This chapter explores the lepton sector's origins, charge neutrality, and mixing, indicating profound implications for particle physics.
The lepton sector is derived from four physical principles, each tracing to Bharathi's insights (2026): (1) Every electron starts life in a neutron a topological theorem of the G2 Fano lattice. The G2 generator Le7 maps every T3 = + 1 2 Fano node to a T3 = −1 2 partner, giving P T3 = 0 over all quark nodes making electric charge neutrality a theorem, not an assumption. After QCD connement, the T3 = −1 2 states are locked inside neutrons; β-decay liberates them as free leptons. The electron is the T3 = −1 2 brane mode knocked o the neutron's T ∗ 2 boundary (rT ∗ 2 = 32.75 fm) by weak decay. (2) Lepton origin from pair production and Raman/Compton coupling: leptons are not primary Fano nodes they are secondary modes, born from photon condensation in the H+ sector, calibrated by the meson mass scale (mµ ∼mπ ∼ΛQCD). (3) The Koide formula K = 2/3 from the Gen 1 H+ fraction: the empirical Koide constant equals the H+ fraction of the Gen 1 generation line (2/3 nodes are H+), a structural theorem of the G2 composition. The Koide formula is observed to hold to 0.001%. (4) Near-maximal PMNS mixing from absence of the H−penalty: all leptons are purely H+ (no colour charge), so the PMNS hop rule has no Gen 3 H−penalty, giving mixing angles of order arcsin( p 3/8) ≈38 naturally near-maximal vs the CKM Cabibbo angle of 13. Part of the One-Octonion Brane-Bulk Framework series. Anchor DOI: 10.5281/zenodo.19120873. Community: one-octonion-brane-bulk. Author: Bharathi Dasan Jagadeesan, M.D., University of Minnesota. ORCID: 0000-0002-1143-941X.
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