TRPG Physics

Results

What the framework gets right, the prediction that could prove it wrong, and what is still open.

What it reproduces

Prediction

Neutrinos. Neutrinos follow the same relational rule as the charged leptons. The rule requires normal ordering, with m₁ = 0.36, m₂ = 8.7 and m₃ = 50.1 meV (sum 0.0592 eV). Inverted ordering is excluded because its sum of at least 0.10 eV exceeds the DESI bound. Note that the sum is only just above the smallest sum normal ordering allows (0.0588 eV), so the distinctive number is the lightest mass, 0.36 meV, which uses one negative square root (as in Brannen's form). JUNO's ordering measurement, or a sum clearly different from 0.059 eV, would falsify this part of the framework.

Quark pairing. Neutron stars need a quark pairing gap of 70 to 90 MeV when B is taken from the proton. Theory estimates 50 to 150 MeV; it has not been measured. A firm gap outside this band (from lattice or effective-theory work, or from neutron-star cooling and mergers) would falsify this part.

Open problems

  1. Quark masses. All six were run to a common scale. The balance angles are scale-independent: 52.15° (up-type) and 48.06° (down-type), against 45° for the leptons. One pattern was tested and dropped: link strengths of 3/6, 4/6 and 5/6 miss the data by about 7 standard deviations. The quark masses stay measured inputs.

  2. Force groups. U(1) × SU(2) × SU(3) match the division algebras (Hurwitz; Dixon; Furey; Connes–Chamseddine). TRPG must show its medium carries the ℂ ⊗ ℍ ⊗ 𝕆 internal structure.

  3. The twist. Derive δ = 2/9; the current conjecture is (2/3)/3.

Scorecard