Unitarization of monodromy representations and constant mean curvature trinoids in 3-dimensional space forms
arXiv:math/0403366 · doi:10.1112/jlms/jdm005
Abstract
We present a theorem on the unitarizability of loop group valued monodromy representations and apply this to show the existence of new families of constant mean curvature surfaces homeomorphic to a thrice-punctured sphere in the simply-connected 3-dimensional space forms , $\bbS^3 $ and $\bbH^3$. Additionally, we compute the extended frame for any associated family of Delaunay surfaces.
18 pages, revised version
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Cited by in corpus (21)
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- Minimal n-Noids in hyperbolic and anti-de Sitter 3-space
- Constant mean curvature surfaces based on fundamental quadrilaterals
- Constant Mean Curvature n-noids with Platonic Symmetries
- Discrete constant mean curvature surfaces via conserved quantities
- Constant mean curvature surfaces in hyperbolic 3-space via loop groups
- Lawson's genus two minimal surface and meromorphic connections
- On infinitesimal deformations of cmc surfaces of finite type in the 3-sphere
- Gluing Delaunay ends to minimal n-noids using the DPW method
- Simultaneous unitarizability of SL_n(C)-valued maps, and constant mean curvature k-noid monodromy
- DPW Potentials for Compact Symmetric CMC Surfaces in
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- Constant mean curvature n-noids in hyperbolic space
- Complete families of embedded high genus CMC surfaces in the 3-sphere (with an appendix by Steven Charlton)
- Area Estimates for High genus Lawson surfaces via DPW
- Corresponding constant mean curvature surfaces in hyperbolic and Euclidean 3-spaces
- Constant mean curvature cylinders with irregular ends
- Minimal Lagrangian surfaces in the two dimensional complex quadric via the loop group method