Efficient sampling method for multi-component ZrCu(Al) metallic glasses

Fuente: arXiv
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Autori principali: Kaskosz, Filip, Alvarez-Donado, Rene, Alava, Mikko, Parmar, Anshul D. S., Bonfanti, Silvia
Natura: Preprint
Pubblicazione: 2023
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author Kaskosz, Filip
Alvarez-Donado, Rene
Alava, Mikko
Parmar, Anshul D. S.
Bonfanti, Silvia
author_facet Kaskosz, Filip
Alvarez-Donado, Rene
Alava, Mikko
Parmar, Anshul D. S.
Bonfanti, Silvia
contents We investigate multi-component metallic glass systems using a hybrid Molecular Dynamics (MD) and Variance-Constrained Semi-Grand Canonical approach. This method enables us to generate samples with properties consistent with experimental observations, at deeply supercooled states that are typically inaccessible with conventional MD simulations. Using a realistic interatomic potential, we investigate the dynamics, kinetic stability, and rheology of a ZrCuAl metallic glass, together with the widely studied ZrCu system, in the low-temperature glassy regime, specifically, for ZrCu below its experimental glass-transition temperature. Our results demonstrate how the hybrid method enhances relaxation and provides a generic framework for modeling realistic complex metallic glasses in close agreement with experimental observations.
format Preprint
id arxiv_https___arxiv_org_abs_2309_05806
institution arXiv
publishDate 2023
record_format arxiv
spellingShingle Efficient sampling method for multi-component ZrCu(Al) metallic glasses
Kaskosz, Filip
Alvarez-Donado, Rene
Alava, Mikko
Parmar, Anshul D. S.
Bonfanti, Silvia
Disordered Systems and Neural Networks
Materials Science
We investigate multi-component metallic glass systems using a hybrid Molecular Dynamics (MD) and Variance-Constrained Semi-Grand Canonical approach. This method enables us to generate samples with properties consistent with experimental observations, at deeply supercooled states that are typically inaccessible with conventional MD simulations. Using a realistic interatomic potential, we investigate the dynamics, kinetic stability, and rheology of a ZrCuAl metallic glass, together with the widely studied ZrCu system, in the low-temperature glassy regime, specifically, for ZrCu below its experimental glass-transition temperature. Our results demonstrate how the hybrid method enhances relaxation and provides a generic framework for modeling realistic complex metallic glasses in close agreement with experimental observations.
title Efficient sampling method for multi-component ZrCu(Al) metallic glasses
topic Disordered Systems and Neural Networks
Materials Science
url https://arxiv.org/abs/2309.05806