An algorithm for analysis of the structure of finitely presented Lie algebras

We consider the following problem: what is the most general Lie algebra satisfying a given set of Lie polynomial equations? The presentation of Lie algebras by a finite set of generators and defining relations is one of the most general mathematical and algorithmic schemes of their analysis. Th...

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Main Authors: Vladimir P. Gerdt, Vladimir V. Kornyak
Format: Article
Language:English
Published: Discrete Mathematics & Theoretical Computer Science 1997-12-01
Series:Discrete Mathematics & Theoretical Computer Science
Online Access:http://www.dmtcs.org/dmtcs-ojs/index.php/dmtcs/article/view/86
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spelling doaj-46777be2c9454bbf8a169411a554b2e62020-11-24T22:26:25ZengDiscrete Mathematics & Theoretical Computer ScienceDiscrete Mathematics & Theoretical Computer Science1462-72641365-80501997-12-0111An algorithm for analysis of the structure of finitely presented Lie algebrasVladimir P. GerdtVladimir V. KornyakWe consider the following problem: what is the most general Lie algebra satisfying a given set of Lie polynomial equations? The presentation of Lie algebras by a finite set of generators and defining relations is one of the most general mathematical and algorithmic schemes of their analysis. That problem is of great practical importance, covering applications ranging from mathematical physics to combinatorial algebra. Some particular applications are constructionof prolongation algebras in the Wahlquist-Estabrook method for integrability analysis of nonlinear partial differential equations and investigation of Lie algebras arising in different physical models. The finite presentations also indicate a way to q-quantize Lie algebras. To solve this problem, one should perform a large volume of algebraic transformations which is sharply increased with growth of the number of generators and relations. For this reason, in practice one needs to use a computer algebra tool. We describe here an algorithm for constructing the basis of a finitely presented Lie algebra and its commutator table, and its implementation in the C language. Some computer results illustrating our algorithmand its actual implementation are also presented. http://www.dmtcs.org/dmtcs-ojs/index.php/dmtcs/article/view/86
collection DOAJ
language English
format Article
sources DOAJ
author Vladimir P. Gerdt
Vladimir V. Kornyak
spellingShingle Vladimir P. Gerdt
Vladimir V. Kornyak
An algorithm for analysis of the structure of finitely presented Lie algebras
Discrete Mathematics & Theoretical Computer Science
author_facet Vladimir P. Gerdt
Vladimir V. Kornyak
author_sort Vladimir P. Gerdt
title An algorithm for analysis of the structure of finitely presented Lie algebras
title_short An algorithm for analysis of the structure of finitely presented Lie algebras
title_full An algorithm for analysis of the structure of finitely presented Lie algebras
title_fullStr An algorithm for analysis of the structure of finitely presented Lie algebras
title_full_unstemmed An algorithm for analysis of the structure of finitely presented Lie algebras
title_sort algorithm for analysis of the structure of finitely presented lie algebras
publisher Discrete Mathematics & Theoretical Computer Science
series Discrete Mathematics & Theoretical Computer Science
issn 1462-7264
1365-8050
publishDate 1997-12-01
description We consider the following problem: what is the most general Lie algebra satisfying a given set of Lie polynomial equations? The presentation of Lie algebras by a finite set of generators and defining relations is one of the most general mathematical and algorithmic schemes of their analysis. That problem is of great practical importance, covering applications ranging from mathematical physics to combinatorial algebra. Some particular applications are constructionof prolongation algebras in the Wahlquist-Estabrook method for integrability analysis of nonlinear partial differential equations and investigation of Lie algebras arising in different physical models. The finite presentations also indicate a way to q-quantize Lie algebras. To solve this problem, one should perform a large volume of algebraic transformations which is sharply increased with growth of the number of generators and relations. For this reason, in practice one needs to use a computer algebra tool. We describe here an algorithm for constructing the basis of a finitely presented Lie algebra and its commutator table, and its implementation in the C language. Some computer results illustrating our algorithmand its actual implementation are also presented.
url http://www.dmtcs.org/dmtcs-ojs/index.php/dmtcs/article/view/86
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