Warped Dipole Completed, with a Tower of Higgs Bosons
Kaustubh Agashe, Aleksandr Azatov, Yanou Cui, Lisa Randall, Minho Son

TL;DR
This paper investigates the role of Kaluza-Klein Higgs modes in warped extra-dimensional models, revealing their significant and non-decoupling contributions to dipole operators and implications for collider phenomenology.
Contribution
It demonstrates that KK Higgs modes do not decouple in warped 5D models and significantly affect dipole operators, highlighting their importance in the model's phenomenology.
Findings
KK Higgs modes contribute significantly to dipole operators.
Summing over KK Higgs modes yields an unsuppressed, finite effect.
KK Higgs bosons are essential for realistic warped 5D Standard Model phenomenology.
Abstract
In the context of warped extra-dimensional models which address both the Planck-weak- and flavor-hierarchies of the Standard Model (SM), it has been argued that certain observables can be calculated within the 5D effective field theory only with the Higgs field propagating in the bulk of the extra dimension, just like other SM fields. The related studies also suggested an interesting form of decoupling of the heavy Kaluza-Klein (KK) fermion states in the warped 5D SM in the limit where the profile of the SM Higgs approaches the IR brane. We demonstrate that a similar phenomenon occurs when we include the mandatory KK excitations of the SM Higgs in loop diagrams giving dipole operators for SM fermions, where the earlier work only considered the SM Higgs (zero mode). In particular, in the limit of a quasi IR-localized SM Higgs, the effect from summing over KK Higgs modes is unsuppressed…
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Taxonomy
TopicsParticle physics theoretical and experimental studies · Black Holes and Theoretical Physics · Quantum Chromodynamics and Particle Interactions
