Self-synchronization of populations of nonlinear oscillators in the thermodynamic limit
Journal Article
·
· J. Stat. Phys.; (United States)
A population of identical nonlinear oscillators, subject to random forces and coupled via a mean-field interaction, is studied in the thermodynamic limit. The model presents a nonequilibrium phase transition from a stationary to a time-periodic probability density. Below the transition line, the population of oscillators is in a quiescent state with order parameter equal to zero. Above the transition line, there is a state of collective rhythmicity characterized by a time-periodic behavior of the order parameter and all moments of the probability distribution. The information entropy of the ensemble is a constant both below and above the critical line. Analytical and numerical analyses of the model are provided.
- Research Organization:
- Universidad de Sevilla (Spain)
- OSTI ID:
- 5264470
- Journal Information:
- J. Stat. Phys.; (United States), Journal Name: J. Stat. Phys.; (United States) Vol. 48:3/4; ISSN JSTPB
- Country of Publication:
- United States
- Language:
- English
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Related Subjects
657002* -- Theoretical & Mathematical Physics-- Classical & Quantum Mechanics
71 CLASSICAL AND QUANTUM MECHANICS
GENERAL PHYSICS
CRYSTAL MODELS
DIFFERENTIAL EQUATIONS
ELECTRONIC EQUIPMENT
ENTROPY
EQUATIONS
EQUIPMENT
FOKKER-PLANCK EQUATION
MATHEMATICAL MODELS
MATHEMATICS
MEAN-FIELD THEORY
MECHANICS
NOISE
NONLINEAR PROBLEMS
NUMERICAL ANALYSIS
ORDER PARAMETERS
ORDER-DISORDER TRANSFORMATIONS
OSCILLATORS
PARTIAL DIFFERENTIAL EQUATIONS
PHASE TRANSFORMATIONS
PHYSICAL PROPERTIES
PROBABILITY
QUANTUM MECHANICS
STATISTICAL MECHANICS
SYNCHRONIZATION
THERMODYNAMIC PROPERTIES
THERMODYNAMICS
71 CLASSICAL AND QUANTUM MECHANICS
GENERAL PHYSICS
CRYSTAL MODELS
DIFFERENTIAL EQUATIONS
ELECTRONIC EQUIPMENT
ENTROPY
EQUATIONS
EQUIPMENT
FOKKER-PLANCK EQUATION
MATHEMATICAL MODELS
MATHEMATICS
MEAN-FIELD THEORY
MECHANICS
NOISE
NONLINEAR PROBLEMS
NUMERICAL ANALYSIS
ORDER PARAMETERS
ORDER-DISORDER TRANSFORMATIONS
OSCILLATORS
PARTIAL DIFFERENTIAL EQUATIONS
PHASE TRANSFORMATIONS
PHYSICAL PROPERTIES
PROBABILITY
QUANTUM MECHANICS
STATISTICAL MECHANICS
SYNCHRONIZATION
THERMODYNAMIC PROPERTIES
THERMODYNAMICS