Flipped SU(5) X U(1)_X Models from F-Theory
Jing Jiang, Tianjun Li, Dimitri V. Nanopoulos, Dan Xie

TL;DR
This paper constructs flipped SU(5) X U(1)_X models from F-theory, analyzing gauge coupling unification, vector-like particle effects, and phenomenological implications such as collider signatures and proton decay.
Contribution
It presents a systematic construction of flipped SU(5) X U(1)_X models with vector-like particles from F-theory, including detailed gauge unification and phenomenological analysis.
Findings
Gauge coupling unification is preserved with U(1)_X flux contributions.
Models predict TeV-scale vector-like particles observable at colliders.
Proton decay and Higgs mass can be within experimental reach.
Abstract
We systematically construct flipped SU(5) X U(1)_X models without and with bulk vector-like particles from F-theory. To realize the decoupling scenario, we introduce sets of vector-like particles in complete SU(5) X U(1) multiplets at the TeV scale, or at the intermediate scale, or at the TeV scale and high scale. To avoid the Landau pole problem for the gauge couplings, we can only introduce five sets of vector-like particles around the TeV scale. These vector-like particles can couple to the Standard Model singlet fields, and obtain suitable masses by Higgs mechanism. We study gauge coupling unification in detail. We show that the U(1)_X flux contributions to the gauge couplings preserve the SU(5) X U(1)_X gauge coupling unification. We calculate the SU(3)_C X SU(2)_L unification scales, and the SU(5) X U(1)_X unification scales and unified couplings. In most of our models, the…
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