IndisputableMonolith.RecogSpec.RSBridge
RSBridge supplies definitions for cube edge counts and bridge projections that map the Recognition Science phi-ladder to CKM mixing angles. Researchers deriving first-principles mixing parameters cite these constructs. The module contains multiple definitions and lemmas that link the ledger to observable angles without complex proofs.
claimThe cube has 12 edges. The RS bridge structure yields mixing angles $V_{us}$, $V_{cb}$, $V_{ub}$ via Cabibbo projection and radiative coefficients applied to the ledger.
background
The module imports the time quantum $ au_0 = 1$ tick from Constants and the rich ledger from RSLedger. The ledger places particle masses on discrete rungs of the $\phi$-ladder derived from generation torsion rather than as explicit $\phi$-formulas. It introduces cube edge count, dual counts, Cabibbo projection, radiative coefficient, the RSBridge object itself, and extraction functions for the mixing angles.
proof idea
this is a definition module, no proofs
why it matters in Recognition Science
The module supplies the RSBridge geometry that BridgeDerivation uses to derive the canonical mixing-angle payload CkmMixingAngles and g-2. It provides the bridge between the phi-ladder and observable mixing angles in the Recognition Science framework.
scope and limits
- Does not include proofs of the mixing angle derivations.
- Does not specify numerical predictions for the angles.
- Does not connect to the full CKM matrix unitarity.
- Does not address g-2 anomaly directly.
used by (1)
depends on (3)
declarations in this module (19)
-
def
cubeEdges -
def
edgeDualCount -
theorem
edgeDualCount_eq -
def
cabibboProjection -
def
radiativeCoeff -
structure
RSBridge -
def
V_cb_from_bridge -
theorem
V_cb_canonical -
def
V_cb_real -
def
V_ub_from_bridge -
def
V_us_from_bridge -
def
canonicalRSBridge -
theorem
canonicalRSBridge_edgeDual -
theorem
canonicalRSBridge_alpha -
theorem
canonical_V_cb -
theorem
canonical_V_ub -
theorem
canonical_V_us -
theorem
mixingAngles_geometric_origin -
theorem
V_cb_approx