openAI-math-dataset / lean /OAI /SetTheory /PartitionPrinciple /Forcing /GroundExternalLayerWitnessRanks.lean
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import OAI.SetTheory.PartitionPrinciple.Definability.ExternalStarCarrierRanks
import OAI.SetTheory.PartitionPrinciple.Transfinite.ExternalBirthLayerSeparation
namespace OAI
namespace PartitionPilot.Forcing.GroundExternalBirthData
open SetFormula SetRealization Compression Compression.RecursiveMaps.CosetGeometry
universe u
variable {M : TransitiveGround.{u}} {initial : RecursiveStateData.{u}}
variable {I Sources Reps G m inv one T τ P0 r0 μ0 A0 oldTimes oldBirth : ZFSet.{u}}
variable {completion : GroundCompressionCompletion M initial I Sources Reps G m one T τ}
variable (births : GroundExternalBirthData M initial I Sources Reps G m one T τ P0 r0 μ0 A0 oldTimes oldBirth completion)
variable (data : GroundExternalGeometryInputs M initial I Sources Reps G m inv one T τ P0 r0 μ0 A0 completion)
variable (group : GroupCode G m inv one) (oldAction : PosetActionCode G P0 m one r0 A0)
variable (pairing : Realize M.sets SetFormula.pairing Fin.elim0)
variable (unions : Realize M.sets SetFormula.union Fin.elim0)
variable (powers : Realize M.sets powerSet Fin.elim0) (separation : SeparationSchema M.sets)
variable (infinite : Realize M.sets infinity Fin.elim0) (hG : G ∈ M.sets) (hP0 : P0 ∈ M.sets)
local notation "family" => completion.externalFamily group oldAction data.original
local notation "s" => completion.externalFamilyGroupPresentation group oldAction data.original
pairing unions powers separation infinite hG data.words.letters_ground
local notation "vpres" => data.externalStarVertexPresentation group oldAction pairing unions powers separation infinite hG
local notation "U" => completion.algebra.union.fields 0
local notation "B" => completion.externalPointCarrier P0 r0 μ0 A0
local notation "P" => completion.externalSeedCarrier P0 r0 μ0 A0
local notation "owner" => completion.externalStarOwner P0 r0 μ0 A0
local notation "levels" => completion.externalOwnerLevels P0 r0 μ0 A0
include births data group oldAction pairing unions powers separation infinite hG hP0
variable {HQs Hrs Hμs HTime : ZFSet.{u}}
variable (historySpaces : FunctionGraphOn HTime HQs)
variable (historyOrders : FunctionGraphOn HTime Hrs)
variable (historyMeets : FunctionGraphOn HTime Hμs)
variable (source : ZFSet.pair oldTimes (completion.algebra.union.fields 0) ∈ HQs ∧
ZFSet.pair oldTimes (completion.algebra.union.fields 1) ∈ Hrs ∧
ZFSet.pair oldTimes (completion.algebra.union.fields 2) ∈ Hμs)
include historySpaces historyOrders historyMeets source
theorem layerSeparatedCode (k : Nat) :
SeparatedLayerCode HQs Hrs Hμs B (completion.externalPointOrder P0 r0 μ0 A0)
(completion.externalPointMeet P0 r0 μ0 A0) births.birth (compressionStamp oldTimes k)
(births.layerOwners k) (births.layerIndices k) (births.layerMaps k)
(M.groundRelations U B) (births.layerComponents k) (births.layerFiber k) := by
refine ⟨births.layerIndices_function k,
(births.layerMaps_spec data group oldAction pairing unions powers separation infinite hG hP0 k).1,
rfl, births.layerComponents_function data group oldAction pairing unions powers separation infinite hG hP0 k,
?_, ?_, ?_⟩
· intro i _ t _ e Q R V indexEntry mapEntry spaceEntry orderEntry meetEntry
obtain rfl := ((pair_mem_constantFamilyGraph _ _ _ _).1 indexEntry).2
have qeq := historySpaces.unique spaceEntry source.1
have req := historyOrders.unique orderEntry source.2.1
have veq := historyMeets.unique meetEntry source.2.2
subst Q R V
exact births.layerMaps_embedding data group oldAction pairing unions powers separation infinite hG hP0 k mapEntry
· intro i _ t _ e Q x _ indexEntry mapEntry spaceEntry componentEntry
obtain rfl := ((pair_mem_constantFamilyGraph _ _ _ _).1 indexEntry).2
have qeq := historySpaces.unique spaceEntry source.1
subst Q
have owned := (pair_mem_graphRestriction.1 componentEntry).1
have hx := (pair_mem_graphRestriction.1 componentEntry).2
obtain ⟨_, _, _, _, covered⟩ := births.layerMaps_copy data group oldAction pairing unions powers separation infinite hG hP0 k hx owned mapEntry
exact covered
· intro x hx y hy i _ j _ first second different
exact Or.inl (births.layerComponents_earlier_meet data group oldAction pairing unions powers separation infinite hG hP0 k hx hy first second different)
theorem cutoffLayerSeparatedCode (k n : Nat) (before : k ≤ n) :
SeparatedLayerCode HQs Hrs Hμs (births.cutoff n) (births.cutoffOrder n)
(births.cutoffMeet n) (births.cutoffBirth n) (compressionStamp oldTimes k)
(births.layerOwners k) (births.layerIndices k) (births.layerMaps k)
(M.groundRelations U B) (births.layerComponents k) (births.layerFiber k) := by
have full := births.layerSeparatedCode data group oldAction pairing unions powers separation infinite hG hP0
historySpaces historyOrders historyMeets source k
refine ⟨full.indices, full.maps, births.layerFiber_cutoff k n before, full.components, ?_, ?_, ?_⟩
· intro i _ t _ e Q R V indexEntry mapEntry spaceEntry orderEntry meetEntry
obtain rfl := ((pair_mem_constantFamilyGraph _ _ _ _).1 indexEntry).2
have qeq := historySpaces.unique spaceEntry source.1
have req := historyOrders.unique orderEntry source.2.1
have veq := historyMeets.unique meetEntry source.2.2
subst Q R V
exact births.layerMaps_cutoff_embedding data group oldAction pairing unions powers separation infinite hG hP0 k n before mapEntry
· intro i hi t ht e Q x hx indexEntry mapEntry spaceEntry componentEntry
obtain ⟨_, u, hu, copied⟩ := (mem_relationImage _ _ _ _).1
(full.cover i hi t ht e Q x (births.cutoff_subset n hx) indexEntry mapEntry spaceEntry componentEntry)
exact (mem_relationImage _ _ _ _).2 ⟨hx, u, hu, copied⟩
· intro x hx y hy i _ j _ first second different
have geometry := data.externalGeometryData group oldAction pairing unions powers separation infinite hG hP0
obtain ⟨z, a, meetEntry, born, earlier⟩ := births.layerComponents_earlier_meet data group oldAction pairing unions powers separation infinite hG hP0 k hx hy first second different
have hxCut := ((mem_layerBirthFiber _ _ _ _).1 (births.layerFiber_cutoff k n before ▸ hx)).1
have hyCut := ((mem_layerBirthFiber _ _ _ _).1 (births.layerFiber_cutoff k n before ▸ hy)).1
have hz := (ZFSet.pair_mem_prod.1 (geometry.meet.operation.1 meetEntry)).2
have hzCut := births.cutoff_lower data group oldAction pairing unions powers separation infinite hG hP0 n z hz x hxCut
(geometry.meet.lower_left x y z meetEntry)
exact Or.inl ⟨z, a, pair_mem_graphRestriction.2 ⟨meetEntry, ZFSet.pair_mem_prod.2 ⟨hxCut, hyCut⟩⟩,
pair_mem_graphRestriction.2 ⟨born, hzCut⟩, earlier⟩
theorem layerWitness_spec (k : Nat) {N : ZFSet.{u}} :
births.layerWitness k ∈ M.sets ∧
GrowthLayerWitnessCode HQs Hrs Hμs B (completion.externalPointOrder P0 r0 μ0 A0)
(completion.externalPointMeet P0 r0 μ0 A0) births.birth (compressionStamp oldTimes k) N
(births.layerWitness k) :=
⟨births.layerWitness_ground data group oldAction pairing unions powers separation infinite hG hP0 k,
Or.inr (Or.inr ⟨_, _, _, _, _, _, rfl,
births.layerSeparatedCode data group oldAction pairing unions powers separation infinite hG hP0
historySpaces historyOrders historyMeets source k⟩)⟩
theorem cutoffLayerWitness_spec (k n : Nat) (before : k ≤ n) {N : ZFSet.{u}} :
births.layerWitness k ∈ M.sets ∧
GrowthLayerWitnessCode HQs Hrs Hμs (births.cutoff n) (births.cutoffOrder n)
(births.cutoffMeet n) (births.cutoffBirth n) (compressionStamp oldTimes k) N
(births.layerWitness k) :=
⟨births.layerWitness_ground data group oldAction pairing unions powers separation infinite hG hP0 k,
Or.inr (Or.inr ⟨_, _, _, _, _, _, rfl,
births.cutoffLayerSeparatedCode data group oldAction pairing unions powers separation infinite hG hP0
historySpaces historyOrders historyMeets source k n before⟩)⟩
end PartitionPilot.Forcing.GroundExternalBirthData
namespace PartitionPilot.Forcing.GroundExternalBirthData
open SetFormula SetRealization
universe u
variable {M : TransitiveGround.{u}} {initial : RecursiveStateData.{u}}
variable {I Sources Reps G m inv one T τ P0 r0 μ0 A0 oldTimes oldBirth : ZFSet.{u}}
variable {completion : GroundCompressionCompletion M initial I Sources Reps G m one T τ}
variable (births : GroundExternalBirthData M initial I Sources Reps G m one T τ P0 r0 μ0 A0 oldTimes oldBirth completion)
variable (data : GroundExternalGeometryInputs M initial I Sources Reps G m inv one T τ P0 r0 μ0 A0 completion)
variable (group : GroupCode G m inv one) (action : PosetActionCode G P0 m one r0 A0)
variable (pairing : Realize M.sets SetFormula.pairing Fin.elim0)
variable (unions : Realize M.sets SetFormula.union Fin.elim0)
variable (powers : Realize M.sets powerSet Fin.elim0) (separation : SeparationSchema M.sets)
variable (infinite : Realize M.sets infinity Fin.elim0) (hG : G ∈ M.sets) (hP0 : P0 ∈ M.sets)
variable {o : Ordinal.{u}} (limit : Order.IsSuccLimit o)
variable (omega : ZFSet.rank ZFSet.omega < o) (indices : ZFSet.rank I < o)
variable (points : ZFSet.rank P0 < o) (actors : ZFSet.rank G < o)
variable (completed : ZFSet.rank (completion.algebra.union.fields 0) < o)
variable (time : ZFSet.rank oldTimes < o)
include data group action pairing unions powers separation infinite hG hP0
limit omega indices points actors completed time
theorem layerWitness_rank_lt (k : Nat) : ZFSet.rank (births.layerWitness k) < o := by
have carrier := completion.externalPointCarrier_rank_lt_of_inputs limit r0 μ0 A0
omega indices points actors completed
have vertices := M.externalStarVertices_rank_lt_of_inputs limit r0 μ0 A0 m one
omega indices points actors
have fiber := (ZFSet.rank_mono (fun x hx => (births.mem_layerFiber k x).1 hx |>.1)).trans_lt carrier
have owners := (ZFSet.rank_mono (fun v hv => (births.layerOwners_cases (k := k) hv).1)).trans_lt vertices
have bound := M.groundRelations_rank_lt limit completed carrier
exact separatedLayerWitness_rank_lt limit owners
(rank_constantFamilyGraph_lt limit owners time)
(rank_functionGraph_lt limit
(births.layerMaps_spec data group action pairing unions powers separation infinite hG hP0 k).1
owners bound) bound
(rank_functionGraph_lt limit
(births.layerComponents_function data group action pairing unions powers separation infinite hG hP0 k)
fiber owners) fiber
variable {HQs Hrs Hμs HTime : ZFSet.{u}}
variable (historySpaces : FunctionGraphOn HTime HQs)
variable (historyOrders : FunctionGraphOn HTime Hrs)
variable (historyMeets : FunctionGraphOn HTime Hμs)
variable (source : ZFSet.pair oldTimes (completion.algebra.union.fields 0) ∈ HQs ∧
ZFSet.pair oldTimes (completion.algebra.union.fields 1) ∈ Hrs ∧
ZFSet.pair oldTimes (completion.algebra.union.fields 2) ∈ Hμs)
include historySpaces historyOrders historyMeets source
theorem ranked_layerWitness_spec (k : Nat) {N : ZFSet.{u}} :
births.layerWitness k ∈ M.sets ∧ ZFSet.rank (births.layerWitness k) < o ∧
GrowthLayerWitnessCode HQs Hrs Hμs (completion.externalPointCarrier P0 r0 μ0 A0)
(completion.externalPointOrder P0 r0 μ0 A0) (completion.externalPointMeet P0 r0 μ0 A0)
births.birth (compressionStamp oldTimes k) N (births.layerWitness k) := by
have code := births.layerWitness_spec data group action pairing unions powers separation infinite hG hP0
historySpaces historyOrders historyMeets source k (N := N)
exact ⟨code.1, births.layerWitness_rank_lt data group action pairing unions powers separation infinite
hG hP0 limit omega indices points actors completed time k, code.2⟩
theorem ranked_cutoffLayerWitness_spec (k n : Nat) (before : k ≤ n) {N : ZFSet.{u}} :
births.layerWitness k ∈ M.sets ∧ ZFSet.rank (births.layerWitness k) < o ∧
GrowthLayerWitnessCode HQs Hrs Hμs (births.cutoff n) (births.cutoffOrder n)
(births.cutoffMeet n) (births.cutoffBirth n) (compressionStamp oldTimes k) N
(births.layerWitness k) := by
have code := births.cutoffLayerWitness_spec data group action pairing unions powers separation infinite hG hP0
historySpaces historyOrders historyMeets source k n before (N := N)
exact ⟨code.1, births.layerWitness_rank_lt data group action pairing unions powers separation infinite
hG hP0 limit omega indices points actors completed time k, code.2⟩
end PartitionPilot.Forcing.GroundExternalBirthData
end OAI