AbstractThis paper deals with singularly perturbed boundary value problem for a linear second order delay differential equation. It is known that the classical numerical methods are not satisfactory when applied to solve singularly perturbed problems in delay differential equations. In this paper we present an exponentially fitted finite difference scheme to overcome the drawbacks of the corresponding classical counter parts. The stability of the scheme is investigated. The proposed scheme is analyzed for convergence. Several linear singularly perturbed delay differential equations have been solved and the numerical results are presented to support the theory
This paper deals with numerical treatment of singularly perturbed parabolic differential equations h...
Difference method on a piecewise uniform mesh of Shishkin type, for a singularly perturbed boundary-...
AbstractThis paper deals with the singularly perturbed initial value problem for a linear first-orde...
AbstractThis paper deals with singularly perturbed boundary value problem for a linear second order ...
This paper deals with singularly perturbed boundary value problem for a linear second order delay di...
This paper deals with singularly perturbed initial value problem for linear first-order delay differ...
This paper deals with singularly perturbed initial value problem for linear first-order delay diffe...
AbstractThis work deals with a singularly perturbed initial value problem for a quasi-linear second-...
AbstractIn this paper, an exponentially fitted initial value technique is presented for solving sing...
This paper presents a numerical technique for solving nonlinear singularly perturbed delay different...
Purpose – The purpose of this study is to develop stable, convergent and accurate numerical method f...
In this paper, an exponentially fitted non standard finite difference method is proposed to solve si...
AbstractA terminal boundary-value technique is presented for solving singularly perturbed delay diff...
In this article, singularly perturbed differential difference equations having delay and advance in ...
This paper deals with the singularly perturbed delay differential equations under boundary condition...
This paper deals with numerical treatment of singularly perturbed parabolic differential equations h...
Difference method on a piecewise uniform mesh of Shishkin type, for a singularly perturbed boundary-...
AbstractThis paper deals with the singularly perturbed initial value problem for a linear first-orde...
AbstractThis paper deals with singularly perturbed boundary value problem for a linear second order ...
This paper deals with singularly perturbed boundary value problem for a linear second order delay di...
This paper deals with singularly perturbed initial value problem for linear first-order delay differ...
This paper deals with singularly perturbed initial value problem for linear first-order delay diffe...
AbstractThis work deals with a singularly perturbed initial value problem for a quasi-linear second-...
AbstractIn this paper, an exponentially fitted initial value technique is presented for solving sing...
This paper presents a numerical technique for solving nonlinear singularly perturbed delay different...
Purpose – The purpose of this study is to develop stable, convergent and accurate numerical method f...
In this paper, an exponentially fitted non standard finite difference method is proposed to solve si...
AbstractA terminal boundary-value technique is presented for solving singularly perturbed delay diff...
In this article, singularly perturbed differential difference equations having delay and advance in ...
This paper deals with the singularly perturbed delay differential equations under boundary condition...
This paper deals with numerical treatment of singularly perturbed parabolic differential equations h...
Difference method on a piecewise uniform mesh of Shishkin type, for a singularly perturbed boundary-...
AbstractThis paper deals with the singularly perturbed initial value problem for a linear first-orde...