Universal Landau pole and physics below the 100 TeV scale
We reconsider the possibility that all standard model gauge couplings blow up at a common scale in the ultraviolet. The simplest implementation of this idea assumes supersymmetry and the addition of a single vectorlike generation of matter fields around the TeV scale. We provide an up-to-date numeri...
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Veröffentlicht in: | Physical review. D 2017-08, Vol.96 (3), Article 035002 |
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creator | Carone, Christopher D. Chaurasia, Shikha Donahue, John C. |
description | We reconsider the possibility that all standard model gauge couplings blow up at a common scale in the ultraviolet. The simplest implementation of this idea assumes supersymmetry and the addition of a single vectorlike generation of matter fields around the TeV scale. We provide an up-to-date numerical study of this scenario and show that either the scale of the additional matter or the scale of the light superparticle masses falls below potentially relevant LHC bounds. We then consider minimal extensions of the extra matter sector that raise its scale above the reach of the LHC, to determine whether there are cases that might be probed at a 100 TeV collider. We also consider the possibility that the heavy matter sector involves new gauge groups constrained by the same ultraviolet boundary condition, which in some cases can provide an explanation for the multiplicity of heavy states. We comment on the relevance of this framework to theories with dark and visible sectors. |
doi_str_mv | 10.1103/PhysRevD.96.035002 |
format | Article |
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subjects | Boundary conditions Couplings Large Hadron Collider Mathematical models Standard model (particle physics) Supersymmetry |
title | Universal Landau pole and physics below the 100 TeV scale |
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