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Parallel Grand-Canonical Monte Carlo (ParaGrandMC) User’s Manual Version 2.0This manual describes the commands and command line options for the Parallel Grand Canonical Monte Carlo version 2.0 (ParaGrandMC.2.0) simulation code. This is a highly scalable parallel FORTRAN 2003 code for simulating the thermodynamic evolution of materials at the atomic level, and predicting their thermodynamic state, phase diagram, chemical composition and mechanical properties. The code is specifically designed to simulate multi-component alloy systems, predict solid-state phase transformations such as austenite-martensite transformations, precipitate formation, recrystallization, capillary effects at interfaces, surface absorption, etc., which can aid the design of novel metallic alloys. While the software is mainly tailored for modeling metal alloys, it can also be used for other types of solid-state systems, and to some degree for liquid or gaseous systems, including multiphase systems forming solid-liquid-gas interfaces. In addition to performing Monte Carlo (MC) simulations, the code can also perform Molecular Dynamics (MD) and Langevin Dynamics (LD) simulations, which can be combined and interchanged with MC for faster and more efficient system evolution. A detailed description of the MC part of the code is provided in the NASA ParaGrandMC report: NASA/CR–2016-219202; http://www.sti.nasa.gov.
Document ID
20220003134
Acquisition Source
Langley Research Center
Document Type
Technical Memorandum (TM)
Authors
Vesselin I. Yamakov
(National Institute of Aerospace Hampton, Virginia, United States)
Edward H. Glaessgen
(Langley Research Center Hampton, Virginia, United States)
Date Acquired
February 24, 2022
Publication Date
March 1, 2022
Subject Category
Metals And Metallic Materials
Statistics And Probability
Funding Number(s)
WBS: 698259.02.07.07.03.01
CONTRACT_GRANT: NNL09AA00A
Distribution Limits
Public
Copyright
Public Use Permitted.
Technical Review
NASA Peer Committee
Keywords
High performance computing
Monte Carlo simulation
molecular dynamics
metal alloy
atomistic simulation
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