2006
DOI: 10.1088/0264-9381/23/24/011
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Global solutions of the Einstein–Maxwell equations in higher dimensions

Abstract: We consider the Einstein-Maxwell equations in space-dimension n. We point out that the Lindblad-Rodnianski stability proof applies to those equations whatever the space-dimension n 3. In even spacetime dimension n + 1 6, we use the standard conformal method on a Minkowski background to give a simple proof that the maximal globally hyperbolic development of initial data sets which are sufficiently close to the data for Minkowski spacetime and which are Schwarzschildian outside of a compact set lead to geodesica… Show more

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Cited by 69 publications
(77 citation statements)
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“…In this appendix we wish to point out that sufficiently small data vacuum spacetimes constructed using the Lindblad-Rodnianski method [24], as generalised by Loizelet to higher dimensions [25,26] (compare [5]), contain past inwards trapped, closed to the future (in a sense which should be made clear by what is said below), timelike hypersurfaces. This is irrelevant as far as the topological implications of our analysis are concerned, as in this case the space-time manifold is R n+1 anyway, but it illustrates the fact that such hypersurfaces can arise in vacuum space-times which are not necessarily stationary.…”
Section: A Uniform Boundaries In Lindblad-rodnianski-loizelet Metricsmentioning
confidence: 99%
“…In this appendix we wish to point out that sufficiently small data vacuum spacetimes constructed using the Lindblad-Rodnianski method [24], as generalised by Loizelet to higher dimensions [25,26] (compare [5]), contain past inwards trapped, closed to the future (in a sense which should be made clear by what is said below), timelike hypersurfaces. This is irrelevant as far as the topological implications of our analysis are concerned, as in this case the space-time manifold is R n+1 anyway, but it illustrates the fact that such hypersurfaces can arise in vacuum space-times which are not necessarily stationary.…”
Section: A Uniform Boundaries In Lindblad-rodnianski-loizelet Metricsmentioning
confidence: 99%
“…We will generally study the r-dependence (for r → ∞) of the leading field components only, under the assumption that this is power-like (some comments on certain subleading terms will however be necessary to arrive, e.g., at (3)). It will thus not be necessary to assume that the field admits a power-series expansion in 1/r (however, the existence of full Einstein-Maxell solutions with that property is proven in [19], in the case of even dimensions). More technical assumptions will be explained in section 2, where certain results of [14] needed in this work will also be summarized.…”
Section: Introductionmentioning
confidence: 99%
“…This has now been extended in various directions in [31]. The original result [46] was extended to the Maxwell case in the Ph.D. thesis of Zipser [147].…”
mentioning
confidence: 89%