AbstractTime integration schemes with a fixed time step, much smaller than the dominant slow time scales of the dynamics of the system, arise in the context of stiff ordinary differential equations or in multiscale computations, where a microscopic time-stepper is used to compute macroscopic behaviour. We discuss a method to accelerate such a time integrator by using extrapolation. This method extends the scheme developed by Sommeijer [Increasing the real stability boundary of explicit methods, Comput. Math. Appl. 19(6) (1990) 37–49], and uses similar ideas as the projective integration method. We analyse the stability properties of the method, and we illustrate its performance for a convection–diffusion problem
We present a family of multistep integrators based on the Adams--Bashforth methods. These schemes ca...
We present a family of multistep integrators based on the Adams--Bashforth methods. These schemes ca...
We present a convergence proof for higher order implementations of the projective integration method...
Time integration schemes with a fixed time step, much smaller than the dominant slow time scales of ...
Time integration schemes with a fixed time step, much smaller than the dominant slow time scales of ...
Time integration schemes with a fixed time step, much smaller than the dominant slow time scales of ...
Time integration schemes with a fixed time step, much smaller than the dominant slow time scales of ...
Time integration schemes with a fixed time step, much smaller than the dominant slow time scales of ...
AbstractIn the context of multiscale computations, techniques have recently been developed that enab...
AbstractIn the context of multiscale computations, techniques have recently been developed that enab...
AbstractWe introduce new projective versions of second-order accurate Runge–Kutta and Adams–Bashfort...
An explicit time integrator without the CFL < 1 restriction for the momentum equation i...
International audienceIn this paper we use step size adjustment and extrapolation methods to improve...
Implicit schemes for the integration of ODEs are popular when stability is more of concern than accu...
Stiff systems of ordinary differential equations (ODEs) play an essential role in the temporal integ...
We present a family of multistep integrators based on the Adams--Bashforth methods. These schemes ca...
We present a family of multistep integrators based on the Adams--Bashforth methods. These schemes ca...
We present a convergence proof for higher order implementations of the projective integration method...
Time integration schemes with a fixed time step, much smaller than the dominant slow time scales of ...
Time integration schemes with a fixed time step, much smaller than the dominant slow time scales of ...
Time integration schemes with a fixed time step, much smaller than the dominant slow time scales of ...
Time integration schemes with a fixed time step, much smaller than the dominant slow time scales of ...
Time integration schemes with a fixed time step, much smaller than the dominant slow time scales of ...
AbstractIn the context of multiscale computations, techniques have recently been developed that enab...
AbstractIn the context of multiscale computations, techniques have recently been developed that enab...
AbstractWe introduce new projective versions of second-order accurate Runge–Kutta and Adams–Bashfort...
An explicit time integrator without the CFL < 1 restriction for the momentum equation i...
International audienceIn this paper we use step size adjustment and extrapolation methods to improve...
Implicit schemes for the integration of ODEs are popular when stability is more of concern than accu...
Stiff systems of ordinary differential equations (ODEs) play an essential role in the temporal integ...
We present a family of multistep integrators based on the Adams--Bashforth methods. These schemes ca...
We present a family of multistep integrators based on the Adams--Bashforth methods. These schemes ca...
We present a convergence proof for higher order implementations of the projective integration method...