AbstractFor a dissipative differential equation with stationary solution u∗, the difference between any solution U(t) and u∗ is nonincreasing with t. In this note we present necessary and sufficient conditions in order for a similar monotonicity property to hold for numerical approximations computed from a Rosenbrock method. Our results also provide global convergence results for some modifications of Newton's method
AbstractIn previous work, by adapting a suitable finite difference method to a particular monotone s...
AbstractFor difference equations which satisfy a strict monotonicity property a comparison principle...
AbstractThe method of lower and upper solutions combined with monotone iterative techniques is used ...
AbstractFor a dissipative differential equation with stationary solution u∗, the difference between ...
AbstractThe paper deals with certain boundedness properties of Runge-Kutta-Rosenbrock methods when a...
AbstractA version of the Dynamical Systems Method (DSM) for solving ill-posed nonlinear equations F(...
This paper studies Rosenbrock methods when they are applied to stiff differential equations containi...
In this paper nonlinear monotonicity and boundedness properties are analyzed for linear multistep ...
A review of the authors’ results is given. Several methods are discussed for solving nonlinear equat...
A version of the Dynamical Systems Method (DSM) for solving ill-posed nonlinear equations F(u) = f w...
In this paper we will study the numerical solution of a discontinuous differential system by a Rosen...
Many numerical methods to solve initial value problems of the form y′=f(t,y) can be written as gener...
AbstractA new class of methods, for solving stiff systems, which avoids the exactness of the Jacobia...
To appear in Differential Equations and ApplicationsInternational audienceWe consider approximation ...
AbstractConvergence is improved in the context of the monotone Newton theorem if the starting points...
AbstractIn previous work, by adapting a suitable finite difference method to a particular monotone s...
AbstractFor difference equations which satisfy a strict monotonicity property a comparison principle...
AbstractThe method of lower and upper solutions combined with monotone iterative techniques is used ...
AbstractFor a dissipative differential equation with stationary solution u∗, the difference between ...
AbstractThe paper deals with certain boundedness properties of Runge-Kutta-Rosenbrock methods when a...
AbstractA version of the Dynamical Systems Method (DSM) for solving ill-posed nonlinear equations F(...
This paper studies Rosenbrock methods when they are applied to stiff differential equations containi...
In this paper nonlinear monotonicity and boundedness properties are analyzed for linear multistep ...
A review of the authors’ results is given. Several methods are discussed for solving nonlinear equat...
A version of the Dynamical Systems Method (DSM) for solving ill-posed nonlinear equations F(u) = f w...
In this paper we will study the numerical solution of a discontinuous differential system by a Rosen...
Many numerical methods to solve initial value problems of the form y′=f(t,y) can be written as gener...
AbstractA new class of methods, for solving stiff systems, which avoids the exactness of the Jacobia...
To appear in Differential Equations and ApplicationsInternational audienceWe consider approximation ...
AbstractConvergence is improved in the context of the monotone Newton theorem if the starting points...
AbstractIn previous work, by adapting a suitable finite difference method to a particular monotone s...
AbstractFor difference equations which satisfy a strict monotonicity property a comparison principle...
AbstractThe method of lower and upper solutions combined with monotone iterative techniques is used ...