2014
DOI: 10.1515/advgeom-2014-0011
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Rotational linear Weingarten hypersurfaces in the Euclidean sphere Sn+1

Abstract: We present a complete description of all rotational linear Weingarten hypersurfaces in the Euclidean sphere S n+1 . These hypersurfaces are characterized by a linear relation aH1 +bH2 = c, where H1 and H2 stand for the first two symmetric functions of the principal curvature and a, b and c are real constants.

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“…Thereafter, Shu [19] proved another rigidity theorems concerning linear Weingarten hypersurfaces with two distinct principal curvatures immersed in a space form ‫ޑ‬ n+1 c . We also point out that López [13], and Barros, Silva and Sousa [5,6] obtained descriptions related to rotational linear Weingarten surfaces in the Euclidean space and in the Euclidean sphere, respectively. Furthermore, the first and second authors [4] used the Hopf's strong maximum principle and an extension of a suitable maximum principle of Yau [21] due to Caminha [8] in order to study the geometry of complete linear Weingarten hypersurfaces with nonnegative sectional curvature immersed in the hyperbolic space ‫ވ‬ n+1 .…”
Section: Introduction and Statemeof The Main Resultsmentioning
confidence: 74%
“…Thereafter, Shu [19] proved another rigidity theorems concerning linear Weingarten hypersurfaces with two distinct principal curvatures immersed in a space form ‫ޑ‬ n+1 c . We also point out that López [13], and Barros, Silva and Sousa [5,6] obtained descriptions related to rotational linear Weingarten surfaces in the Euclidean space and in the Euclidean sphere, respectively. Furthermore, the first and second authors [4] used the Hopf's strong maximum principle and an extension of a suitable maximum principle of Yau [21] due to Caminha [8] in order to study the geometry of complete linear Weingarten hypersurfaces with nonnegative sectional curvature immersed in the hyperbolic space ‫ވ‬ n+1 .…”
Section: Introduction and Statemeof The Main Resultsmentioning
confidence: 74%