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Domain walls of gauged supergravity, M-branes and algebraic curves

We provide an algebraic classification of all supersymmetric domain wall solutions of maximal gauged supergravity in four and seven dimensions, in the presence of non-trivial scalar fields in the coset SL(8,R)/SO(8) and SL(5,R)/SO(5) respectively. These solutions satisfy first-order equations, which...

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Autores principales: Bakas, I., Brandhuber, A., Sfetsos, K.
Lenguaje:eng
Publicado: 1999
Materias:
Acceso en línea:https://dx.doi.org/10.4310/ATMP.1999.v3.n6.a2
http://cds.cern.ch/record/412223
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author Bakas, I.
Brandhuber, A.
Sfetsos, K.
author_facet Bakas, I.
Brandhuber, A.
Sfetsos, K.
author_sort Bakas, I.
collection CERN
description We provide an algebraic classification of all supersymmetric domain wall solutions of maximal gauged supergravity in four and seven dimensions, in the presence of non-trivial scalar fields in the coset SL(8,R)/SO(8) and SL(5,R)/SO(5) respectively. These solutions satisfy first-order equations, which can be obtained using the method of Bogomol'nyi. From an eleven-dimensional point of view they correspond to various continuous distributions of M2- and M5-branes. The Christoffel-Schwarz transformation and the uniformization of the associated algebraic curves are used in order to determine the Schrodinger potential for the scalar and graviton fluctuations on the corresponding backgrounds. In many cases we explicitly solve the Schrodinger problem by employing techniques of supersymmetric quantum mechanics. The analysis is parallel to the construction of domain walls of five-dimensional gauged supergravity, with scalar fields in the coset SL(6,R)/SO(6), using algebraic curves or continuous distributions of D3-branes in ten dimensions. In seven dimensions, in particular, our classification of domain walls is complete for the full scalar sector of gauged supergravity. We also discuss some general aspects of D-dimensional gravity coupled to scalar fields in the coset SL(N,R)/SO(N).
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institution Organización Europea para la Investigación Nuclear
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spelling cern-4122232019-09-30T06:29:59Zdoi:10.4310/ATMP.1999.v3.n6.a2http://cds.cern.ch/record/412223engBakas, I.Brandhuber, A.Sfetsos, K.Domain walls of gauged supergravity, M-branes and algebraic curvesParticle Physics - TheoryWe provide an algebraic classification of all supersymmetric domain wall solutions of maximal gauged supergravity in four and seven dimensions, in the presence of non-trivial scalar fields in the coset SL(8,R)/SO(8) and SL(5,R)/SO(5) respectively. These solutions satisfy first-order equations, which can be obtained using the method of Bogomol'nyi. From an eleven-dimensional point of view they correspond to various continuous distributions of M2- and M5-branes. The Christoffel-Schwarz transformation and the uniformization of the associated algebraic curves are used in order to determine the Schrodinger potential for the scalar and graviton fluctuations on the corresponding backgrounds. In many cases we explicitly solve the Schrodinger problem by employing techniques of supersymmetric quantum mechanics. The analysis is parallel to the construction of domain walls of five-dimensional gauged supergravity, with scalar fields in the coset SL(6,R)/SO(6), using algebraic curves or continuous distributions of D3-branes in ten dimensions. In seven dimensions, in particular, our classification of domain walls is complete for the full scalar sector of gauged supergravity. We also discuss some general aspects of D-dimensional gravity coupled to scalar fields in the coset SL(N,R)/SO(N).We provide an algebraic classification of all supersymmetric domain wall solutions of maximal gauged supergravity in four and seven dimensions, in the presence of non-trivial scalar fields in the coset SL(8,R)/SO(8) and SL(5,R)/SO(5) respectively. These solutions satisfy first-order equations, which can be obtained using the method of Bogomol'nyi. From an eleven-dimensional point of view they correspond to various continuous distributions of M2- and M5-branes. The Christoffel-Schwarz transformation and the uniformization of the associated algebraic curves are used in order to determine the Schrodinger potential for the scalar and graviton fluctuations on the corresponding backgrounds. In many cases we explicitly solve the Schrodinger problem by employing techniques of supersymmetric quantum mechanics. The analysis is parallel to the construction of domain walls of five-dimensional gauged supergravity, with scalar fields in the coset SL(6,R)/SO(6), using algebraic curves or continuous distributions of D3-branes in ten dimensions. In seven dimensions, in particular, our classification of domain walls is complete for the full scalar sector of gauged supergravity. We also discuss some general aspects of D-dimensional gravity coupled to scalar fields in the coset SL(N,R)/SO(N).hep-th/9912132CERN-TH-99-366NEIP-99-021CERN-TH-99-366NEIP-99-021oai:cds.cern.ch:4122231999-12-16
spellingShingle Particle Physics - Theory
Bakas, I.
Brandhuber, A.
Sfetsos, K.
Domain walls of gauged supergravity, M-branes and algebraic curves
title Domain walls of gauged supergravity, M-branes and algebraic curves
title_full Domain walls of gauged supergravity, M-branes and algebraic curves
title_fullStr Domain walls of gauged supergravity, M-branes and algebraic curves
title_full_unstemmed Domain walls of gauged supergravity, M-branes and algebraic curves
title_short Domain walls of gauged supergravity, M-branes and algebraic curves
title_sort domain walls of gauged supergravity, m-branes and algebraic curves
topic Particle Physics - Theory
url https://dx.doi.org/10.4310/ATMP.1999.v3.n6.a2
http://cds.cern.ch/record/412223
work_keys_str_mv AT bakasi domainwallsofgaugedsupergravitymbranesandalgebraiccurves
AT brandhubera domainwallsofgaugedsupergravitymbranesandalgebraiccurves
AT sfetsosk domainwallsofgaugedsupergravitymbranesandalgebraiccurves