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Meeting MS&T23: Materials Science & Technology
Symposium Materials Informatics for Images and Multi-dimensional Datasets
Presentation Title Predicting the Occurrence and Mechanism of Liquid Metal Embrittlement Using Machine Learning
Author(s) Benjamin A. Begley, Justin E Norkett, Cameron Frampton, Victoria M Miller
On-Site Speaker (Planned) Benjamin A. Begley
Abstract Scope Predicting whether liquid metal embrittlement (LME) will occur between a given pair of liquid and solid metals is key to enabling the use of liquid metals in a wide variety of applications. Most previous attempts have considered LME binary: LME or no LME. Recent developments have separated liquid metal embrittlement into multiple mechanisms; in this work, data was extracted from over 1000 publications spanning over 100 years of LME research, separated by mechanism, then several machine learning classification techniques, including k-nearest neighbors (KNN) classifiers and decision tree classifiers, were used to develop a model that predicts the occurrence and mechanism of LME. Specifically, a KNN classifier using a 1-vs-1 approach for predicting each LME mechanism is more than 80% accurate, surpassing predictive models in the literature. Additionally, a 1-vs-1 decision tree model is used to investigate the features of the liquid-solid pair that are most important for predicting LME.

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

Efficient Void Shape Optimization Using Deep Generative Convolutional Neural Networks
Informing Autonomous Processing via STEM-EELS Using Variational Autoencoders for Classification and Decision
Machine Learning Segmentation Methods for Fatigue Fracture Surface Defect Analyses
Microstructure Statistics for Property Prediction in Multifunctional Electrode Composites Using Random Forests
Multi-modal Image Registration for Materials Characterization
Nanoscale Metrology of Materials Studied by Advanced Electron Microscopy Imaging and Spectroscopy.
Out-of-Domain Prediction of Material Property Using Deep Learning
Phase Segmentation of Steel Microstructures via Semi Supervised Deep Learning
Predicting the Occurrence and Mechanism of Liquid Metal Embrittlement Using Machine Learning
Rapid Grain Segmentation From Grayscale Micrograph Through Computer Vision Method
Semi-automated Hierarchical Clustering Model for 4D-STEM Datasets
Structure-property Relationships Derived From Electron Microscope to Atomistic Simulations
The Conundrum of Ambiguous Feature Sets in Materials Informatics for Images
Topic Modelling Framework for Rapid Digestion of Additive Manufacturing Literature
Using Computer Vision to Cluster Fatigue Life Based on Small Crack Characteristics

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