Abstract
In this paper, we continue the description of the possibilities to use numerical simulations for mathematically rigorous computer-assisted analysis of integrability of dynamical systems. We sketch some of the algebraic methods of studying the integrability and present a constructive algorithm issued from the Ziglin’s approach. We provide some examples of successful applications of the constructed algorithm to physical systems.
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References
Salnikov V. On numerical approaches to the analysis of topology of the phase space for dynamical integrability. Chaos, Solitons Fractals 2013;57.
Arnold VI, Kozlov VV, Neistadt AI. Mathematical aspects of classical and celestial mechanics, Moscow, VINITI; 1985.
Ziglin SL. Fun Anal Appl. 1982;16–17.
Kozlov VV. Symmetries, topology and resonances in Hamiltonian mechanics, Izhevsk; 1995.
Audin M. Les systèmes hamiltoniens et leur integrabilité, Cours Specilisés, SMF et EDP Sciences; 2001.
Yoshida H. Cel Mech. 1983;31:363.
Morales-Ruiz JJ. Differential Galois theory and non-integrability of hamiltonian systems. Basel: Birkhausen; 1999.
Morales-Ruiz JJ, Ramis J-P. Meth Appl Anal. 2001;8(1):33–95, 97–111.
Shafarevich IR. Basic notions of algebra, INT, Contemporary problems of mathematics.
Roekaerts D, Yoshida H. J Phys A: Math Gen. 1988;21:3547–3557.
Maciejewski AJ, Godźiewski K. Rep Math Phys. 1999;44:133–142.
Bardin BS, Maciejewski AJ. Transcendental cases in the stability problem of conical precession of a satellite in a circular orbit. Qual Theory Dyn Syst. 2013;12(1):207–216.
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Salnikov, V. Effective Algorithm of Analysis of Integrability via the Ziglin’s Method. J Dyn Control Syst 20, 465–474 (2014). https://doi.org/10.1007/s10883-014-9213-z
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DOI: https://doi.org/10.1007/s10883-014-9213-z