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arXiv · 2606.12477

The Residual $288$ of the $E_8\times\omega E_8$ Program as Adjoint-Lineage Scaffolding Labels: an Ontology, and the Status of the Bifermionic Lagrangian

Abstract

In the $E_8\times\omega E_8$ octonionic unification program, each $E_8$ branches as $SU(3)_{st}\times E_6$, supplying one geometric $SU(3)_{st}$ per branch, while the split-complex unit $\omega$ grades the visible and pre-gravitational branches; matter and gauge content is carried by $E_6\times E_6$, with chiral fermions realized as Cl(6) minimal-ideal spinors rather than $E_8$ representation components -- which places the chiral sector outside the Distler-Garibaldi no-go theorem. Comparing the 496-label two-branch adjoint reservoir with the 208 structures matched in the Generalized Trace Dynamics Lagrangian leaves a residual 288. We argue that this 288 is an adjoint-lineage representation-label ledger -- bookkeeping for the scaffolding -- and not a particle spectrum. The bifermionic seed is Hermitian, with $E_6$-covariant channels classified by $\bar{27}\otimes 27 = 1\oplus 78\oplus 650$: each branch's 78 supplies the gauge currents and a composite electroweak doublet, while the $E_6$ singlet is electroweak-inert. The charge-sum sector A is absent from the bare seed, and the 252 $SU(3)_{st}$-charged labels cannot be matter bilinears in any reservoir, conditional on the spinor ontology. The size of $E_8\times\omega E_8$ is thus the dimension of a label ledger, not a count of particles; beyond the Standard Model, the framework's content is sterile neutrinos and a second composite scalar.

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Tejinder P. Singh. 2026-06-10. The Residual $288$ of the $E_8\times\omega E_8$ Program as Adjoint-Lineage Scaffolding Labels: an Ontology, and the Status of the Bifermionic Lagrangian. https://arxiv.org/abs/2606.12477

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