A holographic principle for the existence of imaginary Killing spinors

Abstract

Suppose that $\Sigma =\partial \Omega$ is the $n$-dimensional boundary, with positive (inward) mean curvature $H$, of a connected compact $(n+1)$-dimensional Riemannian spin manifold $({\Omega }^{n+1},g)$ whose scalar curvature $R\ge -n(n+1)k^2$, for some $k\textgreater{}0$. If $\Sigma$ admits an isometric and isospin immersion $F$ into the hyperbolic space ${\mathbb{H}}^{n+1}\_-k^2$, we define a quasi-local mass and prove its positivity as well as the associated rigidity statement. The proof is based on a holographic principle for the existence of an imaginary Killing spinor. For $n=2$, we also show that its limit, for coordinate spheres in an Asymptotically Hyperbolic (AH) manifold, is the mass of the (AH) manifold.

arXiv commentin Journal of Geometry and Physics, Elsevier, 2015

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Cited by in corpus (2)

• On the limiting behavior of the Brown-York quasi-local mass in asymptotically hyperbolic manifolds
• A spinorial approach to constant scalar curvature hypersurfaces in pseudo-hyperbolic manifolds