We derive two numerical approximation schemes for local invariant manifolds of nonautonomous ordinary differential equations which can be measurable in time and Lipschitzian in the spatial variable. Our approach is inspired by previous work of Jolly, Rosa (2005), "Computation of non-smooth local center manifolds", IMA Journal of Numerical Analysis 25, 698-725, on autonomous ODEs and based on truncated Lyapunov-Perron operators. Both of our methods are applicable to the full hierarchy of strongly stable, stable, center-stable and the corresponding unstable manifolds, and exponential refinement strategies yield exponential convergence. Several examples illustrate our approach
We analyse some Runge-Kutta type methods for computing 1D integral manifolds, i.e. solutions to ordi...
The dynamics of a differential algebraic equation takes place on a lower dimensional manifold in pha...
The present work deals with numerical methods for computing slow stable invariant manifolds as well ...
We derive two numerical approximation schemes for local invariant manifolds of nonautonomous ordinar...
We derive a numerical scheme to compute invariant manifolds for time-variant discrete dynamical syst...
AbstractIn this paper, we consider a general autonomous functional differential equation having a lo...
In this paper, we consider a general autonomous functional differential equa-tion having a local cen...
Abstract Multidegree of freedom nonlinear differential equations can often be transformed by means o...
This work is concerned with efficient numerical methods for computing high order Taylor and Fourier-...
Beyn W-J, Kleß W. Numerical Taylor expansions of invariant manifolds in large dynamical systems. Num...
There are many methods for computing stable and unstable manifolds in autonomous flows. When the flo...
We study polynomial expansions of local unstable manifolds attached to equilibrium solutions of para...
We construct real analytic stable invariant manifolds for sufficiently small perturbations of a line...
It is shown that appropriate linear multi-step methods (LMMs) applied to singularly perturbed system...
. Differential equations which explicitly but discontinuously depend on time are rarely studied obje...
We analyse some Runge-Kutta type methods for computing 1D integral manifolds, i.e. solutions to ordi...
The dynamics of a differential algebraic equation takes place on a lower dimensional manifold in pha...
The present work deals with numerical methods for computing slow stable invariant manifolds as well ...
We derive two numerical approximation schemes for local invariant manifolds of nonautonomous ordinar...
We derive a numerical scheme to compute invariant manifolds for time-variant discrete dynamical syst...
AbstractIn this paper, we consider a general autonomous functional differential equation having a lo...
In this paper, we consider a general autonomous functional differential equa-tion having a local cen...
Abstract Multidegree of freedom nonlinear differential equations can often be transformed by means o...
This work is concerned with efficient numerical methods for computing high order Taylor and Fourier-...
Beyn W-J, Kleß W. Numerical Taylor expansions of invariant manifolds in large dynamical systems. Num...
There are many methods for computing stable and unstable manifolds in autonomous flows. When the flo...
We study polynomial expansions of local unstable manifolds attached to equilibrium solutions of para...
We construct real analytic stable invariant manifolds for sufficiently small perturbations of a line...
It is shown that appropriate linear multi-step methods (LMMs) applied to singularly perturbed system...
. Differential equations which explicitly but discontinuously depend on time are rarely studied obje...
We analyse some Runge-Kutta type methods for computing 1D integral manifolds, i.e. solutions to ordi...
The dynamics of a differential algebraic equation takes place on a lower dimensional manifold in pha...
The present work deals with numerical methods for computing slow stable invariant manifolds as well ...