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Probing a degenerate-scalar scenario in a pseudoscalar dark-matter model
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abstract
We study a pseudoscalar dark-matter model arising from a complex singlet extension of the standard model (SM), and show that the dark-matter--nucleon scattering is suppressed when two CP-even scalars are degenerate. In such a degenerate-scalar scenario we explore the model parameter space which satisfies constraints from the direct detection experiments and the relic density of dark matter. In addition, we discuss a possibility to verify such a scenario by using the recoil mass technique at the International Linear Collider. We find that a pair of states separated by 0.2 GeV can be distinguished from the single SM-like Higgs state at 5$\sigma$ with integrated luminosity of 2 ab$^{-1}$.
Forward citations
Cited by 3 Pith papers
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One-loop analysis of dark matter constraints in a complex scalar extension of the Standard Model
A one-loop calculation of dark matter observables in the complex singlet extension shows quantum corrections significantly shrink the allowed parameter region compared to tree-level analysis.
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Pseudo-Nambu-Goldstone-boson Dark Matter from Three Complex Scalars
A new dark matter model makes a pseudo-Goldstone boson stable with a residual Z3 symmetry and obtains the observed relic abundance from annihilation plus semi-annihilation.
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Tiny yet detectable WIMP-nucleon scattering cross sections in a pseudo-Nambu-Goldstone dark matter model
The authors construct a pseudo-Nambu-Goldstone dark matter model whose subdominant vector or scalar partner produces effective WIMP-nucleon cross sections below today's bounds but above the neutrino fog.
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