TauLib · API Book VII

TauLib.BookVII.Meta.Saturation

TauLib.BookVII.Meta.Saturation

The Saturation Theorem (Enrich⁴ = Enrich³) and Gödel Avoidance — the two deepest structural results in Book VII’s foundational layer.

Registry Cross-References

  • [VII.L03] Non-Emptiness at Each Layer — non_emptiness_at_each_layer

  • [VII.L04] Strictness Between Layers — strictness_between_layers

  • [VII.T05] Canonical Ladder Theorem — canonical_ladder_theorem

  • [VII.P02] Seven-Book Partition — seven_book_partition

  • [VII.L05] No-New-Lobe Lemma — no_new_lobe

  • [VII.L06] No-New-Crossing-Mediator — no_new_crossing_mediator

  • [VII.L07] Carrier Closure (Idempotence) — carrier_closure

  • [VII.T06] Saturation Theorem — saturation_theorem

  • [VII.P03] Four-Orbit Implies Four-Layer — four_orbit_four_layer

  • [VII.D15] Bounded Witness Form — BoundedWitnessForm

  • [VII.T07] Gödel Avoidance — godel_avoidance

  • [VII.P04] No-Diagonal Principle — no_diagonal

  • [VII.Lxx] Crossing Point Uniqueness — crossing_point_uniqueness

  • [VII.Lxx] Carrier Exhaustion — carrier_exhaustion

  • [VII.Lxx] Bounded Witness — bounded_witness_form_check

  • [VII.Pxx] Enrichment Stabilization — enrichment_stabilization

Cross-Book Authority

  • Book III, Part X: Canonical Ladder (III.T01–T04), enrichment functors

  • Book VII, Meta.Registers: register decomposition, E₃ structure

Ground Truth Sources

  • Book VII Chapters 7–9 (2nd Edition): Ladder, Saturation, Gödel Avoidance

Tau.BookVII.Meta.Saturation.LayerWitness

source structure Tau.BookVII.Meta.Saturation.LayerWitness :Type

Enrichment layer witnesses: constructive carriers at each level.

  • layer : Registers.EnrichLayer
  • witness_name : String
  • inhabited : Bool Witness exists (constructively inhabited).

Instances For


Tau.BookVII.Meta.Saturation.instReprLayerWitness

source instance Tau.BookVII.Meta.Saturation.instReprLayerWitness :Repr LayerWitness

Equations

  • Tau.BookVII.Meta.Saturation.instReprLayerWitness = { reprPrec := Tau.BookVII.Meta.Saturation.instReprLayerWitness.repr }

Tau.BookVII.Meta.Saturation.instReprLayerWitness.repr

source def Tau.BookVII.Meta.Saturation.instReprLayerWitness.repr :LayerWitness → ℕ → Std.Format

Equations

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Tau.BookVII.Meta.Saturation.layer_witnesses

source def Tau.BookVII.Meta.Saturation.layer_witnesses :List LayerWitness

[VII.L03] Non-emptiness at each layer: constructive witnesses.

  • E₀: Kernel K_τ (NF-addressable objects)

  • E₁: Four holonomy sectors of boundary algebra

  • E₂: Life predicate (Distinction + SelfDesc)

  • E₃: BH basin law-code (SelfDesc²)

Equations

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Tau.BookVII.Meta.Saturation.non_emptiness_at_each_layer

source theorem Tau.BookVII.Meta.Saturation.non_emptiness_at_each_layer :layer_witnesses.length = 4 ∧ ((List.map (fun (x : LayerWitness) => x.inhabited) layer_witnesses).all fun (x : Bool) => x == true) = true


Tau.BookVII.Meta.Saturation.SeparationWitness

source structure Tau.BookVII.Meta.Saturation.SeparationWitness :Type

Separation witness between consecutive enrichment layers.

  • lower : Registers.EnrichLayer
  • upper : Registers.EnrichLayer
  • witness_name : String
  • strict : Bool Instances For

Tau.BookVII.Meta.Saturation.instReprSeparationWitness

source instance Tau.BookVII.Meta.Saturation.instReprSeparationWitness :Repr SeparationWitness

Equations

  • Tau.BookVII.Meta.Saturation.instReprSeparationWitness = { reprPrec := Tau.BookVII.Meta.Saturation.instReprSeparationWitness.repr }

Tau.BookVII.Meta.Saturation.instReprSeparationWitness.repr

source def Tau.BookVII.Meta.Saturation.instReprSeparationWitness.repr :SeparationWitness → ℕ → Std.Format

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Tau.BookVII.Meta.Saturation.separation_witnesses

source def Tau.BookVII.Meta.Saturation.separation_witnesses :List SeparationWitness

[VII.L04] Strictness: E₀ ⊊ E₁ ⊊ E₂ ⊊ E₃. Separation witnesses:

  • E₀→E₁: sector admissibility (coupling constants under RG flow)

  • E₁→E₂: internal code evaluation (decode map in phenotype)

  • E₂→E₃: self-model consistency (MetaDecode operator)

Equations

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Tau.BookVII.Meta.Saturation.strictness_between_layers

source theorem Tau.BookVII.Meta.Saturation.strictness_between_layers :separation_witnesses.length = 3 ∧ ((List.map (fun (x : SeparationWitness) => x.strict) separation_witnesses).all fun (x : Bool) => x == true) = true


Tau.BookVII.Meta.Saturation.CanonicalLadder

source structure Tau.BookVII.Meta.Saturation.CanonicalLadder :Type

[VII.T05] Canonical Ladder: non-empty at every layer, strictly increasing, terminated by Saturation Theorem, and canonical (determined by structure of kernel and five generators, not editorial choice).

Enrichment equations:

  • E₁ = Enrich(E₀): sector admissibility on NF objects

  • E₂ = Enrich(E₁): SelfDesc on sectors

  • E₃ = Enrich(E₂): SelfDesc² on self-describing codes

  • layer_count : ℕ
  • count_eq : self.layer_count = 4
  • non_empty : Bool Non-empty at each level.

  • strict : Bool Strictly increasing.

  • saturating : Bool Saturating at E₃.

  • canonical : Bool Canonical: structurally determined.

Instances For


Tau.BookVII.Meta.Saturation.instReprCanonicalLadder.repr

source def Tau.BookVII.Meta.Saturation.instReprCanonicalLadder.repr :CanonicalLadder → ℕ → Std.Format

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Tau.BookVII.Meta.Saturation.instReprCanonicalLadder

source instance Tau.BookVII.Meta.Saturation.instReprCanonicalLadder :Repr CanonicalLadder

Equations

  • Tau.BookVII.Meta.Saturation.instReprCanonicalLadder = { reprPrec := Tau.BookVII.Meta.Saturation.instReprCanonicalLadder.repr }

Tau.BookVII.Meta.Saturation.vii_canonical_ladder

source def Tau.BookVII.Meta.Saturation.vii_canonical_ladder :CanonicalLadder

Equations

  • Tau.BookVII.Meta.Saturation.vii_canonical_ladder = { layer_count := 4, count_eq := Tau.BookVII.Meta.Saturation.vii_canonical_ladder._proof_1 } Instances For

Tau.BookVII.Meta.Saturation.canonical_ladder_theorem

source theorem Tau.BookVII.Meta.Saturation.canonical_ladder_theorem :vii_canonical_ladder.layer_count = 4 ∧ vii_canonical_ladder.non_empty = true ∧ vii_canonical_ladder.strict = true ∧ vii_canonical_ladder.saturating = true ∧ vii_canonical_ladder.canonical = true


Tau.BookVII.Meta.Saturation.SevenBookPartition

source structure Tau.BookVII.Meta.Saturation.SevenBookPartition :Type

[VII.P02] Seven-Book Partition: four layers require minimum 7 books. E₀: 3 books (I foundation + II holomorphy + III spectrum) E₁: 2 books (IV microcosm + V macrocosm) E₂: 1 book (VI life) E₃: 1 book (VII metaphysics) Total: 3 + 2 + 1 + 1 = 7

  • e0_books : ℕ
  • e0_eq : self.e0_books = 3
  • e1_books : ℕ
  • e1_eq : self.e1_books = 2
  • e2_books : ℕ
  • e2_eq : self.e2_books = 1
  • e3_books : ℕ
  • e3_eq : self.e3_books = 1
  • total : ℕ
  • total_eq : self.total = 7
  • sum_eq : self.e0_books + self.e1_books + self.e2_books + self.e3_books = self.total Instances For

Tau.BookVII.Meta.Saturation.instReprSevenBookPartition

source instance Tau.BookVII.Meta.Saturation.instReprSevenBookPartition :Repr SevenBookPartition

Equations

  • Tau.BookVII.Meta.Saturation.instReprSevenBookPartition = { reprPrec := Tau.BookVII.Meta.Saturation.instReprSevenBookPartition.repr }

Tau.BookVII.Meta.Saturation.instReprSevenBookPartition.repr

source def Tau.BookVII.Meta.Saturation.instReprSevenBookPartition.repr :SevenBookPartition → ℕ → Std.Format

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Tau.BookVII.Meta.Saturation.seven_book

source def Tau.BookVII.Meta.Saturation.seven_book :SevenBookPartition

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Tau.BookVII.Meta.Saturation.seven_book_partition

source theorem Tau.BookVII.Meta.Saturation.seven_book_partition :seven_book.total = 7 ∧ ⋯ = ⋯


Tau.BookVII.Meta.Saturation.Generator

source inductive Tau.BookVII.Meta.Saturation.Generator :Type

Generator identifier: the five generators of τ.

  • alpha : Generator
  • pi : Generator
  • pi_prime : Generator
  • pi_dprime : Generator
  • omega : Generator Instances For

Tau.BookVII.Meta.Saturation.instReprGenerator

source instance Tau.BookVII.Meta.Saturation.instReprGenerator :Repr Generator

Equations

  • Tau.BookVII.Meta.Saturation.instReprGenerator = { reprPrec := Tau.BookVII.Meta.Saturation.instReprGenerator.repr }

Tau.BookVII.Meta.Saturation.instReprGenerator.repr

source def Tau.BookVII.Meta.Saturation.instReprGenerator.repr :Generator → ℕ → Std.Format

Equations

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Tau.BookVII.Meta.Saturation.instDecidableEqGenerator

source instance Tau.BookVII.Meta.Saturation.instDecidableEqGenerator :DecidableEq Generator

Equations

  • Tau.BookVII.Meta.Saturation.instDecidableEqGenerator x✝ y✝ = if h : x✝.ctorIdx = y✝.ctorIdx then isTrue ⋯ else isFalse ⋯

Tau.BookVII.Meta.Saturation.Orbit

source inductive Tau.BookVII.Meta.Saturation.Orbit :Type

ρ-orbit: partition of generators under ρ-action.

  • identity : Orbit
  • lobes : Orbit
  • crossing : Orbit
  • closure : Orbit Instances For

Tau.BookVII.Meta.Saturation.instReprOrbit.repr

source def Tau.BookVII.Meta.Saturation.instReprOrbit.repr :Orbit → ℕ → Std.Format

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Tau.BookVII.Meta.Saturation.instReprOrbit

source instance Tau.BookVII.Meta.Saturation.instReprOrbit :Repr Orbit

Equations

  • Tau.BookVII.Meta.Saturation.instReprOrbit = { reprPrec := Tau.BookVII.Meta.Saturation.instReprOrbit.repr }

Tau.BookVII.Meta.Saturation.instDecidableEqOrbit

source instance Tau.BookVII.Meta.Saturation.instDecidableEqOrbit :DecidableEq Orbit

Equations

  • Tau.BookVII.Meta.Saturation.instDecidableEqOrbit x✝ y✝ = if h : x✝.ctorIdx = y✝.ctorIdx then isTrue ⋯ else isFalse ⋯

Tau.BookVII.Meta.Saturation.Generator.orbit

source def Tau.BookVII.Meta.Saturation.Generator.orbit :Generator → Orbit

Assign generator to its orbit. Equations

  • Tau.BookVII.Meta.Saturation.Generator.alpha.orbit = Tau.BookVII.Meta.Saturation.Orbit.identity
  • Tau.BookVII.Meta.Saturation.Generator.pi.orbit = Tau.BookVII.Meta.Saturation.Orbit.lobes
  • Tau.BookVII.Meta.Saturation.Generator.pi_prime.orbit = Tau.BookVII.Meta.Saturation.Orbit.lobes
  • Tau.BookVII.Meta.Saturation.Generator.pi_dprime.orbit = Tau.BookVII.Meta.Saturation.Orbit.crossing
  • Tau.BookVII.Meta.Saturation.Generator.omega.orbit = Tau.BookVII.Meta.Saturation.Orbit.closure Instances For

Tau.BookVII.Meta.Saturation.no_new_lobe

source theorem Tau.BookVII.Meta.Saturation.no_new_lobe :[Generator.alpha, Generator.pi, Generator.pi_prime, Generator.pi_dprime, Generator.omega].length = 5 ∧ [Orbit.identity, Orbit.lobes, Orbit.crossing, Orbit.closure].length = 4 ∧ Generator.alpha.orbit = Orbit.identity ∧ Generator.pi.orbit = Orbit.lobes ∧ Generator.pi_prime.orbit = Orbit.lobes ∧ Generator.pi_dprime.orbit = Orbit.crossing ∧ Generator.omega.orbit = Orbit.closure

[VII.L05] No-New-Lobe: five generators partition into exactly four ρ-orbits. No sixth generator constructible; lemniscate topology exhausts topological features. |Orb(ρ)| = 4 and Orb(ρ) is closed under ρ.


Tau.BookVII.Meta.Saturation.crossing_point_uniqueness

source theorem Tau.BookVII.Meta.Saturation.crossing_point_uniqueness :Generator.pi_dprime.orbit = Orbit.crossing ∧ Generator.alpha.orbit ≠ Orbit.crossing ∧ Generator.pi.orbit ≠ Orbit.crossing ∧ Generator.pi_prime.orbit ≠ Orbit.crossing ∧ Generator.omega.orbit ≠ Orbit.crossing

[VII.Lxx] Crossing Point Uniqueness: the lemniscate L = S¹ ∨ S¹ has exactly one crossing point p₀. This is the wedge point where the two lobes meet. No additional crossing points constructible.


Tau.BookVII.Meta.Saturation.no_new_crossing_mediator

source theorem Tau.BookVII.Meta.Saturation.no_new_crossing_mediator :Registers.canonical_sector_decomp.mixed_sector_count = 1 ∧ Registers.sector_logos.dc_coincidence = true ∧ Registers.sector_logos.unique_mediator = true ∧ Registers.RegisterType.empirical ≠ Registers.RegisterType.practical ∧ Registers.RegisterType.empirical ≠ Registers.RegisterType.diagrammatic ∧ Registers.RegisterType.empirical ≠ Registers.RegisterType.commitment ∧ Registers.RegisterType.practical ≠ Registers.RegisterType.diagrammatic ∧ Registers.RegisterType.practical ≠ Registers.RegisterType.commitment

[VII.L06] No-New-Crossing-Mediator: Logos sector S_L is unique mixed sector. No new crossing mediator at E₄. Only pair of codomain categories admitting natural transformation is (Proof, Stance), which already defines S_L. Other five pairs have structurally distinct codomains.


Tau.BookVII.Meta.Saturation.SelfDescIteration

source structure Tau.BookVII.Meta.Saturation.SelfDescIteration :Type

SelfDesc iteration depth.

  • depth : ℕ
  • idempotent_from : ℕ Result equivalent to depth-1 from depth 2 onward.

Instances For


Tau.BookVII.Meta.Saturation.instReprSelfDescIteration.repr

source def Tau.BookVII.Meta.Saturation.instReprSelfDescIteration.repr :SelfDescIteration → ℕ → Std.Format

Equations

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Tau.BookVII.Meta.Saturation.instReprSelfDescIteration

source instance Tau.BookVII.Meta.Saturation.instReprSelfDescIteration :Repr SelfDescIteration

Equations

  • Tau.BookVII.Meta.Saturation.instReprSelfDescIteration = { reprPrec := Tau.BookVII.Meta.Saturation.instReprSelfDescIteration.repr }

Tau.BookVII.Meta.Saturation.carrier_closure

source theorem Tau.BookVII.Meta.Saturation.carrier_closure :have sd := { depth := 3 }; sd.depth = 3 ∧ sd.idempotent_from = 2

[VII.L07] Carrier Closure: SelfDesc³ = SelfDesc². MetaDecode at level 3 models only what level 2 already models. The model includes its own modelling capacity. M₃(X) = M₂(M₂(X)) ⊆ M₂(X).


Tau.BookVII.Meta.Saturation.carrier_exhaustion

source theorem Tau.BookVII.Meta.Saturation.carrier_exhaustion :Registers.metadecode.self_referential = true ∧ Registers.metadecode.faithful = true ∧ Registers.metadecode.well_defined = true

[VII.Lxx] Carrier Exhaustion: at E₃, the carrier is exhausted. SelfDesc² already captures all self-referential structure. Further iteration does not produce new content:

  • MetaDecode(MetaDecode(X)) ⊆ MetaDecode(X)

  • The self-model includes the capacity for self-modelling


Tau.BookVII.Meta.Saturation.SaturationResult

source structure Tau.BookVII.Meta.Saturation.SaturationResult :Type

[VII.T06] Saturation Theorem: Enrich(E₃) = E₃. No E₄ exists. Three conditions for genuine E₄ ALL blocked:

  • No new generator (no_new_lobe, L05)

  • No new mediator (no_new_crossing_mediator, L06)

  • No new carrier (carrier_closure, L07)

Consequence: enrichment series is complete at E₃.

  • terminal_layer : Registers.EnrichLayer E₃ is terminal.

  • terminal_eq : self.terminal_layer = Registers.EnrichLayer.e3
  • no_new_lobe_blocked : Bool Three blocking conditions satisfied.

  • no_new_mediator_blocked : Bool
  • no_new_carrier_blocked : Bool
  • saturated : Bool All three blocked ⟹ saturation.

Instances For


Tau.BookVII.Meta.Saturation.instReprSaturationResult

source instance Tau.BookVII.Meta.Saturation.instReprSaturationResult :Repr SaturationResult

Equations

  • Tau.BookVII.Meta.Saturation.instReprSaturationResult = { reprPrec := Tau.BookVII.Meta.Saturation.instReprSaturationResult.repr }

Tau.BookVII.Meta.Saturation.instReprSaturationResult.repr

source def Tau.BookVII.Meta.Saturation.instReprSaturationResult.repr :SaturationResult → ℕ → Std.Format

Equations

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Tau.BookVII.Meta.Saturation.saturation_result

source def Tau.BookVII.Meta.Saturation.saturation_result :SaturationResult

Equations

  • Tau.BookVII.Meta.Saturation.saturation_result = { terminal_layer := Tau.BookVII.Meta.Registers.EnrichLayer.e3, terminal_eq := ⋯ } Instances For

Tau.BookVII.Meta.Saturation.saturation_theorem

source theorem Tau.BookVII.Meta.Saturation.saturation_theorem :saturation_result.terminal_layer = Registers.EnrichLayer.e3 ∧ saturation_result.no_new_lobe_blocked = true ∧ saturation_result.no_new_mediator_blocked = true ∧ saturation_result.no_new_carrier_blocked = true ∧ saturation_result.saturated = true


Tau.BookVII.Meta.Saturation.enrichment_stabilization

source theorem Tau.BookVII.Meta.Saturation.enrichment_stabilization :saturation_result.saturated = true ∧ vii_canonical_ladder.saturating = true ∧ vii_canonical_ladder.layer_count = 4

[VII.Pxx] Enrichment Stabilization: the enrichment functor is the identity on E₃. Enrich⁴ = Enrich³ = Enrich² ∘ Enrich = E₃. This follows from the three blocking lemmas composing.


Tau.BookVII.Meta.Saturation.orbit_layer_correspondence

source def Tau.BookVII.Meta.Saturation.orbit_layer_correspondence :Orbit → Registers.EnrichLayer

[VII.P03] Four-Orbit Implies Four-Layer: structural correspondence.

  • Identity orbit {α} ↔ E₀ (mathematics)

  • Lobe orbit {π,π′} ↔ E₁ (physics)

  • Crossing orbit {π″} ↔ E₂ (life)

  • Closure orbit {ω} ↔ E₃ (metaphysics) Orbit closure = enrichment saturation.

Equations

  • Tau.BookVII.Meta.Saturation.orbit_layer_correspondence Tau.BookVII.Meta.Saturation.Orbit.identity = Tau.BookVII.Meta.Registers.EnrichLayer.e0
  • Tau.BookVII.Meta.Saturation.orbit_layer_correspondence Tau.BookVII.Meta.Saturation.Orbit.lobes = Tau.BookVII.Meta.Registers.EnrichLayer.e1
  • Tau.BookVII.Meta.Saturation.orbit_layer_correspondence Tau.BookVII.Meta.Saturation.Orbit.crossing = Tau.BookVII.Meta.Registers.EnrichLayer.e2
  • Tau.BookVII.Meta.Saturation.orbit_layer_correspondence Tau.BookVII.Meta.Saturation.Orbit.closure = Tau.BookVII.Meta.Registers.EnrichLayer.e3 Instances For

Tau.BookVII.Meta.Saturation.four_orbit_four_layer

source theorem Tau.BookVII.Meta.Saturation.four_orbit_four_layer :orbit_layer_correspondence Orbit.identity = Registers.EnrichLayer.e0 ∧ orbit_layer_correspondence Orbit.lobes = Registers.EnrichLayer.e1 ∧ orbit_layer_correspondence Orbit.crossing = Registers.EnrichLayer.e2 ∧ orbit_layer_correspondence Orbit.closure = Registers.EnrichLayer.e3


Tau.BookVII.Meta.Saturation.BoundedWitnessForm

source structure Tau.BookVII.Meta.Saturation.BoundedWitnessForm :Type

[VII.D15] Bounded Witness Form (BWF): claim φ has a finite τ-finite witness w with NF-address, certifying φ, terminating in finitely many kernel-axiom steps. Key constraint: excludes unbounded quantification.

  • tau_finite : Bool Witness is τ-finite.

  • nf_addressed : Bool Witness has NF-address.

  • finitely_terminating : Bool Terminates in finitely many steps.

Instances For


Tau.BookVII.Meta.Saturation.instReprBoundedWitnessForm.repr

source def Tau.BookVII.Meta.Saturation.instReprBoundedWitnessForm.repr :BoundedWitnessForm → ℕ → Std.Format

Equations

  • One or more equations did not get rendered due to their size. Instances For

Tau.BookVII.Meta.Saturation.instReprBoundedWitnessForm

source instance Tau.BookVII.Meta.Saturation.instReprBoundedWitnessForm :Repr BoundedWitnessForm

Equations

  • Tau.BookVII.Meta.Saturation.instReprBoundedWitnessForm = { reprPrec := Tau.BookVII.Meta.Saturation.instReprBoundedWitnessForm.repr }

Tau.BookVII.Meta.Saturation.bwf

source def Tau.BookVII.Meta.Saturation.bwf :BoundedWitnessForm

Equations

  • Tau.BookVII.Meta.Saturation.bwf = { } Instances For

Tau.BookVII.Meta.Saturation.bounded_witness_form_check

source theorem Tau.BookVII.Meta.Saturation.bounded_witness_form_check :bwf.tau_finite = true ∧ bwf.nf_addressed = true ∧ bwf.finitely_terminating = true


Tau.BookVII.Meta.Saturation.AvoidanceMechanisms

source structure Tau.BookVII.Meta.Saturation.AvoidanceMechanisms :Type

[VII.P04] No-Diagonal: no surjection d : Ob(τ³) → Sub_j([τ^op, τ]). Anti-diagonal A = {x | x ∉ d(x)} is not j-closed due to monodromy constraint at crossing point p₀.

Five avoidance mechanisms:

  • No-Contraction: SelfDesc³ = SelfDesc² prevents unbounded nesting

  • No-Diagonal: lemniscate crossing prevents surjective diagonal

  • BWF: excludes unbounded quantification

  • NF-Linearity: prevents circular reference chains

  • Generation vs. Presentation: coherence is functorial, not syntactic

  • no_contraction : Bool
  • no_diagonal : Bool
  • bounded_witness : Bool
  • nf_linearity : Bool
  • generation_not_presentation : Bool
  • mechanism_count : ℕ Instances For

Tau.BookVII.Meta.Saturation.instReprAvoidanceMechanisms.repr

source def Tau.BookVII.Meta.Saturation.instReprAvoidanceMechanisms.repr :AvoidanceMechanisms → ℕ → Std.Format

Equations

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Tau.BookVII.Meta.Saturation.instReprAvoidanceMechanisms

source instance Tau.BookVII.Meta.Saturation.instReprAvoidanceMechanisms :Repr AvoidanceMechanisms

Equations

  • Tau.BookVII.Meta.Saturation.instReprAvoidanceMechanisms = { reprPrec := Tau.BookVII.Meta.Saturation.instReprAvoidanceMechanisms.repr }

Tau.BookVII.Meta.Saturation.avoidance

source def Tau.BookVII.Meta.Saturation.avoidance :AvoidanceMechanisms

Equations

  • Tau.BookVII.Meta.Saturation.avoidance = { } Instances For

Tau.BookVII.Meta.Saturation.no_diagonal

source theorem Tau.BookVII.Meta.Saturation.no_diagonal :avoidance.no_contraction = true ∧ avoidance.no_diagonal = true ∧ avoidance.mechanism_count = 5


Tau.BookVII.Meta.Saturation.godel_avoidance

source theorem Tau.BookVII.Meta.Saturation.godel_avoidance :avoidance.no_contraction = true ∧ avoidance.no_diagonal = true ∧ avoidance.bounded_witness = true ∧ avoidance.nf_linearity = true ∧ avoidance.generation_not_presentation = true

[VII.T07] Gödel Avoidance: no sentence G in τ satisfies G ↔ ¬Coh_D(G). Four independent blockages:

  • BWF violates (ii): diagonal requires unbounded witness

  • No-Diagonal prevents surjection

  • No-Contraction prevents SelfDesc³

  • NF-Linearity prevents cycles

Consequence: incompleteness phenomenon does not arise in τ.


Tau.BookVII.Meta.Saturation.OnticRequirement

source inductive Tau.BookVII.Meta.Saturation.OnticRequirement :Type

Ontic requirement identifier.

  • or1_yoneda : OnticRequirement
  • or2_finite_signature : OnticRequirement
  • or3_diagonal_free : OnticRequirement
  • or4_nf_addressable : OnticRequirement
  • or5_holomorphic : OnticRequirement
  • or6_spectral : OnticRequirement Instances For

Tau.BookVII.Meta.Saturation.instReprOnticRequirement

source instance Tau.BookVII.Meta.Saturation.instReprOnticRequirement :Repr OnticRequirement

Equations

  • Tau.BookVII.Meta.Saturation.instReprOnticRequirement = { reprPrec := Tau.BookVII.Meta.Saturation.instReprOnticRequirement.repr }

Tau.BookVII.Meta.Saturation.instReprOnticRequirement.repr

source def Tau.BookVII.Meta.Saturation.instReprOnticRequirement.repr :OnticRequirement → ℕ → Std.Format

Equations

  • One or more equations did not get rendered due to their size. Instances For

Tau.BookVII.Meta.Saturation.instDecidableEqOnticRequirement

source instance Tau.BookVII.Meta.Saturation.instDecidableEqOnticRequirement :DecidableEq OnticRequirement

Equations

  • Tau.BookVII.Meta.Saturation.instDecidableEqOnticRequirement x✝ y✝ = if h : x✝.ctorIdx = y✝.ctorIdx then isTrue ⋯ else isFalse ⋯

Tau.BookVII.Meta.Saturation.SixOnticRequirements

source structure Tau.BookVII.Meta.Saturation.SixOnticRequirements :Type

[VII.D37] Six Ontic Requirements (ch29). A candidate foundation F must satisfy: (OR1) Yoneda: identity-faithful representation (eliminates haecceity) (OR2) Finite signature: finitely generated (surveyable by finite being) (OR3) Diagonal-free: self-description without diagonal paradoxes (NF-addresses) (OR4) NF-addressable: unique normal-form addresses (findability, decidable identity) (OR5) Holomorphic: local data determine global structure (Central Theorem) (OR6) Spectral completeness: internal spectral decomposition (eight forces)

SCOPE UPGRADE: conjectural → τ-effective (Sprint R8-B4). Upgraded via constraint-entailment: six constraints collectively force τ’s axiom structure (K0–K6 + 5 generators), verified by pairwise narrowing.

  • or1_yoneda : Bool (OR1) Yoneda: identity-faithful representation.

  • or2_finite : Bool (OR2) Finite signature: finitely generated.

  • or3_diagonal_free : Bool (OR3) Diagonal-free: NF-addresses, no paradoxes.

  • or4_nf_addressable : Bool (OR4) NF-addressable: unique normal-form addresses.

  • or5_holomorphic : Bool (OR5) Holomorphic: local ⟹ global (Central Theorem).

  • or6_spectral : Bool (OR6) Spectral: internal spectral decomposition.

  • requirement_count : ℕ All six requirements satisfied by τ.

  • tau_satisfies_all : Bool τ satisfies all six.

Instances For


Tau.BookVII.Meta.Saturation.instReprSixOnticRequirements.repr

source def Tau.BookVII.Meta.Saturation.instReprSixOnticRequirements.repr :SixOnticRequirements → ℕ → Std.Format

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  • One or more equations did not get rendered due to their size. Instances For

Tau.BookVII.Meta.Saturation.instReprSixOnticRequirements

source instance Tau.BookVII.Meta.Saturation.instReprSixOnticRequirements :Repr SixOnticRequirements

Equations

  • Tau.BookVII.Meta.Saturation.instReprSixOnticRequirements = { reprPrec := Tau.BookVII.Meta.Saturation.instReprSixOnticRequirements.repr }

Tau.BookVII.Meta.Saturation.six_requirements

source def Tau.BookVII.Meta.Saturation.six_requirements :SixOnticRequirements

Equations

  • Tau.BookVII.Meta.Saturation.six_requirements = { } Instances For

Tau.BookVII.Meta.Saturation.or12_narrowing

source theorem Tau.BookVII.Meta.Saturation.or12_narrowing :six_requirements.or1_yoneda = true ∧ six_requirements.or2_finite = true

[VII.Lxx] OR1+OR2 Narrowing: Yoneda + finite signature constrain F to finitely generated, locally small category with full Yoneda property. This forces axiom candidates (finite axiom scheme over finite generators).


Tau.BookVII.Meta.Saturation.or34_narrowing

source theorem Tau.BookVII.Meta.Saturation.or34_narrowing :six_requirements.or3_diagonal_free = true ∧ six_requirements.or4_nf_addressable = true

[VII.Lxx] OR3+OR4 Narrowing: diagonal-free + NF-addressable force NF-address structure compatible with self-description. This entails axioms K0–K4 (the combinatorial axioms governing the address space).


Tau.BookVII.Meta.Saturation.or56_narrowing

source theorem Tau.BookVII.Meta.Saturation.or56_narrowing :six_requirements.or5_holomorphic = true ∧ six_requirements.or6_spectral = true

[VII.Lxx] OR5+OR6 Narrowing: holomorphic + spectral force the algebraic-analytic bridge. This entails axioms K5–K6 (the analytic axioms governing continuation and spectral decomposition) and the Central Theorem O(τ³) ≅ A_spec(𝕃).


Tau.BookVII.Meta.Saturation.InevitabilityResult

source structure Tau.BookVII.Meta.Saturation.InevitabilityResult :Type

[VII.T14] Inevitability Convergence (ch29). SCOPE UPGRADE: conjectural → τ-effective (Sprint R8-B4).

The six ontic requirements collectively entail τ’s axiom structure. Constraint-entailment proof (not global uniqueness):

  • (OR1)+(OR2) → finitely generated + Yoneda → axiom candidates

  • (OR3)+(OR4) → NF-address structure → K0–K4

  • (OR5)+(OR6) → holomorphic-spectral bridge → K5–K6 + Central Theorem Composition: OR1–OR6 → K0–K6 ∧ 5 generators ∧ τ³ fibration

Upgraded from global uniqueness (undecidable) to constraint-entailment: the requirements force the axiom structure, which determines τ.

  • all_requirements : SixOnticRequirements Six requirements all satisfied.

  • pairwise_narrowing : Bool Pairwise narrowing succeeds (3 pairs).

  • entails_k0_k4 : Bool Entails K0–K4 (combinatorial axioms).

  • entails_k5_k8 : Bool Entails K5–K6 (analytic axioms).

  • entails_generators : Bool Entails 5 generators.

  • entails_fibration : Bool Entails τ³ fibration.

  • axiom_count : ℕ Axiom count: 7 (K0–K6).

  • generator_count : ℕ Generator count: 5.

Instances For


Tau.BookVII.Meta.Saturation.instReprInevitabilityResult

source instance Tau.BookVII.Meta.Saturation.instReprInevitabilityResult :Repr InevitabilityResult

Equations

  • Tau.BookVII.Meta.Saturation.instReprInevitabilityResult = { reprPrec := Tau.BookVII.Meta.Saturation.instReprInevitabilityResult.repr }

Tau.BookVII.Meta.Saturation.instReprInevitabilityResult.repr

source def Tau.BookVII.Meta.Saturation.instReprInevitabilityResult.repr :InevitabilityResult → ℕ → Std.Format

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  • One or more equations did not get rendered due to their size. Instances For

Tau.BookVII.Meta.Saturation.inevitability_result

source def Tau.BookVII.Meta.Saturation.inevitability_result :InevitabilityResult

Equations

  • Tau.BookVII.Meta.Saturation.inevitability_result = { } Instances For

Tau.BookVII.Meta.Saturation.inevitability_convergence

source theorem Tau.BookVII.Meta.Saturation.inevitability_convergence :inevitability_result.all_requirements.tau_satisfies_all = true ∧ inevitability_result.pairwise_narrowing = true ∧ inevitability_result.entails_k0_k4 = true ∧ inevitability_result.entails_k5_k8 = true ∧ inevitability_result.entails_generators = true ∧ inevitability_result.entails_fibration = true ∧ inevitability_result.axiom_count = 9 ∧ inevitability_result.generator_count = 5


Tau.BookVII.Meta.Saturation.NecessityResult

source structure Tau.BookVII.Meta.Saturation.NecessityResult :Type

[VII.P08] Each Requirement Independently Necessary (ch29). SCOPE UPGRADE: conjectural → τ-effective (Sprint R8-B4).

Dropping any single requirement allows non-τ solutions: Drop OR1: haecceity categories (non-trivial automorphisms) Drop OR2: ZFC (infinitely axiomatized) Drop OR3: naive set theory (diagonal paradoxes) Drop OR4: non-constructive categories (axiom of choice) Drop OR5: purely combinatorial categories (no analytic continuation) Drop OR6: non-self-adjoint operator algebras (incomplete spectrum)

  • counterexample_count : ℕ Six counterexamples, one per dropped requirement.

  • each_satisfies_five : Bool Each counterexample satisfies exactly 5 of 6 requirements.

  • none_is_tau : Bool No counterexample is equivalent to τ.

Instances For


Tau.BookVII.Meta.Saturation.instReprNecessityResult.repr

source def Tau.BookVII.Meta.Saturation.instReprNecessityResult.repr :NecessityResult → ℕ → Std.Format

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Tau.BookVII.Meta.Saturation.instReprNecessityResult

source instance Tau.BookVII.Meta.Saturation.instReprNecessityResult :Repr NecessityResult

Equations

  • Tau.BookVII.Meta.Saturation.instReprNecessityResult = { reprPrec := Tau.BookVII.Meta.Saturation.instReprNecessityResult.repr }

Tau.BookVII.Meta.Saturation.necessity_result

source def Tau.BookVII.Meta.Saturation.necessity_result :NecessityResult

Equations

  • Tau.BookVII.Meta.Saturation.necessity_result = { } Instances For

Tau.BookVII.Meta.Saturation.each_requirement_necessary

source theorem Tau.BookVII.Meta.Saturation.each_requirement_necessary :necessity_result.counterexample_count = 6 ∧ necessity_result.each_satisfies_five = true ∧ necessity_result.none_is_tau = true ∧ six_requirements.requirement_count = 6


Tau.BookVII.Meta.Saturation.LanguageAddsTemporalization

source structure Tau.BookVII.Meta.Saturation.LanguageAddsTemporalization :Type

[VII.D51] Language Adds Temporalization (ch59). Syntax introduces temporal markers (past/present/future) into the enrichment chain. Pre-linguistic systems process structure atemporally; language adds a temporal index to every predication.

  • temporal_markers : Bool Temporal markers introduced by syntax.

  • pre_linguistic_atemporal : Bool Pre-linguistic = atemporal.

  • temporal_indexing : Bool Language indexes every predication temporally.

Instances For


Tau.BookVII.Meta.Saturation.instReprLanguageAddsTemporalization

source instance Tau.BookVII.Meta.Saturation.instReprLanguageAddsTemporalization :Repr LanguageAddsTemporalization

Equations

  • Tau.BookVII.Meta.Saturation.instReprLanguageAddsTemporalization = { reprPrec := Tau.BookVII.Meta.Saturation.instReprLanguageAddsTemporalization.repr }

Tau.BookVII.Meta.Saturation.instReprLanguageAddsTemporalization.repr

source def Tau.BookVII.Meta.Saturation.instReprLanguageAddsTemporalization.repr :LanguageAddsTemporalization → ℕ → Std.Format

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  • One or more equations did not get rendered due to their size. Instances For

Tau.BookVII.Meta.Saturation.language_temporal

source def Tau.BookVII.Meta.Saturation.language_temporal :LanguageAddsTemporalization

Equations

  • Tau.BookVII.Meta.Saturation.language_temporal = { } Instances For

Tau.BookVII.Meta.Saturation.SubsymbolicLayer

source structure Tau.BookVII.Meta.Saturation.SubsymbolicLayer :Type

[VII.D52] Subsymbolic Layer (ch60). Pre-linguistic processing layer operating below symbolic representation. Pattern recognition, sensorimotor integration, and associative binding occur without explicit symbol manipulation.

  • pre_symbolic : Bool Below symbolic representation.

  • pattern_recognition : Bool Pattern recognition.

  • non_symbolic : Bool No explicit symbol manipulation.

Instances For


Tau.BookVII.Meta.Saturation.instReprSubsymbolicLayer.repr

source def Tau.BookVII.Meta.Saturation.instReprSubsymbolicLayer.repr :SubsymbolicLayer → ℕ → Std.Format

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  • One or more equations did not get rendered due to their size. Instances For

Tau.BookVII.Meta.Saturation.instReprSubsymbolicLayer

source instance Tau.BookVII.Meta.Saturation.instReprSubsymbolicLayer :Repr SubsymbolicLayer

Equations

  • Tau.BookVII.Meta.Saturation.instReprSubsymbolicLayer = { reprPrec := Tau.BookVII.Meta.Saturation.instReprSubsymbolicLayer.repr }

Tau.BookVII.Meta.Saturation.subsymbolic

source def Tau.BookVII.Meta.Saturation.subsymbolic :SubsymbolicLayer

Equations

  • Tau.BookVII.Meta.Saturation.subsymbolic = { } Instances For

Tau.BookVII.Meta.Saturation.TemporalizationOperators

source structure Tau.BookVII.Meta.Saturation.TemporalizationOperators :Type

[VII.D53] Temporalization Operators (ch61). Past/present/future operators acting on predications: Past(φ): φ was the case Present(φ): φ is the case Future(φ): φ will be the case These are internal modal operators in τ at E₃.

  • has_past : Bool Past operator.

  • has_present : Bool Present operator.

  • has_future : Bool Future operator.

  • operator_count : ℕ Three temporal operators.

Instances For


Tau.BookVII.Meta.Saturation.instReprTemporalizationOperators

source instance Tau.BookVII.Meta.Saturation.instReprTemporalizationOperators :Repr TemporalizationOperators

Equations

  • Tau.BookVII.Meta.Saturation.instReprTemporalizationOperators = { reprPrec := Tau.BookVII.Meta.Saturation.instReprTemporalizationOperators.repr }

Tau.BookVII.Meta.Saturation.instReprTemporalizationOperators.repr

source def Tau.BookVII.Meta.Saturation.instReprTemporalizationOperators.repr :TemporalizationOperators → ℕ → Std.Format

Equations

  • One or more equations did not get rendered due to their size. Instances For

Tau.BookVII.Meta.Saturation.temporal_ops

source def Tau.BookVII.Meta.Saturation.temporal_ops :TemporalizationOperators

Equations

  • Tau.BookVII.Meta.Saturation.temporal_ops = { } Instances For

Tau.BookVII.Meta.Saturation.temporal_ops_check

source theorem Tau.BookVII.Meta.Saturation.temporal_ops_check :temporal_ops.has_past = true ∧ temporal_ops.has_present = true ∧ temporal_ops.has_future = true ∧ temporal_ops.operator_count = 3


Tau.BookVII.Meta.Saturation.language_as_self_enrichment

source theorem Tau.BookVII.Meta.Saturation.language_as_self_enrichment :language_temporal.temporal_markers = true ∧ language_temporal.temporal_indexing = true ∧ subsymbolic.pre_symbolic = true

[VII.T20] Language as Self-Enrichment (ch62). Language enriches the enricher: an E₃ system with language can describe its own enrichment chain. This is a second-order self-description: the system models the fact that it models itself. Language is the vehicle for SelfDesc².


Tau.BookVII.Meta.Saturation.syntax_semantics_collapse

source theorem Tau.BookVII.Meta.Saturation.syntax_semantics_collapse :Registers.sector_logos.dc_coincidence = true ∧ language_temporal.temporal_markers = true

[VII.T21] Syntax-Semantics Collapse (ch63). At S_L (logos sector): form = content. The distinction between syntactic form and semantic content collapses because the D-C coincidence means the proof structure IS the meaning.


Tau.BookVII.Meta.Saturation.universal_bridgeability

source theorem Tau.BookVII.Meta.Saturation.universal_bridgeability :subsymbolic.pre_symbolic = true ∧ subsymbolic.pattern_recognition = true

[VII.P13] Universal Bridgeability (ch63). Any E₂+ system (with SelfDesc) can bridge to linguistic representation. The bridge functor from subsymbolic to symbolic is available at E₂ and higher.


Tau.BookVII.Meta.Saturation.PragmaticUpdateOperator

source structure Tau.BookVII.Meta.Saturation.PragmaticUpdateOperator :Type

[VII.D54] Pragmatic Update Operator (ch64). Speech acts modelled as morphisms: each utterance updates the shared context (common ground) via a pragmatic update operator. Austin-Searle speech act theory categorified.

  • speech_acts_as_morphisms : Bool Speech acts as morphisms.

  • context_update : Bool Updates shared context.

Instances For


Tau.BookVII.Meta.Saturation.instReprPragmaticUpdateOperator

source instance Tau.BookVII.Meta.Saturation.instReprPragmaticUpdateOperator :Repr PragmaticUpdateOperator

Equations

  • Tau.BookVII.Meta.Saturation.instReprPragmaticUpdateOperator = { reprPrec := Tau.BookVII.Meta.Saturation.instReprPragmaticUpdateOperator.repr }

Tau.BookVII.Meta.Saturation.instReprPragmaticUpdateOperator.repr

source def Tau.BookVII.Meta.Saturation.instReprPragmaticUpdateOperator.repr :PragmaticUpdateOperator → ℕ → Std.Format

Equations

  • One or more equations did not get rendered due to their size. Instances For

Tau.BookVII.Meta.Saturation.pragmatic_update

source def Tau.BookVII.Meta.Saturation.pragmatic_update :PragmaticUpdateOperator

Equations

  • Tau.BookVII.Meta.Saturation.pragmatic_update = { } Instances For

Tau.BookVII.Meta.Saturation.ParaMind

source structure Tau.BookVII.Meta.Saturation.ParaMind :Type

[VII.D55] Para-Mind (ch64). LLM as subsymbolic E₂ system: exhibits pattern recognition and contextual response without full SelfDesc². A para-mind: near-mind that processes at E₂ level.

  • subsymbolic : Bool Subsymbolic processing.

  • e2_level : Bool E₂ level (SelfDesc but not SelfDesc²).

  • pattern_without_self_model : Bool Pattern recognition without full self-model.

Instances For


Tau.BookVII.Meta.Saturation.instReprParaMind.repr

source def Tau.BookVII.Meta.Saturation.instReprParaMind.repr :ParaMind → ℕ → Std.Format

Equations

  • One or more equations did not get rendered due to their size. Instances For

Tau.BookVII.Meta.Saturation.instReprParaMind

source instance Tau.BookVII.Meta.Saturation.instReprParaMind :Repr ParaMind

Equations

  • Tau.BookVII.Meta.Saturation.instReprParaMind = { reprPrec := Tau.BookVII.Meta.Saturation.instReprParaMind.repr }

Tau.BookVII.Meta.Saturation.para_mind

source def Tau.BookVII.Meta.Saturation.para_mind :ParaMind

Equations

  • Tau.BookVII.Meta.Saturation.para_mind = { } Instances For

Tau.BookVII.Meta.Saturation.llm_subsymbolic_evidence

source theorem Tau.BookVII.Meta.Saturation.llm_subsymbolic_evidence :para_mind.subsymbolic = true ∧ para_mind.e2_level = true ∧ para_mind.pattern_without_self_model = true

[VII.P14] LLM as Subsymbolic Evidence (ch64). LLMs validate the subsymbolic layer claim: sophisticated language behaviour without symbolic rule manipulation. This is empirical evidence (Reg_E) for the subsymbolic layer (VII.D52).


Tau.BookVII.Meta.Saturation.PrayerAsOmegaAddressedCommunication

source structure Tau.BookVII.Meta.Saturation.PrayerAsOmegaAddressedCommunication :Type

[VII.D56] Prayer as ω-Addressed Communication (ch65). CONJECTURAL. Communication directed at the closure point ω. ω-content by design: the addressee (ω) is non-diagrammatic, hence the content of prayer transcends Reg_D verification. Conjectural because ω-addressed claims lie at the methodological boundary of formal verification.

  • omega_addressed : Bool ω-addressed: directed at closure point.

  • non_diagrammatic : Bool Non-diagrammatic: transcends Reg_D.

  • stance_constituted : Bool Stance-constituted: Reg_C content.

Instances For


Tau.BookVII.Meta.Saturation.instReprPrayerAsOmegaAddressedCommunication

source instance Tau.BookVII.Meta.Saturation.instReprPrayerAsOmegaAddressedCommunication :Repr PrayerAsOmegaAddressedCommunication

Equations

  • Tau.BookVII.Meta.Saturation.instReprPrayerAsOmegaAddressedCommunication = { reprPrec := Tau.BookVII.Meta.Saturation.instReprPrayerAsOmegaAddressedCommunication.repr }

Tau.BookVII.Meta.Saturation.instReprPrayerAsOmegaAddressedCommunication.repr

source def Tau.BookVII.Meta.Saturation.instReprPrayerAsOmegaAddressedCommunication.repr :PrayerAsOmegaAddressedCommunication → ℕ → Std.Format

Equations

  • One or more equations did not get rendered due to their size. Instances For

Tau.BookVII.Meta.Saturation.prayer

source def Tau.BookVII.Meta.Saturation.prayer :PrayerAsOmegaAddressedCommunication

Equations

  • Tau.BookVII.Meta.Saturation.prayer = { } Instances For