Universal asymptotic correlation functions for point group $\boldsymbol{C_{6v}}$ and an observation for triangular lattice $\boldsymbol{Q}$-state Potts model
Masafumi Fujimoto, Hiromi Otsuka

TL;DR
This paper derives universal asymptotic correlation functions for systems with $C_{6v}$ symmetry, supported by Monte Carlo simulations of the triangular lattice $Q$-state Potts model, and explores their implications for equilibrium crystal shapes.
Contribution
It introduces a minimal universal form for correlation functions with $C_{6v}$ symmetry and demonstrates its broad applicability through numerical simulations and geometric analysis.
Findings
Universal correlation form with two parameters for $C_{6v}$ symmetry
Numerical evidence supports the form's applicability to lattice models
Derived universal shape of equilibrium crystals with genus 1 algebraic curve
Abstract
We investigate universal forms for asymptotic correlation functions of off-critical systems that possess symmetry following the argument for symmetry in Phys.~Rev.~E{\bf 102},~032141. Unlike the case, a minimal form exists that contains only two free parameters: the normalization constant and modulus. Using this form as a building block, we can construct next asymptotic forms to the minimal one. We perform large-scale Monte Carlo simulations of the triangular lattice -state Potts model above the transition temperature and successfully obtain numerical evidence to support a wide applicability of the minimal form to lattice models, including unsolvable ones. From the calculated minimal form, we derive the universal shape of equilibrium crystals in the honeycomb lattice Potts model described by an algebraic curve of genus 1. Although the curve differs from…
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Taxonomy
TopicsTheoretical and Computational Physics · Physics of Superconductivity and Magnetism · Quantum many-body systems
