First-order transition in small-world networks
M. Argollo de Menezes, C. Moukarzel, T. J. P. Penna
Abstract
The small-world transition is a first-order transition at zero density p of shortcuts, whereby the normalized shortest-path distance undergoes a discontinuity in the thermodynamic limit. On finite systems the apparent transition is shifted by Δp L-d. Equivalently a ``persistence size'' L* p-1/d can be defined in connection with finite-size effects. Assuming L* p-τ, simple rescaling arguments imply that τ=1/d. We confirm this result by extensive numerical simulation in one to four dimensions, and argue that τ=1/d implies that this transition is first-order.
Create a lesson
Related papers
Low-temperature magnetism and spin dynamics in the disordered triangular-lattice Yb3+ compound LiCaYb5(BO3)6
Monika Jawale, Saikat Nandi, Prashanta K. Mukharjee et al.
Neural Renormalization Group Flow for Percolation
Anaclara Alvez, Luca Camagna, Sergio Chibbaro et al.
Dynamical phase selection controls compute scaling in looped transformers
Gunn Kim
Semi-localized ground state in a 1D system with long-range hopping
Murod S. Bahovadinov, Faridun N. Jalolov, Vladimir E. Kravtsov et al.
Defect states in three-dimensional diamond photonic band gap crystals
Julia Rocha, Bart A. van Tiggelen, Ad Lagendijk et al.
Disorder-induced conducting edges on Kagomé lattice
A. Chmeruk, D. Jones, L. Chioncel