Abstract
We prove that in any rank one symmetric space of non-compact type
Funding source: European Research Council
Award Identifier / Grant number: 721675
Funding statement: The author has received funding from the European Research Council under the Grant Agreement No. 721675 “Regularity and Stability in Partial Differential Equations (RSPDE)”.
Acknowledgements
The author would like to thank Professors A. Figalli and U. Lang for their guidance and constant support.
References
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Articles in the same Issue
- Frontmatter
- Γ-convergence analysis of the nonlinear self-energy induced by edge dislocations in semi-discrete and discrete models in two dimensions
- Characterization of the subdifferential and minimizers for the anisotropic p-capacity
- The best approximation of a given function in L 2-norm by Lipschitz functions with gradient constraint
- Quantitative C 1-stability of spheres in rank one symmetric spaces of non-compact type
- The Yang–Mills–Higgs functional on complex line bundles: Asymptotics for critical points
- A sub-Riemannian maximum modulus theorem
- The least gradient problem with Dirichlet and Neumann boundary conditions
- The 2+1-convex hull of a~finite set
- Non-local BV functions and a denoising model with L 1 fidelity
- Avoidance of the Lavrentiev gap for one-dimensional non-autonomous functionals with constraints
Articles in the same Issue
- Frontmatter
- Γ-convergence analysis of the nonlinear self-energy induced by edge dislocations in semi-discrete and discrete models in two dimensions
- Characterization of the subdifferential and minimizers for the anisotropic p-capacity
- The best approximation of a given function in L 2-norm by Lipschitz functions with gradient constraint
- Quantitative C 1-stability of spheres in rank one symmetric spaces of non-compact type
- The Yang–Mills–Higgs functional on complex line bundles: Asymptotics for critical points
- A sub-Riemannian maximum modulus theorem
- The least gradient problem with Dirichlet and Neumann boundary conditions
- The 2+1-convex hull of a~finite set
- Non-local BV functions and a denoising model with L 1 fidelity
- Avoidance of the Lavrentiev gap for one-dimensional non-autonomous functionals with constraints