We consider the solution of delay differential equations (DDEs) by using boundary value methods (BVMs). These methods require the solution of one or more nonsymmetric, large and sparse linear systems. The GMRES method with the Strang-type block-circulant preconditioner is proposed for solving these linear systems. We show that if a P-k1,(k2)-stable BVM is used for solving an m-by-m system of DDEs, then our preconditioner is invertible and all the eigenvalues of the preconditioned system are clustered around 1. It follows that when the GMRES method is applied to solving the preconditioned systems, the method may converge fast. Numerical results are given to illustrate the effectiveness of our methods
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In this paper, initial value problems of first order delay differential equations (DDEs) are solved ...
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AbstractWe consider the solution of delay differential equations by using boundary value methods (BV...
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The finite difference scheme with the shifted Grünwarld formula is employed to semi-discrete the fra...
We consider the system of equations arising from finite difference discretization of a three-dimensi...
AbstractWe consider the system of equations arising from finite difference discretization of a three...
The solution of ordinary and partial differential equations using implicit linear multistep formulas...
This paper presents a new preconditioning technique for solving linear systems. It is based on an in...
Implicit time-step numerical integrators for ordinary and evolutionary partial differential equation...
We look at solving large nonsymmetric systems of linear equations using polynomial preconditioned Kr...
We consider the solution of ordinary differential equations (ODEs) using implicit linear multistep f...
We propose new classes of preconditioners for the linear systems arising from a boundary integral eq...
In this paper, initial value problems of first order delay differential equations (DDEs) are solved ...
Abstract: In this paper, we survey some of the latest developments in using boundary value methods f...
AbstractWe consider the solution of differential equations with multidelays by using boundary value ...
AbstractWe consider the solution of delay differential equations by using boundary value methods (BV...
AbstractWe consider the solution of a system of ordinary differential equations (ODEs) by waveform r...
AbstractThe waveform relaxation (WR) method was developed as an iterative method for solving large s...
The finite difference scheme with the shifted Grünwarld formula is employed to semi-discrete the fra...
We consider the system of equations arising from finite difference discretization of a three-dimensi...
AbstractWe consider the system of equations arising from finite difference discretization of a three...
The solution of ordinary and partial differential equations using implicit linear multistep formulas...
This paper presents a new preconditioning technique for solving linear systems. It is based on an in...
Implicit time-step numerical integrators for ordinary and evolutionary partial differential equation...
We look at solving large nonsymmetric systems of linear equations using polynomial preconditioned Kr...
We consider the solution of ordinary differential equations (ODEs) using implicit linear multistep f...
We propose new classes of preconditioners for the linear systems arising from a boundary integral eq...
In this paper, initial value problems of first order delay differential equations (DDEs) are solved ...