Critical phenomena on k-booklets
arXiv:1611.07928 · doi:10.1103/PhysRevE.95.010102
Abstract
We define a `k-booklet' to be a set of k semi-infinite planes with and , glued together at the edges (the `spine') y=0. On such booklets we study three critical phenomena: Self-avoiding random walks, the Ising model, and percolation. For k=2 a booklet is equivalent to a single infinite lattice, for k=1 to a semi-infinite lattice. In both these cases the systems show standard critical phenomena. This is not so for k>2. Self avoiding walks starting at y=0 show a first order transition at a shifted critical point, with no power-behaved scaling laws. The Ising model and percolation show hybrid transitions, i.e. the scaling laws of the standard models coexist with discontinuities of the order parameter at , and the critical points are not shifted. In case of the Ising model ergodicity is already broken at , and not only for as in the standard geometry. In all three models correlations (as measured by walk and cluster shapes) are highly anisotropic for small y.
5 pages, 8 figures
References in corpus (16)
- Catastrophic cascade of failures in interdependent networks
- Percolation Theory on Interdependent Networks Based on Epidemic Spreading
- k-core (bootstrap) percolation on complex networks: Critical phenomena and nonlocal effects
- Spatial structures and dynamics of kinetically constrained models for glasses
- A Simple Model for the DNA Denaturation Transition
- Discontinuous Percolation Transitions in Epidemic Processes, Surface Depinning in Random Media and Hamiltonian Random Graphs
- Ordinary Percolation with Discontinuous Transitions
- Heterogeneous-k-core versus Bootstrap Percolation on Complex Networks
- Ordinary, extraordinary, and normal surface transitions: extraordinary-normal equivalence and simple explanation of singularities
- A parallel algorithm for the enumeration of self-avoiding polygons on the square lattice
- Phase Transitions in Cooperative Coinfections: Simulation Results for Networks and Lattices
- Shortest-Path Fractal Dimension for Percolation in Two and Three Dimensions
- Finite-size scaling for near-critical continuum fluids at constant pressure
- Critical behaviour near multiple junctions and dirty surfaces in the two-dimensional Ising model
- Lattice solution model for order-disorder transitions in membranes and Langmuir monolayers
- Brochette percolation
Cited by in corpus (5)
- Heterogeneous excitable systems exhibit Griffiths phases below hybrid phase transitions
- Mixed-order phase transition of the contact process near multiple junctions
- Mixed-order transition in the antiferromagnetic quantum Ising chain in a field
- Nonuniversal and anomalous critical behavior of the contact process near an extended defect
- Quantum Potts chain in alternating field