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Choose a result, inspect its assumptions, then run the calculation that supports it. Each check answers a specific question. The original status and the scope of that answer stay attached.

Start with the E₈ construction.

The first module builds the lattice explicitly. It checks the glue, constructs its 240 roots and tests the lattice basis. You can read the source before running it.

Question: Does the explicit construction give the even, unimodular E₈ lattice?
What is tested: Shared ℤ₄ discriminant data; glue norms 5/4 + 3/4 = 2; 240 roots of squared length 2; an integral, even basis with determinant 1.

Read the Python source

Python runs in your browser using Pyodide. The first run downloads the runtime. Its output appears in the existing verification viewer, including any failure and the local reproduction command.

This is a mathematical lattice check. Identifying that lattice with a physical system requires additional arguments and retains its own status.

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Search all 707 registered Python modules by subject, filename, claim or source section. This catalogue records source presence and links. It does not report a new execution or a passing result for every module.

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Ccc crossover kinematics

v957_ccc_crossover_kinematics.py · horizon

Read the original description and evidence links

CCC.SEAM.KINEMATICS.01 (Runden DL–DLV, 2026-08-24): **das CCC-Crossover-Kinematik-Wörterbuch (28/28 + 29/29 + 18/18 + 21/21 + 14/14 + 7/7, sechs Probes byte-exakt eingebettet)** — (1) Penroses reziproke Eichung Ω·τ(Ω) = −1 ist das Element τ = ρ²σ des bewiesenen μ4-Stabilisators D4 (τ kehrt die Clock um = Z2-Sheet-Parität; der Crossover-Kreis trägt alle vier Marken); (2) die Clock allein lässt auf der 2D-Seam genau EINEN konformen Modul, das reziproke Z2 killt ihn (Liouville-exakt; so(3,1)-Kommutanten 2/0); (3) Stinespring-Dilatation des v221-Transports exakt (V†V = 1, ‖Tⁿ−P⋆‖ = (2/3)^{6n}, globaler Overlap invariant — Entropie-Reset = reduzierter Kanal, keine Informationsvernichtung); (4) der kinematische 2D→3D→4D-Uplift: Seam-Sphäre = Hopf-Basis (stereographisch = z1/z2 exakt), Crossover X = S³/Z4 = Linsenrand des korpuseigenen A3-ALE (Deck frei; Marken = 4 verschlungene Faserkreise in 2 Sheet-Orbits, Gauss-Linking 1; so(4,1)-Deck-Kommutant = 4 Killing/0 Boosts — Yamabe-Starrheit ohne Zusatzbedingung, global via Obata-Familie), 4D-Brücke = Kegel mit Inversion als Äon-Tausch, Lorentz-Schatten Einstein R_ab = 3g_ab mit raumartigem S³-Crossover und Ω̂·Ω̌ = −1; (5) KMS-Schließung: Detailed Balance exakt, spec(−ln T) = {0, 6ln(3/2), 6ln3}, T = e^{−H_mod}, β_angle = 2π = 1/(4c3) = Gibbons–Hawking auf der Faser — diskreter Takt = modulare Zeit (freies Level); (6) Holonomie: Pol-Strings tragen die volle μ4 (i), jeder Seam-String exakt die 2-Torsion −1 = v522s GSO/Fermionparitäts-Wrap ([C]-Korrespondenz); (7) Selektor-Notwendigkeit: zulässige Spiegelachsen von M(δ) = V4 generisch, D4 GENAU bei δ = π/2; Majorana-Operator-Ebene mit Fermion-Vorzeichen: Clock-Achsen Θ-real NUR bei k = 4 — die Uniqueness-Hälfte des v534-Selektors HERGELEITET (Survival + Vorzeichen zitiert); (8) der eingefrorene Gate-6-Kernel: Top-Hat-Scheibe θ_max ≈ 1.16°, Raten ln(729/64)/ln729 (Verhältnis 2.709511), κ aus v526 hergeleitet (Band deklariert, Kontrast ≤ 3.3e−4) — speist die preregistrierte Suche ccc-crossover-disc (keine Daten berührt). Zyklische Lesart bleibt [C], WOIT.OS.TWISTOR.01 bleibt [O].

Read the original Python source

Linked claims: CCC.SEAM.KINEMATICS.01 CCC.SEAM.CROSSOVER.01
Paper sections: Source section 1 Source section 2 Source section 3 Source section 4 Source section 5 Source section 6 Source section 7 Source section 8 Source section 9 Source section 10 Source section 11 Source section 12 Source section 13 Source section 14 Source section 15 Source section 16 Source section 17 Source section 18 Source section 19 Source section 20 Source section 21 Source section 22 Source section 23

Different evidence answers different questions.

A numerical calculation, a formal theorem and an experimental comparison carry different kinds of information. Follow the source appropriate to the claim.

Python calculations: Inspect the algorithm, its inputs and its negative controls. Run a browser compatible module here, or use the repository for the complete environment.Browse Python sources
Formal mathematics: Read the actual Lean statement and its assumptions. The carrier formalization has a defined mathematical scope.Inspect the Lean formalization
Independent implementation: The Wolfram implementation checks algebraic results through a separate computational path. The recorded runs report 116/116 base checks and 603/603 extension checks. This is distinct from external experimental replication.Read the Wolfram implementation
Physical comparison: Read each prediction with its freeze, conditions and failure criterion. A passing mathematical check does not decide the experimental comparison.Open the prediction register

Run the same check on your machine.

From a checkout of the repository, install its Python requirements and run the first lattice module. The complete suite is a separate step.

Set up the repository

git clone https://github.com/sthamann/tfpt.git
cd tfpt
python3 -m venv .venv
.venv/bin/pip install -r requirements.txt

Check the E₈ lattice

.venv/bin/python verification/v1_e8_glue.py

Read the individual checks and the final pass or fail result.

Run the registered suite

cd verification
../.venv/bin/python run_all.py

The full suite uses the dependencies and source context documented in the repository.

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Read the current claim beside its source.

The research snapshot dated 2026-11-02 includes the active ledger, reviewed findings and registered scripts. It records source coverage and stated scope; it is not a new execution of every proof or calculation.

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