This talk highlights recent advances in the numerics of Stochastic Differential Equations (SDEs), since their applications are in several real-life phenomena, whose dynamics are affected by random perturbations. In particular, in this work we describe an efficient procedure to estimate the local truncation error of one-step method for the numerical solution of SDEs of Ito type, based on the idea of their continuous-time extension. As known in the deterministic case, this procedure allows us to obtain a variable stepsize algorithm, that may be useful to solve stiff SDEs. Numerical tests will be performed in order to confirm the theoretical results. This is a joint work with Prof. Beatrice Paternoster and Prof. Dajana Conte from University...
WEAK CONVERGENCE OF A NUMERICAL SCHEME FOR STOCHASTIC DIFFERENTIAL EQUATIONSIn this paper a n...
AbstractThe global, or true, error made by one-step methods when solving the initial value problem f...
Introduction Deterministic calculus is much more robust to approximation than stochastic calculus b...
Stochastic Differential Equations (SDEs) have attracted the interest of many researchers due to thei...
The paper consists of two parts. In the first part of the paper, we proposed a procedure to estimate...
The paper consists of two parts. In the first part of the paper, we proposed a procedure to estimate...
. We introduce a variable step size method for the numerical approximation of pathwise solutions to ...
AbstractIn this paper, we will present a new adaptive time stepping algorithm for strong approximati...
AbstractWe introduce a variable step size algorithm for the pathwise numerical approximation of solu...
AbstractWe introduce a variable timestepping procedure using local error control for the pathwise (s...
Abstract: This paper examines the effect of varying stepsizes in finding the approximate solution of...
The paper consists of two parts. In the first part, we propose a procedure to estimate local errors ...
We introduce a variable step size algorithm for the pathwise numerical approximation of solutions to...
This thesis explains the theoretical background of stochastic differential equations in one dimensio...
A strategy for controlling the stepsize in the numerical integration of stochastic differential equa...
WEAK CONVERGENCE OF A NUMERICAL SCHEME FOR STOCHASTIC DIFFERENTIAL EQUATIONSIn this paper a n...
AbstractThe global, or true, error made by one-step methods when solving the initial value problem f...
Introduction Deterministic calculus is much more robust to approximation than stochastic calculus b...
Stochastic Differential Equations (SDEs) have attracted the interest of many researchers due to thei...
The paper consists of two parts. In the first part of the paper, we proposed a procedure to estimate...
The paper consists of two parts. In the first part of the paper, we proposed a procedure to estimate...
. We introduce a variable step size method for the numerical approximation of pathwise solutions to ...
AbstractIn this paper, we will present a new adaptive time stepping algorithm for strong approximati...
AbstractWe introduce a variable step size algorithm for the pathwise numerical approximation of solu...
AbstractWe introduce a variable timestepping procedure using local error control for the pathwise (s...
Abstract: This paper examines the effect of varying stepsizes in finding the approximate solution of...
The paper consists of two parts. In the first part, we propose a procedure to estimate local errors ...
We introduce a variable step size algorithm for the pathwise numerical approximation of solutions to...
This thesis explains the theoretical background of stochastic differential equations in one dimensio...
A strategy for controlling the stepsize in the numerical integration of stochastic differential equa...
WEAK CONVERGENCE OF A NUMERICAL SCHEME FOR STOCHASTIC DIFFERENTIAL EQUATIONSIn this paper a n...
AbstractThe global, or true, error made by one-step methods when solving the initial value problem f...
Introduction Deterministic calculus is much more robust to approximation than stochastic calculus b...