AbstractConsider the following delay differential equation (DDE) y′=ƒ(t,y(t),y(t−τ(t))), t⩾t0,with the initial condition y(t)=Φ for t⩽t0,where ƒ and Φ are such that (0.1), (0.2) has a unique solution y(t). The author gives sufficient conditions for the asymptotic stability of the equation (0.1) for which he introduces new definitions of numerical stability. The approach is reminiscent of that from the nonlinear, stiff ordinary differential equation (ODE) field. He investigates stability properties of the class of one-point collocation rules. In particular, the backward Euler method turns out to be stable with respect to all the given definitions
AbstractThis paper deals with the stability analysis of numerical methods for the solution of delay ...
In this paper a parameter class of Linear multistep method are applied to solve delay differential e...
Stability properties of linear multistep methods for delay differential equations with respect to th...
AbstractConsider the following two-dimensional delay differential equation (DDE) u′(t)=a1u(t)+b1v(t–...
AbstractThis paper deals with the stability analysis of numerical methods for the solution of delay ...
AbstractStability properties of numerical methods for delay differential equations are considered. S...
AbstractIn this paper, we give some sufficient conditions for the zero solution of an n-dimensional ...
AbstractConsider the following two-dimensional delay differential equation (DDE) u′(t)=a1u(t)+b1v(t–...
AbstractThis paper is concerned with the numerical solution of delay differential equations (DDEs). ...
AbstractIn this paper we give a sufficient condition for the zero solution of an n-dimensional diffe...
AbstractStability properties of numerical methods for delay differential equations are considered. S...
AbstractThis paper is devoted to the stability analysis of both the true solutions and the numerical...
AbstractWe consider a special type of numerical methods for delay differential equations (DDEs). By ...
We discuss the practical determination of stability regions when various fixed-stepsize Runge-Kutta ...
In this paper, asymptotic stability properties of implicit Runge-Kutta methods for delay differentia...
AbstractThis paper deals with the stability analysis of numerical methods for the solution of delay ...
In this paper a parameter class of Linear multistep method are applied to solve delay differential e...
Stability properties of linear multistep methods for delay differential equations with respect to th...
AbstractConsider the following two-dimensional delay differential equation (DDE) u′(t)=a1u(t)+b1v(t–...
AbstractThis paper deals with the stability analysis of numerical methods for the solution of delay ...
AbstractStability properties of numerical methods for delay differential equations are considered. S...
AbstractIn this paper, we give some sufficient conditions for the zero solution of an n-dimensional ...
AbstractConsider the following two-dimensional delay differential equation (DDE) u′(t)=a1u(t)+b1v(t–...
AbstractThis paper is concerned with the numerical solution of delay differential equations (DDEs). ...
AbstractIn this paper we give a sufficient condition for the zero solution of an n-dimensional diffe...
AbstractStability properties of numerical methods for delay differential equations are considered. S...
AbstractThis paper is devoted to the stability analysis of both the true solutions and the numerical...
AbstractWe consider a special type of numerical methods for delay differential equations (DDEs). By ...
We discuss the practical determination of stability regions when various fixed-stepsize Runge-Kutta ...
In this paper, asymptotic stability properties of implicit Runge-Kutta methods for delay differentia...
AbstractThis paper deals with the stability analysis of numerical methods for the solution of delay ...
In this paper a parameter class of Linear multistep method are applied to solve delay differential e...
Stability properties of linear multistep methods for delay differential equations with respect to th...