Optimal rate of convergence for approximations of SPDEs with non-regular drift
arXiv:2110.06148 · doi:10.1137/21M1454213
Abstract
A fully discrete finite difference scheme for stochastic reaction-diffusion equations driven by a -dimensional white noise is studied. The optimal strong rate of convergence is proved without posing any regularity assumption on the non-linear reaction term. The proof relies on stochastic sewing techniques.
arXiv comment35 pages
References in corpus (8)
- Strong Approximation of Stochastic Allen-Cahn Equation with White Noise
- Analysis of Some Splitting Schemes for the Stochastic Allen-Cahn Equation
- Strong convergence rates for explicit space-time discrete numerical approximations of stochastic Allen-Cahn equations
- The Euler-Maruyama Scheme for SDEs with Irregular Drift: Convergence Rates via Reduction to a Quadrature Problem
- Approximation of SDEs -- a stochastic sewing approach
- Quantifying a convergence theorem of Gyöngy and Krylov
- Mild Stochastic Sewing Lemma, SPDE in Random Environment, and Fractional Averaging
- A generalized Avikainen's estimate and its applications