ProCGroups.FoxDifferential.Completed.FreeProC.FundamentalFormula
The principal declarations in this module are:
freeProCChosenULift_closedGenerated_fundamental_formula_stageProjAt each finite stage, the chosen \(U\)-lift closed-generation map satisfies the fundamental formula after projection. -freeProCChosenULift_closedGen_fundFormula_of_stageProjsSeparateSeparation by finite-stage projections implies the closed-generation fundamental formula for the chosen \(U\)-lifts. -freeProCChosenULift_closedGen_fundFormula_of_relSubmoduleClosedClosedness of the completed relation submodule implies the closed-generation fundamental formula for the chosen \(U\)-lifts. -freeProC_zcDiffModuleRelSubmoduleClosed_of_closedGen_fundFormulaThe closed-generation fundamental formula implies closedness of the completed differential-module relation submodule.
imports
omit [C.ContainsTrivialQuotients] in
theorem freeProCChosenULift_closedGenerated_fundamental_formula_stageProj
[CompactSpace H] [T2Space H] [TotallyDisconnectedSpace H]
(hC : ProCGroups.FiniteGroupClass.FullFormation C)
(sourceData : ProCGroups.FreeProC.EpimorphicallyFreeProCGroupOnConvergingSetData.{u, u} C)
{r : Nat} (hbasis : Cardinal.mk sourceData.basis = r)
(psi : ContinuousMonoidHom sourceData.carrier H)
(hpsi : Function.Surjective psi)
(i : ZCCompletedDifferentialModuleIndex
C psi.toMonoidHom)
(g : sourceData.carrier) :
zcCompletedDifferentialModuleStageProjection
C psi.toMonoidHom i
(presentedCompletedDifferentialFamilyMapProCInteger
(G := sourceData.carrier) (H := H) C psi
(freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis)
(freeProCZCCompletedFoxDerivativeVectorViaClosedGenerated
(C := C)
(freeProCChosenULiftFamilyOfBasisCard_isEpimorphicallyFree (C := C) sourceData hbasis)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i))
(freeProCClosedGeneratedTarget_proC_of_surjective
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi)
(freeProCZCFoxSemiClosedGenGenerator_convergesToOneAlongOpenSubgroups_of_finite
(C := C)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i)))
g)) =
zcCompletedDifferentialModuleStageProjection
C psi.toMonoidHom i
(zcUniversalDifferential C psi.toMonoidHom g)At each finite stage, the chosen \(U\)-lift closed-generation map satisfies the fundamental formula after projection.
Show Lean proof
by
let family : ULift.{u} (Fin r) → sourceData.carrier :=
freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis
let hfree :=
freeProCChosenULiftFamilyOfBasisCard_isEpimorphicallyFree (C := C) sourceData hbasis
let htarget :=
freeProCClosedGeneratedTarget_proC_of_surjective
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi
let hφconv :=
freeProCZCFoxSemiClosedGenGenerator_convergesToOneAlongOpenSubgroups_of_finite
(C := C) (fun i : ULift.{u} (Fin r) => psi (family i))
have hH : ProCGroups.ProC.HasOpenNormalBasisInClass C (H) :=
HasOpenNormalBasisInClass.of_surjective hC.melnikovFormation.formation
sourceData.isEpimorphicallyFree.hasOpenNormalBasisInClass psi hpsi
have hφHconv :
ProCGroups.FreeProC.FamilyConvergesToOneAlongOpenSubgroups
(G := H) (fun i : ULift.{u} (Fin r) => psi (family i)) := by
simpa [family] using
freeProCChosenULiftFamilyOfBasisCard_image_convergesToOneAlongOpenSubgroups
(C := C) sourceData hbasis psi.toMonoidHom
have hφHgen :
ProCGroups.Generation.TopologicallyGenerates
(G := H) (Set.range (fun i : ULift.{u} (Fin r) => psi (family i))) := by
simpa [family] using
freeProCChosenULiftFamilyOfBasisCard_image_generates_of_surjective
(C := C) sourceData hbasis psi hpsi
simpa [family, hfree, htarget, hφconv] using
closedGenerated_fundamental_formula_stageProj
(G := sourceData.carrier) (H := H) C psi family hfree htarget hφconv
hH hφHconv hφHgen i g
omit [C.ContainsTrivialQuotients] in
theorem freeProCChosenULift_closedGen_fundFormula_of_stageProjsSeparate
[CompactSpace H] [T2Space H] [TotallyDisconnectedSpace H]
(hC : ProCGroups.FiniteGroupClass.FullFormation C)
(sourceData : ProCGroups.FreeProC.EpimorphicallyFreeProCGroupOnConvergingSetData.{u, u} C)
{r : Nat} (hbasis : Cardinal.mk sourceData.basis = r)
(psi : ContinuousMonoidHom sourceData.carrier H)
(hpsi : Function.Surjective psi)
(hsep :
zcCompletedDifferentialModuleStageProjectionsSeparate
C psi.toMonoidHom) :
∀ g : sourceData.carrier,
presentedCompletedDifferentialFamilyMapProCInteger
(G := sourceData.carrier) (H := H) C psi
(freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis)
(freeProCZCCompletedFoxDerivativeVectorViaClosedGenerated
(C := C)
(freeProCChosenULiftFamilyOfBasisCard_isEpimorphicallyFree (C := C) sourceData hbasis)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i))
(freeProCClosedGeneratedTarget_proC_of_surjective
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi)
(freeProCZCFoxSemiClosedGenGenerator_convergesToOneAlongOpenSubgroups_of_finite
(C := C)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i)))
g) =
zcUniversalDifferential C psi.toMonoidHom gSeparation by finite-stage projections implies the closed-generation fundamental formula for the chosen \(U\)-lifts.
Show Lean proof
by
let family : ULift.{u} (Fin r) → sourceData.carrier :=
freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis
let hfree :=
freeProCChosenULiftFamilyOfBasisCard_isEpimorphicallyFree (C := C) sourceData hbasis
let htarget :=
freeProCClosedGeneratedTarget_proC_of_surjective
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi
let hφconv :=
freeProCZCFoxSemiClosedGenGenerator_convergesToOneAlongOpenSubgroups_of_finite
(C := C) (fun i : ULift.{u} (Fin r) => psi (family i))
have hH : ProCGroups.ProC.HasOpenNormalBasisInClass C (H) :=
HasOpenNormalBasisInClass.of_surjective hC.melnikovFormation.formation
sourceData.isEpimorphicallyFree.hasOpenNormalBasisInClass psi hpsi
have hφHconv :
ProCGroups.FreeProC.FamilyConvergesToOneAlongOpenSubgroups
(G := H) (fun i : ULift.{u} (Fin r) => psi (family i)) := by
simpa [family] using
freeProCChosenULiftFamilyOfBasisCard_image_convergesToOneAlongOpenSubgroups
(C := C) sourceData hbasis psi.toMonoidHom
have hφHgen :
ProCGroups.Generation.TopologicallyGenerates
(G := H) (Set.range (fun i : ULift.{u} (Fin r) => psi (family i))) := by
simpa [family] using
freeProCChosenULiftFamilyOfBasisCard_image_generates_of_surjective
(C := C) sourceData hbasis psi hpsi
simpa [family, hfree, htarget, hφconv] using
closedGenerated_fundamental_formula_naturalTopology_of_separating
(G := sourceData.carrier) (H := H) C psi family hfree htarget hφconv
hsep hH hφHconv hφHgen
theorem freeProCChosenULift_closedGen_fundFormula_of_relSubmoduleClosed
[CompactSpace H] [T2Space H] [TotallyDisconnectedSpace H]
(hC : ProCGroups.FiniteGroupClass.FullFormation C)
(sourceData : ProCGroups.FreeProC.EpimorphicallyFreeProCGroupOnConvergingSetData.{u, u} C)
{r : Nat} (hbasis : Cardinal.mk sourceData.basis = r)
(psi : ContinuousMonoidHom sourceData.carrier H)
(hpsi : Function.Surjective psi)
(hclosed :
zcCompletedDifferentialModuleRelationSubmoduleClosed
C psi.toMonoidHom) :
∀ g : sourceData.carrier,
presentedCompletedDifferentialFamilyMapProCInteger
(G := sourceData.carrier) (H := H) C psi
(freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis)
(freeProCZCCompletedFoxDerivativeVectorViaClosedGenerated
(C := C)
(freeProCChosenULiftFamilyOfBasisCard_isEpimorphicallyFree (C := C) sourceData hbasis)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i))
(freeProCClosedGeneratedTarget_proC_of_surjective
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi)
(freeProCZCFoxSemiClosedGenGenerator_convergesToOneAlongOpenSubgroups_of_finite
(C := C)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i)))
g) =
zcUniversalDifferential C psi.toMonoidHom gClosedness of the completed relation submodule implies the closed-generation fundamental formula for the chosen \(U\)-lifts.
Show Lean proof
by
exact
freeProCChosenULift_closedGen_fundFormula_of_stageProjsSeparate
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi
(freeProC_zcDiffModuleStageProjsSeparate_of_relSubmoduleClosed
(H := H) (C := C) (hC := hC) sourceData psi hclosed)
omit [ProCGroups.FiniteGroupClass.ContainsTrivialQuotients C] in
theorem freeProC_zcDiffModuleRelSubmoduleClosed_of_closedGen_fundFormula
[CompactSpace H] [T2Space H] [TotallyDisconnectedSpace H]
(hC : ProCGroups.FiniteGroupClass.FullFormation C)
(sourceData : ProCGroups.FreeProC.EpimorphicallyFreeProCGroupOnConvergingSetData.{u, u} C)
{r : Nat} (hbasis : Cardinal.mk sourceData.basis = r)
(psi : ContinuousMonoidHom sourceData.carrier H)
(hpsi : Function.Surjective psi)
(hfundamental :
let htarget :=
freeProCClosedGeneratedTarget_proC_of_surjective
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi
∀ g : sourceData.carrier,
presentedCompletedDifferentialFamilyMapProCInteger
(G := sourceData.carrier) (H := H) C psi
(freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis)
(freeProCZCCompletedFoxDerivativeVectorViaClosedGenerated
(C := C)
(freeProCChosenULiftFamilyOfBasisCard_isEpimorphicallyFree (C := C) sourceData hbasis)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i))
htarget
(freeProCZCFoxSemiClosedGenGenerator_convergesToOneAlongOpenSubgroups_of_finite
(C := C)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i)))
g) =
zcUniversalDifferential C psi.toMonoidHom g) :
zcCompletedDifferentialModuleRelationSubmoduleClosed
C psi.toMonoidHomThe closed-generation fundamental formula implies closedness of the completed differential-module relation submodule.
Show Lean proof
by
let family : ULift.{u} (Fin r) → sourceData.carrier :=
freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis
let hfree :=
freeProCChosenULiftFamilyOfBasisCard_isEpimorphicallyFree (C := C) sourceData hbasis
let htarget :=
freeProCClosedGeneratedTarget_proC_of_surjective
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi
let hφconv :=
freeProCZCFoxSemiClosedGenGenerator_convergesToOneAlongOpenSubgroups_of_finite
(C := C) (fun i : ULift.{u} (Fin r) => psi (family i))
have hH : HasOpenNormalBasisInClass C H :=
HasOpenNormalBasisInClass.of_surjective
hC.melnikovFormation.formation
sourceData.isEpimorphicallyFree.hasOpenNormalBasisInClass psi hpsi
have hφHconv :
ProCGroups.FreeProC.FamilyConvergesToOneAlongOpenSubgroups
(G := H) (fun i : ULift.{u} (Fin r) => psi (family i)) := by
simpa [family] using
freeProCChosenULiftFamilyOfBasisCard_image_convergesToOneAlongOpenSubgroups
(C := C) sourceData hbasis psi.toMonoidHom
have hφHgen :
ProCGroups.Generation.TopologicallyGenerates
(G := H) (Set.range (fun i : ULift.{u} (Fin r) => psi (family i))) := by
simpa [family] using
freeProCChosenULiftFamilyOfBasisCard_image_generates_of_surjective
(C := C) sourceData hbasis psi hpsi
exact
zcDiffModuleRelSubmoduleClosed_of_closedGenCoord_hasOpenNormalBasisInClass_of_fundFormula
(G := sourceData.carrier) (H := H) C psi family hfree htarget hφconv
sourceData.isEpimorphicallyFree.hasOpenNormalBasisInClass hH hφHconv hφHgen
(by simpa [family, hfree, htarget, hφconv] using hfundamental)
theorem freeProC_zcDiffModuleRelSubmoduleClosed_iff_closedGenCoord_inj
[CompactSpace H] [T2Space H] [TotallyDisconnectedSpace H]
(hC : ProCGroups.FiniteGroupClass.FullFormation C)
{sourceData : ProCGroups.FreeProC.EpimorphicallyFreeProCGroupOnConvergingSetData.{u, u} C}
{r : Nat} (hbasis : Cardinal.mk sourceData.basis = r)
{psi : ContinuousMonoidHom sourceData.carrier H}
(hpsi : Function.Surjective psi) :
zcCompletedDifferentialModuleRelationSubmoduleClosed
C psi.toMonoidHom ↔
Function.Injective
(freeProCChosenULift_closedGeneratedCoordinateMap
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi)For the chosen finite free pro-C basis, relation-submodule closedness is equivalent to injectivity of the closed-generated coordinate map.
Show Lean proof
by
letI :
Nonempty
(ZCCompletedDifferentialModuleIndex
C psi.toMonoidHom) :=
⟨zcCompletedDifferentialModuleComapIndex
(C := C) (G := sourceData.carrier) (H := H)
hC.hereditary psi
((ProCGroups.Completion.ProCIntegerIndex.terminal
(C := C) inferInstance),
zcCompletedGroupAlgebraTopIndex C H)⟩
have hdir :
Directed (· ≤ ·)
(id :
ZCCompletedDifferentialModuleIndex
C psi.toMonoidHom →
ZCCompletedDifferentialModuleIndex
C psi.toMonoidHom) :=
directed_zcCompletedDifferentialModuleIndex
(C := C) (G := sourceData.carrier) (H := H)
(hC.melnikovFormation.formation)
hC.hereditary psi
let family : ULift.{u} (Fin r) → sourceData.carrier :=
freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis
let hfree :=
freeProCChosenULiftFamilyOfBasisCard_isEpimorphicallyFree (C := C) sourceData hbasis
let htarget :=
freeProCClosedGeneratedTarget_proC_of_surjective
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi
let hφconv :=
freeProCZCFoxSemiClosedGenGenerator_convergesToOneAlongOpenSubgroups_of_finite
(C := C) (fun i : ULift.{u} (Fin r) => psi (family i))
have hH : ProCGroups.ProC.HasOpenNormalBasisInClass C (H) :=
HasOpenNormalBasisInClass.of_surjective hC.melnikovFormation.formation
sourceData.isEpimorphicallyFree.hasOpenNormalBasisInClass psi hpsi
have hφHconv :
ProCGroups.FreeProC.FamilyConvergesToOneAlongOpenSubgroups
(G := H) (fun i : ULift.{u} (Fin r) => psi (family i)) := by
simpa [family] using
freeProCChosenULiftFamilyOfBasisCard_image_convergesToOneAlongOpenSubgroups
(C := C) sourceData hbasis psi.toMonoidHom
have hφHgen :
ProCGroups.Generation.TopologicallyGenerates
(G := H) (Set.range (fun i : ULift.{u} (Fin r) => psi (family i))) := by
simpa [family] using
freeProCChosenULiftFamilyOfBasisCard_image_generates_of_surjective
(C := C) sourceData hbasis psi hpsi
have hiff :=
zcDiffModuleRelSubmoduleClosed_iff_closedGenCoord_inj_of_hasOpenNormalBasisInClass
(G := sourceData.carrier) (H := H) (C := C) (psi := psi)
(family := family) (hfree := hfree) (htarget := htarget) (hφconv := hφconv)
hdir sourceData.isEpimorphicallyFree.hasOpenNormalBasisInClass hH hφHconv hφHgen
simpa [freeProCChosenULift_closedGeneratedCoordinateMap, family, hfree, htarget, hφconv,
hH, hφHconv, hφHgen] using hiff
theorem freeProC_zcDiffModuleRelSubmoduleClosed_of_closedGenCoord_inj
[CompactSpace H] [T2Space H] [TotallyDisconnectedSpace H]
(hC : ProCGroups.FiniteGroupClass.FullFormation C)
(sourceData : ProCGroups.FreeProC.EpimorphicallyFreeProCGroupOnConvergingSetData.{u, u} C)
{r : Nat} (hbasis : Cardinal.mk sourceData.basis = r)
(psi : ContinuousMonoidHom sourceData.carrier H)
(hpsi : Function.Surjective psi)
(hcoord_inj :
Function.Injective
(freeProCChosenULift_closedGeneratedCoordinateMap
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi)) :
zcCompletedDifferentialModuleRelationSubmoduleClosed
C psi.toMonoidHomInjectivity of the closed-generated coordinate map implies closedness of the completed differential-module relation submodule.
Show Lean proof
(freeProC_zcDiffModuleRelSubmoduleClosed_iff_closedGenCoord_inj
(H := H) (C := C) (hC := hC) (sourceData := sourceData) hbasis
(psi := psi) hpsi).2 hcoord_inj
theorem freeProCChosenULift_closedGen_fundFormula_of_closedGenCoord_inj
[CompactSpace H] [T2Space H] [TotallyDisconnectedSpace H]
(hC : ProCGroups.FiniteGroupClass.FullFormation C)
(sourceData : ProCGroups.FreeProC.EpimorphicallyFreeProCGroupOnConvergingSetData.{u, u} C)
{r : Nat} (hbasis : Cardinal.mk sourceData.basis = r)
(psi : ContinuousMonoidHom sourceData.carrier H)
(hpsi : Function.Surjective psi)
(hcoord_inj :
Function.Injective
(freeProCChosenULift_closedGeneratedCoordinateMap
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi)) :
let htarget :=
freeProCClosedGeneratedTarget_proC_of_surjective
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi
∀ g : sourceData.carrier,
presentedCompletedDifferentialFamilyMapProCInteger
(G := sourceData.carrier) (H := H) C psi
(freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis)
(freeProCZCCompletedFoxDerivativeVectorViaClosedGenerated
(C := C)
(freeProCChosenULiftFamilyOfBasisCard_isEpimorphicallyFree (C := C) sourceData hbasis)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i))
htarget
(freeProCZCFoxSemiClosedGenGenerator_convergesToOneAlongOpenSubgroups_of_finite
(C := C)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i)))
g) =
zcUniversalDifferential C psi.toMonoidHom gInjectivity of the closed-generated coordinate map implies the closed-generated fundamental formula for the chosen \(U\)-lifts.
Show Lean proof
by
exact
freeProCChosenULift_closedGen_fundFormula_of_relSubmoduleClosed
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi
(freeProC_zcDiffModuleRelSubmoduleClosed_of_closedGenCoord_inj
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi hcoord_inj)
omit [ProCGroups.FiniteGroupClass.ContainsTrivialQuotients C] in
theorem chosenULift_hbasis_A_of_closedGen_fundFormula
[CompactSpace H] [T2Space H] [TotallyDisconnectedSpace H]
(hForm : ProCGroups.FiniteGroupClass.Formation C)
(sourceData : ProCGroups.FreeProC.EpimorphicallyFreeProCGroupOnConvergingSetData.{u, u} C)
{r : Nat} (hbasis : Cardinal.mk sourceData.basis = r)
(psi : ContinuousMonoidHom sourceData.carrier H)
(hpsi : Function.Surjective psi)
(htarget :
HasOpenNormalBasisInClass C
(freeProCZCCompletedFoxSemidirectClosedGeneratedTarget
(C := C)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i)) : Subgroup
(ZCCompletedFoxSemidirect
C (ULift.{u} (Fin r)) H)))
(hfundamental :
∀ g : sourceData.carrier,
presentedCompletedDifferentialFamilyMapProCInteger
(G := sourceData.carrier) (H := H) C psi
(freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis)
(freeProCZCCompletedFoxDerivativeVectorViaClosedGenerated
(C := C)
(freeProCChosenULiftFamilyOfBasisCard_isEpimorphicallyFree (C := C) sourceData hbasis)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i))
htarget
(freeProCZCFoxSemiClosedGenGenerator_convergesToOneAlongOpenSubgroups_of_finite
(C := C)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i)))
g) =
zcUniversalDifferential C psi.toMonoidHom g) :
IsPresentedCompletedDifferentialFamilyBasisProCInteger
(G := sourceData.carrier) (H := H) C psi
(freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis)The closed-generation fundamental formula supplies the required chosen-\(U\)-lift basis data for \(A\).
Show Lean proof
by
let family : ULift.{u} (Fin r) → sourceData.carrier :=
freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis
let hfree :=
freeProCChosenULiftFamilyOfBasisCard_isEpimorphicallyFree (C := C) sourceData hbasis
let hφconv :=
freeProCZCFoxSemiClosedGenGenerator_convergesToOneAlongOpenSubgroups_of_finite
(C := C) (fun i : ULift.{u} (Fin r) => psi (family i))
have hH : HasOpenNormalBasisInClass C H :=
HasOpenNormalBasisInClass.of_surjective
hForm
sourceData.isEpimorphicallyFree.hasOpenNormalBasisInClass psi hpsi
have hφHconv :
ProCGroups.FreeProC.FamilyConvergesToOneAlongOpenSubgroups
(G := H) (fun i : ULift.{u} (Fin r) => psi (family i)) := by
simpa [family] using
freeProCChosenULiftFamilyOfBasisCard_image_convergesToOneAlongOpenSubgroups
(C := C) sourceData hbasis psi.toMonoidHom
have hφHgen :
ProCGroups.Generation.TopologicallyGenerates
(G := H) (Set.range (fun i : ULift.{u} (Fin r) => psi (family i))) := by
simpa [family] using
freeProCChosenULiftFamilyOfBasisCard_image_generates_of_surjective
(C := C) sourceData hbasis psi hpsi
exact
isPresentedCompletedDifferentialFamilyBasisZC_of_closedGen_fundFormula
(G := sourceData.carrier) (H := H) C psi family hfree
(by simpa [family] using htarget) hφconv hH hφHconv hφHgen
(by simpa [family, hfree, hφconv] using hfundamental)
omit [C.ContainsTrivialQuotients] in
theorem chosenULift_hbasis_A_of_closedGen_fundFormula_continuous
[CompactSpace H] [T2Space H] [TotallyDisconnectedSpace H]
(hForm : ProCGroups.FiniteGroupClass.Formation C)
(sourceData : ProCGroups.FreeProC.EpimorphicallyFreeProCGroupOnConvergingSetData.{u, u} C)
{r : Nat} (hbasis : Cardinal.mk sourceData.basis = r)
(psi : ContinuousMonoidHom sourceData.carrier H)
(hpsi : Function.Surjective psi)
[TopologicalSpace (ZCCompletedDifferentialModule
C psi.toMonoidHom)]
[T2Space (ZCCompletedDifferentialModule
C psi.toMonoidHom)]
(htarget :
HasOpenNormalBasisInClass C
(freeProCZCCompletedFoxSemidirectClosedGeneratedTarget
(C := C)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i)) : Subgroup
(ZCCompletedFoxSemidirect
C (ULift.{u} (Fin r)) H)))
(hmodule_continuous :
Continuous
(fun g : sourceData.carrier =>
presentedCompletedDifferentialFamilyMapProCInteger
(G := sourceData.carrier) (H := H) C psi
(freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis)
(freeProCZCCompletedFoxDerivativeVectorViaClosedGenerated
(C := C)
(freeProCChosenULiftFamilyOfBasisCard_isEpimorphicallyFree
(C := C) sourceData hbasis)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i))
htarget
(freeProCZCFoxSemiClosedGenGenerator_convergesToOneAlongOpenSubgroups_of_finite
(C := C)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i)))
g)))
(huniv_continuous :
Continuous
(fun g : sourceData.carrier =>
zcUniversalDifferential C psi.toMonoidHom g)) :
IsPresentedCompletedDifferentialFamilyBasisProCInteger
(G := sourceData.carrier) (H := H) C psi
(freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis)Continuity of the closed-generated and universal differential formulas promotes the chosen lifted finite family to a basis of the presented completed differential module.
Show Lean proof
by
let family : ULift.{u} (Fin r) → sourceData.carrier :=
freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis
let hfree :=
freeProCChosenULiftFamilyOfBasisCard_isEpimorphicallyFree (C := C) sourceData hbasis
let hφconv :=
freeProCZCFoxSemiClosedGenGenerator_convergesToOneAlongOpenSubgroups_of_finite
(C := C) (fun i : ULift.{u} (Fin r) => psi (family i))
have hH : HasOpenNormalBasisInClass C H :=
HasOpenNormalBasisInClass.of_surjective
hForm
sourceData.isEpimorphicallyFree.hasOpenNormalBasisInClass psi hpsi
have hφHconv :
ProCGroups.FreeProC.FamilyConvergesToOneAlongOpenSubgroups
(G := H) (fun i : ULift.{u} (Fin r) => psi (family i)) := by
simpa [family] using
freeProCChosenULiftFamilyOfBasisCard_image_convergesToOneAlongOpenSubgroups
(C := C) sourceData hbasis psi.toMonoidHom
have hφHgen :
ProCGroups.Generation.TopologicallyGenerates
(G := H) (Set.range (fun i : ULift.{u} (Fin r) => psi (family i))) := by
simpa [family] using
freeProCChosenULiftFamilyOfBasisCard_image_generates_of_surjective
(C := C) sourceData hbasis psi hpsi
have hfundamental :
∀ g : sourceData.carrier,
presentedCompletedDifferentialFamilyMapProCInteger
(G := sourceData.carrier) (H := H) C psi family
(freeProCZCCompletedFoxDerivativeVectorViaClosedGenerated
(C := C) hfree (fun i : ULift.{u} (Fin r) => psi (family i))
(by simpa [family] using htarget) hφconv g) =
zcUniversalDifferential C psi.toMonoidHom g :=
closedGenerated_fundamental_formula_of_continuous
(G := sourceData.carrier) (H := H) C psi family hfree
(by simpa [family] using htarget) hφconv hH hφHconv hφHgen
(by simpa [family, hfree, hφconv] using hmodule_continuous)
(by simpa using huniv_continuous)
exact
chosenULift_hbasis_A_of_closedGen_fundFormula
(H := H) (C := C) hForm sourceData hbasis psi hpsi htarget
(by simpa [family, hfree, hφconv] using hfundamental)
theorem freeProCChosenULiftFamilyOfBasisCard_hbasis_A_of_relationSubmoduleClosed
[CompactSpace H] [T2Space H] [TotallyDisconnectedSpace H]
(hC : ProCGroups.FiniteGroupClass.FullFormation C)
(sourceData : ProCGroups.FreeProC.EpimorphicallyFreeProCGroupOnConvergingSetData.{u, u} C)
{r : Nat} (hbasis : Cardinal.mk sourceData.basis = r)
(psi : ContinuousMonoidHom sourceData.carrier H)
(hpsi : Function.Surjective psi)
(hclosed :
zcCompletedDifferentialModuleRelationSubmoduleClosed
C psi.toMonoidHom) :
IsPresentedCompletedDifferentialFamilyBasisProCInteger
(G := sourceData.carrier) (H := H) C psi
(freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis)Closedness of the completed relation submodule gives the required basis-indexed chosen-\(U\)-lift family in the Crowell module \(A\).
Show Lean proof
by
let htarget :=
freeProCClosedGeneratedTarget_proC_of_surjective
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi
have hfundamental :
∀ g : sourceData.carrier,
presentedCompletedDifferentialFamilyMapProCInteger
(G := sourceData.carrier) (H := H) C psi
(freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis)
(freeProCZCCompletedFoxDerivativeVectorViaClosedGenerated
(C := C)
(freeProCChosenULiftFamilyOfBasisCard_isEpimorphicallyFree (C := C) sourceData hbasis)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i))
htarget
(freeProCZCFoxSemiClosedGenGenerator_convergesToOneAlongOpenSubgroups_of_finite
(C := C)
(fun i : ULift.{u} (Fin r) =>
psi (freeProCChosenULiftFamilyOfBasisCard
(C := C) sourceData hbasis i)))
g) =
zcUniversalDifferential C psi.toMonoidHom g := by
simpa [htarget] using
freeProCChosenULift_closedGen_fundFormula_of_relSubmoduleClosed
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi hclosed
exact
chosenULift_hbasis_A_of_closedGen_fundFormula
(H := H) (C := C) hC.melnikovFormation.formation
sourceData hbasis psi hpsi htarget hfundamental
theorem freeProCChosenULiftFamilyOfBasisCard_hbasis_A_of_closedGenCoord_inj
[CompactSpace H] [T2Space H] [TotallyDisconnectedSpace H]
(hC : ProCGroups.FiniteGroupClass.FullFormation C)
(sourceData : ProCGroups.FreeProC.EpimorphicallyFreeProCGroupOnConvergingSetData.{u, u} C)
{r : Nat} (hbasis : Cardinal.mk sourceData.basis = r)
(psi : ContinuousMonoidHom sourceData.carrier H)
(hpsi : Function.Surjective psi)
(hcoord_inj :
Function.Injective
(freeProCChosenULift_closedGeneratedCoordinateMap
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi)) :
IsPresentedCompletedDifferentialFamilyBasisProCInteger
(G := sourceData.carrier) (H := H) C psi
(freeProCChosenULiftFamilyOfBasisCard (C := C) sourceData hbasis)Injectivity of the closed-generated coordinate map gives the finite \(A_{\psi}(C)\)-basis theorem for the chosen lifted basis family.
Show Lean proof
freeProCChosenULiftFamilyOfBasisCard_hbasis_A_of_relationSubmoduleClosed
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi
(freeProC_zcDiffModuleRelSubmoduleClosed_of_closedGenCoord_inj
(H := H) (C := C) (hC := hC) sourceData hbasis psi hpsi hcoord_inj)