Phase Diagram and Critical Behaviour of the Two-Dimensional Potts Model with Long-Range Quenched Disorder
Rodolfo Rocha, Leticia F. Cugliandolo, Marco Picco
Abstract
We study the phase diagram and critical properties of the q = 3 and q = 8 Potts models with spatially correlated disorder governed by a power-law decay with exponent a. Building on the phase diagram proposed by Chippari et al. [3], where a transition from finite-disorder to infinite-disorder fixed points was identified as a function of a, we refine this picture by using wrapping probabilities of Fortuin-Kasteleyn clusters. Furthermore, using magnetic observables, we clarify the physical origin of the double-peak structure in the magnetic susceptibility and establish the validity of the hyper-scaling relation across all investigated regimes.
Create a lesson
Related papers
Chemical potentials from structure factors: II. Charged multi-component mixtures
Xiaoyu Wang, Roya Savoj, Musahid Ahmed et al.
Asymmetry-controlled resonant transport in a Brownian flashing ratchet
Sudipta Mandal, Dipanjan Chakraborty, Debasish Chaudhuri
Branching stochastic mechanics. I. Clustering and connected correlations within a branching-process representation of the Schrödinger equation
Eric Dumonteil, Benoît Bischoff, Alain Letourneau et al.
Representation Transitions Reveal Predictive Structure in Complex Systems: A Trajectory-Level Reconstruction in a Critical System
Jiaqi Pan
Ornstein-Uhlenbeck Process Driven by Multiple Dichotomous Noises
Silvio Kalaj, Dongho Lee, Enzo Marinari et al.
Light-induced nonconservative static forces in many-body systems
Jinze Li, Xuemei Yang, Zhiyuan Sun