Elliptic special Weingarten surfaces of minimal type with finite total curvature satisfy an extended Jorge-Meeks formula; planes are the only ones with total curvature below 4π, and two-ended embedded surfaces are rotationally symmetric special catenoids.
Complex analysis and a class of Weingarten surfaces
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abstract
An idea of Hopf's for applying complex analysis to the study of constant mean curvature spheres is generalized to cover a wider class of spheres, namely, those satisfying a Weingarten relation of a certain type, namely H = f(H^2-K) for some smooth function f, where H and K are the mean and Gauss curvatures, respectively. The results are either not new or are minor extensions of known results, but the method, which involves introducing a different conformal structure on the surface than the one induced by the first fundamental form, is different from the one used by Hopf and requires less technical results from the theory of PDE than Hopf's methods. This is a TeXed version of a manuscript dating from early 1984. It was never submitted for publication, though it circulated to some people and has been referred to from time to time in published articles. It is being provided now for the convenience of those who have asked for a copy. Except for the correction of various grammatical or typographical mistakes and infelicities and the addition of some (clearly marked) comments at the end of the introduction, the text is that of the original.
fields
math.DG 1years
2019 1verdicts
UNVERDICTED 1representative citing papers
citing papers explorer
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Elliptic special Weingarten surfaces of minimal type in $\mathbb{R}^3$ of finite total curvature
Elliptic special Weingarten surfaces of minimal type with finite total curvature satisfy an extended Jorge-Meeks formula; planes are the only ones with total curvature below 4π, and two-ended embedded surfaces are rotationally symmetric special catenoids.