2007
DOI: 10.3842/sigma.2007.051
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Geometry of Invariant Tori of Certain Integrable Systems with Symmetry and an Application to a Nonholonomic System

Abstract: Abstract. Bifibrations, in symplectic geometry called also dual pairs, play a relevant role in the theory of superintegrable Hamiltonian systems. We prove the existence of an analogous bifibrated geometry in dynamical systems with a symmetry group such that the reduced dynamics is periodic. The integrability of such systems has been proven by M. Field and J. Hermans with a reconstruction technique. We apply the result to the nonholonomic system of a ball rolling on a surface of revolution.

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Cited by 8 publications
(25 citation statements)
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“…Since the symmetry group is compact and acts freely on M * 0 , this in turn implies that the unreduced dynamics in M * 0 is quasi-periodic on tori of dimension up to three. This was proven in [16] using a reconstruction result from periodic dynamics, originally due to Field and Krupa (see particularly [18,14,16,9,8,15]). Reference [27] reaches the same conclusion, but restricted to the motion of the center of mass, that undergoes quasi-periodic motions on tori of dimension up to two.…”
Section: Integrability Of a Sphere Rolling On A Rotating Surface Of Rmentioning
confidence: 92%
See 1 more Smart Citation
“…Since the symmetry group is compact and acts freely on M * 0 , this in turn implies that the unreduced dynamics in M * 0 is quasi-periodic on tori of dimension up to three. This was proven in [16] using a reconstruction result from periodic dynamics, originally due to Field and Krupa (see particularly [18,14,16,9,8,15]). Reference [27] reaches the same conclusion, but restricted to the motion of the center of mass, that undergoes quasi-periodic motions on tori of dimension up to two.…”
Section: Integrability Of a Sphere Rolling On A Rotating Surface Of Rmentioning
confidence: 92%
“…The proof given above shows that each relative periodic orbit is fibered by tori of some dimension between 1 and 3, but it does not ensure that this dimension is the same across different relative periodic orbits and that the invariant tori are the fibers of a fibration of (an open subset of) the phase space. This property is important, because it implies the existence of the appropriate number of first integrals that are usually associated to integrability (for some results on this point in the case Ω = 0 see [9]).…”
Section: Integrability Of a Sphere Rolling On A Rotating Surface Of Rmentioning
confidence: 99%
“…Details on these results, and their modifications under more general hypotheses, can be found in the quoted references and in the recent books [14,8]. The related problem of reconstructing families of relative periodic orbits (e.g., when the entire reduced dynamics is periodic) has been studied in [15] in the case of a free action of a compact group (see also [9,8]).…”
Section: Relative Quasi-periodic Torimentioning
confidence: 99%
“…Since the sheaf of 2-forms on P vanishing on F is fine (cf. [31]), for each j, let ζ j be a 2-form defined on U j and vanishing on F | Uj such that (19) ζ l − ζ j = dκ jl (cf. proof of Proposition 5).…”
Section: Corollarymentioning
confidence: 99%
“…Thus far there are two different approaches to the study of the integrability outside the (symplectic or Poisson) Hamiltonian framework: 1) reconstruction from reduced periodic (and recently quasi-periodic) dynamics (cf. [1,5,18,19,21,33]); 2) possible generalisations of the Liouville-Arnol'd Theorem or its non-commutative counterpart both in symplectic and Poisson geometry (cf. [6,3,11,17,22]).…”
Section: Introductionmentioning
confidence: 99%