Integration of Few Body Celestial Systems Implementing Explicit Numerical Methods.
@article{Mavrakis2020IntegrationOF, title={Integration of Few Body Celestial Systems Implementing Explicit Numerical Methods.}, author={Achilleas Mavrakis and Konstantinos Kritos}, journal={arXiv: Computational Physics}, year={2020} }
The $N$-body problem is of historical significance because it was the first implementation of the Newtonian dynamical laws for the description of our Solar System. Motivated by this, the project's goal is to revisit this problem for small $N$ and find a solution for the trajectories of specific two-body and three-body configurations as well as the planetary orbits of our Solar System using a fourth order Runge-Kutta explicit iterative method. We find an adequate agreement in our results with…
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References
SHOWING 1-10 OF 26 REFERENCES
Introduction to Hamiltonian Dynamical Systems and the N-Body Problem
- Mathematics
- 1991
This book gives a systematic grounding in the theory of Hamiltonian differential equations from a dynamical systems point of view. It develops a solid foundation for students to read some of the…
Mathematical Methods of Classical Mechanics
- Physics
- 1974
Part 1 Newtonian mechanics: experimental facts investigation of the equations of motion. Part 2 Lagrangian mechanics: variational principles Lagrangian mechanics on manifolds oscillations rigid…
Astron
- J. 105
- 1993
Elementary differential equations and boundary value problems
- 2012
Celes
- Mech. 8
- 1973
Celes
- Mech. 14
- 1976
Celes
- Mech. 2
- 1970
New Astron
- 13
- 2008