Geometric properties of the Fortuin-Kasteleyn representation of the Ising model
arXiv:1811.03358 · doi:10.1103/PhysRevE.99.042150
Abstract
We present a Monte Carlo study of the Fortuin-Kasteleyn (FK) clusters of the Ising model on the square (2D) and simple-cubic (3D) lattices. The wrapping probability, a dimensionless quantity characterizing the topology of the FK clusters on a torus, is found to suffer from smaller finite-size corrections than the well-known Binder ratio, and yields a high-precision critical coupling as . We then study geometric properties of the FK clusters at criticality. It is demonstrated that the distribution of the critical largest-cluster size follows a single-variable function as with ( is the linear size), and that the fractal dimension is identical to the magnetic exponent. An interesting bimodal feature is observed in distribution in 3D, and attributed to the different approaching behaviors for . For a critical FK configuration, the cluster number per site of size is confirmed to obey the standard scaling form , with hyper-scaling relation and the spatial dimension . To further characterize the compactness of the FK clusters, we measure their graph distances and determine the shortest-path exponents as and . Further, by excluding all the bridges from the occupied bonds, we obtain bridge-free configurations and determine the backbone exponents as and . The estimates of the universal wrapping probabilities for the 3D Ising model and of the geometric critical exponents and either improve over the existing results or have not been reported yet.
arXiv comment12 pages, 10 figures, 11 tables
References in corpus (24)
- Solving the 3D Ising Model with the Conformal Bootstrap
- Precision Islands in the Ising and Models
- A Finite Size Scaling Study of Lattice Models in the three-dimensional Ising Universality Class
- Pushing the Limits of Monte Carlo Simulations for the 3d Ising Model
- Bond and Site Percolation in Three Dimensions
- Conductivity Exponent and Backbone Dimension in 2-d Percolation
- Universal Amplitude Ratios in the Critical Two-Dimensional Ising Model on a Torus
- Simultaneous analysis of three-dimensional percolation models
- Percolation on two- and three-dimensional lattices
- Exact Finite-Size-Scaling Corrections to the Critical Two-Dimensional Ising Model on a Torus
- Operator content of the critical Potts model in d dimensions and logarithmic correlations
- Probability of Incipient Spanning Clusters in Critical Square Bond Percolation
- Critical manifold of the kagome-lattice Potts model
- Some geometric critical exponents for percolation and the random-cluster model
- Geometric structure of percolation clusters
- Critical percolation clusters in seven dimensions and on a complete graph
- Conformal bootstrap for percolation and polymers
- Short-range correlations in percolation at criticality
- Homology of Fortuin-Kasteleyn clusters of Potts models on the torus
- Non-scalar operators for the Potts model in arbitrary dimension
- Percolation in the canonical ensemble
- On the Aizenman exponent in critical percolation
- Universal Critical Wrapping Probabilities in the Canonical Ensemble
- Bridges in the random-cluster model
Cited by in corpus (16)
- High-precision Monte Carlo study of several models in the three-dimensional U(1) universality class
- Worm-algorithm-type Simulation of Quantum Transverse-Field Ising Model
- Geometric Upper Critical Dimensions of the Ising Model
- Complete graph and Gaussian fixed point asymptotics in the five-dimensional Fortuin-Kasteleyn Ising model with periodic boundaries
- Loop-Cluster Coupling and Algorithm for Classical Statistical Models
- Geometric scaling behaviors of the Fortuin-Kasteleyn Ising model in high dimensions
- Tensor network Monte Carlo simulations for the two-dimensional random-bond Ising model
- Three-dimensional universality class of Ising model with power-law-correlated critical disorder
- Backbone and shortest-path exponents of the two-dimensional -state Potts model
- Percolation effects in the Fortuin-Kasteleyn Ising model on the complete graph
- Percolation of the two-dimensional XY model in the flow representation
- Universal and non-universal large deviations in critical systems
- From hard spheres to hard-core spins
- Exploring percolation phase transition in the three-dimensional Ising model with machine learning
- The geometric phase transition of the three-dimensional lattice gauge model
- Ising models on the hydrogen peroxide and other lattices