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Machine learning for alloys
DOI:10.1038/s41578-021-00340-w.png)
Abstract
En 中文
Alloy modelling has a history of machine-learning-like approaches, preceding the tide of data-science-inspired work. The dawn of computational databases has made the integration of analysis, prediction and discovery the key theme in accelerated alloy research. Advances in machine-learning methods and enhanced data generation have created a fertile ground for computational materials science. Pairing machine learning and alloys has proven to be particularly instrumental in pushing progress in a wide variety of materials, including metallic glasses, high-entropy alloys, shape-memory alloys, magnets, superalloys, catalysts and structural materials. This Review examines the present state of machine-learning-driven alloy research, discusses the approaches and applications in the field and summarizes theoretical predictions and experimental validations. We foresee that the partnership between machine learning and alloys will lead to the design of new and improved systems. Machine learning is enabling a metallurgical renaissance. This Review discusses recent progress in representations, descriptors and interatomic potentials, overviewing metallic glasses, high-entropy alloys, superalloys and shape-memory alloys, magnets and catalysts, and the prediction of mechanical and thermal properties.
Keywords:
HIGH-ENTROPY ALLOYS
ARTIFICIAL NEURAL-NETWORK
DENSITY-FUNCTIONAL THEORY
GLASS-FORMING ABILITY
SHAPE-MEMORY ALLOYS
CRYSTAL-STRUCTURE
MECHANICAL-PROPERTIES
DEFORMATION-BEHAVIOR
MATERIALS SCIENCE
PROCESSING PARAMETERS
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Journal
IF:
86.2
Papers:
1.2K
Citations:
4.3W
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MATERIALS & DESIGN
IF7.9

