2019
DOI: 10.1007/s12220-019-00257-5
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Geometric Pluripotential Theory on Sasaki Manifolds

Abstract: We extend profound results in pluripotential theory on Kähler manifolds [31] to Sasaki setting via its transverse Kähler structure. As in Kähler case, these results form a very important piece to solve the existence of Sasaki metrics with constant scalar curvature (cscs) in terms of properness of K-energy, considered by the first named author in [49]. One main result is to generalize T. Darvas' theory on the geometric structure of the space of Kähler potentials in Sasaki setting. Along the way we extend most o… Show more

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Cited by 11 publications
(33 citation statements)
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References 52 publications
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“…Since then a number of important works have appeared building on the topics presented in this work: Chen-Cheng cracked the PDE theory of the csck equation [36,37], allowing to fully prove a converse of a theorem by Berman-Darvas-Lu [14]. Very recently He-Li pointed out that the contents of this survey generalize to Sasakian manifolds [77], paving the way to existence theorems for canonical metrics in that context as well. Lemma 1.1.…”
Section: Ricω = λωmentioning
confidence: 99%
“…Since then a number of important works have appeared building on the topics presented in this work: Chen-Cheng cracked the PDE theory of the csck equation [36,37], allowing to fully prove a converse of a theorem by Berman-Darvas-Lu [14]. Very recently He-Li pointed out that the contents of this survey generalize to Sasakian manifolds [77], paving the way to existence theorems for canonical metrics in that context as well. Lemma 1.1.…”
Section: Ricω = λωmentioning
confidence: 99%
“…M K is the relative Mabuchi energy acting on the space of (normalized) Sasaki structures in (N, K, J K ), studied in [34,35,56]. Secondly, in Lemma 2.17 we compute the derivative of Θ, which enables us to show (see Lemma 4.6) that it is bilipschitz with respect to d 1 .…”
Section: Introductionmentioning
confidence: 99%
“…These tools allow us to define a notion of properness for M Ǩ,κ with respect to the natural action of T C which directly translates via Θ to a corresponding notion of properness for M K (see Corollary 4.11). This allows us to use the extension of M K to the d 1 -completion and the regularity of its minimizers (obtained in [34,35]) to show the properness of M K (see Theorem 4.12) and hence of M Ǩ,κ . A key result for this to work is the transitivity of the action of T C on the space of T-invariant K-extremal Kähler metrics in 2πc 1 (L), which has been obtained in [41] using the approach in [16].…”
Section: Introductionmentioning
confidence: 99%
“…Again, it is not our intention to historically describe the history and significance of the use of metric geometry within Kähler geometry but to mention a few more articles [7,26,27,29,45,46,54], and then we refer to [25,32,53] for a better historical account and an overall picture. It is of interest here to mention the work of He and Li [34] on geometric pluripotential theory on Sasakian manifolds.…”
Section: Introductionmentioning
confidence: 99%