Bridge functor axiom B
The Bridge functor axiom (III.D71) is the first of three custom axioms in TauLib beyond Mathlib's trusted base. It asserts the existence of a structure-preserving functor betwee…
MathG-A01-bridge-functor
Glossary for the τ-framework's mathematics domain — 41 canonical entries grouped by category.
The 21-entry mathematics glossary covers the τ-framework’s foundational kernel (Books I–III): postulates K0–K6, canonical definitions (ι_τ, τ-categorical, window-algebra, Yoneda-as-theorem, rank coordinates), Books I–II load-bearing theorems (Hyperfactorization, Rigidity, Categoricity, Central Theorem at rank (3, 15), Yoneda enrichment ladder), the three Book-III conjectural axioms (bridge functor, spectral correspondence O(3), Grand GRH adelic), structures (spectrum functor, holomorphy tower, self-enrichment), and the τ-object class. Each entry carries a mathematical-content section with the orthodox statement, Mathlib bridge, and the categoricity argument fixing the concept inside the kernel. Pilot sealed at v0.4.
BThe Bridge functor axiom (III.D71) is the first of three custom axioms in TauLib beyond Mathlib's trusted base. It asserts the existence of a structure-preserving functor betwee…
MathG-A01-bridge-functor
SC_{O(3)}The Spectral correspondence O(3) axiom (III.T18, surfaced as A02 in this glossary) is the second custom axiom in TauLib. It asserts that the τ-spectral correspondence — the τ-in…
MathG-A02-spectral-correspondence
GRH_{adelic}The Grand GRH (adelic) axiom (III.D31) is the third custom axiom in TauLib. It asserts that the Prime Polarity Scaling Theorem (III.T20) extends to all automorphic L-functions i…
MathG-A03-grand-grh-adelic
ι_τι_τ = 2/(π + e) is the structural fixed point of the boundary holonomy algebra H_∂[ω] over the categorical kernel τ. It is a theorem about τ, not a parameter — uniquely determin…
MathG-D01-iota-tau
τ-catThe τ-categorical structure is the categorical content of the τ-kernel: τ as a category in its own right, equipped with the τ-site topology that turns it into an earned topos. T…
MathG-D02-tau-categorical
W_n(k)The window-algebra integers W_n(k) are the Book-II numerical invariants of the τ-categorical structure at rank coordinates (n, k). For load-bearing pairs (W₃(4) = 5, W₅(3) = 19,…
MathG-D03-window-algebra
YYoneda-as-theorem (II.D50) is the τ-framework's distinctive treatment of the Yoneda lemma: rather than appearing as an external categorical fact applied to τ, the Yoneda embeddi…
MathG-D04-yoneda-as-theorem
(n, k)Rank coordinates (n, k) are the indexing scheme used throughout Books I–II to locate τ-categorical content along two structural axes: n is the prime-rank index (which prime-numb…
MathG-D05-rank-coordinates
T4Truth4 Logic (I.D21) is the τ-internal four-valued logic — extending classical bivalence (true/false) with the structural truth values reflecting the kernel's bipolar polarity. …
MathG-D06-truth4-logic
(D, A, B, C, ω)The 4+1 Sector Decomposition (III.D13) decomposes τ-categorical content into five canonical sectors: four 'analytic' sectors (D, A, B, C) plus the closed 'ω' sector. The 4+1 str…
MathG-D07-4-plus-1-sector
{g_1,…,g_5}The Five Generators definition (I.D01) names the five canonical generators of the τ-kernel as a single bundled definition, complementing the K01–K06 axiomatization of MathG-K02.…
MathG-D08-five-generators-def
ℝ[j]_calThe Calibrated Split-Complex Codomain (II.D35) is the split-complex algebra ℝ[j]/(j²−1) equipped with the τ-categorical calibration — a graded structure on real and j-imaginary …
MathG-D09-calibrated-split-complex
ℝ[j]The Split-Complex Scalars (I.D20) are the elements of ℝ[j]/(j²−1) treated as the canonical scalar algebra of the τ-framework. Every τ-categorical scalar — including ι_τ, the ran…
MathG-D10-split-complex-scalars
Cyl_kThe Stage-k Cylinder (II.D10) is the τ-categorical analogue of the cylinder construction at depth k along the K1 strict-order direction. It packages the rank-(n, k) data into a …
MathG-D11-stage-k-cylinder
ρThe Progression Operator ρ (I.D02) is the τ-internal advancement operator on kernel atoms — the canonical step that lifts content from one K1 strict-order position to the next. …
MathG-D12-progression-operator
Δ-discThe Diagonal Discipline (I.D03) is the τ-internal coherence rule: every τ-categorical morphism that factors through the diagonal Δ : A → A × A must commute with K3 composition a…
MathG-D13-diagonal-discipline
Stone_τThe τ-Stone Space (II.D14) is the τ-categorical analogue of the classical Stone space — the labelled topological space underlying the K2 boundary axiom. It is the structural env…
MathG-D14-stone-space
B_τThe Boundary Ring (I.D19) is the τ-internal commutative ring on the K2 labelled boundary, with the split-complex scalars (D10) as its scalar algebra. The ring structure carries …
MathG-D15-boundary-ring
d_τThe τ-Ultrametric Distance (II.D13) is the τ-categorical metric on the boundary, satisfying the strong triangle inequality d(x,z) ≤ max(d(x,y), d(y,z)) — the ultrametric propert…
MathG-D16-ultrametric-distance
Idem-decompThe Idempotent Decomposition Lemma (II.L07) is the Book-II structural result that every τ-categorical content decomposes orthogonally into idempotent components. With 19 incomin…
MathG-L01-idempotent-decomposition
A ∈ τA generic τ-object is an inhabitant of the τ-categorical kernel — an object of the (∞, 1)-category τ that arises from finite K1–K5 composition (closed under K6). Each τ-object c…
MathG-O01-tau-object
W_n(k)-objA window-algebra object is the categorical presentation of a window in the ABCD coordinate chart at rank coordinate (n, k). It is a τ-object (O01) carrying the K1-iteration dept…
MathG-O02-window-object
τThe Universe Postulate (I.K0) is the foundational axiom of the τ-framework: there exists a small (∞, 1)-category τ — the categorical kernel — that supports the five canonical ge…
MathG-K01-universe-postulate
K1–K5K1–K5 are the five canonical generators of the τ-kernel — strict order, labelled boundary, composition, boundary identification, and generator closure. They are the structural a…
MathG-K02-five-generators
K6K6 is the closure axiom of the τ-kernel: there is no sixth generator. Any candidate sixth atom must reduce to a finite combination of K1–K5. K6 is what makes the τ-kernel finite…
MathG-K03-no-omega-axiom
SpecThe spectrum functor (III.D81) is the τ-internal functor sending each τ-categorical object to its associated spectral data — the analogue of the algebraic-geometric Spec functor…
MathG-S01-spectrum-functor
Hol_τThe holomorphy tower (I.D96) is the Book-I structural ladder of holomorphy refinements on the τ-categorical kernel. It exhibits a graded sequence of τ-internal holomorphic objec…
MathG-S02-holomorphy-tower
τ-enrThe self-enrichment construction (II.D53) equips τ with the structure of a category enriched over itself. Hom-sets in τ become τ-internal objects rather than external Set-elemen…
MathG-S03-self-enrichment
HyperfactThe Hyperfactorization theorem (I.T04) is the Book-I structural result that every τ-categorical morphism admits a unique hyperfactorization: a canonical decomposition through th…
MathG-T01-hyperfactorization
Rigid_τThe Rigidity theorem (I.T07) states that the τ-kernel admits no non-trivial automorphisms — every endomorphism of τ that fixes K0–K6 is the identity. Combined with the Categoric…
MathG-T02-rigidity-non-omega
Cat_τThe Categoricity theorem (I.T08) states that any two structures satisfying the τ-kernel axioms K0 + K1–K6 are canonically equivalent. Together with the Rigidity theorem (T02 / I…
MathG-T03-categoricity-non-omega
T_{(3,15)}The Central theorem at rank (3, 15) (II.T40) is the Book-II structural categoricity result that pins down the master constant ι_τ. The theorem asserts that the τ-categorical str…
MathG-T04-central-theorem
Y_{enrich}The Yoneda enrichment ladder (II.T36) is the Book-II theorem that lifts the pre-Yoneda embedding (D04 / II.D50) to a full self-enrichment of τ. The ladder exhibits a sequence of…
MathG-T05-yoneda-enrichment
PPThe Prime Polarity Theorem (I.T05) is the most-referenced kernel result in Books I–III: it classifies every prime p with respect to the τ-categorical kernel into a polarity sect…
MathG-T06-prime-polarity
SCFThe Split-Complex Forced theorem (I.T10) proves that the τ-kernel forces the boundary algebra to be the split-complex numbers ℝ[j]/(j²−1) — not the complex numbers ℝ[i]/(i²+1), …
MathG-T07-split-complex-forced
CRT-cohThe CRT Coherence Constraint (I.T18) is the τ-internal Chinese Remainder Theorem analogue: it asserts that the τ-categorical kernel decomposes coherently across coprime factor s…
MathG-T08-crt-coherence
LemThe Algebraic Lemniscate (I.D18) is the canonical 1-dimensional boundary structure on the τ-categorical kernel — a real-algebraic curve with two crossing branches (the lemniscat…
MathG-T09-algebraic-lemniscate
CRT-decompThe CRT Decomposition Theorem (III.T10) generalizes the Book I CRT Coherence Constraint (T08) to spectral data: τ-spectral content decomposes coherently across coprime adelic pl…
MathG-T10-crt-decomposition
5≡The Mutual Determination theorem (II.T27) is the Book II equivalence statement: five distinct presentations of τ-categorical content — boundary, interior, spectrum, lemniscate, …
MathG-T11-mutual-determination
HartogsThe Global Hartogs Extension theorem (I.T31) is the τ-categorical analogue of the classical Hartogs extension principle, lifted to the holomorphy tower (S02). It asserts that ev…
MathG-T12-global-hartogs
(B,I,S)The Spectral Trichotomy Lemma (III.T14) classifies every τ-spectral datum into one of exactly three sectors: B (boundary-type), I (interior-type), or S (singular-type). The tric…
MathG-T13-spectral-trichotomy
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