
TL;DR
This paper explores subtle theoretical issues in calculating scalar spectra in the Abelian Higgs model, emphasizing the importance of proper renormalization and stability analysis for accurate physical predictions.
Contribution
It demonstrates the handling of complex renormalization effects and IR divergences in the Abelian Higgs model, clarifying their impact on physical Higgs mass calculations.
Findings
Physical Higgs mass is determined by the symmetry-breaking VEV.
One-loop corrections exhibit polynomial cut-off dependence.
Proper renormalization ensures UV-robust Higgs mass predictions.
Abstract
In calculations of the elementary scalar spectra of spontaneously broken gauge theories there is a number of subtleties which, though often unnecessary to deal with in the order-of-magnitude type of calculations, have to be taken into account if fully consistent results are sought for. Within the "canonical" effective-potential approach these are, for instance: the need to handle infinite series of nested commutators of derivatives of field-dependent mass matrices, the need to cope with spurious IR divergences emerging in the consistent leading-order approximation and, in particular, the need to account for the fine interplay between the renormalization effects in the one- and two-point Green's functions which, indeed, is essential for the proper stable vacuum identification and, thus, for the correct interpretation of the results. In this note we illustrate some of these issues in the…
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