Re: Solution to Einstein's Field Equations where T^uv not= 0?
- From: vagelford@xxxxxxxxx
- Date: Sat, 29 Apr 2006 02:13:43 +0000 (UTC)
I am especially interested in any exact solutions based on the usual Maxwell
energy tensor of electrodynamics T^u_v = (1/4pi) [F^ut F_vt - (1/4)
lambda^u_v F^st F_st]. I am interested in solutions both where F^uv_u=0
(free space) and also where F^uv_u=J^v (space with current sources).
Conditions of interest include static spherical symmetry in the nature of
Schwarzchild, and rotation with spherical symmetry about the z-axis in the
nature of Kerr.
There was some work on the subject of electrovacuum solutions with axial
symmetry by Ernst in the late 60s early 70s which was continued by
Kinnersley, Chitre, Hauser, Hoenselares, Xanthopoulos and recently by
Sibgatullin and Manko that I think will interest you.
For some recent papers have a look at
http://arxiv.org/find/gr-qc/1/ti:+electrovacuum/0/1/0/all/0/1
and references therein.
Hope I've helped.
.
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- Re: Solution to Einstein's Field Equations where T^uv not= 0?
- From: Jonathan Thornburg
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