IndisputableMonolith.Masses.Verification
The Verification module assembles experimental mass anchors and RS-derived interval predictions for leptons, quarks, and the proton binding energy. Researchers auditing mass spectra in Recognition Science cite it to compare phi-ladder outputs against PDG references. The module populates these values by importing constants and phi bounds, serving as a reference layer without new derivations.
claimExperimental anchors $m_e$, $m_μ$, $m_τ$ together with RS predictions on the φ-ladder, including the proton binding-energy interval $(969, 970.4)$ MeV.
background
Recognition Science places masses on the φ-ladder via the yardstick scaled by φ to a rung offset, using the time quantum τ₀ = 1 tick as base unit. The Anchor module centralises the parameter-free constants described in the mass manuscripts, while PhiBounds supplies algebraic inequalities such as 2.236² = 4.999696 < 5 < 5.001956 = 2.237² to bound φ = (1 + √5)/2 rigorously.
proof idea
This is a definition module, no proofs. It structures verification data by importing the Constants, Anchor, and PhiBounds modules to populate reference values and interval predictions for downstream scorecards.
why it matters in Recognition Science
This module feeds ChargedLeptonMassScoreCard for lepton rungs with ZOf = 1332, ElectroweakMasses for the Z boson at rung 1, MuRatioScoreCard for the proton-electron ratio, and the quark and top-quark scorecards. It supplies the verification layer that turns mass-manuscript predictions into falsifiable intervals, such as the proton binding-energy range stated in the module documentation.
scope and limits
- Does not derive experimental masses from first principles.
- Does not claim exact matches beyond the stated intervals.
- Does not incorporate future PDG revisions automatically.
- Does not cover every particle or resonance sector.
used by (6)
depends on (3)
declarations in this module (53)
-
lemma
phi_eq_goldenRatio -
def
m_e_exp -
def
m_mu_exp -
def
m_tau_exp -
def
rs_mass_MeV -
def
electron_pred -
def
muon_pred -
def
tau_pred -
lemma
zpow_sum3 -
lemma
lepton_pred_eq_aux -
theorem
electron_pred_eq -
theorem
muon_pred_eq -
theorem
tau_pred_eq -
lemma
phi59_gt -
lemma
phi59_lt -
lemma
phi70_gt -
lemma
phi70_lt -
lemma
phi76_gt -
lemma
phi76_lt -
theorem
electron_mass_bounds -
theorem
electron_relative_error -
theorem
muon_mass_bounds -
theorem
muon_relative_error -
theorem
tau_mass_bounds -
theorem
tau_relative_error -
def
ratio_mu_e_exp -
def
ratio_tau_e_exp -
theorem
ratio_mu_e_exp_bounds -
theorem
ratio_tau_e_exp_bounds -
lemma
phi11_gt -
lemma
phi11_lt -
lemma
phi17_gt -
lemma
phi17_lt -
theorem
muon_ratio_undershoot -
theorem
tau_ratio_overshoot -
theorem
muon_electron_ratio_error -
theorem
tau_electron_ratio_error -
structure
MassVerificationCert -
theorem
mass_verification_cert_exists -
def
m_p_exp -
def
proton_binding_pred -
lemma
phi43_gt -
lemma
phi43_lt -
theorem
proton_mass_bounds -
theorem
proton_relative_error -
theorem
phi_ladder_verified -
def
up_quark_pred -
def
charm_quark_pred -
def
top_quark_pred -
theorem
quark_preds_pos -
theorem
charm_up_ratio -
theorem
top_charm_ratio -
theorem
top_quark_pred_order