In this paper, we introduce a new hyperbolic first-order system for general dispersive partial differential equations (PDEs). We then extend the proposed system to general advection-diffusion-dispersion PDEs. We apply the fourth-order RD scheme of Ref. 1 to the proposed hyperbolic system, and solve time-dependent dispersive equations, including the classical two-soliton KdV and a dispersive shock case. We demonstrate that the predicted results, including the gradient and Hessian (second derivative), are in a very good agreement with the exact solutions. We then show that the RD scheme applied to the proposed system accurately captures dispersive shocks without numerical oscillations. We also verify that the solution, gradient and Hessian ar...
We present a way to deal with dispersion-dominated 'shock-type' transition in the absence of complet...
We present a way to deal with dispersion-dominated 'shock-type' transition in the absence of complet...
In this paper, we develop second- and third-order non-oscillatory shock-capturing hyperbolic residua...
AbstractWe investigate difference schemes for systems of first order hyperbolic differential equatio...
A time-dependent extension of the first-order hyperbolic system method for advection-diffusion probl...
AbstractA fourth-order accurate difference scheme for systems of hyperbolic equations is presented. ...
AbstractWe investigate difference schemes for systems of first order hyperbolic differential equatio...
In the following text an overview is given of numerical schemes which can be used to solve hyperboli...
In the following text an overview is given of numerical schemes which can be used to solve hyperboli...
In this paper, we propose a novel first-order reformulation of the most well-known Boussinesq-type s...
Le but de cette thèse est d’étudier certaines équations aux dérivées partielles hyperboliques-disper...
We report progress towards the development of Navier-Stokes schemes having the fol-lowing features: ...
Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/76793/1/AIAA-1991-1535-868.pd
In order to embark on the development of numerical schemes for stiff problems, we have studied a mod...
Department of Mathematical SciencesIn this dissertation, new numerical methods are proposed for diff...
We present a way to deal with dispersion-dominated 'shock-type' transition in the absence of complet...
We present a way to deal with dispersion-dominated 'shock-type' transition in the absence of complet...
In this paper, we develop second- and third-order non-oscillatory shock-capturing hyperbolic residua...
AbstractWe investigate difference schemes for systems of first order hyperbolic differential equatio...
A time-dependent extension of the first-order hyperbolic system method for advection-diffusion probl...
AbstractA fourth-order accurate difference scheme for systems of hyperbolic equations is presented. ...
AbstractWe investigate difference schemes for systems of first order hyperbolic differential equatio...
In the following text an overview is given of numerical schemes which can be used to solve hyperboli...
In the following text an overview is given of numerical schemes which can be used to solve hyperboli...
In this paper, we propose a novel first-order reformulation of the most well-known Boussinesq-type s...
Le but de cette thèse est d’étudier certaines équations aux dérivées partielles hyperboliques-disper...
We report progress towards the development of Navier-Stokes schemes having the fol-lowing features: ...
Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/76793/1/AIAA-1991-1535-868.pd
In order to embark on the development of numerical schemes for stiff problems, we have studied a mod...
Department of Mathematical SciencesIn this dissertation, new numerical methods are proposed for diff...
We present a way to deal with dispersion-dominated 'shock-type' transition in the absence of complet...
We present a way to deal with dispersion-dominated 'shock-type' transition in the absence of complet...
In this paper, we develop second- and third-order non-oscillatory shock-capturing hyperbolic residua...