1999
DOI: 10.1090/s0002-9939-99-04799-1
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Topological sequence entropy for maps of the interval

Abstract: Abstract. A result by Franzová and Smítal shows that a continuous map of the interval into itself is chaotic if and only if its topological sequence entropy relative to a suitable increasing sequence of nonnegative integers is positive. In the present paper we prove that for any increasing sequence of nonnegative integers there exists a chaotic continuous map with zero topological sequence entropy relative to this sequence.

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Cited by 14 publications
(17 citation statements)
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“…For continuous maps of the interval, positive topological sequence entropy characterizes the existence of chaos in the sense of Li and Yorke [10]. A similar result is obtained for continuous circle maps [14]. In addition, for both interval and circle cases, zero topological entropy maps have either log 2 or zero as the supremum of their topological sequence entropies [6,5].…”
Section: Introductionsupporting
confidence: 59%
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“…For continuous maps of the interval, positive topological sequence entropy characterizes the existence of chaos in the sense of Li and Yorke [10]. A similar result is obtained for continuous circle maps [14]. In addition, for both interval and circle cases, zero topological entropy maps have either log 2 or zero as the supremum of their topological sequence entropies [6,5].…”
Section: Introductionsupporting
confidence: 59%
“…Topological sequence entropy [12] is a conjugacy invariant that is useful for distinguishing among continuous maps with zero topological entropy. Thus, it has been used to study zero entropy systems as substitution shifts [9,19] and one-dimensional continuous maps [6,10,13,14].…”
Section: Introductionmentioning
confidence: 99%
“…This kind of problem for nonautonomous dynamical systems has been studied for many years by several authors. A good discussion of these properties and applications appears in [Balibrea et al 1999;Cánovas and Linero 2002;2005;Hric 1999;2000;Kolyada and Snoha 1996;Zhu et al 2006]. Although systems with positive entropy are much more complicated than those with zero entropy, zero entropy systems have various complexities; see [de Carvalho 1997;Dou et al 2011;Ferenczi and Park 2007;Huang et al 2007;Misiurewicz 1981;Misiurewicz and Smítal 1988;Misiurewicz and Szlenk 1980].…”
Section: Introductionmentioning
confidence: 99%
“…In 1990, Kuchta [16] proved that a circle map with zero topological entropy is Li-Yorke chaotic if and only if it has an infinite -limit set containing two non-separable points if and only if it has a scrambled pair. In 2000, Hric [11] proved that a circle map is Li-Yorke chaotic if and only if it has positive topological sequence entropy. Analogous problems for graph maps were considered in [25] by Ruette and Snoha, who proved that a scrambled pair for a graph map implies that the map is Li-Yorke chaotic.…”
mentioning
confidence: 99%