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Meeting Materials Science & Technology 2020
Symposium Materials Informatics for Images and Multi-dimensional Datasets
Presentation Title Developing Granular Dielectrics Based on Reconstructed Micro-CT Images
Author(s) Kevin Hager, Christina Wildfire, Edward Sabolsky, Terence Musho
On-Site Speaker (Planned) Kevin Hager
Abstract Scope This research is focused on developing statistically equivalent finite element (FE) geometries of granular dielectrics from 3D micro-CT scans. The reconstructed geometries were being used in an electromagnetic FE solver to predict and develop new granular dielectrics. In this study, the dielectric material of interest was a coal char based material. The approach taken involves determining the particle statistics using ImageJ based on 3D micro-CT scans, reconstructing the geometry using a discrete element method (DEM), post-processing in Paraview, and exporting as a CAD neutral file to COMSOL. Particle statistics of interest include statistical distribution of Feret diameter and particle count throughout the entire stack of CT images. The DEM was used to provide a realistic deposition of the particles, where the volume fraction and packing of particles influence the effective dielectric properties.

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

Accelerate TEM and Tomography Imaging by Deep-learning Enabled Compressive Sensing and Information Inpainting in High-dimensional Manifold
Assessment of the Ability of Laboratory Accelerated Corrosion Tests to Accurately Predict On-road Corrosion of 6xxx Al Alloys
Automated Optical Microscopy for Rapid Defect Screening
Computer Vision and Machine Learning for Microstructural Image Data
Developing Granular Dielectrics Based on Reconstructed Micro-CT Images
FAIR Digital Object Framework and High Throughput Experiment
Feature Characterization of Electron Backscatter Patterns from Rotating Lattice Single Crystals Using Machine Learning
Identifying Crack Initiation Sites with CNNs
Incorporating Materials Physics into Imaging Algorithms for Microscope Image Interpretation
Introductory Comments: Materials Informatics for Images and Multi-dimensional Datasets
Keyhole Porosity Threshold in Laser Melting Revealed by High-Speed X-ray Imaging
Microstructure Representation for Physically Meaningful Descriptors
Neural Networks and Community Driven Software for Scanning Transmission Electron Microscopy
Towards Smart Categorization of Growth Morphology by Machine Learning

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