IndisputableMonolith.QFT.GaugeInvariance
This module defines ledger states as the basic encoding of physical reality and introduces U(1) gauge transformations together with global and local variants on top of the discrete 8-tick clock. It supplies the gauge primitives required for QFT derivations in the Recognition Science framework. The module contains only definitions and elementary properties of equivalence and composition; no theorems are proved.
claimA ledger state encodes physical reality. Two ledger states are physically equivalent when they differ by a gauge transformation. U(1) transformations act on field configurations via maps $U: S^1 times LedgerState to LedgerState$, with global and local versions distinguished by whether the phase is constant or position-dependent.
background
The module sits inside the QFT tier of Recognition Science and imports the fundamental time quantum τ₀ = 1 tick together with the 8-tick structure whose phases are 0, π/4, π/2, 3π/4, π, 5π/4, 3π/2, 7π/4. It introduces the ledger state as the object that records physical content, the physically equivalent relation that identifies states related by gauge action, the U(1) transformation group, and the distinction between global and local gauge operations on field configurations.
proof idea
this is a definition module, no proofs
why it matters in Recognition Science
The module supplies the gauge-invariance layer that feeds directly into the parent QFT module for Tier 2 derivations. It links the eight-tick octave (T7) to field configurations through ledger states, providing the discrete foundation on which the Recognition Composition Law and phi-ladder are expected to generate standard-model gauge structure.
scope and limits
- Does not derive the U(1) group structure from the forcing chain T0-T8.
- Does not treat non-abelian gauge groups.
- Does not connect ledger states to mass formulas or the alpha band.
- Does not include equations of motion or dynamics.
used by (1)
depends on (2)
declarations in this module (26)
-
structure
LedgerState -
def
physicallyEquivalent -
theorem
physical_equiv_refl -
theorem
physical_equiv_symm -
def
U1Transform -
theorem
U1_identity -
theorem
U1_composition -
theorem
U1_inverse -
def
FieldConfig -
def
globalGauge -
def
localGauge -
def
localGaugeDescription -
structure
GaugeField -
theorem
gauge_field_components -
def
transformGaugeField -
theorem
gauge_symmetry_from_redundancy -
theorem
gauge_phase_unobservable -
def
discretePhases -
theorem
eight_tick_span -
structure
NonAbelianLedger -
def
SUN_action -
def
consequences -
theorem
gauge_breaking_masses -
def
smHyperchargeDescription -
def
derivationSummary -
structure
GaugeFalsifier