Power Counting Rules for Next-to-Leading Order Hard Thermal Loop Theory

The goal of this thesis is to determine power counting rules at next-to-leading order (NLO) in the hard thermal loop (HTL) resummation. The original paper by Braaten and Pisarski discusses NLO HTL resummation and argues that there are potentially three types of contributions. We start by studying...

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Main Author: Mirza, Alex
Other Authors: Carrington, Margaret (Physics and Astronomy)
Published: 2012
Subjects:
Online Access:http://hdl.handle.net/1993/5313
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spelling ndltd-LACETR-oai-collectionscanada.gc.ca-MWU.1993-53132014-03-29T03:44:12Z Power Counting Rules for Next-to-Leading Order Hard Thermal Loop Theory Mirza, Alex Carrington, Margaret (Physics and Astronomy) Blunden, Peter (Physics and Astronomy), Schippers, Eric (Math) physics theory high energy The goal of this thesis is to determine power counting rules at next-to-leading order (NLO) in the hard thermal loop (HTL) resummation. The original paper by Braaten and Pisarski discusses NLO HTL resummation and argues that there are potentially three types of contributions. We start by studying these terms in the specific case of the boson and fermion self energies in QED and QCD, as these quantities have been calculated in previous literature. For the real and imaginary parts of the fermion and gluon self energies, one needs to calculate only one type of term, as the other two are found to be subleading. However, for the real and imaginary parts of the photon self energy, all types of terms need to be calculated. 2012-04-20T20:51:24Z 2012-04-20T20:51:24Z 2012-04-20 http://hdl.handle.net/1993/5313
collection NDLTD
sources NDLTD
topic physics
theory
high energy
spellingShingle physics
theory
high energy
Mirza, Alex
Power Counting Rules for Next-to-Leading Order Hard Thermal Loop Theory
description The goal of this thesis is to determine power counting rules at next-to-leading order (NLO) in the hard thermal loop (HTL) resummation. The original paper by Braaten and Pisarski discusses NLO HTL resummation and argues that there are potentially three types of contributions. We start by studying these terms in the specific case of the boson and fermion self energies in QED and QCD, as these quantities have been calculated in previous literature. For the real and imaginary parts of the fermion and gluon self energies, one needs to calculate only one type of term, as the other two are found to be subleading. However, for the real and imaginary parts of the photon self energy, all types of terms need to be calculated.
author2 Carrington, Margaret (Physics and Astronomy)
author_facet Carrington, Margaret (Physics and Astronomy)
Mirza, Alex
author Mirza, Alex
author_sort Mirza, Alex
title Power Counting Rules for Next-to-Leading Order Hard Thermal Loop Theory
title_short Power Counting Rules for Next-to-Leading Order Hard Thermal Loop Theory
title_full Power Counting Rules for Next-to-Leading Order Hard Thermal Loop Theory
title_fullStr Power Counting Rules for Next-to-Leading Order Hard Thermal Loop Theory
title_full_unstemmed Power Counting Rules for Next-to-Leading Order Hard Thermal Loop Theory
title_sort power counting rules for next-to-leading order hard thermal loop theory
publishDate 2012
url http://hdl.handle.net/1993/5313
work_keys_str_mv AT mirzaalex powercountingrulesfornexttoleadingorderhardthermallooptheory
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