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20162024
most citedBiconservative ideal hypersurfaces in Euclidean spaces

10 citations · 26 across the 7 of their papers we have counts for

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11 papers · 1 filter

math.DG20244 cited

Non naturally reductive Einstein metrics on the orthogonal group via real flag manifolds

Andreas Arvanitoyeorgos, Yusuke Sakane, Marina Statha

We obtain new invariant Einstein metrics on the compact Lie groups $\SO(n)$ which are not naturally reductive. This is achieved by using the real flag manifolds $\SO(k_1+\cdots +k_…

math.DG20241 cited

Hypersurfaces satisfying in $\mathbb{E}_{\lowercase{s}}^{5}$

Ram Shankar Gupta, Andreas Arvanitoyeorgos

In this paper, we study hypersurfaces satisfying ( a constant) in the pseudo-Euclidean space $(…

math.DG20243 cited

Biconservative hypersurfaces in space forms $\overline{M}^{\lowercase{n+1}}(\lowercase{c})$

Ram Shankar Gupta, Andreas Arvanitoyeorgos

In this paper we study biconservative hypersurfaces in space forms with four distinct principal curvatures whose second fundamental form has constant nor…

math.DG2024

A review of compact geodesic orbit manifolds and the g.o. condition for $\SU(5)/\s(\U(2)\times \U(2))$

Andreas Arvanitoyeorgos, Nikolaos Panagiotis Souris, Marina Statha

Geodesic orbit manifolds (or g.o. manifolds) are those Riemannian manifolds whose geodesics are integral curves of Killing vector fields. Equivalently, there exists a Lie g…

math.DG20218 cited

Geodesic orbit metrics in a class of homogeneous bundles over quaternionic Stiefel manifolds

Andreas Arvanitoyeorgos, Nikolaos Panagiotis Souris, Marina Statha

Geodesic orbit spaces (or g.o. spaces) are defined as those homogeneous Riemannian spaces whose geodesics are orbits of one-parameter subgroups of . The correspondin…

math.DG2020

Invariant Einstein metrics on SU(N) and complex Stiefel manifolds

Andreas Arvanitoyeorgos, Yusuke Sakane, Marina Statha

We study existence of invariant Einstein metrics on complex Stiefel manifolds $G/K = \SU(\ell+m+n)/\SU(n) $ and the special unitary groups $G = \SU(\ell+m+n)$. We decompose the Lie…