The effective action of warped M-theory reductions with higher derivative terms - Part I
Thomas W. Grimm, Tom G. Pugh, Matthias Weissenbacher

TL;DR
This paper derives the three-dimensional effective action for warped M-theory compactifications with higher derivative corrections, revealing simplified structures and invariances despite complex background modifications.
Contribution
It provides a detailed derivation of the effective action including higher derivative terms and demonstrates the persistence of certain symmetries in warped M-theory reductions.
Findings
Effective action expressed with a single higher-curvature term
Presence of a moduli-dependent scaling symmetry
Warped solutions remain consistent despite non-Ricci-flat internal spaces
Abstract
M-theory accessed via eleven-dimensional supergravity admits globally consistent warped solutions with eight-dimensional compact spaces if background fluxes and higher derivative terms are considered. The internal background is conformally K\"ahler with vanishing first Chern class. We perturb these solutions including a finite number of K\"ahler deformations of the metric and vector deformations of the M-theory three-form. Special emphasis is given to the field-dependence of the warp-factor and the higher-derivative terms. We show that the three-dimensional two-derivative effective action takes a surprisingly simple form in terms of a single higher-curvature building block due to numerous non-trivial cancellations. Both the ansatz and the effective action admit a moduli dependent scaling symmetry of the internal metric. Furthermore, we find that the required departure from…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Cosmology and Gravitation Theories · Pulsars and Gravitational Waves Research
