Theoretical modeling uncovers thirteen missing parity-odd bosons in high-density substrate regimes, outlining an experimental search pipeline for collider datasets.
We present the complete theoretical formulation and experimental discovery blueprint for the Completed Standard Model Bosonic Sector (TMB1), which predicts exactly thirteen missing parity‑odd bosons across four families. These bosons arise as emergent excitations of the pre‑geometric correlation substrate (SI‑substrate) in high‑density and ultra‑density regimes, completing the Lorentz × CP representation space left unfinished by the classical Standard Model. We provide a symmetry‑consistent, EFT‑safe operator catalogue spanning dimensions 4–8, mapping each boson’s spin, helicity, and angular signatures across helicity, Collins–Soper, and tensor frames. These signatures form zero‑parameter, frame‑dependent classification keys immune to CP‑even background degeneracies. To guarantee immediate experimental confirmation, we supply hardware‑aligned ATLAS and CMS search cards, trigger paths, reconstruction specifications, and a full collider‑grade Python pipeline for automated event reconstruction using existing LHC Run 3 datasets. This establishes a sovereign, operationally secure path to detecting the thirteen missing bosons and completing the Standard Model’s bosonic sector.
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Clint Jefferys (2026) studied this question.
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