Positive Mass Theorem on Manifolds admitting Corners along a Hypersurface
By Pengzi Miao. 2002
235 citations recorded by the source corpus.
We study a class of non-smooth asymptotically flat manifolds on which metrics fails to be $C^1$ across a hypersurface $\Sigma$. We first give an approximation scheme to mollify the metric, then we prove that the Positive Mass Theorem still holds on these manifolds if a geometric boundary condition is satisfied by metrics separated by $\Sigma$.
Subfields: Applied Mathematics, Geometry and Topology, Mathematical Physics
View Paper: https://www.semanticscholar.org/paper/5cadc9aa9e6a4b6aadb87b6cf0eb72aaa2a6ba9f
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In Applied Mathematics
In Geometry and Topology
In Mathematical Physics
Citations in the corpus
- Dirac and Plateau billiards in domains with corners (2014, background): “(a) The above style local “gluing + smoothing” appears in different forms in [2, 23, 38] and non-local smoothing with the Ricci flow is suggested in [37].”
- Present status of the Penrose inequality (2009, background): “This result, also due to Bray [22], has independent interest and has been already used in another context by P. Miao [117] to characterize the Schwarzschild initial data as the only static initial data with a non-empty minimal boundary.”
- Scalar curvature and singular metrics (2016, background): “3, then we still have positive mass for each end by the result in [21].”
- Positive Mass Theorem and the Boundary Behaviors of Compact Manifolds with Nonnegative Scalar Curvature (2002, methodology): “A similar result is still true in higher dimensions if we assume that each component Σi can be realized as a strictly convex hypersurface in the Euclidean space and if in addition Ω is spin.”
- On the volume functional of compact manifolds with boundary with constant scalar curvature (2008, background): “By the results in [19] again (see also [12]), we know that (Ω, g) is isometric to a domain in R.”