ID: math/9912029

Minimal Involutive Bases

December 5, 1999

View on ArXiv

Similar papers 4

Analogs of Gr\"obner Bases in Polynomial Rings over a Ring

November 18, 1994

84% Match
J. Lyn Miller
Commutative Algebra

In this paper we will define analogs of Gr\"obner bases for $R$-subalgebras and their ideals in a polynomial ring $R[x_1,\ldots,x_n]$ where $R$ is a noetherian integral domain with multiplicative identity and in which we can determine ideal membership and compute syzygies. The main goal is to present and verify algorithms for constructing these Gr\"obner basis counterparts. As an application, we will produce a method for computing generators for the first syzygy module of a s...

Find SimilarView on arXiv

Computation of Pommaret Bases Using Syzygies

September 28, 2018

84% Match
Bentolhoda Binaei, Amir Hashemi, Werner M. Seiler
Algebraic Geometry
Symbolic Computation
Commutative Algebra

We investigate the application of syzygies for efficiently computing (finite) Pommaret bases. For this purpose, we first describe a non-trivial variant of Gerdt's algorithm to construct an involutive basis for the input ideal as well as an involutive basis for the syzygy module of the output basis. Then we apply this new algorithm in the context of Seiler's method to transform a given ideal into quasi stable position to ensure the existence of a finite Pommaret basis. This ne...

Find SimilarView on arXiv

The F5 Criterion revised

December 16, 2010

84% Match
Alberto Arri, John Perry
Commutative Algebra

The purpose of this work is to generalize part of the theory behind Faugere's "F5" algorithm. This is one of the fastest known algorithms to compute a Groebner basis of a polynomial ideal I generated by polynomials f_{1},...,f_{m}. A major reason for this is what Faugere called the algorithm's "new" criterion, and we call "the F5 criterion"; it provides a sufficient condition for a set of polynomials G to be a Groebner basis. However, the F5 algorithm is difficult to grasp, a...

Find SimilarView on arXiv

Polynomial-Division-Based Algorithms for Computing Linear Recurrence Relations

July 6, 2021

84% Match
Jérémy PolSys Berthomieu, Jean-Charles PolSys Faugère
Symbolic Computation

Sparse polynomial interpolation, sparse linear system solving or modular rational reconstruction are fundamental problems in Computer Algebra. They come down to computing linear recurrence relations of a sequence with the Berlekamp-Massey algorithm. Likewise, sparse multivariate polynomial interpolation and multidimensional cyclic code decoding require guessing linear recurrence relations of a multivariate sequence.Several algorithms solve this problem. The so-called Berlekam...

Find SimilarView on arXiv

On Gr\"obner Basis Detection for Zero-dimensional Ideals

May 2, 2011

84% Match
Prabhanjan Ananth, Ambedkar Dukkipati
Computational Complexity

The Gr\"obner basis detection (GBD) is defined as follows: Given a set of polynomials, decide whether there exists -and if "yes" find- a term order such that the set of polynomials is a Gr\"obner basis. This problem was shown to be NP-hard by Sturmfels and Wiegelmann. We show that GBD when studied in the context of zero dimensional ideals is also NP-hard. An algorithm to solve GBD for zero dimensional ideals is also proposed which runs in polynomial time if the number of inde...

Find SimilarView on arXiv

Asymptotically fast polynomial matrix algorithms for multivariable systems

August 25, 2005

83% Match
Claude-Pierre LIP Jeannerod, Gilles LIP Villard
Symbolic Computation
Computational Complexity

We present the asymptotically fastest known algorithms for some basic problems on univariate polynomial matrices: rank, nullspace, determinant, generic inverse, reduced form. We show that they essentially can be reduced to two computer algebra techniques, minimal basis computations and matrix fraction expansion/reconstruction, and to polynomial matrix multiplication. Such reductions eventually imply that all these problems can be solved in about the same amount of time as pol...

Find SimilarView on arXiv

Groebner Bases for Everyone with CoCoA-5 and CoCoALib

November 22, 2016

83% Match
John Abbott, Anna Maria Bigatti
Commutative Algebra
Symbolic Computation

We present a survey on the developments related to Groebner bases, and show explicit examples in CoCoA. The CoCoA project dates back to 1987: its aim was to create a "mathematician"-friendly computational laboratory for studying Commutative Algebra, most especially Groebner bases. Always maintaining this "friendly" tradition, the project has grown and evolved, and the software has been completely rewritten. CoCoA offers Groebner bases for all levels of interest: from the basi...

Find SimilarView on arXiv

The Groebner basis of the ideal of vanishing polynomials

September 19, 2007

83% Match
G. -M. Greuel, F. Seelisch, O. Wienand
Commutative Algebra
Algebraic Geometry

We construct an explicit minimal strong Groebner basis of the ideal of vanishing polynomials in the polynomial ring over Z/m for m>=2. The proof is done in a purely combinatorial way. It is a remarkable fact that the constructed Groebner basis is independent of the monomial order and that the set of leading terms of the constructed Groebner basis is unique, up to multiplication by units. We also present a fast algorithm to compute reduced normal forms, and furthermore, we giv...

Find SimilarView on arXiv

Computing Border Bases without using a Term Ordering

April 14, 2011

83% Match
Stefan Kaspar
Commutative Algebra
Symbolic Computation

Border bases, a generalization of Groebner bases, have actively been researched during recent years due to their applicability to industrial problems. A. Kehrein and M. Kreuzer formulated the so called Border Basis Algorithm, an algorithm which allows the computation of border bases that relate to a degree compatible term ordering. In this paper we extend the original Border Basis Algorithm in such a way that also border bases that do not relate to any term ordering can be co...

Find SimilarView on arXiv

On the Construction of Gr\"obner Bases with Coefficients in Quotient Rings

July 3, 2012

83% Match
Huishi Li
Rings and Algebras

Let $\Lambda$ be a commutative Noetherian ring, and let $I$ be a proper ideal of $\Lambda$, $R=\Lambda /I$. Consider the polynomial rings $T=\Lambda [x_1,...x_n]$ and $A=R[x_1,...,x_n]$. Suppose that linear equations are solvable in $\Lambda$. It is shown that linear equations are solvable in $R$ (thereby theoretically Gr\"obner bases for ideals of $A$ are well defined and constructible) and that practically Gr\"obner bases in $A$ with respect to any given monomial ordering c...

Find SimilarView on arXiv