem horner_right_result (base : Arena u Extra → List Bool) (s : Snapshot) (value : Nat) : | |
| MachineHorner.resultTapes (baseSlots true) (tapes base s) value = | |
| tapes base {s with rightBase := encodeWord value ++ s.rightBase} := by | |
| change Function.update (tapes base s) (workTape .rightBase) | |
| (encodeWord value ++ tapes base s (workTape .rightBase)) = _ | |
| rw [tapes_rightBase, update_rightBase] | |
| theorem horner_left_result (base : Arena u Extra → List Bool) (s : Snapshot) (value : Nat) : | |
| MachineHorner.resultTapes (baseSlots false) (tapes base s) value = | |
| tapes base {s with leftBase := encodeWord value ++ s.leftBase} := by | |
| change Function.update (tapes base s) (workTape .leftBase) | |
| (encodeWord value ++ tapes base s (workTape .leftBase)) = _ | |
| rw [tapes_leftBase, update_leftBase] | |
| structure WorkClean (base : Arena u Extra → List Bool) : Prop where | |
| accA : base (workTape .accA) = [] | |
| accB : base (workTape .accB) = [] | |
| counter : base (workTape .counter) = [] | |
| scratch : base (workTape .arithScratch) = [] | |
| omit [DecidableEq Extra] in | |
| theorem clean_clause (base : Arena u Extra → List Bool) (s : Snapshot) (clean : WorkClean base) : | |
| MachineHorner.Clean clauseRankSlots (tapes base s) where | |
| accA := clean.accA | |
| accB := clean.accB | |
| counter := clean.counter | |
| scratch := clean.scratch | |
| omit [DecidableEq Extra] in | |
| theorem clean_variable (base : Arena u Extra → List Bool) (s : Snapshot) (selected : SlotContext u) | |
| (clean : WorkClean base) : MachineHorner.Clean (variableRankSlots selected) (tapes base s) where | |
| accA := clean.accA | |
| accB := clean.accB | |
| counter := clean.counter | |
| scratch := clean.scratch | |
| omit [DecidableEq Extra] in | |
| theorem clean_base (base : Arena u Extra → List Bool) (s : Snapshot) (right : Bool) | |
| (clean : WorkClean base) : MachineHorner.Clean (baseSlots right) (tapes base s) where | |
| accA := clean.accA | |
| accB := clean.accB | |
| counter := clean.counter | |
| scratch := clean.scratch | |
| omit [DecidableEq Extra] in | |
| theorem tapes_coordinateOutput {variableCount : Nat} (j : Fin u) | |
| (clause : Target.Clause variableCount) | |
| (base : Arena u Extra → List Bool) (s : Snapshot) : | |
| tapes (SourceContextLoad.coordinateOutput j clause base) s = | |
| SourceContextLoad.coordinateOutput j clause (tapes base s) := by | |
| funext k | |
| cases k <;> simp [tapes, SourceContextLoad.coordinateOutput, workTape] | |
| rename_i extra | |
| cases extra with | |
| | inl header => rfl | |
| | inr role => cases role <;> rfl | |
| omit [DecidableEq Extra] in | |
| theorem tapes_stageTapes (F : Target.Formula) (c : ClauseContext F u) | |
| (base : Arena u Extra → List Bool) (s : Snapshot) (r : Nat) : | |
| tapes (SourceContextLoad.stageTapes F c base r) s = | |
| SourceContextLoad.stageTapes F c (tapes base s) r := by | |
| induction r with | |
| | zero => rfl | |
| | succ r ih => | |
| simp only [SourceContextLoad.stageTapes] | |
| split | |
| · rw [tapes_coordinateOutput, ih] | |
| · exact ih | |
| theorem final_tapes (base : Arena u Extra → List Bool) (emitted : List Bool) | |
| (hrank : base (workTape .rank) = []) (hright : base (workTape .rightBase) = []) | |
| (hleft : base (workTape .leftBase) = []) (hzero : base (workTape .zero) = []) : | |
| tapes base {emitted := emitted} = | |
| Function.update base (workTape .accumulator) (emitted.reverse ++ base (workTape .accumulator)) := by | |
| funext k | |
| cases k <;> try rfl | |
| rename_i extra | |
| cases extra with | |
| | inl header => simp [tapes, workTape] | |
| | inr role => | |
| cases role <;> simp_all [tapes, workTape] | |
| theorem empty_tapes (base : Arena u Extra → List Bool) | |
| (hrank : base (workTape .rank) = []) (hright : base (workTape .rightBase) = []) | |
| (hleft : base (workTape .leftBase) = []) (hzero : base (workTape .zero) = []) : | |
| tapes base {} = base := by | |
| simpa using final_tapes base [] hrank hright hleft hzero | |
| omit [DecidableEq Extra] in | |
| theorem clear_loaded (F : Target.Formula) (c : ClauseContext F u) | |
| (base : Arena u Extra → List Bool) (s : Snapshot) | |
| (hfields : ∀ j k, base (.field j k) = []) (hindex : base .index = []) (hwork : base .work = []) : | |
| SourceContextClear.outputTapes (tapes (SourceContextLoad.stageTapes F c base u) s) = tapes base s := by | |
| rw [tapes_stageTapes] | |
| exact SourceContextClear.output_loaded_eq_base F c (tapes base s) hfields hindex hwork | |
| /-- Apply the checked actual field cleanup directly to an overlaid loaded context. -/ | |
| def clearLoadedSnapshotInTime (F : Target.Formula) (c : ClauseContext F u) | |
| (base : Arena u Extra → List Bool) (s : Snapshot) | |
| (hfields : ∀ j k, base (.field j k) = []) (hindex : base .index = []) (hwork : base .work = []) | |
| (register : Option Bool) : | |
| StateTransition.EvalsToInTime (TM2.step SourceContextClear.program) | |
| ⟨some SourceContextClear.main, ((), register), tapes (SourceContextLoad.stageTapes F c base u) s⟩ | |
| (some ⟨none, ((), none), tapes base s⟩) | |
| (6 * u * ((formulaBits F).length + 1) + 1) := by | |
| rw [tapes_stageTapes] | |
| exact SourceContextClear.clearLoadedToBaseInTime F c (tapes base s) hfields hindex hwork register | |
| end MaxCutGames.Foundations.Hastad.SourceTupleTape | |
| end OAI | |