Ninth Step Block Method for Numerical Solution of a Fourth Order Ordinary Differential Equation

Ninth Step Block Method for Numerical Solution of a Fourth Order Ordinary Differential Equation

Saumya R. JenaMinakshi Mohanty Satya K. Mishra 

Department of Mathematics, School of Applied Sciences, KIIT, DT University, Bhubaneswar 751024, Odisha, India

Corresponding Author Email: 
saumyafma@kiit.ac.in
Page: 
47-56
|
DOI: 
https://doi.org/10.18280/ama_a.550202
Received: 
12 April 2018
| |
Accepted: 
1 June 2018
| | Citation

OPEN ACCESS

Abstract: 

In this study a unique style of collocation and interpolation have been used to get a nine step block method for the numerical solution of linear or nonlinear initial value problems of fourth order ordinary differential equations. The present technique has been implemented at the selected mesh points to generate a direct nine step block method. In this paper zero stability, order consistency and convergence have been incorporated as the basic properties and two numerical examples have been considered and compared with ODE45 as well as continuous Linear Multistep Method (LMM)for the numerical results with exact results.

Keywords: 

nine-step block method, power series, interpolation, collocation, ordinary differential equation, stability, order of the method

1. Introduction
2. Construction of the New Method
3. Basic Properties of the Block Method
4. Numerical Examples
5. Conclusion
  References

[1] Alomari AK, Ratib Anakira N, Bataineh AS, Hashim I. (2013). Approximate solution of nonlinear system of BVP arising in fluid flow problem. Mathematical Problems in Engineering 201(3): 1-7.

[2] Jator SN. (2008). Numerical integrators for fourth order initial and boundary value problems. International Journal of Pure and Applied Mathematics 47(4): 563-576.

[3] Kelesoglu O. (2014). The solution of fourth order boundary value problem arising out of the beam-column theory using Adomian decomposition method. Mathematical Problems in Engineering 1-6.

[4] Boutayeb A, Chetouani A. (2007). A mini-review of numerical methods for high-order problems. International Journal of Computer Mathematics 84(4): 563–579.

[5] Kayode SJ. (2008). An efficient zero-stable numerical method for fourth-order differential equations. International Journal of Mathematics and Mathematical Sciences 2008: 1-10.

[6] Awoyemi DO. (1992). On some continuous linear multistep methods for initial value problems. Ph.D. Dissertation, Dept. of Mathematics, University of Ilorin, Ilorin, Nigeria. 

[7] Senu N, Suleiman M, Ismail F, Othman M. (2011). A singly diagonally implicit Runge-Kutta-Nystrom method for solving oscillatory problems. IAENG International Journal of Applied Mathematics 41(2): 155-161. 

[8] Lambert JD. (1973). Computational Methods in Ordinary Differential Equations. John Wily & Sons, London, UK.

[9] Twizel EH, Khaliq AQM. (1984). Multi derivative methods for periodic IVPs. SIAM Journal of Numerical Analysis 21: 111-121.

[10] Yusuf Y, Onumanyi P. (2005). New multiple FDMs through multistep collocation for   Proceeding of Conference Organised by the National Mathematics Center, Abuja, Nigeria. 

[11] Oluwaseun A, Zurni O. (2016). A new algorithm for developing block methods for solving fourth order ordinary differential equations. Global Journal of Pure and Applied Mathematic 12(2): 1465-1471.

[12] Fatunla SO. (1988). Numerical methods for initial value problems in ordinary differential equations. Computer Science and Scientific Computing, Academic Press, Boston, Mass, USA.

[13] Duromola MK. (2016). An accurate five off step points  implicit block method for direct solution of fourth order differential equations. Scientific Research, An academic Publisher 3: 1-14.

[14] Awari YS, Abada AA. (2014). A class of seven point zero stable continuous block method for solution of second order ordinary differential equation. International Journal of Mathematics  and Statistics Invention 2: 47-54.

[15] Zurni O, Oluwaseun A. (2016). Solving two-point second order boundary value problems using two-step block method with starting and non-Starting Values. International Journal of Applied Engineering Research 11(4): 2407-2410.

[16] Awoyemi DO, Kayode SJ, Adoghe LO. (2015). A six step continuous multistep method for the solution of general fourth order initial value problems of ordinary differential equations. Journal of Natural Sciences Research 5(5): 131-138.

[17] Kuboye JO. (2015). Block methods for direct solution of higher order ordinary differential equations using interpolation and collocation approach. Doctor of Philosophy University Utara Malaysia.

[18] Zurni O, Kuboye JO. (2016). New seven-step numerical method for direct solution of fourth order ordinary differential equations. Journal of Mathematics and Fundamental  Sciences 48(2): 94-105.

[19] Adesanya A, Olaide AA, Momoh A, Adamu M, Tahir A. (2012). Five steps block method for the solution of fourth order ordinary differential equations. International Journal of Engineering Research and Applications 2(5): 991-998.

[20] Oluwaseun A, Zurni O. (2017). Solving non linear fourth-order boundary value problems using a numerical approach: (m+1) th-Step block method. International Journal of Differential Equations 1-9.