Genesis of electroweak and dark matter scales from a bilinear scalar condensate
Jisuke Kubo, Masatoshi Yamada

TL;DR
This paper proposes a mechanism where a scalar bilinear condensate in a scale-invariant hidden sector generates both the electroweak scale and dark matter, predicting a TeV-scale dark matter particle with near-current detection limits.
Contribution
It introduces a new model linking scalar bilinear condensation to electroweak symmetry breaking and dark matter, with detailed effective theory formulation and phenomenological predictions.
Findings
Dark matter mass around 1 TeV
Elastic cross section near LUX bounds
Scalar bilinear condensation explains electroweak scale
Abstract
The condensation of scalar bilinear in a classically scale invariant strongly interacting hidden sector is used to generate the electroweak scale, where the excitation of the condensate is identified as dark matter. We formulate an effective theory for the condensation of the scalar bilinear and find in the self-consistent mean field approximation that the dark matter mass is of TeV with the spin-independent elastic cross section off the nucleon slightly below the LUX upper bound.
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