We study the process of chaotic diffusion for a simple 1D physical system: a particle moving in a potential, which is periodic in space and time. Both, nondissipative and dissipative, cases are considered. The process of nondissipative diffusion is shown to be affected by L6vy flights, which lead to
A “superfat” chaotic attractor
✍ Scribed by M.C. Kube; O.E. Rossler; J.L. Hudson
- Publisher
- Elsevier Science
- Year
- 1993
- Tongue
- English
- Weight
- 439 KB
- Volume
- 3
- Category
- Article
- ISSN
- 0960-0779
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✦ Synopsis
A 4-variable invertible map with a chaotic attractor is investigated. Henon's 2-variable map is used to force two weakly dissipative, linear variables. We determined the fractal dimension of the attractor of the 4-variable map to be larger than three, which is in accordance with the Kaplan-Yorke conjecture.
The topological dimension of the attractor, however, is unity on a dense subset, and therefore, presumably on the whole attractor.
The present attractor therefore appears to be an example of a "superfat" attractor, which is an attractor with a dimension gap of more than two.
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