2017
DOI: 10.1007/s10455-017-9588-7
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Stability and geometric properties of constant weighted mean curvature hypersurfaces in gradient Ricci solitons

Abstract: In this paper, we prove that a noncompact complete hypersurface with finite weighted volume, weighted mean curvature vector bounded in norm, and isometrically immersed in a complete weighted manifold is proper. In addition, we obtain an estimate for f -stability index of a constant weighted mean curvature hypersurface with finite weighted volume and isometrically immersed in a shrinking gradient Ricci soliton that admits at least one parallel field globally defined. For such hypersurface, we still give a neces… Show more

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Cited by 11 publications
(14 citation statements)
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“…1] to weighted minimal submanifolds properly immersed in certain shrinking gradient Ricci solitons (complete weighted manifolds such that Ric − ∇ 2 h = c g, where ∇ 2 denotes the Hessian, Ric is the Ricci tensor, g is the Riemannian metric and c is a positive constant). As recently shown by Alencar and Rocha [1,Thm. 1], the result still holds for a properly immersed submanifold P where the function H h P , ∇h is bounded from above.…”
Section: Introductionsupporting
confidence: 62%
“…1] to weighted minimal submanifolds properly immersed in certain shrinking gradient Ricci solitons (complete weighted manifolds such that Ric − ∇ 2 h = c g, where ∇ 2 denotes the Hessian, Ric is the Ricci tensor, g is the Riemannian metric and c is a positive constant). As recently shown by Alencar and Rocha [1,Thm. 1], the result still holds for a properly immersed submanifold P where the function H h P , ∇h is bounded from above.…”
Section: Introductionsupporting
confidence: 62%
“…Using Theorem 1.2 in [7], Proposition 1.1 in [1], and Proposition 5 in [5], Vieira and we prove the equivalence of properness of immersion, polynomial volume growth and finite weighted volume for submanifols in a shrinking gradient soliton with weighted mean curvature bounded in norm. More precisely,…”
Section: Equivalence Of Properness Of Immersion Finiteness Of Weightmentioning
confidence: 85%
“…1 2 g and jrf j 2 f has polynomial volume growth, it must have finite weighted volume (see [5,Proposition 5]). On the other hand, in [1], Alencar-Rocha proved that if R a complete submanifold immersed in a complete Riemannian manifold with weighted mean curvature vector bounded in norm, then the finite weighted volume of R implies properness of immersion (see [1, Proposition 1.1]).…”
Section: Equivalence Of Properness Of Immersion Finiteness Of Weightmentioning
confidence: 99%
“…In [9], it was proved that if a complete properly immersed submanifold Σ in a complete Riemannian manifold M with Ric + ∇ 2 f ≥ 1 2 g and |∇f | 2 ≤ f has polynomial volume growth, it must have finite weighted volume (Proposition 5 in [9]). On the other hand, in [1], Alencar-Rocha proved that if Σ a complete submanifold immersed in a complete Riemannian manifold with weighted mean curvature vector bounded in norm, then the finite weighted volume of Σ implies properness of immersion (Proposition 1.1 in [1]). Using these two properties and Theorem 1.2, we get Theorem 1.3.…”
Section: Upper Estimate Of Volume Growthmentioning
confidence: 99%