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Remarks on the Nonwandering Set of Skew Products with a Closed Set of Periodic Points of the Quotient Map

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Nonlinear Maps and their Applications

Part of the book series: Springer Proceedings in Mathematics & Statistics ((PROMS,volume 57))

Abstract

Exact formulas are given for the description of the nonwandering set of a continuous skew product of interval maps with a closed set of periodic points in the base. Special multifunctions, such as the Ω-function and suitable functions for the Ω-function, are used. A corollary is given for the nonwandering set of the C 1-smooth skew product of interval maps with a closed set of periodic points.

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Notes

  1. 1.

    By introducing the multifunctions \(\eta ^{\prime}_{l_{n}}\) and \(\eta ^{\prime}_{l_{n},\,1}\), one avoids complications about the possible breakdown of the equality \(\varOmega (\tilde{g}_{x}^{{2}^{i} }) =\varOmega (\tilde{g}_{x}^{{2}^{i-1} })\) (see [8]).

  2. 2.

    This theorem in the above form is announced44 in [15]. As the equality (6.5) shows, results concerning the structure of the nonwandering set from [10, 12] are correct for the restriction of the map F on the set Per(f) × I2.

  3. 3.

    If \(y -\alpha ^{\prime}_{2} = 0\) (\(\beta ^{\prime}_{2} - y = 0\)). Then the neighborhood U 2(y) is the right-hand (left-hand) neighborhood of the point y.

  4. 4.

    An analogous result can be found in [7], in which is stated the existence of a C -smooth skew product of maps of an interval of type \(\prec {2}^{\infty }\) with one-dimensional attracting set. In [7], the skew product is realized as the shift map along the trajectories (defined for every t) of the corresponding nonautonomous system of differential equations with C -smooth right-hand sides. This means that considerations are relative to R 3, and oscillations of the trajectory in a neighborhood of its limit set are “distributed” along the unbounded axis t. In the consideration of a skew product in a rectangle of the plane xOy, there is no opportunity to “distribute” oscillations of a trajectory possessing a one-dimensional attracting set. As a result, this leads to oscillations of the partial derivative \(\frac{\partial } {\partial x}g_{x}(y)\) and its unboundedness in a neighborhood of the attracting set, although the map g x (y) can be a C -map with respect to y (but not with respect to the union of the variables x and y) [13].

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Acknowledgements

The Author is partially supported by the Federal Target Program “Scientific and Scientific-Pedagogical Personnel of Innovative Russia” (2009–2013) of the Education Ministry of Russia, grant No 14.B37.21.0361.

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Correspondence to Lyudmila S. Efremova .

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Efremova, L.S. (2014). Remarks on the Nonwandering Set of Skew Products with a Closed Set of Periodic Points of the Quotient Map. In: Grácio, C., Fournier-Prunaret, D., Ueta, T., Nishio, Y. (eds) Nonlinear Maps and their Applications. Springer Proceedings in Mathematics & Statistics, vol 57. Springer, New York, NY. https://doi.org/10.1007/978-1-4614-9161-3_6

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