IndisputableMonolith.Physics.NeutrinoSector
The NeutrinoSector module supplies experimental mass-squared differences Δm²_{21} and Δm²_{32} in eV² together with approximate masses and phi-ladder rung assignments for the neutrino sector. Researchers calibrating Recognition Science mass predictions against NuFIT data cite it when scoring the fractional ladder model. The module consists entirely of definitions and external anchors drawn from the imported constants and electron-mass results.
claim$Δm^2_{21}$, $Δm^2_{32}$ (in eV²), $m_2$, $m_3$ (approximate), rung_nu3, rung_nu2 on the phi-ladder, with calibration functions predicted_mass_eV and mass_display_calibration_of_external.
background
The module operates inside the Recognition Science native unit system (c = 1, ħ = φ^{-5}) defined in Constants.RSNativeUnits and draws empirical anchors exclusively from ExternalAnchors. It imports the T9 electron-mass derivation and its necessity proof from ElectronMass and ElectronMass.Necessity, together with rigorous φ bounds and rung-fraction support. The local setting is the extension of the ledger-fraction mass formula yardstick · φ^(rung-8+gap(Z)) to the neutrino sector after the eight-tick octave and D = 3 have been fixed.
proof idea
this is a definition module, no proofs
why it matters in Recognition Science
The module feeds NeutrinoMassScaleScoreCard, which tests the structural claim m_3²/m_2² = φ^7 inside the res_nu3 - res_nu2 = 7/2 model, and ParticleSummary, which assembles all Standard-Model parameters derived from Recognition Science. It supplies the single quarantined location for neutrino Δm² data required by the phase-2 neutrino-mass program.
scope and limits
- Does not derive neutrino masses from the Recognition Composition Law.
- Does not prove any mass-squared value; all entries are external anchors.
- Does not address neutrino mixing angles or CP phases.
- Does not treat sterile neutrinos or non-standard interactions.
used by (2)
depends on (7)
-
IndisputableMonolith.Constants -
IndisputableMonolith.Constants.ExternalAnchors -
IndisputableMonolith.Constants.RSNativeUnits -
IndisputableMonolith.Numerics.Interval.PhiBounds -
IndisputableMonolith.Physics.ElectronMass -
IndisputableMonolith.Physics.ElectronMass.Necessity -
IndisputableMonolith.Support.RungFractions
declarations in this module (53)
-
def
dm2_21_exp -
def
dm2_32_exp -
def
m2_approx -
def
m3_approx -
def
rung_nu3 -
def
rung_nu2 -
structure
MassDisplayCalibration -
def
legacy_mass_display_calibration -
def
mass_display_calibration_of_external -
def
MeV_to_eV -
def
predicted_mass_eV_with -
def
predicted_mass_eV -
lemma
predicted_mass_eV_legacy -
def
nu_phase_offset -
def
nu_spacing -
lemma
nu_phase_offset_eq -
lemma
nu_spacing_eq -
def
res_nu3 -
def
res_nu2 -
def
nu1_spacing -
lemma
nu1_spacing_eq -
def
res_nu1 -
lemma
res_nu3_simp -
lemma
res_nu2_simp -
lemma
res_nu1_simp -
theorem
rung_gap_21_is_two -
def
predicted_mass_eV_frac_with -
def
predicted_mass_eV_frac -
lemma
predicted_mass_eV_frac_legacy -
theorem
rung_gap_is_seven_halves -
lemma
nu3_frac_pred_bounds -
lemma
nu2_frac_pred_bounds -
lemma
nu1_frac_pred_bounds -
def
dm2 -
def
dm2_21_frac_pred -
def
dm2_31_frac_pred -
def
dm2_21_frac_pred_with -
def
dm2_31_frac_pred_with -
lemma
dm2_21_frac_pred_with_legacy -
lemma
dm2_31_frac_pred_with_legacy -
lemma
dm2_21_frac_pred_in_nufit_1sigma -
lemma
dm2_21_frac_pred_with_legacy_in_nufit_1sigma -
lemma
dm2_31_frac_pred_in_nufit_2sigma -
lemma
dm2_31_frac_pred_with_legacy_in_nufit_2sigma -
theorem
squared_mass_ratio_structural_phi7 -
lemma
nu3_pred_bounds -
lemma
m3_approx_bounds -
theorem
nu3_match -
lemma
nu2_pred_bounds -
lemma
m2_approx_bounds -
theorem
nu2_match -
structure
NeutrinoMassCert -
theorem
neutrino_mass_verified