American Journal of Mathematical and Computer Modelling
Volume 2, Issue 1, February 2017, Pages: 13-23

Solution of FPDE in Fluid Mechanics by ADM, VIM and NIM

Kirtiwant Parshuram Ghadle1, *, Khan Firdous1, Khan Arshiya Anjum2

1Department of Mathematics, Dr. Babasaheb Ambedkar Marathwada University, Aurangabad, India

2Department of Computer Science and Information Technology, Dr. Babasaheb Ambedkar Marathwada University, Aurangabad, India

Email address:

(K. P. Ghadle)
(K. Firdous)

*Corresponding author

To cite this article:

Kirtiwant Parshuram Ghadle, Khan Firdous, Khan Arshiya Anjum. Solution of FPDE in Fluid Mechanics by ADM, VIM and NIM. American Journal of Mathematical and Computer Modelling. Vol. 2, No. 1, 2017, pp. 13-23. doi: 10.11648/j.ajmcm.20170201.13

Received: October 30, 2016; Accepted: January 6, 2017; Published: January 13, 2017


Abstract: By handling the one dimensional partial differential equation with three methods i.e. Adomain decomposition method(ADM), Variation iteration method(VIM) and the New iterative method(NIM) and applied logarithmic and exponential functions as initial condition. A general framework of these methods is presented for analytical treatment of fractional partial differential equation arises in fluid mechanics. The fractional derivatives are described in the Caputo sense. The equation used in this paper is fractional wave equation, fractional burgers equation and fractional Klein-Gordon equation. After comparison of the results, the series of solution are found which is very helpful. The basic idea described in this paper is accepted to be further in use to solve other similar linear problems in fractional calculus.

Keywords: Adomain Decomposition Method (ADM), Variation Iteration Method (VIM), New Iterative Method (NIM), Fractional Wave Equation, Fractional Burgers Equation, Fractional Klein-Gordon Equation


1. Introduction

Now a day’s fractional differential equations are motivated by new example of applications in fluid mechanics, mathematics, mathematical biology, physics, electrochemistry and viscoelasticity. Based on experimental data fractional partial differential equations for seepage flow in porous media are suggested in [1], and differential equation with fractional order have currently proved to be valuable tools to the modeling of many physical phenomena [2]. The NIM, planned by Daftardar-Gejji and Jafari in 2006 [3] and improved by Hemeda [4], was effectively applied to a variety of linear and nonlinear equations such as algebraic equations, integral equations, integrodifferential equations, ordinary and partial differential equations of integer and fractional order, and system of equations as well. NIM is simple to understand and easy to implement using computer packages and yields better result [5] than the existing ADM [6], Homotopy perturbation method(HPM) [7], or VIM [8]. Henderson [9] investigates the existence of positive solutions for a system of nonlinear Riemann-Liouville fractional differential equations with coupled integral boundary conditions. Bekri [10] used the fractional complex transformation method to convert fractional order partial differential equation to ordinary differential equation. Yang [11] extended the classical HPM to local fractional HPM; Bhrawy [12] solve the second and fourth order fractional diffusion-wave equations and fractional wave equations with damping.

The objective of this work is to extend the application of the ADM, VIM and the NIM to obtain analytical solutions with initial conditions like logarithmic and exponential function to some fractional partial differential equations in fluid mechanics. These equations include Wave equation, Burgers equation and Klein-Gordon equation.

2. Preliminaries and Notations

Some basic definitions and properties of the fractional calculus theory which are used in this paper are given in this section.

Definition (1): A real function , is said to be in the space  if there exists a real number, such that , where , and it is said to be in the space iff.

Definition (2): The Riemann-Liouville fractional integral operator of order  of a function , is defined as

(1)

,

Properties of the operators  can be found in [13]; we mention only the following: for  and ,

The Riemann-Liouville derivative has certain disadvantages when trying to model real-world phenomena with fractional differential equations. Therefore, we shall introduce a modified functional differential operator  proposed by M. Caputo in his work on the theory of viscoelasticity [13].

Definition(3): The fractional derivative of in caputo sense is defined as

(2)

.

Also, we need here two of its basic properties.

Lemma(1): Ifand  then

The Caputo fractional derivative is considered here because it allows traditional initial and boundary conditions to be included in the formulation of problem [14]. In this paper, we consider the one-dimensional linear inhomogeneous functional partial differential equations in fluid mechanics, where the unknown function  is assumed to be a causal function of time, i.e., vanishing for. The fractional derivative is taken in caputo sense as follows.

Definition(4): For  to be the smallest integer that exceeds  the caputo time-fractional derivative operator of order  is defined as

(3)

3. Linear Equation

To include ADM [15], VIM [15] and NIM [16], the three linear fractional partial differential equations will be studied. The three methods are used to construct the solution of the given examples.

Example(1): Consider the following One-dimensional linear inhomogeneous fraction wave equation

(4)

,

subject to initial condition

(5)

Problem "(4)" and "(5)" can be obtain by using ADM [15] the recurrence relation is given by

,

(6)

In view of "(6)" equation  are as follows:

(7)

(8)

(9)

and so on, in this way the remaining equations of ADM in series can be obtain. The solution in series form is given by

(10)

Cancelling the noise terms and keeping the non-noise terms we yield,

(11)

Where in Mittage-Leffer form it is written as

where  is the Mittage-Leffer function.

Also the problem "(4)" and "(5)" is solved in [15] by using the VIM. By using iteration formula as

(12)

In view of "(12)"  and by benign with , we can obtain,

(13)

(14)

Cancelling the noise terms and keeping the non-noise term we yield,

(15)

Where in Mittage-Leffer form

According to the NIM [16], and by using the formula,

(16)

where

and  and ,

Therefore in view of "(16)" we obtain

(17)

(18)

(19)

The NIM in series form is given by

(20)

Cancelling the noise terms and keeping the non-noise terms we yield,

(21)

Where in Mittage-Leffer form

From "(11)", "(15)" and "(21)", it is clear that the three methods have the same results.

Example(2): Consider the following One-dimensional linear inhomogeneous fraction wave equation

(22)

,

subject to initial condition

(23)

Problem "(22)" and "(23)" can be obtain by using ADM [15] the recurrence relation is given by

(24)

.

In View of "(24)"  are as follows:

(25)

(26)

(27)

The solution in series form is given by

(28)

Cancelling the noise terms and keeping the non-noise terms we yield,

(29)

Where in Mittage-Leffer form

Also the problem "(22)" and "(23)" is solved in [15] by using the VIM. By using iteration formula as

(30)

In view of "(30)"  and by benign with  we can obtain,

(31)

(32)

Cancelling the noise terms and keeping the non-noise term we yield,

(33)

Where in Mittage-Leffer form

According to the NIM [16], and by using the formula,

(34)

where

and  and ,

Therefore in view of "(34)" we obtain

(35)

(36)

(37)

The NIM in series form is given by

(38)

Cancelling the noise terms and keeping the non-noise terms we yield,

(39)

Where in Mittage-Leffer form

From "(29)", "(33)" and "(39)", it is clear that the three methods have the same results.

Example(3): Consider the following One-dimensional linear inhomogeneous fractional Burger’s equation

(40)

,

subject to initial condition

(41)

Problem "(40)" and "(41)" can be obtain by using ADM [15] the recurrence relation is given by

,

,

(42)

In View of "(42)"equations  are as follows:

(43)

(44)

(45)

(46)

The solution in series form is given by

(47)

The exact solution of ADM is

(48)

Also the problem "(40)" and "(41)" is solved in [15] by using the VIM. By using iteration formula as

(49)

In view of "(49)"  and by benign with

 we can obtain,

(50)

(51)

(52)

The exact solution is

(53)

According to the NIM [16] and using the formula,

(54)

where

and  and ,

Therefore in view of "(54)" we obtain

(55)

(56)

(57)

(58)

The NIM in series form is given by

(59)

The exact solution is

(60)

From "(48)", "(53)" and "(60)", it is clear that the three methods have the same results.

Example(4): Consider the following One-dimensional linear inhomogeneous fractional Burger’s equation

(61)

,

subject to initial condition

(62)

Problem "(60)" and "(61)" can be obtain by using ADM [15] the recurrence relation is given by

,

,

(63)

In View of "(63)" equation  are as follows:

(64)

(65)

(66)

The exact solution of ADM is

(67)

Also the problem is solved by using VIM [15]

with  the following approximation can be obtain by using the formula

(68)

In view of "(68)" and by benign with  we can obtain,

(69)

(70)

The exact solution of ADM is

(71)

According to the NIM [16] and by using the formula,

(72)

where

and  and ,

Therefore in view of "(72)" we obtain

(73)

(74)

(75)

The NIM in series form and the exact solution is

(76)

From "(67)", "(71)" and "(76)", it is clear that the three methods have the same results.

Example(5): Consider the following One-dimensional linear inhomogeneous fractional Klein-Gordon equation

(77)

,

subject to initial condition

(78)

Problem "(77)" and "(78)" can be obtain by using ADM [15] the recurrence relation is given by

,

,

(79)

In view of "(79)" the first few components are derived as follows

(80)

(81)

The solution in series form is

(82)

According to VIM [15], the iteration formula for the problem is given by

(83)

By above Variation iteration formula, if we begin with, we can obtain the following approximations

(84)

(85)

Now according to NIM [16] and by using the formula,

(86)

where

and  and ,

Therefore in view of "(86)" we obtain

(87)

(88)

The NIM in series form and the exact solution is

(89)

The ADM, the VIM and the NIM gives the same solution for Classical Klein-Gordon equation(when) which is given by

(90)

Cancelling the nose terms and keeping the non-noise terms in above equation yield the exact solution of the problem, for the case when

(91)

Example(6): Consider the following One-dimensional linear inhomogeneous fractional Klein-Gordon equation

(92)

,

subject to initial condition

(93)

Problem "(92)" and "(93)" can be obtain by using ADM [15] the recurrence relation is given by

,

(94)

In view of "(94)" the first few components are derived as follows

(95)

(96)

The solution in series form is

,

(97)

According to VIM [15], the iteration formula for the problem is given by

(98)

By above Variation iteration formula, if we begin with, we can obtain the following approximations

(99)

(100)

Now according to NIM [16] and by using the formula,

(101)

where

and  and ,

Therefore in view of "(101)" we obtain

(102)

(103)

The solution in series form is

,

(104)

The ADM, the VIM and the NIM gives the same solution for Classical Klein-Gordon equation(when) which is given by

(105)

Cancelling the nose terms and keeping the non-noise terms in above equation yield the exact solution of the problem, for the case when

(106)

4. Conclusion

These three types of method, i.e., ADM, VIM and the NIM are many useful for solving partial differential equations, ordinary differential equations and other equations. The present paper shows great potential for solving linear fraction partial differential equations. And using logarithmic and exponential function as initial condition in the given problem, the series of solution is obtained. This work can also be expected for further solving similar type of linear as well as nonlinear problems in fraction calculus.


References

  1. J. H. He, "Approximate analytical solution for seepage flow with fractional derivatives in porous media", Computer Methods in Applied Mechanics and Engineering, vol. 167, no. 1-2, pp. 57-68, 1998.
  2. I. Podlubny, Fractional Differential Equations, Academic Press, New York, NY, USA, 1999.
  3. V. Daftardar-Gejji and H. Jafari, "An iterative method for solving nonlinear functional equations", Journal of Mathematical Analysis and Applications, vol. 316, no. 2, pp. 753-763, 2006.
  4. A. A. Hemeda, "New iterative method: application to the nthorder integro-differential equations", Information B, vol. 16, no. 6, pp. 3841-3852, 2013.
  5. S. Bhalekar and V. Daftardar-Gejji, "New iterative method:application to partial differential equations", Applied Mathematics and Computation, vol. 203, no. 2, pp. 778-783, 2008.
  6. G. Adomian, "Solving Frontier Problems of Physics: The Decomposition Method", Kluwer, 1994.
  7. J. H. He, "Homotopy perturbation technique", Computer Methods in Applied Mechanics and Engineering, vol. 178, no. 3-4, pp. 257-262, 1999.
  8. A. A. Hemeda, "Variational iteration method for solving nonlinear coupled equations in 2-dimensional space in fluid mechanics", International Journal of Contemporary Mathematical Sciences, vol. 7, no. 37, pp. 1839-1852, 2012.
  9. J. Henderson, R. Luca, "Positive solution for a system of fractional differential equations with coupled integral boundary conditions", Applied Mathematics and Computation, vol. 249, pp. 182-197, 2014.
  10. A. Bekri, E. Aksoy and A. C. Cevikel, "Exact solutions of nonlinear time fractional partial differential equations by sub-equation method", Math. Meth. Appl. Sci. vol. 38, pp. 2779-2784, 2015.
  11. X-J. Yang, H. M. Srivastava and C. Cattani, "Local fractional homotopy perturbation method for solving fractional partial differential equations arising in mathematical physics", Romanian Reports in Physics, vol. 67, no. 3, pp. 752-761, 2015.
  12. A. H. Bhrawy, E. H. Doha and S. S. Ezz-Eldien, "A Spectral tau algorithm based on Jacobi operational matrix for numerical solution of time fractional diffusion-wave equations", Journal of Computational Physics, vol. 293, pp. 142-156, 2015.
  13. M. Caputo, "Linear models of dissipation whose Q is almost frequency independent part II", Geophysical Journal International, vol. 13, no. 5, pp. 529-539, 1967.
  14. I. Podlubny, "Geometric and physical interpretation of fractional integration and fractional differentiation", Fractional Calculus and Applied Analysis, vol. 5, no. 4, pp. 367-386, 2002.
  15. Z. Odibat and S. Momani, "The variational iteration method: an efficient scheme for handling fractional partial differential equations in fluid mechanics", Computers and Mathematics with Applications, vol. 58, no. 11-12, pp. 2199-2208, 2009.
  16. A. A. Hemeda, "Solution of fractional partial differential equations in fluid mechanics by extension of some iterative method", Abstract and Applied Analysis, vol. 2013, pp. 9.

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