AbstractThis paper defines a generalization of Newton’s method to deal with solution paths defined by polynomial homotopies that lead to extremal values. Embedding the solutions in a toric variety leads to explicit scaling relations between coefficients and solutions. Toric Newton is a symbolic-numeric algorithm where the symbolic pre-processing exploits the polyhedral structures. The numerical stage uses the additional variables introduced by the homogenization to scale the components of the solution vectors to the complex unit circle. Toric Newton generates appropriate affine charts and enables one to approximate the magnitude of large solutions of polynomial systems
AbstractResultants characterize the existence of roots of systems of multivariate nonlinear polynomi...
Homotopy algorithms combine beautiful mathematics with the capability to solve complicated nonlinear...
We introduce a new iterative root-finding method for complex polynomials, dubbed Newton-Ellipsoid me...
AbstractThis paper defines a generalization of Newton’s method to deal with solution paths defined b...
Systems of polynomial equations arise naturally from many problems in applied mathematics and engine...
. We illustrate an efficient new method for handling polynomial systems with degenerate solution set...
This paper reexamines univariate reduction from a toric geometric point of view. We begin by constru...
Many applications modeled by polynomial systems have positive dimensional solution components (e.g.,...
The objective of this paper is to show how the recently proposed method by Giusti, Heintz, Morais, M...
The Newton Polytope Pf of a polynomial f is the convex hull of the exponent vectors in f
We present a survey of some basic ideas involved in the use of homotopies for solving systems of pol...
Many applications modeled by polynomial systems have positive dimensional solution components (e.g.,...
AbstractWe present a new method for solving symbolically zero-dimensional polynomial equation system...
We develop a collection of numerical algorithms which connect ideas from polyhedral geometry and alg...
We describe algorithms for solving a given system of multivariate polynomial equations via the Ratio...
AbstractResultants characterize the existence of roots of systems of multivariate nonlinear polynomi...
Homotopy algorithms combine beautiful mathematics with the capability to solve complicated nonlinear...
We introduce a new iterative root-finding method for complex polynomials, dubbed Newton-Ellipsoid me...
AbstractThis paper defines a generalization of Newton’s method to deal with solution paths defined b...
Systems of polynomial equations arise naturally from many problems in applied mathematics and engine...
. We illustrate an efficient new method for handling polynomial systems with degenerate solution set...
This paper reexamines univariate reduction from a toric geometric point of view. We begin by constru...
Many applications modeled by polynomial systems have positive dimensional solution components (e.g.,...
The objective of this paper is to show how the recently proposed method by Giusti, Heintz, Morais, M...
The Newton Polytope Pf of a polynomial f is the convex hull of the exponent vectors in f
We present a survey of some basic ideas involved in the use of homotopies for solving systems of pol...
Many applications modeled by polynomial systems have positive dimensional solution components (e.g.,...
AbstractWe present a new method for solving symbolically zero-dimensional polynomial equation system...
We develop a collection of numerical algorithms which connect ideas from polyhedral geometry and alg...
We describe algorithms for solving a given system of multivariate polynomial equations via the Ratio...
AbstractResultants characterize the existence of roots of systems of multivariate nonlinear polynomi...
Homotopy algorithms combine beautiful mathematics with the capability to solve complicated nonlinear...
We introduce a new iterative root-finding method for complex polynomials, dubbed Newton-Ellipsoid me...