Verify Verification Surface Canonical How the program exposes possible failure modes and testable consequences.
Verification SurfaceCanonical

Predictions & Falsification

How the program exposes possible failure modes and testable consequences.

Public Physics Lean · 171 modules · 4495/6075 formalized Mode · Empirical (2025–2035)
Predictions
Derived consequences that can serve as accountability surfaces for the program.
Falsification paths
Explicit routes by which a result, bridge, or domain claim could fail.
Falsification packs
Structured bundles for checking numeric, structural, or empirical accountability surfaces.

Accountability, Not Decoration

Predictions and falsification are not merely outputs of the program. They are accountability structures for Results.

Predictions and falsification are Verify-owned accountability surfaces.

The Results lane provides world-facing interpretation and result-family context. Verify owns the accountability grammar: prediction IDs, target results, failure conditions, timing assumptions, falsification paths, and pack structure.

Publication artifacts such as the numerical prediction supplement may package these surfaces for reading and review.

Falsification inside the verification matrix

Scientific plate titled The Verification Matrix, showing obligations, construction steps, and results flowing into Verify, with six verification layers, operational surfaces such as TauLib and Release Manifest, a verification status legend, and the caveat that formal checking is not empirical truth.
Predictions and falsification are one layer of verification. They do not replace formal proof, bridge adequacy, domain interpretation, or external assessment.

↓ Download print master · 1536 × 864 JPG · CC BY 4.0

Predictions and falsification are inspection routes for empirical claims. They complement formal proof checking and bridge adequacy; they do not replace them.

Lean linkage on every prediction

Every public prediction now carries an auto-derived Lean-modules linkage: the set of TauLib modules in its registry-depends_on closure with lean.formalization in {formalized, skeleton}. The linkage is visible directly on each prediction’s detail page (e.g. Three generations of fermions) as a chip-row of GitHub-linked module names.

Predictions

67

Public predictions on the accountability surface.

Lean-linked

0 / 67

Predictions whose derivation chain reaches at least one formalized or skeleton TauLib module.

Source

Auto-derived

The linkage is computed at corpus export time by walking the registry's depends_on graph; no hand-curation of paths.

From Kernel to Measurement

Scientific plate titled From Kernel to Measurement, showing a chain from Kernel through Physical Carrier, Physical Grammar, Constants and Invariants, Measurement Bridge, SI Observables, Predictions, and Falsification, plus a calibration cascade and the caveat that formal construction is not measurement.
Formal construction becomes empirically exposed only through bridge adequacy: internal physical grammar must pass through constants, measurement bridges, SI observables, predictions, and falsification pressure.

↓ Download print master · 1536 × 864 JPG · CC BY 4.0

The theory distinguishes internal construction from empirical exposure. Formal derivation becomes physics only through measurement bridges, observable translation, predictions, and falsification pressure.

Prediction and falsification surfaces are downstream of the Construction Spine’s Measurement Bridges step. Internal physical grammar is not empirical accountability until the bridge and failure condition are exposed.

Cross-Lane Reading

The Results lane presents what the program currently derives. This Verify subtree asks how those results could be checked or defeated. For physics, the first concrete surfaces are the Predictions browse, the Prediction Timing Ledger, and the Falsification Pack.

Save or share this page for inspection

Download a portable dossier, copy a reviewer note, or send this page to someone who can inspect it.

Email to expert