2011
DOI: 10.1088/1751-8113/44/30/302001
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Critical exponents for a transition from integrability to non-integrability via localization of invariant tori in the Hamiltonian system

Abstract: Critical exponents that describe a transition from integrability to nonintegrability in a two-dimensional, nonlinear and area-preserving map are obtained via localization of the first invariant spanning curve (invariant tori) in the phase space. In a general class of systems, the position of the first invariant tori is estimated by reducing the mapping of the system to the standard mapping where a transition takes place from local to global chaos. The phase space of the mapping shows a large chaotic sea surrou… Show more

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Cited by 28 publications
(37 citation statements)
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“…All along this time, the average velocity is a constant producing a plateau in velocity vs. n (number of collisions) plot which is still unexplained. Such plateaus are also observed in many other different types of mappings making the subject of broad interest; (ii) the scaling present in the phase space for conservative 2-D mappings was clearly made [33] using a transition from local to globally chaotic behavior [12]. Similar scaling is also observed for dissipative dynamics however so far there is no theoretical explanation for the origin of the results.…”
Section: Introductionmentioning
confidence: 54%
“…All along this time, the average velocity is a constant producing a plateau in velocity vs. n (number of collisions) plot which is still unexplained. Such plateaus are also observed in many other different types of mappings making the subject of broad interest; (ii) the scaling present in the phase space for conservative 2-D mappings was clearly made [33] using a transition from local to globally chaotic behavior [12]. Similar scaling is also observed for dissipative dynamics however so far there is no theoretical explanation for the origin of the results.…”
Section: Introductionmentioning
confidence: 54%
“…The position of the FISC varies with ϵ, and an analytical estimation for its position, by using a connection with well known standard mapping [2] can be found in Refs. [46]. Considering the results obtained in the above mentioned papers, the position of FISC is estimated as…”
Section: The Model and The Mappingmentioning
confidence: 99%
“…In recent years, the dynamics of nonlinear maps, dissipative and non-dissipative, has been satisfactorily investigated by means of scaling studies of quantities like ⟨I⟩,  I 2  , and ω; see for example Refs. [7][8][9][10][11][12]20,21,23]. In particular, since I is proportional to momentum and I 2 to energy, the corresponding average values of these two quantities have physical relevance because depending on the system described by our discontinuous map they may become experimentally accessible to measurements.…”
Section: Characterization Of the Discontinuous Map M γmentioning
confidence: 99%
“…As examples, we can mention some well known mappings having in common the choice of f (θ n , I n+1 ) = sin(θ n ) and h(θ n , I n+1 ) = 0: Chirikov's standard map [2,3], g(I n+1 ) = I n+1 , also known as Taylor-Chirikov's map; the bouncer model [4], g(I n+1 ) = ξ I n+1 ; the logistic twist map [5], g(I n+1 ) = I n+1 + ξ I 2 n+1 ; the Fermi-Ulam accelerator model [6,7], g(I n+1 ) = 2/I n+1 ; a generalized Fermi-Ulam accelerator (FU) model [8][9][10][11],…”
Section: Introduction and Modelmentioning
confidence: 99%
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