Article · Predictions

Predictions

All 15 particle masses from \(m_e\) and three integer seeds \(\{n_d,\,n_u,\,n_{\text{top}}\}\) (composite \(n_s = 4\)).

Mass Predictions

The coloured quarks (\(d\), \(s\), \(u\), \(c\), \(t\)) carry a derived confinement-binding correction; a geometric back-reaction correction is applied to \(\tau\). The masses shown are physical.

ParticleIDWT (MeV)PDG (MeV)Error
\(\gamma\) (photon)00exact
\(W^\pm\)80,37980,369+0.012%
\(Z^0\)91,23091,188+0.047%
H (Higgs)125,266125,200+0.053%
\(d\) (down)4.7024.70+0.04%
\(s\) (strange)93.9693.5+0.49%
\(b\) (bottom)4,1814,183−0.05%
\(u\) (up)2.1752.16+0.70%
\(c\) (charm)1,277.31,273.0+0.34% (+0.9σ)
\(t\) (top)172,500172,570−0.04% (−0.2σ)
\(e^-\) (electron)0.5110.511unit ref
\(\mu^-\) (muon)105.657105.658−0.001%
\(\tau^-\) (tau)1,776.841,776.93−1.0σ

The light-quark masses (\(d\) +0.04%, \(s\) +0.49%, \(u\) +0.70% vs PDG 2024) are outputs of the derived sector scales with the confinement-binding correction, all within the sizable PDG light-quark uncertainties.

Neutrino Predictions

Masses, mixing angles, and hierarchy — derived from the same two seeds, without fitting any neutrino data.

ObservableIDWTPDG / ExperimentStatus
\(\nu_1\) mass1.487 meVnot yet measured—
\(\nu_2\) mass8.639 meVnot yet measured—
\(\nu_3\) mass50.27 meV~50.3 meV (from PDG 2024 \(\Delta m^2_{31}\))−0.1%
\(\Sigma m_\nu\)60.39 meV< 120 meV (Planck 2023)✓
\(\Delta m^2_{21}\)\(7.242 \times 10^{-5}\) \(\text{eV}^2\)\((7.53 \pm 0.18) \times 10^{-5}\) \(\text{eV}^2\)−3.8% ✓
\(\Delta m^2_{31}\)\(2.524 \times 10^{-3}\) \(\text{eV}^2\)\((2.530 \pm 0.028) \times 10^{-3}\) \(\text{eV}^2\) (PDG 2024 NO)−0.2%
\(\sin^2\theta_{12}\)0.30860.307+0.51%
\(\sin^2\theta_{23}\)0.55900.553+1.07%
\(\sin^2\theta_{13}\)0.022110.0219+0.96%
Mass orderingNormalNormal (preferred)✓
\(m_{\beta\beta}\) (\(0\nu\beta\beta\))0not observed✓ falsifiable
\(m_\beta\) (tritium)8.77 meV< 450 meV (KATRIN)✓

Neutrinos are Dirac fermions in IDWT — the \(d=5\) sector has \(d \bmod 8 = 5\), the unique Clifford-algebra class that geometrically forbids Majorana spinors. The Majorana mass term is absent at all orders — the charge conjugation matrix \(C\) required for \(\psi^T C\psi\) does not exist on the \(S^5\) spinor bundle. Cross-sector coordinate couplings can generate Dirac mass corrections but cannot produce Majorana operators at any order. All three PMNS mixing angles are derived from a single coupling constant \(g_{55} = 96/g_{22}\) and simplex mode-index ratios. The \(\nu_3\) mass includes a cross-sector correction \(\delta_{\nu_3} = \varepsilon \times g_{33} = 1/35\), derived exactly from the \(\ell=2\) kernel scale \(\varepsilon\) and the \(d=3\) coupling (Part 2 §9d).