• DocumentCode
    3346748
  • Title

    A complicated bifurcation sequence of the inertial shaker near the 1∶4 strong resonance point

  • Author

    Zhang, Yanlong ; Wang, Li

  • Author_Institution
    Sch. of Mechatron. Eng., Lanzhou Jiaotong Univ., Lanzhou, China
  • fYear
    2010
  • fDate
    26-28 June 2010
  • Firstpage
    2309
  • Lastpage
    2313
  • Abstract
    The primary objectives of the investigation are to analyze the dynamical behavior of an inertial shaker near the 1:4 strong resonance point by theoretical analyses and numerical simulation. Based on deriving the Poincaré mapping of the inertial shaker, a center manifold theorem technique is applied to reduce the Poincaré mapping to a two-dimensional one, and the normal form mapping associated with the 1:4 strong resonance is obtained. So many bifurcation sequences which can reflect the dynamical behavior of the inertial shaker can be obtained by theoretical analyses. In this paper, a type of the complicated bifurcation sequence of the inertial shaker near the 1:4 strong resonance point is mainly investigated by theoretical analyses and numerical simulation. The results from numerical simulation accord with the ones from theoretical analyses. The results illustrate that there are Neimark-Sacker bifurcation of periodic motion and some complicated bifurcations, such as tangent bifurcations (Ton and Tout types) of period-4 orbits, in the inertial shaker near the 1:4 strong resonance point.
  • Keywords
    Poincare mapping; bifurcation; nonlinear dynamical systems; numerical analysis; resonance; vibration control; Neimark-Sacker bifurcation; Poincare mapping; bifurcation sequence; dynamic behavior analysis; inertial shaker; periodic motion; resonance point; Bifurcation; Chaos; Damping; Manifolds; Mathematics; Mechatronics; Numerical simulation; Orbits; Resonance; Stability; bifurcation; center manifold; chaos; normal form; strong resonance; vibro-impact;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Mechanic Automation and Control Engineering (MACE), 2010 International Conference on
  • Conference_Location
    Wuhan
  • Print_ISBN
    978-1-4244-7737-1
  • Type

    conf

  • DOI
    10.1109/MACE.2010.5535465
  • Filename
    5535465