IndisputableMonolith.Physics.RGTransport
RGTransport supplies an abstract interface for the running coupling at renormalization scale μ. It enables specialization to the SM couplings α_s, α, α_2 within the Recognition Science bridge to particle physics. Researchers comparing geometric mass ladders to perturbative flows cite it for the RG transport layer. The module consists of definitions for beta functions and anomalous dimensions that draw directly on the imported Anchor and Constants infrastructure.
claimThe running coupling $\alpha(\mu)$ at scale $\mu$, supplied as an abstract interface with specializations to the Standard Model values $\alpha_s(\mu)$, $\alpha(\mu)$, $\alpha_2(\mu)$.
background
The module imports the RS time quantum $\tau_0 = 1$ tick from Constants and the core bridge from RSBridge.Anchor. The latter defines the 12 Standard Model fermions, the charge index $Z_i = \tilde{q}^2 + \tilde{q}^4$ (+4 for quarks), the gap function $F(Z) = \ln(1 + Z/\phi)/\ln(\phi)$, and the mass at the anchor scale $\mu^\star$.
This supplies the local theoretical setting for RG transport in the physics domain, linking the recognition framework to particle physics. The abstract interface isolates the running-coupling object so that downstream modules can depend on a clean surface without committing to explicit beta-function forms.
proof idea
this is a definition module, no proofs
why it matters in Recognition Science
The module feeds the Single-Anchor RG Policy in AnchorPolicy and the Recognition Coupling analysis in RecognitionCoupling. It supplies the running-coupling interface required to quantify the discrepancy between the geometric mass formula (large residue $F(Z)$) and perturbative RG transport.
scope and limits
- Does not implement explicit beta functions for QCD or QED.
- Does not compute numerical running of couplings.
- Does not derive the couplings from the recognition axioms.
- Does not address multi-loop or non-perturbative corrections.
used by (2)
depends on (2)
declarations in this module (30)
-
structure
RunningCoupling -
structure
AnomalousDimension -
def
lambda -
theorem
lambda_pos -
def
beta0QCD -
def
beta0QCDReal -
def
betaQCD1L -
def
betaQED1L -
def
gammaMassQCD1L -
def
gammaMassQED1L -
theorem
beta0QCD_nf0 -
theorem
beta0QCD_asymp_free -
theorem
betaQCD1L_vanishes_at_zero -
theorem
gammaMassQCD1L_zero -
def
rk4Increment -
def
rk4Step -
theorem
rk4Step_eq_self_of_zero -
theorem
abs_rk4Increment_le -
theorem
rk4Step_deviation_le -
def
integratedResidue -
def
runningMass -
theorem
mass_ratio_formula -
def
muStar -
theorem
muStar_pos -
def
lnMuStar -
def
residueAtAnchor -
def
anchorClaimHolds -
def
residueDerivative -
theorem
stationarity_iff_gamma_zero -
theorem
mass_ratio_phi_power