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Horo-shrinkers in the hyperbolic space

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arxiv 2402.05527 v1 pith:4GBNKJFQ submitted 2024-02-08 math.DG

classification math.DG
keywords horo-shrinkershyperbolicinvariantone-parametergrimgroupisometriesparabolic
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abstract

A surface $\Sigma$ in the hyperbolic space $\h^3$ is called a horo-shrinker if its mean curvature $H$ satisfies $H=\langle N,\partial_z\rangle$, where $(x,y,z)$ are the coordinates of $\h^3$ in the upper half-space model and $N$ is the unit normal of $\Sigma$. In this paper we study horo-shrinkers invariant by one-parameter groups of isometries of $\h^3$ depending if these isometries are hyperbolic, parabolic or spherical. We characterize totally geodesic planes as the only horo-shrinkers invariant by a one-parameter group of hyperbolic translations. The grim reapers are defined as the horo-shrinkers invariant by a one-parameter group of parabolic translations. We describe the geometry of the grim reapers proving that they are periodic surfaces. In the last part of the paper, we give a complete classification of horo-shrinkers invariant by spherical rotations, distinguishing if the surfaces intersect or not the rotation axis.

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Reviewed papers in the Pith corpus that reference this work. Sorted by Pith novelty score. Full citation record

  1. On the geometry of the asymptotic boundary of translators in $\mathbb H^2\times \mathbb R$

    math.DG 2025-05 conditional novelty 7.0 of 10

    Complete properly immersed translators in H2 × R have asymptotic boundary components that are vertical lines, vertical rays, or complete geodesics.

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