MyTm: An Automated Melting Temperature Calculation Toolkit
Y. S. Huang, H. X. Song, Y. Sun, J. L. Li, Y. L. Xu, F. C. Wu, Y. C. Gan, Y. F. Wang, H. Wang, Hua Y. Geng
Abstract
Melting temperature calculation is one of the important topics in computational materials science. In high-throughput in silico screening and artificial intelligence assisted design of materials, it usually requires a rapid and autonomous assessment of the melting temperature of the target. Unfortunately, molecular dynamics (MD) simulations of the melting point require many cumbersome and manual operations, making large-scale calculation of the melting point challenging. In this work, we introduce MyTm, a toolkit that employs MD to automatically determine the melting point. The method is fully modularized, and by combining these modules, the program enables fully automated melting calculations by using commonly adopted approaches, including the direct-heating method, the void method, the modified void method, the solid-liquid coexistence method, and the Z method. Moreover, a machine learning (ML) method is proposed and employed to recognize and classify the solid like and liquid like atoms, which effectively resolve the low accuracy issue in conventional classification approaches, thus making the automated high throughput pipeline of melting-point calculation possible. The robustness and efficacy of MyTm have been demonstrated by several well studied systems.
Create a lesson
Related papers
RFBniCS: An open-source simulation framework for redox flow batteries
Amirhossein Aghabarari, Jørgen S. Dokken, Martin T. Horsch et al.
An S-matrix Formalism for the Nonclassical Optical Response of Plasmonic Nanowires
Xin Zheng, Christos Tserkezis, Christos Mystilidis et al.
Automated Many-Body Simulations of Strongly Correlated Systems Using a Correlation-Aware Agentic Framework
Tenghui Li, Chong Sun
From Energy-Force Weighting to Primal-Dual Optimization of Machine-Learned Interatomic Potentials
Chenyu Wang, Yangshuai Wang, Lei Zhang
A Variance-Decomposition Formula for Direct and Adjoint Monte Carlo Particle Transport Problems
Paul Rovel, Coline Larmier, Davide Mancusi et al.
The Ganglion Network Model: Evolving Trapped Phases in Porous Media
Yashar Mehmani