Harmonic maps and constant mean curvature surfaces in H 2 x R
By I. Fernández, Pablo Mira. 2007
71 citations recorded by the source corpus.
Subfields: Applied Mathematics, Geometry and Topology
View Paper: https://www.semanticscholar.org/paper/22475942e32905f6d2b2fbbf7007eb3dbb5261fd
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Applied Mathematics
- Ricardo Sa Earp
- Eric Toubiana
- L. Hauswirth
- Benoît Daniel
- J. A. Gálvez
- J. Espinar
- H. Rosenberg
- I. Fernández
In Geometry and Topology
- Benoît Daniel
- Eric Toubiana
- J. A. Gálvez
- L. Hauswirth
- J. Espinar
- Ricardo Sa Earp
- H. Rosenberg
- I. Fernández
Citations in the corpus
- Complete surfaces of constant curvature in H2 × R and S2 × R (2005, background): “An up to date reference list of papers on this subject can be found in [ 3 ].”
- An asymptotic theorem for minimal surfaces and existence results for minimal graphs in $H^2 \times R$ (2007, background): “tforward verifications. 3. minimal vertical graphs There are many notions of graphs in H2 × R, but the notion of minimal vertical graphs has appeared in many important theorems. See, for instance [4], [7], [11], [12], [18], [23]. MINIMAL 11 Consider a C2 function t = u(x,y). The vertical minimal equa”
- The Gauss Map of Minimal Surfaces in the Heisenberg Group (2006, methodology): “y of meromorphic and harmonic maps. More recently, I. Ferna´ndez and P. Mira proved the existence of a harmonic “hyperbolic Gauss map” into H2 for CMC 1 2 surfaces in H 2 ×Rthat are nowhere vertical ([FM07]). They also proved that any harmonic map (under a hypothesis) can be the hyperbolic Gauss map”
- Half‐space theorem, embedded minimal annuli and minimal graphs in the Heisenberg group (2007, background): “When the surface is a graph, Fernandez and Mira [9] constructed a harmonic ‘hyperbolic Gauss map’ from the surface to H(2) whose associated Hopf differential is Q = −Q0.”
- Totally umbilic surfaces in homogeneous 3-manifolds (2006, unknown): “See for example [14], [6], [7], [17], [15], [12], [13], [11], [9], [4], [2], [ 10 ], [5] and [8].”