IndisputableMonolith.StandardModel.CPPhaseDerivation
Derives the CP-violating phase from Berry phases along the canonical Gray-code transport path on the Q₃ cube. Generation-dependent face windings give distinct phases for the three generations and a nonzero raw CP phase. Anyone linking cube chirality to the Jarlskog invariant cites this module. The argument builds closed-path returns, a per-flip phase, and generation-indexed Berry sums.
claimOn the 3-cube $Q_3$, a discrete transport path is a tick-indexed sequence of vertex states. The module fixes a canonical Gray-code cycle, proves it is closed and returns to its start, assigns a phase per bit-flip and a Berry phase per generation cycle $\Phi_g$ ($g=1,2,3$), assembles a raw CP phase $\delta_{\mathrm{CP}}$ from those data, and proves $\delta_{\mathrm{CP}}\neq 0$.
background
Recognition Science places quark mixing on the Boolean 3-cube $Q_3$. The eight-tick Gray-code cycle induces a unitary cycle operator on $\mathbb{C}^8$ and a directed walk that is chiral: clockwise and counterclockwise face traversals are inequivalent. Face winding numbers pair faces with generation pairs; that chirality is the geometric source of CP violation.
Upstream, CKM-from-cube already builds the mixing matrix from generation torsion ${0,11,17}$ and chirality signature $[4,2,2]$. Constants fix the RS time quantum $\tau_0=1$ tick. This module supplies the missing phase layer: discrete transport paths (one state per tick), the canonical closed path, a phase per flip, and generation-dependent Berry phases along that cycle.
proof idea
Definition-first module, then short lemmas. It introduces transport paths and a canonical Gray-code path; proves the path is closed and returns; defines a phase per bit-flip and a Berry phase per cycle; specializes to three generation Berry values; records that those values are generation-dependent; packages a raw CP phase and proves it is nonzero. Geometric input (signed windings, chirality) is imported from FaceWinding and GrayCodeChirality; directed dynamics from CycleOperator.
why it matters in Recognition Science
Sole recorded consumer is JarlskogInvariant, which takes the structural CP phase and forms the rephasing-invariant $J_{\mathrm{CP}}=\mathrm{Im}(V_{us}V_{cb}V_{ub}^V_{cs}^)$ from the same $Q_3$ ingredients. The module is the bridge from Gray-code chirality and face windings to a concrete nonzero $\delta_{\mathrm{CP}}$ that the Jarlskog layer can quote. It sits on the eight-tick octave and $D=3$ landmarks: the path lives on $Q_3$ with period $2^3$. Without a proved nonzero raw phase, the geometric CP story stops at chirality and never reaches the measured invariant.
scope and limits
- Does not predict the PDG numerical value of $\delta_{CP}$ or $J_{CP}$.
- Does not construct full CKM magnitudes or angles (handled in CKMFromCube).
- Does not treat lepton CP violation or the PMNS matrix.
- Does not prove uniqueness of the canonical path among all Hamiltonian cycles on $Q_3$.
- Does not derive electroweak gauge structure or Yukawa couplings.
used by (1)
depends on (5)
declarations in this module (19)
-
def
TransportPath -
def
canonicalPath -
theorem
canonical_path_closed -
theorem
canonical_returns -
def
phasePerFlip -
def
berryPhasePerCycle -
theorem
berry_gen1 -
theorem
berry_gen2 -
theorem
berry_gen3 -
theorem
berryPhase_generation_dependent -
def
cpPhaseRaw -
theorem
cp_phase_nonzero -
theorem
cp_phase_positive -
theorem
cp_phase_changes_sign_under_reversal -
theorem
cpt_phase_zero -
theorem
theta_qcd_cost_minimized_at_zero -
theorem
strong_cp_resolved_with_ckm_cp -
structure
CPPhaseCert -
def
cpPhaseCert