Machine learning as a contributor to physics: Understanding Mg alloys

Machine learning (ML) methods have played an increasingly important role in materials design. Take Mg alloys as an example, we show the ML methods not only supply mathematical solutions but more importantly also contribute to understand the physics in the problem. Hitherto, the role of ML methods is...

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Main Authors: Zongrui Pei, Junqi Yin
Format: Article
Language:English
Published: Elsevier 2019-06-01
Series:Materials & Design
Online Access:http://www.sciencedirect.com/science/article/pii/S0264127519301960
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spelling doaj-ccc2eb1c06ea4306ae300db0bcb06c972020-11-25T01:17:09ZengElsevierMaterials & Design0264-12752019-06-01172Machine learning as a contributor to physics: Understanding Mg alloysZongrui Pei0Junqi Yin1Corresponding author.; Oak Ridge National Laboratory, TN37831 Oak Ridge, TN, USAOak Ridge National Laboratory, TN37831 Oak Ridge, TN, USAMachine learning (ML) methods have played an increasingly important role in materials design. Take Mg alloys as an example, we show the ML methods not only supply mathematical solutions but more importantly also contribute to understand the physics in the problem. Hitherto, the role of ML methods is widely applied in high-throughput predictions, while their contribution to understand the physical mechanisms has been rarely explored. In this study, we firstly demonstrate that the Gaussian Process Classification algorithm reliably and efficiently predicts promising solutes for ductile Mg alloys, and then use these results to evaluate the correlation between two recently proposed mechanisms. Our results help clarify the controversy regarding the ductility mechanisms that can be used as the guide for materials design. Keywords: Mg alloys, Machine learning, Gaussian process classificationhttp://www.sciencedirect.com/science/article/pii/S0264127519301960
collection DOAJ
language English
format Article
sources DOAJ
author Zongrui Pei
Junqi Yin
spellingShingle Zongrui Pei
Junqi Yin
Machine learning as a contributor to physics: Understanding Mg alloys
Materials & Design
author_facet Zongrui Pei
Junqi Yin
author_sort Zongrui Pei
title Machine learning as a contributor to physics: Understanding Mg alloys
title_short Machine learning as a contributor to physics: Understanding Mg alloys
title_full Machine learning as a contributor to physics: Understanding Mg alloys
title_fullStr Machine learning as a contributor to physics: Understanding Mg alloys
title_full_unstemmed Machine learning as a contributor to physics: Understanding Mg alloys
title_sort machine learning as a contributor to physics: understanding mg alloys
publisher Elsevier
series Materials & Design
issn 0264-1275
publishDate 2019-06-01
description Machine learning (ML) methods have played an increasingly important role in materials design. Take Mg alloys as an example, we show the ML methods not only supply mathematical solutions but more importantly also contribute to understand the physics in the problem. Hitherto, the role of ML methods is widely applied in high-throughput predictions, while their contribution to understand the physical mechanisms has been rarely explored. In this study, we firstly demonstrate that the Gaussian Process Classification algorithm reliably and efficiently predicts promising solutes for ductile Mg alloys, and then use these results to evaluate the correlation between two recently proposed mechanisms. Our results help clarify the controversy regarding the ductility mechanisms that can be used as the guide for materials design. Keywords: Mg alloys, Machine learning, Gaussian process classification
url http://www.sciencedirect.com/science/article/pii/S0264127519301960
work_keys_str_mv AT zongruipei machinelearningasacontributortophysicsunderstandingmgalloys
AT junqiyin machinelearningasacontributortophysicsunderstandingmgalloys
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