Gauge-gravity duality at finite N

Recently it has been shown that N = 4 super Yang-Mills theory is integrable in the planar limit. Past arguments suggest the integrability is only present in the planar limit. However, this conclusion was shown to be incorrect. Two speci c classes of operators were studied in the O(N) sector. T...

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Main Author: Tarrant, Justine Alecia
Format: Others
Language:en
Published: 2014
Subjects:
Online Access:http://hdl.handle.net10539/14753
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spelling ndltd-netd.ac.za-oai-union.ndltd.org-wits-oai-wiredspace.wits.ac.za-10539-147532019-05-11T03:40:12Z Gauge-gravity duality at finite N Tarrant, Justine Alecia Supersymmetry. Finite element method. Gauge fields (Physics). Gravity. Recently it has been shown that N = 4 super Yang-Mills theory is integrable in the planar limit. Past arguments suggest the integrability is only present in the planar limit. However, this conclusion was shown to be incorrect. Two speci c classes of operators were studied in the O(N) sector. The rst were labelled by Young diagrams having two long columns. The second were labelled by Young diagrams having two long rows. This result was then generalized to p long rows or columns with p xed to be O(1) as N ! 1. For this case, the non-planar limit was found to be integrable. In this dissertation, we extend this work by considering p to be O(N). We have calculated the dilation operator for the case with two impurities. 2014-06-12T07:43:49Z 2014-06-12T07:43:49Z 2014-06-12 Thesis http://hdl.handle.net10539/14753 en application/pdf
collection NDLTD
language en
format Others
sources NDLTD
topic Supersymmetry.
Finite element method.
Gauge fields (Physics).
Gravity.
spellingShingle Supersymmetry.
Finite element method.
Gauge fields (Physics).
Gravity.
Tarrant, Justine Alecia
Gauge-gravity duality at finite N
description Recently it has been shown that N = 4 super Yang-Mills theory is integrable in the planar limit. Past arguments suggest the integrability is only present in the planar limit. However, this conclusion was shown to be incorrect. Two speci c classes of operators were studied in the O(N) sector. The rst were labelled by Young diagrams having two long columns. The second were labelled by Young diagrams having two long rows. This result was then generalized to p long rows or columns with p xed to be O(1) as N ! 1. For this case, the non-planar limit was found to be integrable. In this dissertation, we extend this work by considering p to be O(N). We have calculated the dilation operator for the case with two impurities.
author Tarrant, Justine Alecia
author_facet Tarrant, Justine Alecia
author_sort Tarrant, Justine Alecia
title Gauge-gravity duality at finite N
title_short Gauge-gravity duality at finite N
title_full Gauge-gravity duality at finite N
title_fullStr Gauge-gravity duality at finite N
title_full_unstemmed Gauge-gravity duality at finite N
title_sort gauge-gravity duality at finite n
publishDate 2014
url http://hdl.handle.net10539/14753
work_keys_str_mv AT tarrantjustinealecia gaugegravitydualityatfiniten
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