In this short paper, event location techniques for a differential system the solution of which is directed towards a surface S defined as the 0-set of a smooth function h: S = {x\in R^n : h(x) = 0 } are considered. It is assumed that the exact solution trajectory hits S non-tangentially, and numerical techniques guaranteeing that the trajectory approaches S from one side only (i.e., does not cross it) are studied. Methods based on Runge Kutta schemes which arrive to S in a finite number of steps are proposed. The main motivation of this paper comes from integration of discontinuous differential systems of Filippov type, where location of events is of paramount importance
It is the purpose of this talk to present recent advances in the numerical solution of piecewise smo...
In this work, we discuss some theoretical and numerical aspects of solving differential equations w...
AbstractAn initial value problem for y′ = f(t, y) may have an associated event function g(t, y). An ...
In this short paper, event location techniques for a differential system the solution of which is d...
In this paper we consider numerical techniques to locate the event points of the differential system...
In this paper, we consider numerical methods for the location of events of differential algebraic eq...
In this paper we are concerned with numerical methods for the one-sided event location in discontinu...
We consider the numerical integration of discontinuous differential systems of ODEs of the type: x' ...
This work is dedicated to the memory of Donato Trigiante who has been the first teacher of Numerical...
AbstractThis work is dedicated to the memory of Donato Trigiante who has been the first teacher of N...
In this paper, we consider numerical methods for the location of events of ordinary differential equ...
AbstractThe interpolation polynomial in the k-step Adams–Bashforth method may be used to compute the...
In this report, we have collected notes of work done during the Academic Year 2006-07, while the sec...
The interpolation polynomial in the k-step Adams-Bashforth method may be used to compute the numeric...
In this paper we will study the numerical solution of a discontinuous differential system by a Rosen...
It is the purpose of this talk to present recent advances in the numerical solution of piecewise smo...
In this work, we discuss some theoretical and numerical aspects of solving differential equations w...
AbstractAn initial value problem for y′ = f(t, y) may have an associated event function g(t, y). An ...
In this short paper, event location techniques for a differential system the solution of which is d...
In this paper we consider numerical techniques to locate the event points of the differential system...
In this paper, we consider numerical methods for the location of events of differential algebraic eq...
In this paper we are concerned with numerical methods for the one-sided event location in discontinu...
We consider the numerical integration of discontinuous differential systems of ODEs of the type: x' ...
This work is dedicated to the memory of Donato Trigiante who has been the first teacher of Numerical...
AbstractThis work is dedicated to the memory of Donato Trigiante who has been the first teacher of N...
In this paper, we consider numerical methods for the location of events of ordinary differential equ...
AbstractThe interpolation polynomial in the k-step Adams–Bashforth method may be used to compute the...
In this report, we have collected notes of work done during the Academic Year 2006-07, while the sec...
The interpolation polynomial in the k-step Adams-Bashforth method may be used to compute the numeric...
In this paper we will study the numerical solution of a discontinuous differential system by a Rosen...
It is the purpose of this talk to present recent advances in the numerical solution of piecewise smo...
In this work, we discuss some theoretical and numerical aspects of solving differential equations w...
AbstractAn initial value problem for y′ = f(t, y) may have an associated event function g(t, y). An ...