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Automatic enhancement in 6D supergravity and F-theory models

Author(s)
Raghuram, Nikhil; Taylor, Washington; Turner, Andrew P.
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Abstract
Abstract We observe that in many F-theory models, tuning a specific gauge group G and matter content M under certain circumstances leads to an automatic enhancement to a larger gauge group G′ ⊃ G and matter content M′ ⊃ M. We propose that this is true for any theory G, M whenever there exists a containing theory G′, M′ that cannot be Higgsed down to G, M. We give a number of examples including non-Higgsable gauge factors, nonabelian gauge factors, abelian gauge factors, and exotic matter. In each of these cases, tuning an F-theory model with the desired features produces either an enhancement or an inconsistency, often when the associated anomaly coefficient becomes too large. This principle applies to a variety of models in the apparent 6D supergravity swampland, including some of the simplest cases with U(1) and SU(N) gauge groups and generic matter, as well as infinite families of U(1) models with higher charges presented in the prior literature, potentially ruling out all these apparent swampland theories.
Date issued
2021-07-09
URI
https://hdl.handle.net/1721.1/136907
Department
Massachusetts Institute of Technology. Department of Physics; Massachusetts Institute of Technology. Center for Theoretical Physics
Publisher
Springer Berlin Heidelberg
Citation
Journal of High Energy Physics. 2021 Jul 09;2021(7):48
Version: Final published version

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