openAI-math-dataset / lean /OAI /Computability /PerfectCompleteness /Sampling /OriginalCutBucketLaw.lean
Download lean/OAI/Computability/PerfectCompleteness/Sampling/OriginalCutBucketLaw.lean from roseking/openAI-math-dataset: direct link, hf CLI and curl.
- Browser
- Download file 11.1 kB
-
https://huggingface.co/datasets/roseking/openAI-math-dataset/resolve/main/lean/OAI/Computability/PerfectCompleteness/Sampling/OriginalCutBucketLaw.lean
- Command line
-
hf download hf://datasets/roseking/openAI-math-dataset/lean/OAI/Computability/PerfectCompleteness/Sampling/OriginalCutBucketLaw.lean
-
curl -L -o OriginalCutBucketLaw.lean https://huggingface.co/datasets/roseking/openAI-math-dataset/resolve/main/lean/OAI/Computability/PerfectCompleteness/Sampling/OriginalCutBucketLaw.lean
11.1 kB
| import OAI.Computability.PerfectCompleteness.Construction.OriginalOwnBucketSplit | |
| import OAI.Computability.PerfectCompleteness.Decoding.OriginalCutCollision | |
| namespace OAI | |
| section | |
| namespace PerfectCompleteness.OriginalCutBucketLaw | |
| open RecursiveSpaces DescendantSpaces TreeSourceSpaces HierarchicalArrays | |
| open OriginalWholeCutTape | |
| open UniqueGamesTheorem.Foundations.Games | |
| open scoped Classical | |
| noncomputable section | |
| attribute [local instance 2000] OriginalWholeCutLaw.valuesBelowFintype | |
| section Regrouping | |
| private def reorder (D U B F : Type*) : | |
| D × ((U × B) × F) ≃ B × (D × (U × F)) where | |
| toFun z := (z.2.1.2, (z.1, (z.2.1.1, z.2.2))) | |
| invFun z := (z.2.1, ((z.2.2.1, z.1), z.2.2.2)) | |
| left_inv _ := rfl | |
| right_inv _ := rfl | |
| private theorem reorder_law {D U B F : Type*} | |
| [Fintype D] [Fintype U] [Fintype B] [Fintype F] | |
| (directions : FiniteDistribution D) (own : FiniteDistribution U) | |
| (background : FiniteDistribution B) (fresh : FiniteDistribution F) : | |
| (directions.product ((own.product background).product fresh)).pushforward (reorder D U B F) = | |
| background.product (directions.product (own.product fresh)) := by | |
| rw [← FiniteDistribution.transport_eq_pushforward] | |
| apply FiniteDistribution.eq_of_weight_eq | |
| intro z | |
| change directions.weight z.2.1 * | |
| ((own.weight z.2.2.1 * background.weight z.1) * fresh.weight z.2.2.2) = | |
| background.weight z.1 * | |
| (directions.weight z.2.1 * (own.weight z.2.2.1 * fresh.weight z.2.2.2)) | |
| ring | |
| private theorem map_middle {D R S F : Type*} | |
| [Fintype D] [Fintype R] [Fintype S] [Fintype F] | |
| (directions : FiniteDistribution D) (records : FiniteDistribution R) | |
| (fresh : FiniteDistribution F) (read : R → S) : | |
| (directions.product (records.product fresh)).pushforward | |
| (fun z => (z.1, (read z.2.1, z.2.2))) = | |
| directions.product ((records.pushforward read).product fresh) := by | |
| have hinner : (records.product fresh).pushforward (fun z => (read z.1, z.2)) = | |
| (records.pushforward read).product fresh := by | |
| simpa only [id_eq, FiniteDistribution.pushforward_id] using | |
| FiniteDistribution.product_pushforward records fresh read (id : F → F) | |
| calc | |
| _ = (directions.pushforward id).product | |
| ((records.product fresh).pushforward (fun z => (read z.1, z.2))) := | |
| FiniteDistribution.product_pushforward directions (records.product fresh) id | |
| (fun z => (read z.1, z.2)) | |
| _ = _ := by rw [FiniteDistribution.pushforward_id, hinner] | |
| private theorem read_product_of_split {D R U B F : Type*} | |
| [Fintype D] [Fintype R] [Fintype U] [Fintype B] [Fintype F] | |
| (directions : FiniteDistribution D) (records : FiniteDistribution R) | |
| (fresh : FiniteDistribution F) (own : FiniteDistribution U) | |
| (background : FiniteDistribution B) (split : R → U × B) | |
| (hsplit : records.pushforward split = own.product background) : | |
| (directions.product (records.product fresh)).pushforward | |
| (fun z => ((split z.2.1).2, (z.1, ((split z.2.1).1, z.2.2)))) = | |
| background.product (directions.product (own.product fresh)) := by | |
| calc | |
| _ = ((directions.product (records.product fresh)).pushforward | |
| (fun z => (z.1, (split z.2.1, z.2.2)))).pushforward (reorder D U B F) := | |
| (FiniteDistribution.pushforward_comp _ _ _).symm | |
| _ = (directions.product ((own.product background).product fresh)).pushforward | |
| (reorder D U B F) := by | |
| rw [map_middle, hsplit] | |
| _ = _ := reorder_law directions own background fresh | |
| end Regrouping | |
| variable {branch : Nat → Nat} {n m k t : Nat} | |
| abbrev Background (rows : Nat → Nat) (p : Path branch n (m + 1)) | |
| (slots : Slots branch n → Fin t → MixedSupport.Slot) := | |
| HierarchicalMatrixTable.Background (rows := rows) slots (WholeArrayInteriorExterior.upperNode p) | |
| local instance backgroundFintype (rows : Nat → Nat) (p : Path branch n (m + 1)) | |
| (slots : Slots branch n → Fin t → MixedSupport.Slot) : | |
| Fintype (Background rows p slots) := Fintype.ofFinite _ | |
| abbrev NativeSample (rows : Nat → Nat) (p : Path branch n (m + 1)) | |
| (slots : Slots branch n → Fin t → MixedSupport.Slot) := | |
| Background rows p slots × | |
| (BucketSampler.Direction (rows (m + 1)) × | |
| (OriginalOwnBucketSplit.BucketTape rows p slots × H (cutSlots p slots))) | |
| def read (rows repeats : Nat → Nat) (p : Path branch n (m + 1)) | |
| (slots : Slots branch n → Fin t → MixedSupport.Slot) | |
| (sample : BucketSampler.Direction (rows (m + 1)) × | |
| OriginalExtraCutComparison.Record rows repeats p slots) : NativeSample rows p slots := | |
| (HierarchicalMatrixTable.backgroundOf slots (WholeArrayInteriorExterior.upperNode p) | |
| (OriginalCutCollision.oldArrays rows repeats p slots sample.2), | |
| (sample.1, | |
| (OriginalCutBucketReplacement.ownValues rows repeats p slots | |
| (OriginalCutCollision.oldRecord rows repeats p slots sample.2).2.1, sample.2.2))) | |
| def recordRead (rows repeats : Nat → Nat) (p : Path branch n (m + 1)) | |
| (slots : Slots branch n → Fin t → MixedSupport.Slot) | |
| (record : OriginalWholeCut.Record rows repeats p slots) : | |
| OriginalOwnBucketSplit.BucketTape rows p slots × Background rows p slots := | |
| ((OriginalOwnBucketSplit.recordEquiv rows repeats p slots record).1, | |
| HierarchicalMatrixTable.backgroundOf slots (WholeArrayInteriorExterior.upperNode p) | |
| (OriginalWholeCut.reconstructRecord rows repeats p slots record)) | |
| @[simp] theorem oldRecord_numberRecord (rows repeats : Nat → Nat) | |
| (p : Path branch n (m + 1)) (slots : Slots branch n → Fin t → MixedSupport.Slot) | |
| (record : OriginalWholeCut.Record rows repeats p slots) (fresh : H (cutSlots p slots)) : | |
| OriginalCutCollision.oldRecord rows repeats p slots | |
| (OriginalWholeCutBridge.numberRecord rows repeats p slots record, fresh) = record := | |
| (NumberedUniformCut.numberRecordEquiv rows repeats p slots).symm_apply_apply record | |
| theorem read_numberRecord (rows repeats : Nat → Nat) (p : Path branch n (m + 1)) | |
| (slots : Slots branch n → Fin t → MixedSupport.Slot) | |
| (direction : BucketSampler.Direction (rows (m + 1))) | |
| (record : OriginalWholeCut.Record rows repeats p slots) (fresh : H (cutSlots p slots)) : | |
| read rows repeats p slots | |
| (direction, (OriginalWholeCutBridge.numberRecord rows repeats p slots record, fresh)) = | |
| ((recordRead rows repeats p slots record).2, | |
| (direction, ((recordRead rows repeats p slots record).1, fresh))) := by | |
| unfold read OriginalCutCollision.oldArrays | |
| simp only [oldRecord_numberRecord] | |
| apply Prod.ext | |
| · rfl | |
| · apply Prod.ext | |
| · rfl | |
| · apply Prod.ext | |
| · funext a | |
| exact (OriginalOwnBucketSplit.recordEquiv_own rows repeats p slots record a).symm | |
| · rfl | |
| private theorem numbered_read_of_split (rows repeats : Nat → Nat) | |
| (p : Path branch n (m + 1)) (slots : Slots branch n → Fin t → MixedSupport.Slot) | |
| (directions : FiniteDistribution (BucketSampler.Direction (rows (m + 1)))) | |
| (records : FiniteDistribution (OriginalWholeCut.Record rows repeats p slots)) | |
| (fresh : FiniteDistribution (H (cutSlots p slots))) | |
| (own : FiniteDistribution (OriginalOwnBucketSplit.BucketTape rows p slots)) | |
| (background : FiniteDistribution (Background rows p slots)) | |
| (hsplit : records.pushforward (recordRead rows repeats p slots) = own.product background) : | |
| (directions.product ((records.pushforward | |
| (OriginalWholeCutBridge.numberRecord rows repeats p slots)).product fresh)).pushforward | |
| (read rows repeats p slots) = | |
| background.product (directions.product (own.product fresh)) := by | |
| calc | |
| _ = (directions.product (records.product fresh)).pushforward | |
| (fun z => read rows repeats p slots | |
| (z.1, (OriginalWholeCutBridge.numberRecord rows repeats p slots z.2.1, z.2.2))) := by | |
| rw [← map_middle directions records fresh | |
| (OriginalWholeCutBridge.numberRecord rows repeats p slots), | |
| FiniteDistribution.pushforward_comp] | |
| _ = (directions.product (records.product fresh)).pushforward | |
| (fun z => ((recordRead rows repeats p slots z.2.1).2, | |
| (z.1, ((recordRead rows repeats p slots z.2.1).1, z.2.2)))) := by | |
| apply congrArg (directions.product (records.product fresh)).pushforward | |
| funext z | |
| exact read_numberRecord rows repeats p slots z.1 z.2.1 z.2.2 | |
| _ = _ := read_product_of_split directions records fresh own background | |
| (recordRead rows repeats p slots) hsplit | |
| theorem reference_read_law (rows repeats : Nat → Nat) | |
| (p : Path branch n (m + 1)) (slots : Slots branch n → Fin t → MixedSupport.Slot) | |
| (directions : FiniteDistribution (BucketSampler.Direction (rows (m + 1)))) : | |
| (directions.product (OriginalExtraCutComparison.referenceLaw rows repeats p slots)).pushforward | |
| (read rows repeats p slots) = | |
| (OriginalOwnBucketSplit.backgroundLaw rows repeats p slots).product | |
| (directions.product | |
| ((FiniteDistribution.uniform (OriginalOwnBucketSplit.BucketTape rows p slots)).product | |
| (FiniteDistribution.uniform (H (cutSlots p slots))))) := by | |
| unfold OriginalExtraCutComparison.referenceLaw | |
| rw [OriginalUniformCut.referenceLaw_uniform] | |
| exact numbered_read_of_split rows repeats p slots directions | |
| (FiniteDistribution.uniform (OriginalWholeCut.Record rows repeats p slots)) | |
| (FiniteDistribution.uniform (H (cutSlots p slots))) | |
| (FiniteDistribution.uniform (OriginalOwnBucketSplit.BucketTape rows p slots)) | |
| (OriginalOwnBucketSplit.backgroundLaw rows repeats p slots) | |
| (OriginalOwnBucketSplit.uniform_own_background rows repeats p slots) | |
| theorem record_fresh_read_law (rows repeats : Nat → Nat) | |
| (p : Path branch n (m + 1)) (chosen : Fin (branch m)) (q : Path branch m k) | |
| (slots : Slots branch n → Fin t → MixedSupport.Slot) | |
| (directions : FiniteDistribution (BucketSampler.Direction (rows (m + 1)))) : | |
| (directions.product | |
| (((OriginalWholeCutLaw.recordLaw rows repeats p chosen q slots).pushforward | |
| (OriginalWholeCutBridge.numberRecord rows repeats p slots)).product | |
| (RecursiveSampler.law F2 repeats (.step chosen q) (LeafDomain (cutSlots p slots))))).pushforward | |
| (read rows repeats p slots) = | |
| (OriginalOwnBucketSplit.actualBackgroundLaw rows repeats p chosen q slots).product | |
| (directions.product | |
| ((BucketSampler.tapeLaw (rows (m + 1)) | |
| (RecursiveSampler.law F2 repeats (.step chosen q) (LeafDomain (cutSlots p slots)))).product | |
| (RecursiveSampler.law F2 repeats (.step chosen q) (LeafDomain (cutSlots p slots))))) := | |
| numbered_read_of_split rows repeats p slots directions | |
| (OriginalWholeCutLaw.recordLaw rows repeats p chosen q slots) | |
| (RecursiveSampler.law F2 repeats (.step chosen q) (LeafDomain (cutSlots p slots))) | |
| (BucketSampler.tapeLaw (rows (m + 1)) | |
| (RecursiveSampler.law F2 repeats (.step chosen q) (LeafDomain (cutSlots p slots)))) | |
| (OriginalOwnBucketSplit.actualBackgroundLaw rows repeats p chosen q slots) | |
| (OriginalOwnBucketSplit.recordLaw_own_background rows repeats p chosen q slots) | |
| end | |
| end PerfectCompleteness.OriginalCutBucketLaw | |
| end | |
| end OAI | |