Application of Multicanonical Multigrid Monte Carlo Method to the Two-Dimensional -Model: Autocorrelations and Interface Tension
arXiv:hep-lat/9412085 · doi:10.1007/BF02183687
Abstract
We discuss the recently proposed multicanonical multigrid Monte Carlo method and apply it to the scalar -model on a square lattice. To investigate the performance of the new algorithm at the field-driven first-order phase transitions between the two ordered phases we carefully analyze the autocorrelations of the Monte Carlo process. Compared with standard multicanonical simulations a real-time improvement of about one order of magnitude is established. The interface tension between the two ordered phases is extracted from high-statistics histograms of the magnetization applying histogram reweighting techniques.
49 pp. Latex incl. 14 figures (Fig.7 not included, sorry) as uuencoded compressed tar file
References in corpus (7)
- Monte Carlo Calculation of the Surface Free Energy for the 2d 7-state Potts Model, and an Estimate for 4d SU(3) Gauge Theory
- Observation of FSS for a First Order Phase Transition
- Multicanonical Cluster Algorithm and the 2-D 7-State Potts Model
- Multicanonical Multigrid Monte Carlo
- Cluster dynamics for first-order phase transitions in the Potts model
- Kinematics of Multigrid Monte Carlo
- Multicanonical study of nonlinear -model
Cited by in corpus (9)
- Optimal Energy Estimation in Path-Integral Monte Carlo Simulations
- Overcoming the critical slowing down of flat-histogram Monte Carlo simulations: Cluster updates and optimized broad-histogram ensembles
- Multi-Grid Monte Carlo via Embedding. II. Two-Dimensional Principal Chiral Model
- Multi-Grid Monte Carlo via Embedding I. General Theory and Two-Dimensional -Symmetric Nonlinear -Models
- Multicanonical Hybrid Monte Carlo: Boosting Simulations of Compact QED
- Multigrid Method versus Staging Algorithm for PIMC Simulations
- Multi-Grid Monte Carlo. IV. One-Dimensional -Symmetric Nonlinear -Model
- Exploring the worldline formulation of the Potts model
- Dynamical Critical Properties of the Random-Bond three-state Potts Model