A general class of polynomials is defined which includes as subcases sparse and dense polynomials. For any polynomial $P$ within this class a host of algorithms are analyzed for computing $P^{n}$. While the Homomorphism algorithm is superior on dense polynomials it is shown that for sufficiently sparse polynomials, iteration is more efficient. A simple rule that takes linear time is given for deciding when it is advisable to use either one of these algorithms. Keywords: Polynomial Powers, sparse polynomials, modular algorithms
AbstractWe exhibit an algorithm computing, for a polynomialf∈Z[t], the set of its integer roots. The...
AbstractWe give a new class of algorithms for computing sparsest shifts of a given polynomial. Our a...
AbstractA new algorithm for sparse multivariate polynomial interpolation is presented. It is a multi...
AbstractThis paper examines the most efficient known serial and parallel algorithms for multiplying ...
We show that certain problems involving sparse polynomials with integer coefficients are at least as...
We provide a comprehensive presentation of algorithms, data structures, and implementation technique...
AbstractThis paper examines the most efficient known serial and parallel algorithms for multiplying ...
Suppose we are given a polynomial $P(x_{1},\ldots,x_{r})$ in $r \geq 1$ variables, let $m$ bound the...
We show that deciding whether a sparse polynomial in one variable has a root in Fp (for p prime) is ...
In recent years a number of algorithms have been designed for the "inverse" computational ...
(eng) We show that the integer roots of of a univariate polynomial with integer coefficients can be ...
Suppose we are given a polynomial P(x1,…,xr) in r≥1 variables, let m bound the degree of P in all va...
Given a way to evaluate an unknown polynomial with integer coefficients, we present new algorithms t...
We show that the integer roots of of a univariate polynomial with integer coefficients can be comput...
The $n$th cyclotomic polynomial, $Phi_n(z)$, is the minimal polynomial of the $n$th primitive roots ...
AbstractWe exhibit an algorithm computing, for a polynomialf∈Z[t], the set of its integer roots. The...
AbstractWe give a new class of algorithms for computing sparsest shifts of a given polynomial. Our a...
AbstractA new algorithm for sparse multivariate polynomial interpolation is presented. It is a multi...
AbstractThis paper examines the most efficient known serial and parallel algorithms for multiplying ...
We show that certain problems involving sparse polynomials with integer coefficients are at least as...
We provide a comprehensive presentation of algorithms, data structures, and implementation technique...
AbstractThis paper examines the most efficient known serial and parallel algorithms for multiplying ...
Suppose we are given a polynomial $P(x_{1},\ldots,x_{r})$ in $r \geq 1$ variables, let $m$ bound the...
We show that deciding whether a sparse polynomial in one variable has a root in Fp (for p prime) is ...
In recent years a number of algorithms have been designed for the "inverse" computational ...
(eng) We show that the integer roots of of a univariate polynomial with integer coefficients can be ...
Suppose we are given a polynomial P(x1,…,xr) in r≥1 variables, let m bound the degree of P in all va...
Given a way to evaluate an unknown polynomial with integer coefficients, we present new algorithms t...
We show that the integer roots of of a univariate polynomial with integer coefficients can be comput...
The $n$th cyclotomic polynomial, $Phi_n(z)$, is the minimal polynomial of the $n$th primitive roots ...
AbstractWe exhibit an algorithm computing, for a polynomialf∈Z[t], the set of its integer roots. The...
AbstractWe give a new class of algorithms for computing sparsest shifts of a given polynomial. Our a...
AbstractA new algorithm for sparse multivariate polynomial interpolation is presented. It is a multi...