CHAOS.bib
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@COMMENT{{ concatenation of journals_ref.bib withpyblio.bib optimization.bib mypapers.bib other.bib refvulg.bib these_ref.bib philo.bib ../math/journals_ref.bib ../math/citeseer.bib ../math/books.bib }}
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@ARTICLE{jauslin2002renormalization,
AUTHOR = {C. Chandre and H. R. Jauslin},
TITLE = {Renormalization-group analysis for the transition to
chaos in Hamiltonian systems},
JOURNAL = {Physics Reports},
YEAR = {2002},
VOLUME = {365},
NUMBER = {1},
PAGES = {1-64},
MONTH = {July},
ROPSECTIONS = {RG CHAOS},
PDF = {/sci_docs/physics/papers/PhysRep/jauslin2002renormalization.pdf},
ABSTRACT = {We study the stability of Hamiltonian systems in
classical mechanics with two degrees of freedom by
renormalization-group methods. One of the key
mechanisms of the transition to chaos is the
break-up of invariant tori, which plays an essential
role in the large scale and long-term behavior. The
aim is to determine the threshold of break-up of
invariant tori and its mechanism. The idea is to
construct a renormalization transformation as a
canonical change of coordinates, which deals with
the dominant resonances leading to qualitative
changes in the dynamics. Numerical results show that
this transformation is an efficient tool for the
determination of the threshold of the break-up of
invariant tori for Hamiltonian systems with two
degrees of freedom. The analysis of this
transformation indicates that the break-up of
invariant tori is a universal mechanism. The
properties of invariant tori are described by the
renormalization flow. A trivial attractive set of
the renormalization transformation characterizes the
Hamiltonians that have a smooth invariant torus. The
set of Hamiltonians that have a non-smooth invariant
torus is a fractal surface. This critical surface is
the stable manifold of a single strange set
encompassing all irrational frequencies. This
hyperbolic strange set characterizes the
Hamiltonians that have an invariant torus at the
threshold of the break-up. From the critical strange
set, one can deduce the critical properties of the
tori (self-similarity, universality classes).}
}
@ARTICLE{Vollmer2002chaos,
AUTHOR = {J\"{u}rgen Vollmer},
TITLE = {Chaos, spatial extension, transport, and non-equilibrium thermodynamics },
JOURNAL = {Physics Reports },
YEAR = {2002},
VOLUME = {372},
NUMBER = {2},
PAGES = {131-267},
ROPSECTIONS = {CHAOS},
PDF = {/sci_docs/physics/papers/RepProgPhys/Vollmer2002chaos.pdf},
ABSTRACT = {The connection between the thermodynamic description of
transport phenomena and a microscopic description of the underlying
chaotic motion has recently received new attention due to the
convergence of ongoing developments in the theory of deterministic
chaotic systems, in the foundation of non-equilibrium statistical
physics and of non-equilibrium molecular dynamics simulations. An
overview of these developments is given with an emphasis on explicit
calculations on exactly solvable models, that may serve as paradigms
for this approach to model transport. }
}
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@BOOK{prigogine1996fin,
AUTHOR = {Ilya Prigogine},
ALTEDITOR = {},
TITLE = {La fin des certitudes},
PUBLISHER = {Poches Odile Jacob},
YEAR = {1996},
ROPSECTIONS = {CHAOS}
}
This file has been generated by
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. Bibliography collected by S. Correia.