IndisputableMonolith.QFT.UVCutoff
This module assembles definitions for the physical ultraviolet cutoff in Recognition Science QFT, replacing artificial regulators with a discreteness scale from the phi-ladder. QFT practitioners deriving finite loop integrals from RS foundations would cite it when moving from standard regularization to the Brillouin-zone boundary. The module imports Constants and PhiForcing to express the cutoff in RS-native units without performing explicit integrals.
claimThe RS ultraviolet cutoff is the physical momentum scale $p_{\max}$ at the Brillouin zone edge of the fundamental lattice, with associated energy $E_0$ and length $l_0$ set by the discrete phi-ladder; standard loop integrals $I = \int d^4k/(k^2-m^2)^n$ remain finite for $n\le 2$ once $k$ is bounded by this scale.
background
The module sits in the QFT domain and imports the RS time quantum $\tau_0=1$ tick together with the self-similarity argument that forces $\phi$ as the fixed point of the J-cost ledger. Its DOC_COMMENT states that standard QFT loop integrals diverge as $k\to\infty$ for $n\le 2$ and are regularized by an artificial $\Lambda\to\infty$, whereas RS supplies a physical cutoff from lattice discreteness.
Sibling definitions include standardUVDescription, log_divergence, l0, E0, p_max, lhcEnergyGeV, rsCutoffGeV, cutoff_above_lhc, VoxelLattice, fundamentalLattice, brillouinCutoff and brillouin_equals_pmax. These translate the abstract cutoff into concrete RS scales and compare them with LHC energies.
proof idea
This is a definition module, no proofs. It organizes constants and predicates that express the cutoff scale, the logarithmic divergence form, and the relation between the Brillouin cutoff and p_max.
why it matters in Recognition Science
The module supplies the UV regularization mechanism required by the parent QFT module for its Tier 2 derivations of quantum field theory fundamentals from Recognition Science. It directly implements the physical-cutoff claim in the supplied DOC_COMMENT and thereby closes the gap between the discrete phi-ladder (from PhiForcing) and continuum QFT expressions.
scope and limits
- Does not evaluate any loop integrals or renormalization constants.
- Does not derive the QFT Lagrangian or Feynman rules.
- Does not address infrared divergences or non-perturbative effects.
- Does not prove equivalence to standard dimensional regularization.
used by (1)
depends on (2)
declarations in this module (26)
-
def
standardUVDescription -
theorem
log_divergence -
def
l0 -
def
E0 -
def
p_max -
def
lhcEnergyGeV -
def
rsCutoffGeV -
theorem
cutoff_above_lhc -
structure
VoxelLattice -
def
fundamentalLattice -
def
brillouinCutoff -
theorem
brillouin_equals_pmax -
def
regulatedIntegral -
theorem
rs_integral_finite -
def
runningCoupling -
def
phiLadderEnergy -
theorem
phi_ladder_ratio -
def
renormalizationImplications -
def
hierarchyProblemDescription -
def
higgsMassGeV -
def
planckMassGeV -
def
hierarchyRatio -
theorem
hierarchy_very_small -
def
predictions -
def
comparisonTable -
structure
UVCutoffFalsifier