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Bifurcation analysis of periodic motions originating from regular precessions of a dynamically symmetric satellite. (English) Zbl 1470.70027

Summary: We deal with motions of a dynamically symmetric rigid-body satellite about its center of mass in a central Newtonian gravitational field. In this case the equations of motion possess particular solutions representing the so-called regular precessions: cylindrical, conical and hyperboloidal precession. If a regular precession is stable there exist two types of periodic motions in its neighborhood: short-periodic motions with a period close to \(2\pi / \omega_2\) and long-periodic motions with a period close to \(2 \pi / \omega_1\) where \(\omega_2\) and \(\omega_1\) are the frequencies of the linearized system \(( \omega_2 > \omega_1)\).In this work we obtain analytically and numerically families of short-periodic motions arising from regular precessions of a symmetric satellite in a nonresonant case and long-periodic motions arising from hyperboloidal precession in cases of third- and fourth-order resonances. We investigate the bifurcation problem for these families of periodic motions and present the results in the form of bifurcation diagrams and Poincaré maps.

MSC:

70K50 Bifurcations and instability for nonlinear problems in mechanics
70M20 Orbital mechanics

References:

[1] Duboshin, G. N., “On Rotational Movement Of Artificial Celestial Bodies”, Bull. ITA AN SSSR, 7:7 (1960), 511-520 (Russian) · Zbl 0151.35402
[2] Astron. Zh., 36:5 (1959), 890-901 (Russian)
[3] Beletsky, V. V., Motion of a Satellite about Its Center of Mass in the Gravitational Field, MGU, Moscow, 1975, 308 pp. (Russian)
[4] Prikl. Mat. Mekh., 28:1 (1964), 155-157 (Russian) · Zbl 0128.41605 · doi:10.1016/0021-8928(64)90145-5
[5] Lyapunov, A. M., The General Problem of the Stability of Motion, Fracis & Taylor, London, 1992, x+270 pp. · Zbl 0786.70001
[6] Sokol’skiy, A. G. and Khovanskiy, S. A., “Periodic Motions Close to Hyperboloidal Precession of a Symmetric Satellite in Circular Orbit”, Kosmicheskie Issledovaniya, 17:2 (1979), 208-217 (Russian)
[7] Markeev, A. P., Linear Hamiltonian Systems and Some Problems of Stability of the Satellite Center of Mass, R&C Dynamics, Institute of Computer Science, Izhevsk, 2009, 396 pp. (Russian)
[8] Markeev, A. P. and Bardin, B. S., “On the Stability of Planar Oscillations and Rotations of a Satellite in a Circular Orbit”, Celest. Mech. Dynam. Astronom., 85:1 (2003), 51-66 · Zbl 1050.70015 · doi:10.1023/A:1021739407472
[9] Bardin, B. S., “On Orbital Stability of Planar Motions of Symmetric Satellites in Cases of First and Second Order Resonances”, Proc. of the 6th Conference on Celestial Mechanics, The 6th Conference on Celestial Mechanics (Señorio de Bértiz, 2003), Monogr. Real Acad. Ci. Exact. Fís.-Quím. Nat. Zaragoza, 25, eds. J. Palacian, P. Yanguas, Real Acad. Ci. Exact. Fís.-Quím. Nat., Zaragoza, 2004, 59-70
[10] Prikl. Mat. Mekh., 63:5 (1999), 757-769 (Russian) · Zbl 0941.70016 · doi:10.1016/S0021-8928(99)00090-8
[11] Prikl. Mat. Mekh., 73:3 (2009), 353-367 (Russian) · Zbl 1189.70050 · doi:10.1016/j.jappmathmech.2009.07.016
[12] Bardin, B. S., “On Nonlinear Motions of Hamiltonian System in Case of Fourth Order Resonance”, Regul. Chaotic Dyn., 12:1 (2007), 86-100 · Zbl 1229.34052 · doi:10.1134/S156035470701008X
[13] Prikl. Mat. Mekh., 71:6 (2007), 976-988 (Russian) · Zbl 1164.70024 · doi:10.1016/j.jappmathmech.2007.12.007
[14] Sukhov, E. A. and Bardin, B. S., “Numerical Analysis of Periodic Motions of a Dynamically Symmetric Satellite Originated from Its Hyperboloidal Precession”, Inzhenern. Zhurnal: Nauka i Innovatsii, 2016, no. 5(53), 10 pp. (Russian)
[15] Sukhov, E. A. and Bardin, B. S., “On Periodic Motions Originating from Hyperboloidal Precession on a Symmetric Satellite”, Abstracts of the 13th All-Russian Conf. on Problems of Dynamics, Physics of Plasma Particles and Optoelectronics, The 13th All-Russian Conf. on Problems of Dynamics, Physics of Plasma Particles and Optoelectronics (Moscow, RUDN, 2017)
[16] Sukhov, E. A. and Bardin, B. S., “Numerical and Analytical Plotting of Periodic Motion and Investigating Motion Stability in the Case of a Symmetric Satellite”, Inzhenern. Zhurnal: Nauka i Innovatsii, 2017, no. 11(71), 3 pp. (Russian)
[17] Deprit, A. and Henrard, J., “Natural Families of Periodic Orbits”, Astron. J., 72:2 (1967), 158-172 · doi:10.1086/110212
[18] Karimov, S. R. and Sokolskiy, A. G., Method of Numerical Continuation of Natural Families of Periodic Motions of Hamiltonian Systems, Preprint No. 9, Institute of Theoretical Astronomy of the Academy of Sciences of the USSR, Moscow, 1990, 32 pp.
[19] Sokolskiy, A. G. and Khovanskiy, S. A., “On Numerical Continuation of Periodic Motions of a Lagrangian System with Two Degrees of Freedom”, Kosmicheskie Issledovaniya, 21:6 (1983), 851-860 (Russian)
[20] Lara, M., Deprit, A., and Elipe, A., “Numerical Continuation of Families of Frozen Orbits in the Zonal Problem of Artificial Satellite Theory”, Celestial Mech. Dynam. Astronom., 62:2 (1995), 167-181 · Zbl 0837.70019 · doi:10.1007/BF00692085
[21] Lara, M. and Peláez, J., “On the Numerical Continuation of Periodic Orbits: An Intrinsic, \(3\)-Dimentional, Differential, Predictor-Corrector Algorithm”, Astron. Astrophys., 389:2 (2002), 692-701 · Zbl 1214.70002 · doi:10.1051/0004-6361:20020598
[22] Sukhov, E. A. and Bardin, B. S., “On the Algorithm for Numerical Computation of Periodic Motions of a Hamiltonian System with Two Degrees of Freedom”, Abstracts of the 14th All-Russian Conf. on Problems of Dynamics, Physics of Plasma Particles and Optoelectronics, The 14th All-Russian Conf. on Problems of Dynamics, Physics of Plasma Particles and Optoelectronics (Moscow, RUDN, 2018)
[23] Sukhov, E. A., “Analytical and Numerical Computation and Study of Long-Periodic Motions Originating from Hyperboloidal Precession of a Symmetric Satellite”, Proc. of hte 8th Polyahov Readings, The 8th Polyahov Readings (St. Petersburg, St. Petersburg State University, 2018)
[24] Schmidt, D. S., “Periodic Solutions near a Resonant Equilibrium of a Hamiltonian System”, Celestial Mech., 9 (1974), 81-103 · Zbl 0313.70020 · doi:10.1007/BF01236166
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