import Mathlib import OAI.GroupTheory.SimpleOvergroups.FirstFamilies import OAI.GroupTheory.SimpleOvergroups.NamedActions import OAI.GroupTheory.SimpleOvergroups.ThreeCodes namespace OAI namespace SimpleFInftyOvergroups.ContextualEncoding open FiniteAlgebraicEnvelopes Bootstrap BoundedEncoding noncomputable section open scoped Classical structure TestCertificate {A S Q : Type*} (C : DelimiterCode A S) (f : List A → Part (Option Q)) (n : ℕ) : Prop where total : ∀ w, (C.encode w).length ≤ n → (f w).Dom nonzero : Search.value f [] ≠ none contextual : CodeTable.Contextual C (Search.value f) n ideal : CodeTable.ZeroIdeal C (Search.value f) n namespace TestCertificate variable {A S Q : Type*} [DecidableEq A] [DecidableEq Q] (C : DelimiterCode A S) (f : List A → Part (Option Q)) {n : ℕ} omit [DecidableEq A] [DecidableEq Q] in theorem of_value (q : List A → Option Q) (hf : ∀ w, (C.encode w).length ≤ n → q w ∈ f w) (h0 : q [] ≠ none) (hc : CodeTable.Contextual C q n) (hz : CodeTable.ZeroIdeal C q n) : TestCertificate C f n := by have he (w : List A) (hw : (C.encode w).length ≤ n) : Search.value f w = q w := Part.mem_unique (Search.value_mem (hf w hw).1) (hf w hw) refine ⟨fun w hw => (hf w hw).1, ?_, ?_, ?_⟩ · rw [he [] (Nat.zero_le _)] exact h0 · intro a b u v hu hv h have hlu : (C.encode u).length ≤ n := by simp only [DelimiterCode.encode_append,List.length_append] at hu omega have hlv : (C.encode v).length ≤ n := by simp only [DelimiterCode.encode_append,List.length_append] at hv omega rw [he u hlu,he v hlv] at h rw [he _ hu,he _ hv] exact hc a b u v hu hv h · intro a b u hu h have hlu : (C.encode u).length ≤ n := by simp only [DelimiterCode.encode_append,List.length_append] at hu omega rw [he u hlu] at h rw [he _ hu] exact hz a b u hu h end TestCertificate namespace GroupFamily variable {G : Type*} [Group G] {k : ℕ} (s : Fin k → G) theorem certificate (C : DelimiterCode (Fin k × Bool) ThreeCodes.Alphabet) (n : ℕ) : TestCertificate C (test s) n := by apply TestCertificate.of_value C (test s) (fun w => some (WordProblem.testedClass s w)) · intro w hw; exact Part.mem_some _ · exact Option.some_ne_none _ · intro a b u v hu hv h exact congrArg some (context s (Option.some.inj h) a b) · intro a b u hu h cases h end GroupFamily namespace ProductFamily variable {A : Type*} [DecidableEq A] {m n : ℕ} (C : WordCalculus (FreeMonoid A) m) (code : DelimiterCode (Letter A) ThreeCodes.Alphabet) (cost : A → ℕ) (hc : ∀ w, grade C w = wordCost cost w) (hp : ∀ a, 10 * ProductFamily.cost cost a + 2 ≤ (code.block a).length) (hm : n / 10 ≤ m) {f : List A → Part (List A)} (hf : ∀ u, C.grade (FreeMonoid.ofList u) ≤ n / 10 → (C.normal (FreeMonoid.ofList u)).toList ∈ f u) include hc hp hm hf theorem certificate : TestCertificate code (test C.omega.toList f) n := by have hb (w : List (Letter A)) (hw : (code.encode w).length ≤ n) : grade C w ≤ n / 10 := by rw [hc] exact code.cost_le_quota _ hp hw apply TestCertificate.of_value code (test C.omega.toList f) (value C) · intro w hw exact test_full C w (hb w hw) hf · exact value_nil C · intro a b u v hu hv h exact value_context C h a b ((hb _ hu).trans hm) ((hb _ hv).trans hm) · intro a b u hu h exact value_zero_context C h a b ((hb _ hu).trans hm) end ProductFamily namespace ActionFamily open NamedAction variable {G X V Y K L : Type*} [Group V] [MulAction V Y] [DecidableEq G] [DecidableEq X] [DecidableEq K] [DecidableEq L] {N : Operations G X} {m n : ℕ} {C : ActionCalculus V Y K L m} (I : Interpretation N C) (code : DelimiterCode (Letter G X) ThreeCodes.Alphabet) (hp : ∀ a, 10 * N.letterCost a + 2 ≤ (code.block a).length) (hm : 3 * (n / 10) ≤ m) (f : List (Letter G X) → Part (Result K L)) (hf : ∀ w, N.wordCost w ≤ n / 10 → N.totalTest I.gkey I.xkey w ∈ f w) include I hp hm hf omit [DecidableEq G] [DecidableEq X] [DecidableEq K] in theorem certificate : TestCertificate code f n := by have hb (w : List (Letter G X)) (hw : (code.encode w).length ≤ n) : N.wordCost w ≤ n / 10 := code.cost_le_quota _ hp hw apply TestCertificate.of_value code f (N.totalTest I.gkey I.xkey) · intro w hw exact hf w (hb w hw) · exact I.totalTest_nil · intro a b u v hu hv h exact I.totalTest_context h (hb _ hu) (hb _ hv) hm · intro a b u hu h exact I.totalTest_zero_context h (hb _ hu) hm end ActionFamily end end SimpleFInftyOvergroups.ContextualEncoding end OAI