Lee-Yang theory of the Curie-Weiss model and its rare fluctuations
arXiv:2002.01269 · doi:10.1103/PhysRevResearch.2.033009
Abstract
Phase transitions are typically accompanied by non-analytic behaviors of the free energy, which can be explained by considering the zeros of the partition function in the complex plane of the control parameter and their approach to the critical value on the real-axis as the system size is increased. Recent experiments have shown that partition function zeros are not just a theoretical concept. They can also be determined experimentally by measuring fluctuations of thermodynamic observables in systems of finite size. Motivated by this progress, we investigate here the partition function zeros for the Curie-Weiss model of spontaneous magnetization using our recently established cumulant method. Specifically, we extract the leading Fisher and Lee-Yang zeros of the Curie-Weiss model from the fluctuations of the energy and the magnetization in systems of finite size. We develop a finite-size scaling analysis of the partition function zeros, which is valid for mean-field models, and which allows us to extract both the critical values of the control parameters and the critical exponents, even for small systems that are away from criticality. We also show that the Lee-Yang zeros carry important information about the rare magnetic fluctuations as they allow us to predict many essential features of the large-deviation statistics of the magnetization. This finding may constitute a profound connection between Lee-Yang theory and large-deviation statistics.
arXiv comment11 pages, 6 figures
References in corpus (41)
- The large deviation approach to statistical mechanics
- Dynamical Quantum Phase Transitions in the Transverse Field Ising Model
- Dynamical quantum phase transitions: a review
- Observation of a dynamical topological phase transition
- Perspective: The Glass Transition
- Observation of Lee-Yang zeros
- Statistical Mechanics of Equilibrium and Nonequilibrium Phase Transitions: The Yang-Lee Formalism
- Classification of phase transitions in small systems
- Probing Lee-Yang zeros and coherence sudden death
- Trajectory phase transitions, Lee-Yang zeros, and high-order cumulants in full counting statistics
- Experimental Determination of Dynamical Lee-Yang Zeros
- Lee-Yang zeros and phase transitions in nonequilibrium steady states
- General Theory of Lee-Yang Zeros in Models with First-Order Phase Transitions
- Order parameter statistics in the critical quantum Ising chain
- Hyperscaling above the upper critical dimension
- Density of Zeros on the Lee-Yang circle obtained from magnetization data of a two-dimensional Ising ferromagnet
- Partition function zeros for the Ising model on complete graphs and on annealed scale-free networks
- Phase transitions in the complex plane of physical parameters
- Full Counting Statistics of Andreev Tunneling
- Classification of phase transitions of finite Bose-Einstein condensates in power law traps by Fisher zeros
- Yang-Lee zeros for a nonequilibrium phase transition
- Lee-Yang zeros and large-deviation statistics of a molecular zipper
- Fisher's scaling relation above the upper critical dimension
- Exact Partition Function Zeros of the Wako-Saito-Muñoz-Eaton Protein Model
- Determination of universal critical exponents using Lee-Yang theory
- Probing the Full Distribution of Many-Body Observables by Single-Qubit Interferometry
- Violation of Lee-Yang circle theorem for Ising phase transitions on complex networks
- Intermittency and dynamical Lee-Yang zeros of open quantum systems
- Two-time correlation functions and the Lee-Yang zeros for an interacting Bose gas
- Trajectory phase transitions and dynamical Lee-Yang zeros of the Glauber-Ising chain
- Fisher zeros of a unitary Bose gas
- Measuring complex partition function zeroes of Ising models in quantum simulators
- Fluctuation relations for equilibrium states with broken discrete symmetries
- Simple spin models with non-concave entropies
- Density of Yang-Lee zeros in the thermodynamic limit from tensor network methods
- Partition function zeros and leading order scaling correction of the 3D Ising model from multicanonical simulations
- Analytic Partition Function Zeros of the Wako-Saito-Munoz-Eaton beta-hairpin Model
- Methods for calculating nonconcave entropies
- Detecting the Lee-Yang zeros of a high-spin system by the evolution of probe spin
- Probing the Lee-Yang zeros of a spin bath by correlation functions and entanglement of two spins
- Time correlation functions and Fisher zeros for q-deformed Bose gas
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- Phase transitions above the upper critical dimension
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