We demonstrate how a multiplicative splitting method of order P can be used to construct an additive splitting method of order P + 3. The weight coefficients of the additive method depend only on P, which must be an odd number. Specifically we discuss a fourth-order additive method, which is yielded by the Lie-Trotter splitting. We provide error estimates, stability analysis, and numerical examples with the special discussion of the parallelization properties and applications to nonlinear optics
We provide an explicit formulation of the splitting associated with the Multiplicative Schwarz itera...
Two parallel algorithms for the solution of tridiagonal systems of equations were implemented on the...
AbstractIn this paper we consider splitting methods for nonlinear ordinary differential equations in...
We demonstrate how a multiplicative splitting method of order P can be used to construct an additive...
We demonstrate how a multiplicative splitting method of order P can be utilized to construct an addi...
AbstractAs an alternative to the classical splitting methods, two new splitting schemes have been de...
The implementation of multi-stage splitting integrators is essentially the same as the implementatio...
International audienceWe are concerned with the numerical solution obtained by splitting methods of ...
Splitting methods for the numerical integration of differential equations of order greater than two ...
A comprehensive linear stability analysis of splitting methods is carried out by means of a 2 × 2 ma...
In this paper we describe a computation of iterative operator-splitting method, which are known as c...
AbstractA parallel splitting-up method (or the so called alternating-direction method) is proposed i...
A typical procedure to integrate numerically the time dependent Schrodinger equation involves two st...
In this paper, we contribute higher order operator splitting methods improved by Zassenhaus product....
AbstractIn this paper, we contribute higher order operator splitting methods improved by Zassenhaus ...
We provide an explicit formulation of the splitting associated with the Multiplicative Schwarz itera...
Two parallel algorithms for the solution of tridiagonal systems of equations were implemented on the...
AbstractIn this paper we consider splitting methods for nonlinear ordinary differential equations in...
We demonstrate how a multiplicative splitting method of order P can be used to construct an additive...
We demonstrate how a multiplicative splitting method of order P can be utilized to construct an addi...
AbstractAs an alternative to the classical splitting methods, two new splitting schemes have been de...
The implementation of multi-stage splitting integrators is essentially the same as the implementatio...
International audienceWe are concerned with the numerical solution obtained by splitting methods of ...
Splitting methods for the numerical integration of differential equations of order greater than two ...
A comprehensive linear stability analysis of splitting methods is carried out by means of a 2 × 2 ma...
In this paper we describe a computation of iterative operator-splitting method, which are known as c...
AbstractA parallel splitting-up method (or the so called alternating-direction method) is proposed i...
A typical procedure to integrate numerically the time dependent Schrodinger equation involves two st...
In this paper, we contribute higher order operator splitting methods improved by Zassenhaus product....
AbstractIn this paper, we contribute higher order operator splitting methods improved by Zassenhaus ...
We provide an explicit formulation of the splitting associated with the Multiplicative Schwarz itera...
Two parallel algorithms for the solution of tridiagonal systems of equations were implemented on the...
AbstractIn this paper we consider splitting methods for nonlinear ordinary differential equations in...