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##################################################################################
Histogram-Free Multicanonical Sampling (using numerical integration as an example)
##################################################################################
This code is distributed with the paper "Histogram-free multicanonical Monte
Carlo sampling to calculate the density of states", published in Computer Physics
Communications (https://www.sciencedirect.com/science/article/pii/S0010465518303485).
The program implements a novel Monte Carlo algorithm to obtain the density of
states of a physical system, expanded in a chosen basis set. It can be regarded as
a descendant and a hybrid method closely related to the multicanonical method and
Wang-Landau sampling. But unlike these existing algorithms that return the density
of states as a numerical array, this algorithm avoids binning of a continuous
variable and is able to express the density of states as a closed-form expression.
It is thus suitable for the study of the statistical mechanics and thermodynamic
properties of physical systems where the density of a continuous state variable is
of interest.
Contacts:
=========
- Alfred C. K. Farris (Oxford College of Emory University, alfred.farris@emory.edu)
- Ying Wai Li (Los Alamos National Laboratory, yingwaili@lanl.gov)
Basic Information:
==================
- Main program: HistogramFreeMUCA.py
- Input file: input.txt
System Requirements:
====================
- Python 3.6 or above
- Python libraries: NumPy, SymPy, Matplotlib
To Run the Program:
===================
python HistogramFreeMUCA.py input.txt
License Information:
====================
BSD 3-clause
Reference to the Paper:
=======================
Computer Physics Communiations 235, pp.297-304 (2018).
https://www.sciencedirect.com/science/article/pii/S0010465518303485