Renormalized evolution equations for the back-reaction problem with a self-interacting scalar field

We present the renormalized equations which rule the evolution of the mean value of the field and the metric of the spacetime for the 4 theory. The calculations are done in the one-loop approximation and the classical background gravitational field is a general one. For the particular example of a R...

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Autores principales: Paz, J.P., Mazzitelli, F.D.
Formato: JOUR
Acceso en línea:http://hdl.handle.net/20.500.12110/paper_05562821_v37_n8_p2170_Paz
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spelling todo:paper_05562821_v37_n8_p2170_Paz2023-10-03T15:35:16Z Renormalized evolution equations for the back-reaction problem with a self-interacting scalar field Paz, J.P. Mazzitelli, F.D. We present the renormalized equations which rule the evolution of the mean value of the field and the metric of the spacetime for the 4 theory. The calculations are done in the one-loop approximation and the classical background gravitational field is a general one. For the particular example of a Robertson-Walker metric, we show that the numerical method used to solve the back-reaction problem in the free-field case can also be applied here without additional complications. We discuss the possible generalizations of our formalism and its relevance in the study of phase transitions in the early Universe. © 1988 The American Physical Society. JOUR info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_05562821_v37_n8_p2170_Paz
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
description We present the renormalized equations which rule the evolution of the mean value of the field and the metric of the spacetime for the 4 theory. The calculations are done in the one-loop approximation and the classical background gravitational field is a general one. For the particular example of a Robertson-Walker metric, we show that the numerical method used to solve the back-reaction problem in the free-field case can also be applied here without additional complications. We discuss the possible generalizations of our formalism and its relevance in the study of phase transitions in the early Universe. © 1988 The American Physical Society.
format JOUR
author Paz, J.P.
Mazzitelli, F.D.
spellingShingle Paz, J.P.
Mazzitelli, F.D.
Renormalized evolution equations for the back-reaction problem with a self-interacting scalar field
author_facet Paz, J.P.
Mazzitelli, F.D.
author_sort Paz, J.P.
title Renormalized evolution equations for the back-reaction problem with a self-interacting scalar field
title_short Renormalized evolution equations for the back-reaction problem with a self-interacting scalar field
title_full Renormalized evolution equations for the back-reaction problem with a self-interacting scalar field
title_fullStr Renormalized evolution equations for the back-reaction problem with a self-interacting scalar field
title_full_unstemmed Renormalized evolution equations for the back-reaction problem with a self-interacting scalar field
title_sort renormalized evolution equations for the back-reaction problem with a self-interacting scalar field
url http://hdl.handle.net/20.500.12110/paper_05562821_v37_n8_p2170_Paz
work_keys_str_mv AT pazjp renormalizedevolutionequationsforthebackreactionproblemwithaselfinteractingscalarfield
AT mazzitellifd renormalizedevolutionequationsforthebackreactionproblemwithaselfinteractingscalarfield
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