Abstract
The Gildener-Weinberg (GW) mechanism produces a Higgs boson that is a dilaton. That is, is both naturally light and naturally aligned. It also predicts additional singly-charged and neutral Higgs bosons all of whose masses are and, therefore, within reach of the LHC now. I argue that the GW Higgs is composite -- a bound state of fermions whose strong interactions are at some high, unknown scale . The lone harbingers of compositeness, ones that may be accessible at the next multi-TeV collider, are isovector vector and axial vector bound states whose masses are . They decay into the only fermion-antifermion composites lighter than they are, the Higgs boson and longitudinally-polarized weak bosons: , and , . Observing these resonant, highly-boosted weak-scale bosons would establish their composite nature.
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