Download lean/OAI/Combinatorics/MatchingCount/Complexity/TreePolynomialGCD.lean from roseking/openAI-math-dataset: direct link, hf CLI and curl.
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6.17 kB
| import Mathlib | |
| import OAI.Combinatorics.MatchingCount.Arithmetic.TreeFraction | |
| import OAI.Combinatorics.MatchingCount.Complexity.TreePolynomialDivision | |
| import OAI.Combinatorics.MatchingCount.Complexity.TreePolynomialLoop | |
| namespace OAI | |
| namespace MatchingFPRAS.TreeTyped | |
| open Polynomial | |
| lemma polynomial_boolNot : PolynomialTime boolNot := by | |
| unfold boolNot | |
| exact polynomial_congr _ (polynomial_choose polynomial_identity (polynomial_constant false) (polynomial_constant true)) | |
| lemma polynomial_boolAnd : PolynomialTime boolAnd := by | |
| unfold boolAnd | |
| exact polynomial_congr _ (polynomial_choose polynomial_first polynomial_second (polynomial_constant false)) | |
| lemma polynomial_natEqual : PolynomialTime natEqual := by | |
| unfold natEqual | |
| apply polynomial_congr | |
| apply polynomial_choose polynomial_less (polynomial_constant false) | |
| exact polynomial_choose (polynomial_composition (polynomial_pair polynomial_second polynomial_first) polynomial_less) | |
| (polynomial_constant false) (polynomial_constant true) | |
| lemma polynomial_quotient : PolynomialTime quotient := polynomial_composition polynomial_division polynomial_first | |
| lemma polynomial_remainder : PolynomialTime remainder := polynomial_composition polynomial_division polynomial_second | |
| lemma polynomial_digits : PolynomialTime digits := by | |
| refine ⟨X+1,?_⟩ | |
| intro a | |
| change 1+weight a≤_ | |
| simp only [Polynomial.eval_add,Polynomial.eval_X,Polynomial.eval_one] | |
| omega | |
| lemma polynomial_bitSize : PolynomialTime bitSize := by | |
| unfold bitSize | |
| exact polynomial_congr _ (polynomial_composition polynomial_digits polynomial_listLength) | |
| lemma polynomial_sortedPair : PolynomialTime sortedPairRealizer := by | |
| unfold sortedPairRealizer | |
| exact polynomial_congr _ (polynomial_choose polynomial_less (polynomial_pair polynomial_second polynomial_first) polynomial_identity) | |
| lemma polynomial_gcdStep : PolynomialTime gcdStepRealizer := by | |
| unfold gcdStepRealizer | |
| exact polynomial_congr _ (polynomial_choose | |
| (polynomial_composition (polynomial_pair polynomial_second (polynomial_constant 0)) polynomial_natEqual) | |
| polynomial_identity (polynomial_pair polynomial_second polynomial_remainder)) | |
| lemma gcdStep_size_le (x : ℕ×ℕ) : (gcdStep x).1.size+(gcdStep x).2.size≤x.1.size+x.2.size := by | |
| dsimp only [gcdStep] | |
| split_ifs with h | |
| · exact le_rfl | |
| · simp only | |
| have hm:=Nat.size_le_size (Nat.mod_le x.1 x.2) | |
| omega | |
| lemma polynomial_gcd : PolynomialTime gcd := by | |
| unfold gcd | |
| apply polynomial_congr | |
| apply polynomial_composition _ polynomial_first | |
| apply polynomial_boundedRepeat | |
| (polynomial_pair (polynomial_composition (polynomial_pair (polynomial_composition polynomial_first polynomial_bitSize) | |
| (polynomial_composition polynomial_second polynomial_bitSize)) polynomial_add) polynomial_sortedPair) | |
| (polynomial_composition polynomial_second polynomial_gcdStep) X (4*X+3) | |
| (fun x _ z=>z.1.size+z.2.size≤x.1.size+x.2.size) | |
| · intro x | |
| simp only [Polynomial.eval_X,Function.comp_apply] | |
| have h1:=size_le_weight x.1 | |
| have h2:=size_le_weight x.2 | |
| rw [←Prod.eta x,weight_prod] | |
| try dsimp only | |
| omega | |
| · intro x | |
| exact (sortedPair_size x).le | |
| · intro x _iteration _bounded z hz | |
| exact (gcdStep_size_le z).trans hz | |
| · intro x _iteration z hz | |
| have ha:=weight_nat_le z.1 | |
| have hb:=weight_nat_le z.2 | |
| have hx:=size_le_weight x.1 | |
| have hy:=size_le_weight x.2 | |
| rw [←Prod.eta z,weight_prod] | |
| simp only [Polynomial.eval_add,Polynomial.eval_mul,Polynomial.eval_ofNat,Polynomial.eval_X] | |
| rw [←Prod.eta x,weight_prod] | |
| try dsimp only | |
| omega | |
| end MatchingFPRAS.TreeTyped | |
| namespace MatchingFPRAS.TreeFraction | |
| open TreeTyped | |
| lemma polynomial_normalize : PolynomialTime normalizeRealizer := by | |
| unfold normalizeRealizer | |
| apply polynomial_congr | |
| apply polynomial_choose | |
| · exact polynomial_composition (polynomial_pair polynomial_second (polynomial_constant 0)) polynomial_natEqual | |
| · exact polynomial_constant (0,1) | |
| · exact polynomial_pair | |
| (polynomial_composition (polynomial_pair polynomial_first polynomial_gcd) polynomial_quotient) | |
| (polynomial_composition (polynomial_pair polynomial_second polynomial_gcd) polynomial_quotient) | |
| lemma polynomial_mul : PolynomialTime mulRealizer := by | |
| unfold mulRealizer | |
| exact polynomial_composition (polynomial_pair | |
| (polynomial_composition (polynomial_pair (polynomial_fst polynomial_first) (polynomial_fst polynomial_second)) polynomial_multiply) | |
| (polynomial_composition (polynomial_pair (polynomial_snd polynomial_first) (polynomial_snd polynomial_second)) polynomial_multiply)) polynomial_normalize | |
| lemma polynomial_add : PolynomialTime addRealizer := by | |
| unfold addRealizer | |
| apply polynomial_composition _ polynomial_normalize | |
| apply polynomial_pair | |
| · apply polynomial_composition _ TreeTyped.polynomial_add | |
| exact polynomial_pair | |
| (polynomial_composition (polynomial_pair (polynomial_fst polynomial_first) (polynomial_snd polynomial_second)) polynomial_multiply) | |
| (polynomial_composition (polynomial_pair (polynomial_fst polynomial_second) (polynomial_snd polynomial_first)) polynomial_multiply) | |
| · exact polynomial_composition (polynomial_pair (polynomial_snd polynomial_first) (polynomial_snd polynomial_second)) polynomial_multiply | |
| lemma polynomial_div : PolynomialTime divRealizer := by | |
| unfold divRealizer | |
| exact polynomial_composition (polynomial_pair | |
| (polynomial_composition (polynomial_pair (polynomial_fst polynomial_first) (polynomial_snd polynomial_second)) polynomial_multiply) | |
| (polynomial_composition (polynomial_pair (polynomial_snd polynomial_first) (polynomial_fst polynomial_second)) polynomial_multiply)) polynomial_normalize | |
| lemma polynomial_less : PolynomialTime lessRealizer := by | |
| unfold lessRealizer | |
| exact polynomial_composition (polynomial_pair | |
| (polynomial_composition (polynomial_pair (polynomial_fst polynomial_first) (polynomial_snd polynomial_second)) polynomial_multiply) | |
| (polynomial_composition (polynomial_pair (polynomial_fst polynomial_second) (polynomial_snd polynomial_first)) polynomial_multiply)) TreeTyped.polynomial_less | |
| end MatchingFPRAS.TreeFraction | |
| end OAI | |