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The quantization problem in Scherk-Schwarz compactifications

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arxiv 1305.0785 v3 pith:KMQ3IEU6 submitted 2013-05-03 hep-th hep-ph

classification hep-thhep-ph
keywords flatsupersymmetrychoiceconstantsdimensionsgroupsmodulioriginally
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We re-examine the quantization of structure constants, or equivalently the choice of lattice in the so-called flat group reductions, introduced originally by Scherk and Schwarz. Depending on this choice, the vacuum either breaks supersymmetry and lifts certain moduli, or preserves all supercharges and is identical to the one obtained from the torus reduction. Nonetheless the low-energy effective theory proposed originally by Scherk and Schwarz is a gauged supergravity that describes supersymmetry breaking and moduli lifting for all values of the structure constants. When the vacuum does not break supersymmetry, such a description turns out to be an artifact of the consistent truncation to left-invariant forms as illustrated for the example of ISO(2). We furthermore discuss the construction of flat groups in d dimensions and find that the Scherk--Schwarz algorithm is exhaustive. A classification of flat groups up to six dimensions and a discussion of all possible lattices is presented.

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  1. Supersymmetry-breaking compactifications on Riemann-flat manifolds

    hep-th 2025-07 conditional novelty 7.0 of 10

    For maximal supergravity on Riemann-flat Bieberbach manifolds, the Kaluza-Klein spectrum can be reorganized so that all supertraces vanish up to mass power eight, yielding a finite, negative one-loop potential.

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