2012
DOI: 10.5339/connect.2012.12
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Weak chaos from Tsallis entropy

Abstract: We present a geometric, model-independent, argument that aims to explain why the Tsallis entropy describes systems exhibiting “weak chaos”, namely systems whose underlying dynamics has vanishing largest Lyapunov exponent. Our argument relies on properties of a deformation map of the reals induced by the Tsallis entropy, and its conclusion agrees with all currently known result

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Cited by 13 publications
(17 citation statements)
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References 34 publications
(85 reference statements)
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“…In the present work, we attempted to justify why dynamical systems whose statistical behavior is described by the Tsallis entropy, have vanishing largest Lyapunov exponent. This was essentially ascribed to employing the effective negative curvature metric (10), which is the "hyperbolization" of the Euclidean initially employed metric (13), as was pointed out in [12], [42]. Moreover we made the very strong assumption that the additivity properties of the configuration/phase space of the system are directly reflected on its thermodynamic additivity (7) which is not emergent in any non-trivial manner.…”
Section: Discussionmentioning
confidence: 99%
“…In the present work, we attempted to justify why dynamical systems whose statistical behavior is described by the Tsallis entropy, have vanishing largest Lyapunov exponent. This was essentially ascribed to employing the effective negative curvature metric (10), which is the "hyperbolization" of the Euclidean initially employed metric (13), as was pointed out in [12], [42]. Moreover we made the very strong assumption that the additivity properties of the configuration/phase space of the system are directly reflected on its thermodynamic additivity (7) which is not emergent in any non-trivial manner.…”
Section: Discussionmentioning
confidence: 99%
“…A second implication of the logarithmic form of (22), is the following: such a map has the form log P (x), P (x) : polynomial (42) Such logarithmic functions, in general, do not belong to any of the Banach spaces L p (R n ) for two possible reasons: their potential sources of non-integrabilitiy can arise either from the zeroes of P (x) or from the unboundedness of the logarithmic function "at infinity". They do however belong to a more general functional space, which is that of the functions of bounded mean oscillation (BMO) whose definition is as follows [20], [25]: Let f : M → R n be locally integrable and let f B indicate the mean value…”
Section: 3mentioning
confidence: 99%
“…So, in a way, the Tsallis entropy is a "hyperbolic counterpart" of the BGS "Euclidean" entropy. After establishing (10) through a solvable group construction, we have more recently examined some of its implications [17] - [19].…”
Section: Introductionmentioning
confidence: 99%