We consider direct quadrature methods employing quadrature rules which are reducible to linear multistep methods for ordinary differential equations. A simple characterization of both the repetition factor and numerical stability (for small $h$) is given, which enables us to derive some results with respect to a conjecture of Linz. In particular we show that (i) methods with a repetition factor of one are always numerically stable; (ii) methods with a repetition factor greater than one are not necessarily numerically unstable. Analogous results are derived with respect to the more general notion of an asymptotic repetition factor. We also discuss the concepts of strong stability, absolute stability and relative stability and their (dis)conn...
AbstractIn this work we consider equations of the form: y(t)=g(t)+∞tok(t−s)ϕ(y(s))ds, tεR+, and thei...
A formal relationship between quadrature rules and linear multistep methods for ordinary differentia...
Linear multistep methods for ordinary differential equations generate convolution quadrature rules. ...
We consider direct quadrature methods employing quadrature rules which are reducible to linear multi...
AbstractIn this paper we prove that direct linear multistep methods for Volterra integral equations ...
In the mathematical representation of real life history-dependent problems (such as mechanical syst...
In the last two decades the theory of Volterra integral equations and of integro-differential equati...
Volterra Integral Equations (VIEs) arise in many problems of real life, as, for example, feedback co...
summary:Stability analysis for numerical solutions of Voltera integro-differential equations based o...
Within the theoretical framework of the numerical stability analysis for the Volterra integral equa...
summary:Method for numerical solution of Volterra integral equations, based on the O.I.M. methods, i...
AbstractA general class of convergent methods for the numerical solution of ordinary differential eq...
We investigate the stability properties of numerical methods for weakly singular Volterra integral e...
An important topic in the numerical analysis of Volterra integral equations is the stability theory....
AbstractA family of test equations is suggested for first and second kind nonsingular Volterra integ...
AbstractIn this work we consider equations of the form: y(t)=g(t)+∞tok(t−s)ϕ(y(s))ds, tεR+, and thei...
A formal relationship between quadrature rules and linear multistep methods for ordinary differentia...
Linear multistep methods for ordinary differential equations generate convolution quadrature rules. ...
We consider direct quadrature methods employing quadrature rules which are reducible to linear multi...
AbstractIn this paper we prove that direct linear multistep methods for Volterra integral equations ...
In the mathematical representation of real life history-dependent problems (such as mechanical syst...
In the last two decades the theory of Volterra integral equations and of integro-differential equati...
Volterra Integral Equations (VIEs) arise in many problems of real life, as, for example, feedback co...
summary:Stability analysis for numerical solutions of Voltera integro-differential equations based o...
Within the theoretical framework of the numerical stability analysis for the Volterra integral equa...
summary:Method for numerical solution of Volterra integral equations, based on the O.I.M. methods, i...
AbstractA general class of convergent methods for the numerical solution of ordinary differential eq...
We investigate the stability properties of numerical methods for weakly singular Volterra integral e...
An important topic in the numerical analysis of Volterra integral equations is the stability theory....
AbstractA family of test equations is suggested for first and second kind nonsingular Volterra integ...
AbstractIn this work we consider equations of the form: y(t)=g(t)+∞tok(t−s)ϕ(y(s))ds, tεR+, and thei...
A formal relationship between quadrature rules and linear multistep methods for ordinary differentia...
Linear multistep methods for ordinary differential equations generate convolution quadrature rules. ...