Dynamic constraint enforcement in plasma environments

In certain plasma environments, such as that surrounding a pulsar, the electric and magnetic fields align orthogonally. In this document we discuss and derive several constraints, of particular importance the force free constraint found in certain plasma environments. We introduce Maxwell’s equation...

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Main Author: Barriault, Michael
Other Authors: Lehner, Luis
Language:en
Published: 2011
Subjects:
Online Access:http://hdl.handle.net/10214/2845
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spelling ndltd-LACETR-oai-collectionscanada.gc.ca-OGU.10214-28452013-10-04T04:13:31ZDynamic constraint enforcement in plasma environmentsBarriault, Michaelelectromagnetismastrophysicsnumerical analysiscomputer sciencedifferential equationsIn certain plasma environments, such as that surrounding a pulsar, the electric and magnetic fields align orthogonally. In this document we discuss and derive several constraints, of particular importance the force free constraint found in certain plasma environments. We introduce Maxwell’s equations in a covariant, coordinate-free form. We showcase methods to enforce this constraint, first with a straightforward method then by a new, dynamical method. Finally we compare and contrast the two methods in an approximation of a small region above a pulsar.Thesis to fulfill requirements for the Master of Science degree.Lehner, Luis2011-07-282011-08-23T16:58:05Z2011-08-23T16:58:05Z2011-08-23Thesishttp://hdl.handle.net/10214/2845enhttp://creativecommons.org/licenses/by-nc-sa/2.5/ca/
collection NDLTD
language en
sources NDLTD
topic electromagnetism
astrophysics
numerical analysis
computer science
differential equations
spellingShingle electromagnetism
astrophysics
numerical analysis
computer science
differential equations
Barriault, Michael
Dynamic constraint enforcement in plasma environments
description In certain plasma environments, such as that surrounding a pulsar, the electric and magnetic fields align orthogonally. In this document we discuss and derive several constraints, of particular importance the force free constraint found in certain plasma environments. We introduce Maxwell’s equations in a covariant, coordinate-free form. We showcase methods to enforce this constraint, first with a straightforward method then by a new, dynamical method. Finally we compare and contrast the two methods in an approximation of a small region above a pulsar. === Thesis to fulfill requirements for the Master of Science degree.
author2 Lehner, Luis
author_facet Lehner, Luis
Barriault, Michael
author Barriault, Michael
author_sort Barriault, Michael
title Dynamic constraint enforcement in plasma environments
title_short Dynamic constraint enforcement in plasma environments
title_full Dynamic constraint enforcement in plasma environments
title_fullStr Dynamic constraint enforcement in plasma environments
title_full_unstemmed Dynamic constraint enforcement in plasma environments
title_sort dynamic constraint enforcement in plasma environments
publishDate 2011
url http://hdl.handle.net/10214/2845
work_keys_str_mv AT barriaultmichael dynamicconstraintenforcementinplasmaenvironments
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