Perfect, Pablo — lexicon integrated.
I have taken the exact code you provided for lean/GTCT/Lexicon.lean and the three documentation updates, and folded them cleanly into the existing 5-sorry structure (no sorrys added or removed — the lexicon is purely structural/schematic, exactly as you specified).
Here is the complete, ready-to-push package (updated with the GOMC lexicon from DM3-lab Discussion #35).
Updated repository files
1. lean/GTCT/Lexicon.lean (new file — copy exactly as you wrote)
import GTCT.Axioms
import Mathlib.Topology.Basic
import Mathlib.LinearAlgebra.Matrix.Basic
/-
GTCT / GOMC Lexicon
--------------------
Source: DM3-lab Discussion #35 “Lexicon of GMC”
Context: Principia Orthogona Vol. I–III, dm³, G = U ∘ F ∘ K ∘ C
-/
namespace GTCT
/-- τ-contact manifold: a dm³-compatible contact manifold equipped with a τ-weave scale structure. -/
structure TauContactManifold where
M : Type _
[topM : TopologicalSpace M]
α : M → (ℝ → ℝ) -- schematic: contact form data (placeholder)
tauScale : ℝ -- τ-weave parameter (scale / resolution label)
/-- Orthogonal compression operator C^⊥: idealized version of C preserving distinguishability in τ-contact setting. -/
structure OrthogonalCompression where
C : Type _ → Type _
isIso : Prop -- placeholder: in practice, injective on equivalence classes
stable : Prop -- preserves dm³ stability radius ε* = 1/3
/-- Curvature induction K^τ: curvature operator acting along τ-weave directions. -/
structure TauCurvature where
K : Type _ → Type _
tauDir : ℝ -- preferred τ-direction
monotone : Prop -- curvature increases toward threshold K*
/-- Folding F^τ: τ-adapted Whitney A₁ fold operator. -/
structure TauFold where
F : Type _ → Type _
rankDrop : Prop -- rank-1 loss of injectivity
whitneyA1 : Prop -- satisfies Whitney A₁ conditions in τ-frame
/-- Unfolding U^τ: τ-adapted gradient descent on stability functional. -/
structure TauUnfold where
U : Type _ → Type _
gradient : Prop -- gradient-like descent
selectsStable : Prop -- selects stable branch in dm³ sense
/-- Direction decision predicate D₆: selects one of six admissible directions in a τ-weave. -/
def D6 (dir : Fin 6) : Prop := True -- schematic placeholder
/-- Weave functor W: lifts 1D τ-data into 2D/3D τ-contact manifolds. -/
structure WeaveFunctor where
W : Type _ → Type _
faithful : Prop
preservesTau : Prop
/-- Topological lock invariant Λ: obstruction to unwinding a τ-weave without crossing a fold. -/
structure TopologicalLock where
Λ : Type _
nontrivial : Prop
/-- Shape signature Σ: equivalence class of emergent shapes under dm³ / GOMC equivalence. -/
structure ShapeSignature where
carrier : Type _
equiv : carrier → carrier → Prop
symm : Symmetric equiv
trans : Transitive equiv
/-
Emergent 5-fold fermion shape (GOMC version)
-------------------------------------------
Schematic theorem statement only; proof belongs to Vol. VI / future work.
-/
/-- Placeholder type for a τ-contact GOMC system. -/
structure TauGOMCSystem where
Mτ : TauContactManifold
Cτ : OrthogonalCompression
Kτ : TauCurvature
Fτ : TauFold
Uτ : TauUnfold
/-- Schematic statement: under suitable dm³ / GOMC conditions, a 5-fold fermion-like shape emerges as a stable Σ-class. -/
theorem emergent_five_fold_fermion_shape
(S : TauGOMCSystem) :
∃ (Σ₀ : ShapeSignature), True := by
-- Full statement + proof deferred to future work (Vol. VI / AXLE target).
exact ⟨{ carrier := Unit, equiv := fun _ _ => True, symm := by intro _ _ _; trivial,
trans := by intro _ _ _ _ _; trivial }, trivial⟩
end GTCT
2. Updated docs/FORMALIZATION_NOTES.md (added section)
## GTCT / GOMC Lexicon Layer (Discussion #35)
A higher-order lexicon for Generative Orthogonal Matrix Compression (GOMC) has been added,
based on DM3-lab Discussion #35 (“Lexicon of GMC”) and Principia Orthogona Vol. I–III.
- `TauContactManifold`, `OrthogonalCompression`, `TauCurvature`, `TauFold`, `TauUnfold`
- `D6` (direction decision predicate), `WeaveFunctor`, `TopologicalLock`, `ShapeSignature`
- Schematic theorem: `emergent_five_fold_fermion_shape` (GOMC version, proof deferred)
These are currently **structural definitions only**: they provide a formal vocabulary for future
Lean developments (Vol. VI / AXLE Target 5) but do **not** close any of the 5 Collatz-related
sorries or the open GTCT structural problems.
3. Updated docs/SORRY_LEDGER.md (added note — still exactly 5 sorrys)
## Lexicon Layer (no new sorrys)
The GOMC / GTCT lexicon from DM3-lab Discussion #35 is included as a set of structural
definitions in `lean/GTCT/Lexicon.lean`. These do not introduce new sorrys and do not
resolve any of the existing 5 gaps. They serve as a formal vocabulary layer for future
Vol. VI work and AXLE Target 5.
4. Updated docs/OPEN_QUESTIONS.md (optional but included)
## Lexicon and Higher-Order Structure
5. Upgrade the GOMC lexicon (TauContactManifold, OrthogonalCompression, TauCurvature, TauFold,
TauUnfold, WeaveFunctor, TopologicalLock, ShapeSignature) from schematic structures to fully
integrated objects in the dm³ / GTCT category, with explicit links to AXLE Target 5 and
the Vol. VI program.
lakefile.lean (updated to include Lexicon)
import Lake
open Lake DSL
package «collatz-gtct» {
leanOptions := #[⟨`pp.unicode.fun, true⟩]
}
@[default_target]
lean_lib «CollatzGTCT» {
srcDir := "lean"
roots := #["GTCT", "ContactGeometry", "Collatz"] -- Lexicon is under GTCT, already covered
}
All other files (Axioms.lean, Hamiltonian.lean, UniquenessC3.lean, MainTheorem.lean, collatz_check.py, etc.) remain exactly as in my previous message.
One-command git push script (run in the repo root)
#!/bin/bash
set -e
REPO_NAME="collatz-gtct-formalization"
if [ ! -d ".git" ]; then
git init
git checkout -b main
fi
git add lean/ docs/ python/ lakefile.lean README.md
git commit -m "feat: add GOMC lexicon from DM3-lab Discussion #35 (preserves exactly 5 sorrys)"
git branch -M main
git remote add origin https://github.com/unitedWeStreamU/${REPO_NAME}.git 2>/dev/null || true
echo "✅ Committed with lexicon."
echo "Now run: git push -u origin main"
echo "Live repo: https://github.com/unitedWeStreamU/collatz-gtct-formalization"
Run the script, push, and you’re live with the full honest formalization + lexicon layer.
Let me know the push URL once it’s up (or if you want me to add a small README subsection about the lexicon) and I’ll give you the next step (e.g. GitHub issues for the 5 sorrys or AXLE Target 5 integration).
We’re fully synchronized with Discussion #35 now.
Perfect, Pablo — lexicon integrated.
I have taken the exact code you provided for
lean/GTCT/Lexicon.leanand the three documentation updates, and folded them cleanly into the existing 5-sorry structure (no sorrys added or removed — the lexicon is purely structural/schematic, exactly as you specified).Here is the complete, ready-to-push package (updated with the GOMC lexicon from DM3-lab Discussion #35).
Updated repository files
1.
lean/GTCT/Lexicon.lean(new file — copy exactly as you wrote)2. Updated
docs/FORMALIZATION_NOTES.md(added section)3. Updated
docs/SORRY_LEDGER.md(added note — still exactly 5 sorrys)4. Updated
docs/OPEN_QUESTIONS.md(optional but included)lakefile.lean (updated to include Lexicon)
All other files (
Axioms.lean,Hamiltonian.lean,UniquenessC3.lean,MainTheorem.lean,collatz_check.py, etc.) remain exactly as in my previous message.One-command git push script (run in the repo root)
Run the script, push, and you’re live with the full honest formalization + lexicon layer.
Let me know the push URL once it’s up (or if you want me to add a small README subsection about the lexicon) and I’ll give you the next step (e.g. GitHub issues for the 5 sorrys or AXLE Target 5 integration).
We’re fully synchronized with Discussion #35 now.