openAI-math-dataset / lean /OAI /Computability /PerfectCompleteness /Sampling /SourcePhysicalAssemblyLaw.lean
roseking's picture
Add lean source and binary files (part 62)
2f887db verified
Raw History Blame Contribute Delete
7.66 kB
import OAI.Computability.PerfectCompleteness.Construction.SourceChildKernelLemmas
import OAI.Computability.PerfectCompleteness.Foundations.DependentPredictionDifferenceLemmas
import OAI.Computability.PerfectCompleteness.Sampling.SourceChildKernelMarginalLemmas
import OAI.Computability.PerfectCompleteness.Sampling.SourceChildQuestionLaw
namespace OAI
section
namespace PerfectCompleteness.SourcePhysicalAssemblyLaw
open UniqueGamesTheorem.Foundations.Games
open RecursiveSpaces TreeSourceSpaces SourceChildKernel
open scoped Classical
noncomputable section
private theorem kernelJoint_pushforward_sigma {S R : Type*} {Y : S → Type*}
[Fintype S] [Fintype R] [∀ s, Fintype (Y s)]
(μ : FiniteDistribution S) (P : S → FiniteDistribution R)
(f : (s : S) → R → Y s) :
(CleanConditioning.kernelJoint μ P).pushforward
(fun x => (⟨x.1, f x.1 x.2⟩ : Σ s, Y s)) =
CompletionSoundness.sigmaLaw μ (fun s => (P s).pushforward (f s)) := by
apply SigmaObservation.eq_of_probability_eq
intro event
rw [FiniteDistribution.probability_pushforward, CleanConditioning.probability_kernelJoint,
CompletionSoundness.sigmaLaw_probability]
simp only [FiniteDistribution.expectation, FiniteDistribution.probability_pushforward]
variable {branch : Nat → Nat} {n t v m : Nat} {C : Type*} [Fintype C]
(rows : Nat → Nat) (clauses : Fin m → SourceClause.NormalizedClause v)
(designated : Fin (branch n) → Slots branch n)
def assembleLeft (sources : Sources (m := m) (t := t) designated)
(raw : (i : Fin (branch n)) → Raw (C := C) (t := t) rows clauses designated i) :
CutChildGrouping.Assembled (C := C) (parentLeftSlots clauses designated sources) rows :=
CutChildGrouping.assemble (parentLeftSlots clauses designated sources) rows
(leftChildren rows clauses designated sources raw)
theorem assembleLeft_eq_sourcePullback
(sources : Sources (m := m) (t := t) designated)
(raw : (i : Fin (branch n)) → Raw (C := C) (t := t) rows clauses designated i) :
assembleLeft rows clauses designated sources raw =
ChildAssemblyProjection.assembledPullback rows
(parentProjection rows clauses designated sources raw)
(CutChildGrouping.assemble (parentRightSlots rows clauses designated sources raw) rows
(rightChildren rows clauses designated sources raw)) :=
SourceChildKernel.assemble_leftChildren rows clauses designated sources raw
theorem kernels_assembleLeft (flag : Fin (branch n) → FiniteDistribution Bool)
(sources : Sources (m := m) (t := t) designated) :
(FiniteProduct.law (fun i =>
kernel (C := C) (t := t) rows clauses designated flag i (sources i))).pushforward
(assembleLeft rows clauses designated sources) =
(FiniteProduct.law (fun i =>
SourceChildNativeLaw.leftLaw (C := C) (t := t) rows clauses designated flag i (sources i))).pushforward
(CutChildGrouping.assemble (C := C) (parentLeftSlots clauses designated sources) rows) := by
unfold assembleLeft
rw [← FiniteDistribution.pushforward_comp
(FiniteProduct.law (fun i =>
kernel (C := C) (t := t) rows clauses designated flag i (sources i)))
(leftChildren rows clauses designated sources)
(CutChildGrouping.assemble (C := C) (parentLeftSlots clauses designated sources) rows),
SourceChildNativeLaw.kernels_leftChildren]
rfl
theorem kernels_assembleLeft_false
(sources : Sources (m := m) (t := t) designated) :
(FiniteProduct.law (fun i =>
kernel (C := C) (t := t) rows clauses designated
(fun _ => SourceChildNativeLaw.falseFlag) i (sources i))).pushforward
(assembleLeft rows clauses designated sources) =
FiniteDistribution.uniform
(CutChildGrouping.Assembled (C := C) (parentLeftSlots clauses designated sources) rows) := by
unfold assembleLeft
rw [← FiniteDistribution.pushforward_comp
(FiniteProduct.law (fun i =>
kernel (C := C) (t := t) rows clauses designated
(fun _ => SourceChildNativeLaw.falseFlag) i (sources i)))
(leftChildren rows clauses designated sources)
(CutChildGrouping.assemble (C := C) (parentLeftSlots clauses designated sources) rows),
SourceChildNativeLaw.kernels_leftChildren_false]
exact CutChildGrouping.assemble_law (C := C) (parentLeftSlots clauses designated sources) rows
abbrev Observation :=
Σ sources : Sources (m := m) (t := t) designated,
CutChildGrouping.Assembled (C := C) (parentLeftSlots clauses designated sources) rows
def observe (sample : Sample (C := C) (t := t) rows clauses designated) :
Observation (C := C) (t := t) rows clauses designated :=
⟨(SourceChildKernelJoint.groupEquiv rows clauses designated sample).1,
assembleLeft rows clauses designated
(SourceChildKernelJoint.groupEquiv rows clauses designated sample).1
(SourceChildKernelJoint.groupEquiv rows clauses designated sample).2⟩
private theorem original_observe_kernel_law [NeZero m]
(flag : Fin (branch n) → FiniteDistribution Bool) :
(originalLaw (C := C) (t := t) rows clauses designated flag).pushforward
(observe rows clauses designated) =
CompletionSoundness.sigmaLaw (SourceChildQuestionLaw.sourceLaw m t designated)
(fun sources =>
(FiniteProduct.law (fun i =>
kernel (C := C) (t := t) rows clauses designated flag i (sources i))).pushforward
(assembleLeft rows clauses designated sources)) := by
unfold observe
rw [← FiniteDistribution.pushforward_comp
(originalLaw (C := C) (t := t) rows clauses designated flag)
(SourceChildKernelJoint.groupEquiv rows clauses designated)
(fun x => (⟨x.1, assembleLeft rows clauses designated x.1 x.2⟩ :
Observation (C := C) (t := t) rows clauses designated)),
SourceChildKernelJoint.originalLaw_group]
exact kernelJoint_pushforward_sigma (SourceChildQuestionLaw.sourceLaw m t designated)
(fun sources => FiniteProduct.law (fun i =>
kernel (C := C) (t := t) rows clauses designated flag i (sources i)))
(assembleLeft rows clauses designated)
theorem original_assembleLeft_law [NeZero m]
(flag : Fin (branch n) → FiniteDistribution Bool) :
(originalLaw (C := C) (t := t) rows clauses designated flag).pushforward
(observe rows clauses designated) =
CompletionSoundness.sigmaLaw (SourceChildQuestionLaw.sourceLaw m t designated)
(fun sources =>
(FiniteProduct.law (fun i => SourceChildNativeLaw.leftLaw (C := C) (t := t)
rows clauses designated flag i (sources i))).pushforward
(CutChildGrouping.assemble (C := C) (parentLeftSlots clauses designated sources) rows)) := by
rw [original_observe_kernel_law]
exact congrArg (CompletionSoundness.sigmaLaw (SourceChildQuestionLaw.sourceLaw m t designated))
(funext fun sources => kernels_assembleLeft rows clauses designated flag sources)
theorem original_assembleLeft_false_law [NeZero m] :
(originalLaw (C := C) (t := t) rows clauses designated
(fun _ => SourceChildNativeLaw.falseFlag)).pushforward
(observe rows clauses designated) =
CompletionSoundness.sigmaLaw (SourceChildQuestionLaw.sourceLaw m t designated)
(fun sources => FiniteDistribution.uniform
(CutChildGrouping.Assembled (C := C) (parentLeftSlots clauses designated sources) rows)) := by
rw [original_observe_kernel_law]
exact congrArg (CompletionSoundness.sigmaLaw (SourceChildQuestionLaw.sourceLaw m t designated))
(funext fun sources => kernels_assembleLeft_false (C := C) rows clauses designated sources)
end
end PerfectCompleteness.SourcePhysicalAssemblyLaw
end
end OAI