Abstract:Holographic RG flow in a new SO(3) × SO(3) sector of ω-deformed SO(8) Abstract: We consider a certain N = 1 supersymmetric, SO(3) × SO(3) invariant, subsector of the ω-deformed family of SO(8)-gauged N = 8 four-dimensional supergravities. The theory contains two scalar fields and two pseudoscalar fields. We look for stationary points of the scalar potential, corresponding to AdS vacua in the theory. One of these, which breaks all supersymmetries but is nonetheless stable, is new. It exists only when ω = 0. W… Show more
“…A number of holographic RG flows within four-dimensional gauged supergravities have been studied, see for example [17,18,19,20,21] and [22,23,24] for more recent results. Some of these solutions can be uplifted to eleven dimensions resulting in many interesting geometric interpretations such as a polarization of M2-branes into M5-branes in [25].…”
We holographically study supersymmetric deformations of N = 3 and N = 1 superconformal field theories in three dimensions using four-dimensional N = 4 gauged supergravity coupled to three-vector multiplets with non-semisimple SO(3) (T 3 ,T 3 ) gauge group. This gauged supergravity can be obtained from a truncation of 11-dimensional supergravity on a tri-Sasakian manifold and admits both N = 1, 3 supersymmetric and stable nonsupersymmetric Ad S 4 critical points. We analyze the BPS equations for SO(3) singlet scalars in detail and study possible supersymmetric solutions. A number of RG flows to nonconformal field theories and half-supersymmetric domain walls are found, and many of them can be given analytically. Apart from these "flat" domain walls, we also consider Ad S 3 -sliced domain wall solutions describing twodimensional conformal defects with N = (1, 0) supersymmetry within the dual N = 1 field theory while this type of solutions does not exist in the N = 3 case.
“…A number of holographic RG flows within four-dimensional gauged supergravities have been studied, see for example [17,18,19,20,21] and [22,23,24] for more recent results. Some of these solutions can be uplifted to eleven dimensions resulting in many interesting geometric interpretations such as a polarization of M2-branes into M5-branes in [25].…”
We holographically study supersymmetric deformations of N = 3 and N = 1 superconformal field theories in three dimensions using four-dimensional N = 4 gauged supergravity coupled to three-vector multiplets with non-semisimple SO(3) (T 3 ,T 3 ) gauge group. This gauged supergravity can be obtained from a truncation of 11-dimensional supergravity on a tri-Sasakian manifold and admits both N = 1, 3 supersymmetric and stable nonsupersymmetric Ad S 4 critical points. We analyze the BPS equations for SO(3) singlet scalars in detail and study possible supersymmetric solutions. A number of RG flows to nonconformal field theories and half-supersymmetric domain walls are found, and many of them can be given analytically. Apart from these "flat" domain walls, we also consider Ad S 3 -sliced domain wall solutions describing twodimensional conformal defects with N = (1, 0) supersymmetry within the dual N = 1 field theory while this type of solutions does not exist in the N = 3 case.
“…In this case, we need to use a numerical analysis due to the complexity of the full set of BPS equations given in the Appendix. Similar to the analysis of [9], there could be many possible IR singularities due to the competition between various deformations both by operators and vacuum expectation values (vev) present in the UV N = 4 SCFT. Some examples of these solutions are given in Fig.…”
Section: N = 1 Rg Flows By Relevant Marginal and Irrelevant Deformatmentioning
confidence: 99%
“…Most of the previously studied holographic RG flows have been found within the maximal N = 8 gauged supergravities [2][3][4][5][6][7][8][9]. Many of these solutions describe various deformations of the N = 8 SCFTs arising from M2-brane world-volume proposed in [10,11].…”
We study holographic RG flow solutions within four-dimensional N = 4 gauged supergravity obtained from type IIA and IIB string theories compactified on T 6 /Z 2 × Z 2 orbifold with gauge, geometric and non-geometric fluxes. In type IIB non-geometric compactifications, the resulting gauged supergravity has I SO(3)× I SO(3) gauge group and admits an N = 4 AdS 4 vacuum dual to an N = 4 superconformal field theory (SCFT) in three dimensions. We study various supersymmetric RG flows from this N = 4 SCFT to N = 4 and N = 1 non-conformal field theories in the IR. The flows preserving N = 4 supersymmetry are driven by relevant operators of dimensions = 1, 2 or alternatively by one of these relevant operators, dual to the dilaton, and irrelevant operators of dimensions = 4 while the N = 1 flows in addition involve marginal deformations. Most of the flows can be obtained analytically. We also give examples of supersymmetric Janus solutions preserving N = 4 and N = 1 supersymmetries. These solutions should describe two-dimensional conformal defects within the dual N = 4 SCFT. Geometric compactifications of type IIA theory give rise to N = 4 gauged supergravity with I SO(3) U (1) 6 gauge group. In this case, the resulting gauged supergravity admits an N = 1 AdS 4 vacuum. We also numerically study possible N = 1 RG flows to non-conformal field theories in this case.
“…It is a theory of interacting three hypermultiplets transforming in a triplet of the SU (3) flavor symmetry, and each hypermultiplet transforms as a bifundamental under the SU (N ) × SU (N ) gauge group and as a doublet of the SU (2) R ∼ SO(3) R Rsymmetry. There are also a number of previous works giving holographic studies of this theory both in 11-dimensional context and in the effective N = 3 and N = 4 gauged supergravities [19,[27][28][29][30][31]. Solutions given in these works are holographic RG flows, Janus solutions and supersymmetric AdS 2 × 2 solutions with magnetic charges.…”
A class of AdS 2 × 2 , with 2 being a two-sphere or a hyperbolic space, solutions within four-dimensional N = 4 gauged supergravity coupled to three-vector multiplets with dyonic gauging is identified. The gauged supergravity has a non-semisimple SO(3) (T 3 ,T 3 ) gauge group and can be obtained from a consistent truncation of 11-dimensional supergravity on a tri-sasakian manifold. The maximally symmetric vacua contain AdS 4 geometries with N = 1, 3 supersymmetry corresponding to N = 1 and N = 3 superconformal field theories (SCFTs) in three dimensions. We find supersymmetric solutions of the form AdS 2 × 2 preserving two supercharges. These solutions describe twisted compactifications of the dual N = 1 and N = 3 SCFTs and should arise as near horizon geometries of dyonic black holes in asymptotically AdS 4 space-time. Most solutions have hyperbolic horizons although some of them exhibit spherical horizons. These provide a new class of AdS 2 × 2 geometries with known M-theory origin.
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