This paper shows that asymmetrically perturbed, symmetric Hamiltonian systems of the form with analytic \* j (=)=O(=), have at most two limit cycles that bifurcate for small ={0 from any period annulus of the unperturbed system. This fact agrees with previous results of Petrov, Dangelmayr and Gucke
Limit Cycles of Higher Order Nonlinear Autonomous Systems
β Scribed by R.K. Jonnada; C.N. Weygandt
- Publisher
- Elsevier Science
- Year
- 1971
- Tongue
- English
- Weight
- 926 KB
- Volume
- 291
- Category
- Article
- ISSN
- 0016-0032
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β¦ Synopsis
An analytic criterion for the establishment of the existence of the limit cycles in higher order nonlinear autonomous s7Jstems of soft-excitation type is presented. The same andytical criterion can be used to obtain the necessary and su$icient conditions in the parameter space for the asymptotic stability of the equilibrium point of these system-s.
Nonlinear autonomous systems of soft-excitation type are defined and a conjecture to identify these systems is given. Several illustrative examples of second-and third-order nonlinear autonomous systems are presented.
π SIMILAR VOLUMES
Two bifurcation theorema are established concerning the quulitative change in the integral curves of the hard-excitation type nonlinear syatema at a point of bifurcation (or a branch point) where clifferen,t regions meet. Two classes of this type (Type B) are covaidered. The-se exhibit limit cyclea
A practical method is presented for the analysis of limit cycles in multivariable feedback control systems having separable nonlinear elements. The limit cycles are found by use of a criterion generated by the stability-equation method. Numerical examples are given and compared to other methods in t
The upper bound on the perturbation parameter .for asymptotic stability is improved .for nonlinear singularly perturbed systems. Use o# higher order corrections in the model enables the region of attraction to be computed more accurately.