A DIAGONALLY IMPLICIT RUNGE-KUTTA-NYSTROM (RKN) METHOD FOR SOLVING SECOND ORDER ODES ON PARALLEL COMPUTERS
Abstract
In this paper, diagonally implicit Runge-Kutta-Nystrom (RKN) method of high-order for the numerical solution of second order ordinary differential equations (ODE) possessing oscillatory solutions to be used on parallel computers is constructed. The method has the properties of minimized local truncation error coefficients as well as possessing non-empty interval of periodicity, thus suitable for oscillatory problems. The method was tested with standard test problems from the literature and numerical results compared with the analytical solution to show the advantage of the algorithm
References
Reference
Al-Khasawneh R.A., Ismail F. and Suleiman M. (2007). Embedded Diagonally
Implicit Runge-Kutta-Nystrom 4(3) pair for Solving Special Second order
Amodio P.and Brugnano L. (1997), Parallel ODE Solvers Based on Block BVMs.
Adv. Comput. Math. 7, 5-26
Amodio P.and Brugnano L. (2008), Parallel Solution in Time ODEs: Some
Achievements and Perspectives. Applied Numerical Mathematics and
Perspectives, Applied Numerical Mathematics,
doi:10.1016/j.apnum.2008.03.024
Burrage K. (1997), Parallel Methods for ODEs. Advances in Computational
Mathematics, 7, 1-3
Butcher J.C. (1964), On RK Processes of High Order. Jour. Austral. Math. Soc. iv
(2), 179-194
Crisci M.R., Paternoster B. and Russo E. (1993), Fully Parallel RKN Methods for
ODEs with Oscillating Solutions. Appl. Num. Math., 143-158
Franco J.M., and Gomez I. (2009), Accuracy and Linear Stability of RKN Methods
for Solving Second-order Stiff Problems, Applied Numerical
Mathematics, 59, 959-975
Fehlberg E. (1972), Classical Eight- and Lower-order RKN Formula with Stepsize
Control for Special Second-order Differential Equations. NASA, Tech.
Report R-381, Computing, 10, 305-31
Hairer E.,Norsett S.P. and Wanner G. (1993), Solving ODEs I: Nonstiff problems,
Springer-Verlag, Berlin
Imoni S.O. and Ikhile M. N.O (2017), Zero Dissipative Parallel DIRKN Fourth
Order Method for Second Order ODEs, the Journal of the Mathematical
Association of Nigeria (ABACUS), Vol. 44, No.2, 233-243
Kanagarajam K. and Sambath M. (2010), RKN Method of Orders Three for
Solving Fuzzy Differential Equations. Computational Methods in Applied
Mathematics, Vol.10, No.2, 195-203
Sharp P.W and Fine J.M. and Burrage (1990), Two-stage and Three-stage DIRKN
Methods of Orders Three and Four. IMA Journal of Numerical Analysis,
, 489-504
Sommeijer B.P. (1993), Explicit, High Order RKN Methods for Parallel computers.
Applied Numerical Mathematics, 13, 221-240
IVPs, Applied Mathematics and Computation, 190, 1803-1814 Sommeijer B.P. (1987), A Note on DIRKN Method. J. Comput. Appl. Math. 19,
-399
Tsitouras Ch. (1998), High Order, Zero Dissipative RKN Methods. J. Comput. and
Appl Math., 95, 157-161
Van de Houwen P.J. and Sommeijer B.P. (1989), DIRKN Methods for Oscillatory
Problems. SIAM J. Numeri. Anal.Vol. 26, 414-429
Van de Vyver H. (2005), A RKN Pair for the Numerical Integration of Perturbed
Oscillations. Computer Physics Communications, 167, 129-142
Copyright (c) 2020 FUDMA JOURNAL OF SCIENCES
This work is licensed under a Creative Commons Attribution 4.0 International License.
FUDMA Journal of Sciences