AbstractIn this paper, we will present a new adaptive time stepping algorithm for strong approximation of stochastic ordinary differential equations. We will employ two different error estimation criteria for drift and diffusion terms of the equation, both of them based on forward and backward moves along the same time step. We will use step size selection mechanisms suitable for each of the two main regimes in the solution behavior, which correspond to domination of the drift-based local error estimator or diffusion-based one. Numerical experiments will show the effectiveness of this approach in the pathwise approximation of several standard test problems
AbstractWe introduce a variable timestepping procedure using local error control for the pathwise (s...
This talk highlights recent advances in the numerics of Stochastic Differential Equations (SDEs), si...
AbstractThe way to obtain deterministic Runge–Kutta methods from Taylor approximations is generalize...
AbstractIn this paper, we will present a new adaptive time stepping algorithm for strong approximati...
AbstractWe analyze the mean-square (MS) stability properties of a newly introduced adaptive time-ste...
AbstractWe introduce a variable step size algorithm for the pathwise numerical approximation of solu...
Adaptive time-stepping with high-order embedded Runge-Kutta pairs and rejection sampling provides ef...
We introduce a variable step size algorithm for the pathwise numerical approximation of solutions to...
The stiff stochastic differential equations (SDEs) involve the solution with sharp turning points th...
The understanding of adaptive algorithms for stochastic differential equations (SDEs) is an open are...
Abstract. Convergence rates of adaptive algorithms for weak approximations of Ito ̂ stochastic diffe...
In this dissertation we obtain an efficient hybrid numerical method for the solution of stochastic d...
AbstractThe numerical solution of stochastic differential equations (SDEs) has been focussed recentl...
The numerical solution of stochastic differential equations (SDEs) has been focused recently on the ...
AbstractThe efficient numerical solution of stochastic differential equations is important for appli...
AbstractWe introduce a variable timestepping procedure using local error control for the pathwise (s...
This talk highlights recent advances in the numerics of Stochastic Differential Equations (SDEs), si...
AbstractThe way to obtain deterministic Runge–Kutta methods from Taylor approximations is generalize...
AbstractIn this paper, we will present a new adaptive time stepping algorithm for strong approximati...
AbstractWe analyze the mean-square (MS) stability properties of a newly introduced adaptive time-ste...
AbstractWe introduce a variable step size algorithm for the pathwise numerical approximation of solu...
Adaptive time-stepping with high-order embedded Runge-Kutta pairs and rejection sampling provides ef...
We introduce a variable step size algorithm for the pathwise numerical approximation of solutions to...
The stiff stochastic differential equations (SDEs) involve the solution with sharp turning points th...
The understanding of adaptive algorithms for stochastic differential equations (SDEs) is an open are...
Abstract. Convergence rates of adaptive algorithms for weak approximations of Ito ̂ stochastic diffe...
In this dissertation we obtain an efficient hybrid numerical method for the solution of stochastic d...
AbstractThe numerical solution of stochastic differential equations (SDEs) has been focussed recentl...
The numerical solution of stochastic differential equations (SDEs) has been focused recently on the ...
AbstractThe efficient numerical solution of stochastic differential equations is important for appli...
AbstractWe introduce a variable timestepping procedure using local error control for the pathwise (s...
This talk highlights recent advances in the numerics of Stochastic Differential Equations (SDEs), si...
AbstractThe way to obtain deterministic Runge–Kutta methods from Taylor approximations is generalize...