1998IEEE Transactions on Automatic ControlRequires access

Computer simplification of formulas in linear systems theory

J. William Helton, Mark Stankus, John J. Wavrik

Open publisher page 34 citations

Abstract

Currently, the three most popular commercial computer algebra systems are Mathematica, Maple, and MACSYMA. These systems provide a wide variety of symbolic computation facilities for commutative algebra and contain implementations of powerful algorithms in that domain. The Grobner basis algorithm, for example, is an important tool used in computation with commutative algebras and in solving systems of polynomial equations. On the other hand, most of the computation involved in linear control theory is performed on matrices, which do not commute, and Mathematica, Maple, and MACSYMA are weak in the area of noncommutative operations. The paper reports on applications of a powerful tool, a noncommutative version of the Grobner basis algorithm. The commutative version of this algorithm is implemented in most major computer algebra packages. The noncommutative version is relatively new.

About this research paper

What this paper is about

Currently, the three most popular commercial computer algebra systems are Mathematica, Maple, and MACSYMA. These systems provide a wide variety of symbolic computation facilities for commutative algebra and contain implementations of powerful algorithms in that domain. The Grobner basis algorithm, for example, is an important tool used in computation with commutative algebras and in solving systems of polynomial equations. On the other hand, most of the computation involved in linear control theory is performed on matrices, which do not commute, and Mathematica, Maple, and MACSYMA are weak in the area of noncommutative operations. The paper reports on applications of a powerful tool, a noncommutative version of the Grobner basis algorithm. The commutative version of this algorithm is implemented in most major computer algebra packages. The noncommutative version is relatively new.

Why it matters

OpenAlex reports 34 citations for this work. Citation counts describe recorded attention and do not establish research quality.

Key contribution

A contribution statement is not available in the OpenAlex record.

Method / approach

Method details are not available in the OpenAlex metadata.

Main findings

Findings are not separately available in the OpenAlex metadata.

Limitations

Limitations are not available in the OpenAlex metadata.

Applications

Application details are not available in the OpenAlex metadata.

Available abstract

Currently, the three most popular commercial computer algebra systems are Mathematica, Maple, and MACSYMA. These systems provide a wide variety of symbolic computation facilities for commutative algebra and contain implementations of powerful algorithms in that domain. The Grobner basis algorithm, for example, is an important tool used in computation with commutative algebras and in solving systems of polynomial equations. On the other hand, most of the computation involved in linear control theory is performed on matrices, which do not commute, and Mathematica, Maple, and MACSYMA are weak in the area of noncommutative operations. The paper reports on applications of a powerful tool, a noncommutative version of the Grobner basis algorithm. The commutative version of this algorithm is implemented in most major computer algebra packages. The noncommutative version is relatively new.

Key concepts: Symbolic computation, Noncommutative geometry, Gröbner basis, Algebra over a field, Commutative property, Computation, Maple, Linear algebra

Related papers

Back to paper searchBrowse research topicsOriginal source
Computer simplification of formulas in linear systems theory — Research Paper | ScholarLens