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Meeting MS&T22: Materials Science & Technology
Symposium Materials Informatics for Images and Multi-dimensional Datasets
Presentation Title Polycrystal Graph Neural Network
Author(s) Minyi Dai, Mehmet Furkan Demirel, Xuanhan Liu, Yingyu Liang, Jia-Mian Hu
On-Site Speaker (Planned) Minyi Dai
Abstract Scope Graph Neural Network (GNN) has recently emerged as a powerful machine learning model for predicting the properties of molecular and crystal structures, but its application to 3D, topologically complex polycrystalline microstructures still remains scarce. Here, we develop a Polycrystal Graph Neural Network (PGNN) model that permits an accurate prediction of the properties of polycrystalline microstructures by considering the physical features and interactions of both grain and grain boundaries. Trained with 4000 data points, our PGNN model achieves a property prediction error of ~1.5%, which is significantly lower than baseline machine learning models such as ResNet (error ~4%). We also show that such trained PGNN model can be transferred to accelerate and improve the prediction of other physical properties with smaller available data. Our accurate, and transferable PGNN model is well suited for harnessing large-scale datasets of 3D polycrystalline microstructures, which is crucial for realizing accelerated design of polycrystalline materials.

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

Automated Defect Identification for Tristructural Isotropic Fuels
B-3: 3D Computer Vision and Machine Learning for Porosity Analysis in Additive Manufacturing
Combining Limited Image and Tabular Data to Understand Failure Modes in Metals
Computer Vision Applications in Materials Science and Engineering
Establishing PSP Relationships with Microstructure Features Quantified Using Machine Learning
FeCrAl Alloy Design Utilizing Literature, Experiments, High Throughput Characterization, and Machine Learning
Machine Learning Enabled Reproducible Data Analysis for Electron Microscopy
Materials Data Science for Reliability: Data Handling
Multimodal Data of Fatigue Fracture Surfaces for Analysis in a CNN
Neighborhood Maps for Discovery of Novel Materials in Reduced Dimensions Using Machine Learning
Polycrystal Graph Neural Network
Process-Structure-Property Relationships from Variational Autoencoders

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