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Principle of multi-critical-points in the ALP-Higgs model and the corresponding phase transition

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arxiv 2402.12085 v2 pith:325P6EQB submitted 2024-02-19 hep-ph

classification hep-ph
keywords phasetransitionmodelparameterpmcpprinciplealp-higgsfirst-order
verification ladder T0 review T1 audit T2 compute T3 formal
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The principle of multi-critical-points (PMCP) may be a convincing approach to determine the emerging parameter values in different kinds of beyond-standard-model (BSM) models. This could certainly be applied to solve the problem of undetermined new parameters in the ALP-Higgs interaction models. In this paper, we apply this principle to such model and investigate whether there are suitable solutions. Then, using the 1-loop effective potential, we study the phase transition property of this model under the PMCP requirement. It is gratifying to find that under the requirement of PMCP, the phase transition can be not only first-order, but also strong enough to serve as a solution for electroweak baryongenesis (EWBG). Finally, we show the parameter space of ALP and provide the parameter range that leads to the first-order phase transition.

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  1. Vacuum Metastability from Axion-Higgs Criticality

    hep-ph 2024-12 conditional novelty 6.0 of 10

    An ALP-Higgs coupling can lower the vacuum instability scale to near the weak scale, predicting an axion-like particle between 1 MeV and 20 GeV that future experiments can fully probe.

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