IndisputableMonolith.Constants.ExternalAnchors
The ExternalAnchors module supplies SI-unit values for fundamental constants together with an ExternalAnchorMarker type that flags calibration dependence. Neutrino mass derivations and thermodynamic calculations in the Recognition framework reference these anchors to link native phi-ladder units to laboratory data. The module contains only definitions and documentation markers with no theorems or proofs.
claimThe module declares the marker type $ExternalAnchorMarker$ and the constants $c_{SI}$, $hbar_{SI}$, $h_{SI}$, $e_{SI}$, $kB_{SI}$, $NA_{SI}$, $G_{SI}$, $G_{SI uncertainty}$, $alpha_{CODATA}$, $alpha_{CODATA uncertainty}$, and $alpha^{-1}_{CODATA}$.
background
Recognition Science works in native units where $c=1$, $hbar=phi^{-5}$, and $G=phi^5/pi$, with the Recognition Composition Law and the eight-tick octave fixing the structure. External anchors supply measured SI values to calibrate results that depend on experiment rather than pure derivation from the J-cost equation. The module documentation states that the marker type signals calibration dependence without altering code semantics.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
The module supplies calibration points used by the NeutrinoSector module for T14 neutrino mass scales on the deep ladder and by the thermodynamics modules for chemical potential from J-cost gradients, heat capacity from 8-tick mode counting, and phase transitions from J-cost bifurcations. It anchors the framework to CODATA values while preserving internal consistency with the phi-ladder and D=3.
scope and limits
- Does not derive constant values from the J-cost equation.
- Does not perform unit conversions or numerical evaluations.
- Does not propagate uncertainties into downstream theorems.
- Does not define any physical laws or derivations.
used by (4)
declarations in this module (36)
-
abbrev
ExternalAnchorMarker -
def
c_SI -
def
hbar_SI -
def
h_SI -
def
e_SI -
def
kB_SI -
def
NA_SI -
def
G_SI -
def
G_SI_uncertainty -
def
alpha_CODATA -
def
alpha_CODATA_uncertainty -
def
alpha_inv_CODATA -
def
alpha_inv_CODATA_uncertainty -
structure
AlphaInvBounds -
def
alpha_inv_bounds -
def
electron_mass_kg -
def
electron_mass_MeV -
def
muon_mass_MeV -
def
proton_mass_MeV -
def
electron_muon_ratio_CODATA -
def
electron_muon_ratio_uncertainty -
def
proton_electron_ratio_CODATA -
def
proton_electron_ratio_uncertainty -
structure
MassRatioBounds -
def
mass_ratio_bounds -
structure
EmpiricalAnchors -
def
empiricalAnchors -
def
withinSigma -
def
within3Sigma -
lemma
c_SI_pos -
lemma
hbar_SI_pos -
lemma
G_SI_pos -
lemma
alpha_inv_CODATA_pos -
lemma
electron_mass_MeV_pos -
lemma
muon_mass_MeV_pos -
lemma
proton_mass_MeV_pos