1.

Record Nr.

UNINA9910734877903321

Autore

Leonel Edson Denis

Titolo

Dynamical Phase Transitions in Chaotic Systems / / by Edson Denis Leonel

Pubbl/distr/stampa

Singapore : , : Springer Nature Singapore : , : Imprint : Springer, , 2023

ISBN

981-9922-44-5

Edizione

[1st ed. 2023.]

Descrizione fisica

1 online resource (83 pages)

Collana

Nonlinear Physical Science, , 1867-8459

Disciplina

003.857

Soggetti

Dynamical systems

Mathematical analysis

Condensed matter

Dynamical Systems

Scale Invariance

Phase Transitions and Multiphase Systems

Lingua di pubblicazione

Inglese

Formato

Materiale a stampa

Livello bibliografico

Monografia

Nota di bibliografia

Includes bibliographical references.

Nota di contenuto

Posing the problems -- A Hamiltonian and a mapping -- A phenomenological description for chaotic diffusion -- A semi phenomenological description for chaotic diffusion -- A solution for the diffusion equation -- Characterization of a continuous phase transition in an area preserving map -- Scaling invariance for chaotic diffusion in a dissipative standard mapping -- Characterization of a transition from limited to unlimited diffusion -- Billiards with moving boundary -- Suppression of Fermi acceleration in oval billiard -- Suppressing the unlimited energy gain: evidences of a phase transition.

Sommario/riassunto

This book discusses some scaling properties and characterizes two-phase transitions for chaotic dynamics in nonlinear systems described by mappings. The chaotic dynamics is determined by the unpredictability of the time evolution of two very close initial conditions in the phase space. It yields in an exponential divergence from each other as time passes. The chaotic diffusion is investigated, leading to a scaling invariance, a characteristic of a continuous phase transition. Two different types of transitions are considered in the book. One of them considers a transition from integrability to non-integrability



observed in a two-dimensional, nonlinear, and area-preserving mapping, hence a conservative dynamics, in the variables action and angle. The other transition considers too the dynamics given by the use of nonlinear mappings and describes a suppression of the unlimited chaotic diffusion for a dissipative standard mapping and an equivalent transition in the suppression of Fermi acceleration in time-dependent billiards. This book allows the readers to understand some of the applicability of scaling theory to phase transitions and other critical dynamics commonly observed in nonlinear systems. That includes a transition from integrability to non-integrability and a transition from limited to unlimited diffusion, and that may also be applied to diffusion in energy, hence in Fermi acceleration. The latter is a hot topic investigated in billiard dynamics that led to many important publications in the last few years. It is a good reference book for senior- or graduate-level students or researchers in dynamical systems and control engineering, mathematics, physics, mechanical and electrical engineering.