2000
DOI: 10.1142/s0129167x00000477
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On Sasakian–einstein Geometry

Abstract: We introduce a multiplication ⋆ (we call it a join) on the space of all compact Sasakian-Einstein orbifolds [Formula: see text] and show that [Formula: see text] has the structure of a commutative associative topological monoid. The set [Formula: see text] of all compact regular Sasakian–Einstein manifolds is then a submonoid. The set of smooth manifolds in [Formula: see text] is not closed under this multiplication; however, the join [Formula: see text] of two Sasakian–Einstein manifolds is smooth under some … Show more

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Cited by 149 publications
(182 citation statements)
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“…Recently Boyer, Galicki et al [18,19,20,21] have constructed many inhomogeneous Einstein-Sasaki (2n − 1) metrics on the links L f = C f ∩ S 2n+1 of weighted homogeneous polynomials f on C n+1 . The notation is as follows: C f ∈ C n+1 is the zero set f (z) = 0 of the polynomial, and S 2n+1 is the standard sphere.…”
Section: Introduction and Definitionmentioning
confidence: 99%
“…Recently Boyer, Galicki et al [18,19,20,21] have constructed many inhomogeneous Einstein-Sasaki (2n − 1) metrics on the links L f = C f ∩ S 2n+1 of weighted homogeneous polynomials f on C n+1 . The notation is as follows: C f ∈ C n+1 is the zero set f (z) = 0 of the polynomial, and S 2n+1 is the standard sphere.…”
Section: Introduction and Definitionmentioning
confidence: 99%
“…A Sasakian manifold M is quasiregular if the 1-dimensional foliation F 1 induced by the Reeb field on M has compact fibers. Quasiregular Sasakian manifolds are always obtained from the construction described in Example 1.9 (see [BG00]). Therefore, to prove Theorem 1.11, we need to show that a given CR-manifold M admits a quasi-regular Sasakian structure, if it admits some Sasakian structure.…”
Section: Proofmentioning
confidence: 99%
“…15) that were classified in the years 1982-1985 [13,21,24] when Kaluza Klein supergravity was very topical. The Sasakian structure [30,31,32,33] of G/H reflects its holonomy and is the property that guarantees N = 2 supersymmetry both in the bulk AdS 4 and on the boundary M 3 . Kaluza Klein spectra for D = 11 supergravity compactified on the manifolds (1.15) have already been constructed [29] or are under construction [34] and, once the corresponding superconformal theory has been identified, it can provide a very important tool for comparison and discussion of the AdS/CFT correspondence.…”
Section: The Conceptual Environment and Our Goalsmentioning
confidence: 99%