AbstractWe present a new practicable method for approximating all real zeros of polynomial systems using the resultants method. It is based on the theory of multi-resultants. We build a sparse linear system. Then, we solve it by the quasi-minimal residual method. Once our test function changes its sign, we apply the secant method to approximate the root. The unstable calculation of the determinant of the large sparse matrix is replaced by solving a sparse linear system. This technique will be able to take advantage of the sparseness of the resultant matrix. Theoretical and numerical results are presented
Multivariate systems of polynomial equations find their applications in various fields of science an...
AbstractComputational methods for manipulating sets of polynomial equations are becoming of greater ...
AbstractThe first step in the generalization of the classical theory of homogeneous equations to the...
AbstractWe present a new practicable method for approximating all real zeros of polynomial systems u...
AbstractWe present a new algorithm for the computation of resultants associated with multihomogeneou...
AbstractThis paper deals with some ideas of Bézout and his successors Poisson, Netto and Laurent for...
AbstractResultants characterize the existence of roots of systems of multivariate nonlinear polynomi...
Resultants characterize the existence of roots of systems of multivariate nonlinear polynomial equat...
Resultants characterize the existence of roots of systems of multivariate nonlinear polynomial equat...
Let P be a system of n linear nonhomogeneous ordinary differential polynomials in a set U of n-1 dif...
AbstractA globally convergent matrix algorithm is presented for finding the real and complex zeros o...
The resultant matrix of a polynomial system depends on the geometry of its input Newton polytopes. T...
AbstractThis paper deals with some ideas of Bézout and his successors Poisson, Netto and Laurent for...
International audienceEffective computation of resultants is a central problem in elimination theory...
Multivariate systems of polynomial equations find their applications in various fields of science an...
Multivariate systems of polynomial equations find their applications in various fields of science an...
AbstractComputational methods for manipulating sets of polynomial equations are becoming of greater ...
AbstractThe first step in the generalization of the classical theory of homogeneous equations to the...
AbstractWe present a new practicable method for approximating all real zeros of polynomial systems u...
AbstractWe present a new algorithm for the computation of resultants associated with multihomogeneou...
AbstractThis paper deals with some ideas of Bézout and his successors Poisson, Netto and Laurent for...
AbstractResultants characterize the existence of roots of systems of multivariate nonlinear polynomi...
Resultants characterize the existence of roots of systems of multivariate nonlinear polynomial equat...
Resultants characterize the existence of roots of systems of multivariate nonlinear polynomial equat...
Let P be a system of n linear nonhomogeneous ordinary differential polynomials in a set U of n-1 dif...
AbstractA globally convergent matrix algorithm is presented for finding the real and complex zeros o...
The resultant matrix of a polynomial system depends on the geometry of its input Newton polytopes. T...
AbstractThis paper deals with some ideas of Bézout and his successors Poisson, Netto and Laurent for...
International audienceEffective computation of resultants is a central problem in elimination theory...
Multivariate systems of polynomial equations find their applications in various fields of science an...
Multivariate systems of polynomial equations find their applications in various fields of science an...
AbstractComputational methods for manipulating sets of polynomial equations are becoming of greater ...
AbstractThe first step in the generalization of the classical theory of homogeneous equations to the...