Massive scalar field in multiply connected flat spacetimes
arXiv:gr-qc/9504021 · doi:10.1103/PhysRevD.52.4503
Abstract
The vacuum expectation value of the stress-energy tensor is calculated in several multiply connected flat spacetimes for a massive scalar field with arbitrary curvature coupling. We find that a nonzero field mass always decreases the magnitude of the energy density in chronology-respecting manifolds such as , , , the Möbius strip, and the Klein bottle. In Grant space, which contains nonchronal regions, whether diverges on a chronology horizon or not depends on the field mass. For a sufficiently large mass remains finite, and the metric backreaction caused by a massive quantized field may not be large enough to significantly change the Grant space geometry.
19 pages, REVTeX, 5 figures in separate uuencoded compressed file
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