One-loop quantum energy densities of domain wall field configurations
- 27 October 2000
- journal article
- Published by American Physical Society (APS) in Physical Review D
- Vol. 62 (10)
- https://doi.org/10.1103/physrevd.62.105034
Abstract
We discuss a simple procedure for computing one-loop quantum energies of any static field configuration that depends non-trivially on only a single spatial coordinate. We specifically focus on domain wall-type field configurations that connect two distinct minima of the effective potential, and may or may not be the solutions of classical field equations. We avoid the conventional summation of zero-point energies, and instead exploit the relation between functional determinants and solutions of associated differential equations. This approach allows ultraviolet divergences to be easily isolated and extracted using any convenient regularization scheme. Two examples are considered: two-dimensional $\phi^4$ theory, and three-dimensional scalar electrodynamics with spontaneous symmetry breaking at the one-loop level.Comment: RevTex, 29 pages, 1 figure, minor corrections, references adde
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This publication has 19 references indexed in Scilit:
- Effective energy approach to collectively quantized systemsPhysical Review D, 2000
- Topological boundary conditions, the BPS bound, and elimination of ambiguities in the quantum mass of solitonsNuclear Physics B, 1999
- 3D effective field theory for finite temperature scalar electrodynamicsPhysical Review D, 1999
- Unambiguous one-loop quantum energies of 1+1 dimensional bosonic field configurationsPhysics Letters B, 1998
- Finite quantum fluctuations about static field configurationsPhysics Letters B, 1998
- Perturbative contributions to the electroweak interface tensionThe European Physical Journal C, 1997
- The electroweak phase transition: a non-perturbative analysisNuclear Physics B, 1996
- Critical bubbles and fluctuations at the electroweak phase transitionNuclear Physics B, 1995
- 3D physics and the electroweak phase transition: Perturbation theoryNuclear Physics B, 1994
- Nonperturbative methods and extended-hadron models in field theory. II. Two-dimensional models and extended hadronsPhysical Review D, 1974