2015
DOI: 10.1007/s11856-015-1252-y
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Escape of mass and entropy for diagonal flows in real rank one situations

Abstract: Abstract. Let G be a connected semisimple Lie group of real rank 1 with finite center, let Γ be a non-uniform lattice in G and a any diagonalizable element in G. We investigate the relation between the metric entropy of a acting on the homogeneous space Γ\G and escape of mass. Moreover, we provide bounds on the escaping mass and, as an application, we show that the Hausdorff dimension of the set of orbits (under iteration of a) which miss a fixed open set is not full.

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Cited by 20 publications
(14 citation statements)
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“…In particular, similar results for the geodesic flow on the modular surface were proved by Einsiedler, Lindenstrauss, Michel and Venkatesh in [12]. Einsiedler, Kadyrov and Pohl generalized these results to diagonal actions on spaces Γ\G where G is a connected semisimple real Lie group of rank 1 with finite center, and Γ is a lattice [11]. Finally, Iommi, Riquelme and Velozo (in two papers with different sets of coauthors) considered entropy in the cusp for geometrically finite Riemannian manifolds with pinched negative sectional curvature and uniformly bounded derivatives of the sectional curvature [18,28].…”
Section: Thensupporting
confidence: 59%
“…In particular, similar results for the geodesic flow on the modular surface were proved by Einsiedler, Lindenstrauss, Michel and Venkatesh in [12]. Einsiedler, Kadyrov and Pohl generalized these results to diagonal actions on spaces Γ\G where G is a connected semisimple real Lie group of rank 1 with finite center, and Γ is a lattice [11]. Finally, Iommi, Riquelme and Velozo (in two papers with different sets of coauthors) considered entropy in the cusp for geometrically finite Riemannian manifolds with pinched negative sectional curvature and uniformly bounded derivatives of the sectional curvature [18,28].…”
Section: Thensupporting
confidence: 59%
“…In this generality, it is not known if the Hausdorff dimension of the set (1) is strictly less than dim G. This was observed in [12] for X = G/Γ when G is of R-rank one.…”
Section: Introductionmentioning
confidence: 99%
“…Note that another definition of entropy at infinity appears in [BBG14, RV19,Vel17], which is somehow the maximal entropy of a sequence of invariant probability measures diverging to infinity. See also [EKP15,ELMV12] for related works in finite volume rank one homogeneous dynamics. It follows from [RV19] in the geometrically finite case and [Vel17] more generally that this entropy at infinity coincides with our definition.…”
Section: Entropy At Infinity Spr Manifolds and Bowen-margulis Measuresmentioning
confidence: 99%