Commenced in January 2007
Frequency: Monthly
Edition: International
Paper Count: 33122
Power Series Solution to Sliding Velocity in Three-Dimensional Multibody Systems with Impact and Friction
Authors: Hesham A. Elkaranshawy, Amr M. Abdelrazek, Hosam M. Ezzat
Abstract:
The system of ordinary nonlinear differential equations describing sliding velocity during impact with friction for a three-dimensional rigid-multibody system is developed. No analytical solutions have been obtained before for this highly nonlinear system. Hence, a power series solution is proposed. Since the validity of this solution is limited to its convergence zone, a suitable time step is chosen and at the end of it a new series solution is constructed. For a case study, the trajectory of the sliding velocity using the proposed method is built using 6 time steps, which coincides with a Runge- Kutta solution using 38 time steps.Keywords: Impact with friction, nonlinear ordinary differential equations, power series solutions, rough collision.
Digital Object Identifier (DOI): doi.org/10.5281/zenodo.1108975
Procedia APA BibTeX Chicago EndNote Harvard JSON MLA RIS XML ISO 690 PDF Downloads 1921References:
[1] V. Bhatt, J. Koechling, "Three-dimensional frictional rigid-body impact," ASME Journal of Applied Mechanics, vol. 62, pp. 893–898, 1995.
[2] B. Mirtich, J. Canny, "Impulse-based simulation of rigid bodies," m Proc. Symposium on Interactive 3D Graphics, 1995, pp. 181-189.
[3] J. A. Batlle, "The sliding velocity flow of rough collisions in multi-body systems," ASME Journal of Applied Mechanics, vol. 63, pp. 804-809, 1996.
[4] H. A. Elkaranshawy, "Rough collision in three-dimensional rigid multibody systems," Proceedings of the IMechE, Part K: Journal of Multibody Dynamics, vol. 221, pp. 541-550, 2007.
[5] H. A. Elkaranshawy, "Spatial robotic systems subjected to impact with friction," in Proc. IASTED International Conference Robotics (Robo 2011), Pittsburgh, USA, Nov. 7 – 9, 2011, pp.269-277, 2011.
[6] S. H. Saperstone, Introduction to Ordinary Differential Equations. Brooks/Cole Publishing Company, Pacific Grove, USA, 1998.
[7] J. A. Murdock, Perturbations: Theory and Methods. John Wiley & Sons, New York, USA, 1991.
[8] J. Kevorkian, J. D. Cole, Multiple Scales and Singular Perturbation Methods. Applied mathematical sciences, Springer-Verlag, New York, 1995.
[9] H. Nayfeh, Perturbation Methods. John Wiley & Sons, New York, 2000.
[10] S. J. Liao, "A kind of approximate solution technique which does not depend upon small parameters: a special example," International Journal of Non-Linear Mechanics, vol. 30, pp. 371-380, 1995.
[11] S. J. Liao, "Notes on the homotopy analysis methods: Some definitions and theorems," Communications in Nonlinear Science and Numerical Simulation, vol. 14, pp. 983-997, 2009.
[12] S. J. Liao, Homotopy Analysis Method in Nonlinear Differential Equations. Springer & Higher Education Press, Berlin & Beijing, 2012.
[13] J. K. Zhou, Differential transformation and its applications for electrical circuits. Huazhong Univ. Press, Wuhan, China, 1986.
[14] S. Momani, V. S. Erturk, S. Abu-gurra, "An approximation of the analytic solution of the Helmholtz equation," Studies in Nonlinear Sciences, vol. 1 (2), pp. 37-40, 2010.
[15] G. E. Parker, J. S. Sochacki, "Implementing the Picard iteration," Neural Parallel and Scientific Computations, vol. 4, pp. 97–112, 1996.
[16] J. S. Sochacki, "Polynomial ODEs – examples, solutions, properties," Neural Parallel and Scientific Computations, vol. 18, pp. 441-450, 2010.
[17] D. C. Carothers, G. E. Parker, J. S. Sochacki, P. G. Warne, "Some properties of solutions to polynomial systems of differential equations," Electronic Journal of Differential Equations, vol. 40, pp. 1–17, 2005.
[18] U. Filobello-Nino, H. Vazquez-Leal, Y. Khan, A. Yildirim, V. M. Jimenez-Fernandez, A. L. Herrera-May, J. Cervantes-Perez, "Using perturbation methods and Laplace-Pade approximation to solve nonlinear problems," Miskolc Mathematical Notes, vol. 14(1), pp. 89- 101, 2013.