CHAPTER ONE
INTRODUCTION
The theory of nonlinear problem has recently
undergone much study. We do not attempt to characterize the general form of
nonlinear equations [1]. Rather, we solve a specific equation in the following
nonlinear problem by using the Adomian decomposition method [2-4]. By solving
this type of problems, we do not use conventional transformations which
transform a nonlinear problem to an evolution equation and the reduced to a bilinear
form. Some times transformation of the nonlinear problem might produce an even
more complicated problem. Nonlinear phenomena play a crucial role in applied
mathematics and physics. The nonlinear problems are solved easily and elegantly
without linearizing the problem by using the Adomian’s decomposition method. The
Adomian decomposition method was presented in 1980’s by Adomian. The method is
very useful for solving linear and nonlinear ordinary and partial differential
equations, algebraic equations, functional equations, integral differential
equations and the convergence analysis of the ADM was discussed in [2]. Y.
Cherruault and G. Adomian give the new proof of convergence analysis of the
decomposition method [16]. E. Babolian And J. Biazar, define the order of the
convergence of adomian method in [11]. After that many modifications were made
on this method by numerous researchers in an attempt to improve the accuracy or
extend the applications of this method. In given in [9]. A new modification
methods of the ADM, Wazwaz modifications and the two step modified Adomian
decomposition method. In chapter 3, we will use the ADM to solve different types
of differential equations. Yahya Qaid Hasan and Liu Ming Zhu modified the ADM
to solve second order singular initial value ordinary differential equations
[21]. Several examples on solving the ordinary differential equations, initial
value problems and boundary value problems are introduced in [2]. J. Biazar, E.
Babolian and R. Islam in [12] obtained the solution of a system of ordinary
differential equations by using ADM. In the second part of chapter, we will
apply the ADM for solving partial differential equations. We will consider
first order PDEs as done by [7]. Then, we move to several 2nd order PDE’s,
linear heat equation, nonlinear heat equation [14], linear wave equation and
nonlinear wave equation [15]. The generalized log-KdV(Diederik Korteweg and
Gustav de Vries)equation in [38] will be solved by ADM as an application on
higher order PDE’s. We apply the method for solving system of PDE’s as in [7].
At the end of this chapter, we show how we can solve the integral equations by
using Adomian decomposition method. In chapter 4, we review some inverse
problems and show how ADM is used for solving these problems. There are many
classifications of the inverse problems, we will deal with boundary conditions
determination of inverse problems[31] and parameter determination for some
equations[35].
TOPIC: APPLICATION OF ADOMIAN’S DECOMPOSITION METHOD IN SOLVING NONLINEAR PARTIAL DIFFERENTIAL EQUATIONS
Format: MS Word
Chapters: 1 - 5, Abstract, References
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Number of Pages: 80
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