This paper presents a solution of the one-dimension Burgers equation using Decomposition Method and compares this solution to the analytic solution [Cole] and solutions obtained with other numerical methods. Even though decomposition method is a non-numerical method, it can be adapted for solving nonlinear differential equations. The advantage of this methodology is that it leads to an analytical continuous approximated solution that is very rapidly convergent [2,7,8]. This method does not take any help of linearization or any other simplifications for handling the non-linear terms. Since the decomposition parameter, in general, is not a perturbation parameter, it follows that the non-linearities in the operator equation can be handled easi...
In this work we generate the numerical solutions of Burgers' equation by applying the Crank-Nicholso...
AbstractIn this study, a compact approximate method in limiting form for calculating the solution of...
AbstractA finite-difference scheme based on fourth-order rational approximants to the matrix–exponen...
summary:This article presents some results of numerical tests of solving the two-dimensional non-lin...
AbstractExplicit solutions are calculated by the decomposition method for Burger's equation for comp...
AbstractA relatively new decomposition method is presented to find the explicit and numerical soluti...
AbstractThis paper presents finite-difference solution and analytical solution of the finite-differe...
In this paper we find the exact solution of Burger's equation after reducing it to Bernoulli equatio...
AbstractIn this paper, we will carry out an analytic comparative study between the Adomian decomposi...
AbstractIn this paper, the Laplace decomposition method (LDM) is proposed to solve the two-dimension...
AbstractIn this article, we present homotopy perturbation method, adomian decomposition method and d...
Purpose - The purpose of this paper is to present an approach capable of solving Burgers' equation. ...
WOS: 000292344300004Purpose - The purpose of this paper is to present an approach capable of solving...
AbstractIn this paper, the Differential Transformation Method (DTM) is employed to obtain the numeri...
AbstractIn this paper, the discrete Adomian decomposition method (ADM) is proposed to numerically so...
In this work we generate the numerical solutions of Burgers' equation by applying the Crank-Nicholso...
AbstractIn this study, a compact approximate method in limiting form for calculating the solution of...
AbstractA finite-difference scheme based on fourth-order rational approximants to the matrix–exponen...
summary:This article presents some results of numerical tests of solving the two-dimensional non-lin...
AbstractExplicit solutions are calculated by the decomposition method for Burger's equation for comp...
AbstractA relatively new decomposition method is presented to find the explicit and numerical soluti...
AbstractThis paper presents finite-difference solution and analytical solution of the finite-differe...
In this paper we find the exact solution of Burger's equation after reducing it to Bernoulli equatio...
AbstractIn this paper, we will carry out an analytic comparative study between the Adomian decomposi...
AbstractIn this paper, the Laplace decomposition method (LDM) is proposed to solve the two-dimension...
AbstractIn this article, we present homotopy perturbation method, adomian decomposition method and d...
Purpose - The purpose of this paper is to present an approach capable of solving Burgers' equation. ...
WOS: 000292344300004Purpose - The purpose of this paper is to present an approach capable of solving...
AbstractIn this paper, the Differential Transformation Method (DTM) is employed to obtain the numeri...
AbstractIn this paper, the discrete Adomian decomposition method (ADM) is proposed to numerically so...
In this work we generate the numerical solutions of Burgers' equation by applying the Crank-Nicholso...
AbstractIn this study, a compact approximate method in limiting form for calculating the solution of...
AbstractA finite-difference scheme based on fourth-order rational approximants to the matrix–exponen...