Type II embeddings for $d=6$ Einstein-Maxwell gauged supergravity
Niall T. Macpherson, Ricardo Stuardo

TL;DR
This paper classifies how six-dimensional Einstein-Maxwell supergravity can be embedded into type II supergravity, identifying conditions and solutions, including new classes governed by Toda-like equations, with implications for supersymmetric solutions.
Contribution
It provides a comprehensive classification of embeddings of 6D Einstein-Maxwell supergravity into type II supergravity, including new Toda-like solutions and analysis of various gauging scenarios.
Findings
Two classes of embeddings identified, one governed by a Toda-like equation.
Existence of at least one bounded embedding in the Toda-like class.
Embeddings are more permissive without a tensor multiplet, but PDE complexity increases.
Abstract
Bi-spinor and G-structure methods are used to classify the possible consistent truncations of type II supergravity to Einstein-Maxwell (gauged) supergravity, and its consistent sub-sectors. In the absence of R-symmetry gauging and a tensor multiplet we establish that every supersymmetric Mink solution defines an embedding of the theory. Adding a tensor multiplet places restrictions on these embeddings, but embeddings still exist. In the presence of R-symmetry gauging the internal spaces of the embeddings are neither related to Mink or AdS. Under the assumption that the internal space contains a single U(1) isometry housing the gauge field we classify the possible embedding manifolds. We find two classes of embedding for the entire theory, one of which is governed by a Toda-like equation and contains at least one bounded embedding. In the absence of a tensor…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Quantum Chromodynamics and Particle Interactions · Noncommutative and Quantum Gravity Theories
