
TL;DR
This paper investigates two types of stickiness in chaotic systems, focusing on how asymptotic curves influence escape times and density distributions in the standard map with high nonlinearity.
Contribution
It distinguishes between stickiness around stability islands and in chaos, analyzing the role of asymptotic curves in escape dynamics and density patterns.
Findings
Asymptotic curves shape escape time regions.
Density maxima align with asymptotic curves U+,U-.
Stickiness effects diminish after about 1000 iterations.
Abstract
We distinguish two types of stickiness in systems of two degrees of freedom (a) stickiness around an island of stability and (b) stickiness in chaos, along the unstable asymptotic curves of unstable periodic orbits. We studied these effects in the standard map with a rather large nonlinearity K=5, and we emphasized the role of the asymptotic curves U, S from the central orbit O and the asymptotic curves U+U-S+S- from the simplest unstable orbit around the island O1. We calculated the escape times (initial stickiness times) for many initial points outside but close to the island O1. The lines that separate the regions of the fast from the slow escape time follow the shape of the asymptotic curves S+,S-. We explained this phenomenon by noting that lines close to S+ on its inner side (closer to O1) approach a point of the orbit 4/9, say P1, and then follow the oscillations of the…
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