We obtain numerical solutions to a class of third-order partial differential equations arising in the impulsive motion of a flat plate for various boundary data. In particular, we study the case of constant acceleration of the plate, the case of oscillation of the plate, and a case in which velocity is increasing yet acceleration is decreasing. We compare the numerical solutions with the known exact solutions in order to establish the validity of the method. Several figures illustrating both solution forms and the relative strength of the second and third-order terms are presented. The results obtained in this study reveal many interesting behaviors that warrant further study on the non-Newtonian fluid flow phenomena. © 2008 Elsevier B.V. A...
A problem of unsteady flow of a second grade fluid over flat plates with the impulsive and oscillati...
An existence of at least three solutions for a fourth-order impulsive differential inclusion will be...
Abstract: By methodsof Power Geometry, we study the classical problem of the boundary laye...
We obtain numerical solutions to a class of third-order partial differential equations arising in th...
We obtain numerical solutions to a class of third-order partial differential equations arising in th...
We correct an oversight in our recently published paper Van Gorder and Vajravelu [Third-order partia...
We correct an oversight in our recently published paper Van Gorder and Vajravelu [Third-order partia...
In this paper, three types of third-order partial differential equations (PDEs) are classified to be...
The problem of studying the behaviour of a fluid moving past a body constitutes a classical area of ...
Necessary and sufficient conditions are found for existence of at least one bounded nonoscillatory s...
In this paper, we improve the existing results in the literature by presenting weaker sufficient con...
We introduce the concept of principal and nonprincipal solutions for second order differential equat...
We will present qualitative and numerical results on a partial differential equation (PDE) system wh...
We will present qualitative and numerical results on a partial differential equation (PDE) system wh...
The topic of free surface deformation due to the interaction between a free surface and a moving sol...
A problem of unsteady flow of a second grade fluid over flat plates with the impulsive and oscillati...
An existence of at least three solutions for a fourth-order impulsive differential inclusion will be...
Abstract: By methodsof Power Geometry, we study the classical problem of the boundary laye...
We obtain numerical solutions to a class of third-order partial differential equations arising in th...
We obtain numerical solutions to a class of third-order partial differential equations arising in th...
We correct an oversight in our recently published paper Van Gorder and Vajravelu [Third-order partia...
We correct an oversight in our recently published paper Van Gorder and Vajravelu [Third-order partia...
In this paper, three types of third-order partial differential equations (PDEs) are classified to be...
The problem of studying the behaviour of a fluid moving past a body constitutes a classical area of ...
Necessary and sufficient conditions are found for existence of at least one bounded nonoscillatory s...
In this paper, we improve the existing results in the literature by presenting weaker sufficient con...
We introduce the concept of principal and nonprincipal solutions for second order differential equat...
We will present qualitative and numerical results on a partial differential equation (PDE) system wh...
We will present qualitative and numerical results on a partial differential equation (PDE) system wh...
The topic of free surface deformation due to the interaction between a free surface and a moving sol...
A problem of unsteady flow of a second grade fluid over flat plates with the impulsive and oscillati...
An existence of at least three solutions for a fourth-order impulsive differential inclusion will be...
Abstract: By methodsof Power Geometry, we study the classical problem of the boundary laye...