2009
DOI: 10.1016/j.matpur.2009.06.001
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Monge–Ampère measures on pluripolar sets

Abstract: In this article we solve the complex Monge-Ampère equation for measures with large singular part. This result generalizes classical results by Demailly, Lelong and Lempert a.o., who considered singular parts carried on discrete sets. By using our result we obtain a generalization of Ko lodziej's subsolution theorem. More precisely, we prove that if a non-negative Borel measure is dominated by a complex Monge-Ampère measure, then it is a complex Monge-Ampère measure.2000 Mathematics Subject Classification. Prim… Show more

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Cited by 94 publications
(94 citation statements)
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“…Assume that u ∈ F(H) satisfies (2.1). It follows from Proposition 2.5 in [1] that there exists a decreasing sequence [u j ] ⊂ E 0 (H) that converges pointwise to u on Ω as j → ∞. By Proposition 2.2(b) and assumption (2.1) we have…”
Section: Using Proposition 22(b)mentioning
confidence: 86%
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“…Assume that u ∈ F(H) satisfies (2.1). It follows from Proposition 2.5 in [1] that there exists a decreasing sequence [u j ] ⊂ E 0 (H) that converges pointwise to u on Ω as j → ∞. By Proposition 2.2(b) and assumption (2.1) we have…”
Section: Using Proposition 22(b)mentioning
confidence: 86%
“…The measure µ j is a Borel measure in Ω 2 and it vanishes on pluripolar sets by Lemma 4.11 in [1]. Moreover, from (2.4) it follows that µ j (Ω 2 ) < ∞.…”
Section: This Assumption and Proposition 22(a) Imply Thatmentioning
confidence: 89%
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“…Some elements of pluripotential theory that will be used throughout the paper can be found in [1]- [32]. A bounded domain Ω ⊂ C n is called hyperconvex if there exists a bounded plurisubharmonic function ρ such that {z ∈ Ω : ρ(z) < c} ⋐ Ω, for every c ∈ (−∞, 0).…”
Section: The Existencementioning
confidence: 99%