Relative Quantum Gravity: Localized Gravity and the Swampland
Edoardo Anastasi, Roberta Angius, Jes\'us Huertas, Angel Uranga,, Chuying Wang

TL;DR
This paper introduces the concept of relative quantum gravity, showing that localized gravity theories can violate swampland constraints but are consistent when coupled to higher-dimensional theories, with implications for string theory models.
Contribution
It proposes the framework of relative quantum gravity, demonstrating how localized gravity theories reconcile swampland constraints through higher-dimensional couplings and analyzing explicit string theory models.
Findings
Localized gravity theories can violate swampland constraints.
Coupling to higher-dimensional gravity restores consistency.
Explicit string models support the relative quantum gravity framework.
Abstract
We perform a systematic study of the applicability of swampland constraints to theories of localized gravity. We find that these gravity theories can violate swampland constraints, but can be reconciled with them when coupled to a higher-dimensional gravity theory. They realize what we call : to become consistent at the quantum level, these gravity theories must be defined as to a host higher-dimensional gravity theory. We show that these theories can admit global symmetries, even anomalous ones; they can violate the cobordism, completeness, weak gravity, and distance conjectures; they may admit stable non-supersymmetric AdS vacua, or dS vacua. All swampland constraints are however satisfied when these gravity theories are regarded as relative and completed by coupling them to a higher-dimensional one. We discuss these…
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Taxonomy
TopicsNoncommutative and Quantum Gravity Theories · Quantum Mechanics and Applications · Algebraic and Geometric Analysis
