Higgs Bundles and UV Completion in F-Theory
Ron Donagi, Martijn Wijnholt

TL;DR
This paper develops a rigorous mathematical framework for local F-theory models using Higgs bundles, proves a no-go theorem for certain GUT models, and explores conditions for realistic global models with suppressed proton decay.
Contribution
It introduces an intrinsic construction of local F-theory models via spectral covers and proves the non-existence of certain three-generation SU(5) models for generic moduli.
Findings
Local models are described by meromorphic Higgs bundles with spectral cover.
No-go theorem shows three-generation SU(5) models do not exist for generic moduli.
Global models can be constructed with fluxes that suppress proton decay.
Abstract
F-theory admits 7-branes with exceptional gauge symmetries, which can be compactified to give phenomenological four-dimensional GUT models. Here we study general supersymmetric compactifications of eight-dimensional Yang-Mills theory. They are mathematically described by meromorphic Higgs bundles, and therefore admit a spectral cover description. This allows us to give a rigorous and intrinsic construction of local models in F-theory. We use our results to prove a no-go theorem showing that local SU(5) models with three generations do not exist for generic moduli. However we show that three-generation models do exist on the Noether-Lefschetz locus. We explain how F-theory models can be mapped to non-perturbative orientifold models using a scaling limit proposed by Sen. Further we address the construction of global models that do not have heterotic duals. We show how one may obtain a…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Particle physics theoretical and experimental studies · Quantum Chromodynamics and Particle Interactions
