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Conference Tools for 1st World Congress on Artificial Intelligence in Materials and Manufacturing (AIM 2022)
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Meeting 1st World Congress on Artificial Intelligence in Materials and Manufacturing (AIM 2022)
Symposium First World Congress on Artificial Intelligence in Materials and Manufacturing (AIM 2022)
Organizer(s) Taylor D. Sparks, University of Utah
Michael Dawson-Haggerty, Kerfed, Inc.
Elizabeth A. Holm, University of Michigan
Jin Kocsis, Purdue University
Adam E. Kopper, Mercury Marine
Benji Maruyama
James A. Warren, National Institute of Standards and Technology
Scope The TMS World Congress on Artificial Intelligence in Materials and Manufacturing (AIM 2022) is the first event of its kind to focus on the role of artificial intelligence (AI) in materials science and engineering and related manufacturing processes. AIM 2022 will convene stakeholders from academia, industry, and government to address key issues and future pathways.

Abstracts are requests on AI topics related to materials science and engineering and manufacturing processes, including:

- Intelligent/robotic manufacturing
- Artificial intelligence in specific manufacturing process (e.g., forming, casting, additive manufacturing…)
- Machine learning/deep learning in materials and manufacturing
- Computer vision for materials and manufacturing R&D
- Autonomous materials research
- AI-assisted development of new materials/alloys
- Human-AI collaboration for materials and manufacturing problems
- Organizational impacts of artificial intelligence in materials and manufacturing
Abstracts Due 10/03/2021
Proceedings Plan Undecided
PRESENTATIONS APPROVED FOR THIS SYMPOSIUM INCLUDE

3rd Wave AI to Accelerate Materials Discovery
A Graph Based Workflow for Extracting Grain-Scale Toughness from Meso-Scale Experiments.
A Semi-Supervised Approach to Characterizing Multiple Morphological Features in Microstructure Images
A Walk Through Material Microstructures: Using Deep Learning and Geometry to Better Visualize Large Collections of Material Microstructure Images
Accelerating Phase-Field Predictions Via History-Dependent Neural Networks Learning Microstructural Evolution in a Latent Space
Additive Manufacturing of Aluminium: Alloy Design and Machine Learning Assisted Process Optimisation
Addressing Annotated Data Scarcity and Materials Diversity with Advanced Deep Learning Architectures
AI/ML for Intelligent Design and Processing of Metal Castings
AMPIS: Automated Materials Particle Instance Segmentation
An Exploratory Analysis of Low and High Temperature Tempered Steel Micrographs Using Machine Learning
Analysis of High-Speed Impact Behaviour of Al 2024 Alloy Using Machine Learning Techniques
Artificial Materials Intelligence (AMI) of Creep Indicator Model (CIM) in Single Crystal Super Alloys
Assessing the Robustness of an EBSD-Data-Based U-Net Model to Classify Phase Transformation Products in Steels
Automated and Intelligent Analysis of Extended X-Ray Absorption Fine Structure (EXAFS) and X-Ray Photoelectron Spectroscopy (XPS)
Automated Defect Identification in Electroluminescence Images of Solar Modules
Automated Microstructure Property Multi-Classification of Ni-Based Superalloys Using Deep Learning
Automated Probabilistic Finite Element Model Calibration Tool Based on Uncertainty Quantification and Machine Learning
Automating Solid-Liquid Interface Identification in Additive Manufacturing Simulator Experiments
Automating the Discovery of New Halide Perovskites with RAPID and ESCALATE
Autonomous Corrosion Resistant Coatings Development Using a Scanning Droplet Cell
Bayesian Deep Learning Methods for Microstructural Feature Characterization of LiAlO2 Pellets
Challenges and Opportunities in the Application of AI to Materials R&D
Classification of Material Defects in Ni-Base Superalloys Using Deep Learning
Combining Multimodal Data of Fatigue Fracture Surfaces for Analysis in a CNN
Combining Organic and Inorganic Descriptors for Predictions of Solubility and Volatility Across Vast Chemical Space
Comparing Transfer Learning to Feature Optimization in Microstructure Classification
Computer Vision and Machine Learning Methods to Characterize Recycled Powders for Additive Manufacturing
Convolutional Neural Networks for Image Classification in Metal Selective Laser Melting Additive Manufacturing
Correlation Between Additive Manufacturing Process Parameters and Microstructural Descriptors Via Automatic Feature Engineering
Data-Driven Learning of Constitutive Laws and Material Parameter: from Molecular Dynamics to Continuum Models
Data-Driven Modelling of Graphene Synthesis
Data-Driven Reduced-Order Multiscale Materials Modeling Under Inhomogeneous Porosity Distributions
Data Driven Microstructure Evolution: Adjusting Growth Speed and Anisotropy
Deep Learning Based Clustering Technique to Identify and Generation of RVE Models in Duplex Structure Stainless Steels
Deep Learning Surrogate Models for Multiscale Simulation of Advanced Materials
DeepTemp: Predicting Material Processing Conditions with Artificial Intelligence
Designing Thin Film Microstructures Using Genetic Algorithm Guided Time-Varying Processing Protocols
Developing Autonomous Spray Processes with Deep Reinforcement Learning Guided by Human Demonstration
Development of Recipe Optimization Method for Additive Manufacturing Process Parameter Determination
Discovery of New Periodic Inorganic Crystals Via GANs
Effect of Interlayer Delay Time on the Melt Pool Dimensions in Direct Energy Deposition Process using Machine Learning Techniques
Effects of Complex Die Cast Manufacturing Systems and the Critical Error Threshold on Applications of Machine Learning in Production
Efficient Microstructure Image Segmentation Using Deep Learning with Low-Cost Data Annotations
Efficient, Interpretable Atomistic Graph Neural Network Representation for Angle-Dependent Properties and its Application to Optical Spectroscopy Prediction
Employing Artificial Intelligence to Accelerate Development and Implementation of Materials and Manufacturing Innovations
Enabling Rapid Validation and Dynamic Standardisation of Advanced Manufactured Parts
Experimental Validation of Materials Discovered by Autonomous Intelligent Agents
Experimental Validation of Materials Discovered by Autonomous Intelligent Agents.
Feature Anomaly Detection System (FADS) for Intelligent Manufacturing
Finding Superhard Materials Through Machine Learning
Gaussian Process as a Flexible Machine Learning Toolbox with Uncertainty Quantification for Solving Inverse Problems in Process-Structure-Property Relationship
Gaussian Process Regression Modelling of Superalloy Microstructure
Generating Realistic Material Microstructures Using Conditional GANs for Advanced Manufacturing
High-Throughput Development of MPEAs by Combined Approach of Additive Manufacturing and Machine Learning Methods
Human-Robot Collaboration for the Application of Speckle Patterns Through Learning from Demonstration Techniques
Hybrid Approach Combining Machine Learning and Finite Element Simulation for Process and Material Optimization
Industry 4.0 - Creating the Foundation for Machine Learning in Production Manufacturing
Integrating Data-Driven and Experimental Techniques for the Design and Development of New Corrosion-Resistant Coating Alloys for Lightweight Automotive Steels
Interpretable Machine Learning-Assisted Phase Classification for High Entropy Alloys
Interpretation of Convolutional Neural Networks for Predicting Volume Requirements in Studies of Microstructurally Small Cracks
Latent Variable Rietveld Model for High Throughput Quantitative X-ray Diffraction Analysis
Machine-Learning-Guided Automated Training for Adaptive Printing: Automating Intuition for Unintuitive Toolpaths and Geometries
Machine-Learning Force-Field to Develop and Optimize Multi-Component Alloys
Machine Learning-Based Thermal Analysis for Laser-Based Powder-Bed Fusion Additive Manufacturing
Machine Learning-Guided Materials Discovery Enabled by Automated Experimentation
Machine Learning Based Prediction of Corrosion Behavior in Additively Manufactured Titanium Alloy
Machine Learning Based Prediction of Fatigue Crack Growth Rate in Additively Manufactured Ti6Al4V Alloy
Machine Learning Enabled Directed Energy Deposition of Functionally Graded Materials
Machine Learning Enabled Model to Predict Mechanical Properties of Refractory Alloys
Machine Learning from Large and Sparse Data for Novel Materials Discovery
Machine Learning Guided Design of Aluminium Alloys
Machine Learning Guided Prediction of Thermal Properties of Rare-Earth Disilicates and Monosilicates
Machine Learning Regression Models of Crystalline Materials Properties: Comparing Approaches and Results in Prediction Intervals Determination
MAKSAT : AI for Mining and Manufacturing Sector
Methods of Surface Inspection for Plane Metal with the Use of CV
Microscopy Segmentation Models with Transfer Learning from a Large Microscopy Dataset
Microstructural Classification of Bainite Subclasses in Low-Carbon Multi-Phase Steels Using Supervised Machine Learning
Modeling a Monte Carlo Potts Solidification Model Using a Generative Adversarial Network
Modeling and Simulation of Additively Manufactured Lattice Structures to Support Component Qualification
Multi-scale Structure-Property Relationships in Low Carbon Steels
Nanoindentation Load-Displacement Analysis Using a Genetic Algorithm
Nanoindentation Mapping Defects Filtration for Heterogeneous Materials Using Generative Adversarial Networks (GAN’s)
Neural Message Passing for Prediction of Abnormal Grain Growth in Monte Carlo Simulations of Materials Processing
Neuromorphic Utilization of NVM Devices Using GeTe
Now On-Demand Only - Atomistic Line Graph Neural Network for Improved Materials Property Predictions
Now On-Demand Only - Defect Minimization in Additive Manufacturing Through a Customized High-Throughput Experimental Methodology and Machine Learning Approach
Optimization of the Additive Manufacturing Process for Refractory Metals Using Numerical Simulations and Machine Learning
Optimizing Fractional Composition to Achieve Extraordinary Properties
Orientation Imaging Microscopy Grain Reconstruction Using Deep Learning
ORIGINALLY MON PM: Accelerating the Growth of Metal-Organic Framework Thin Films Guided by Pool-based Active Learning
Physics-Constrained, Inverse Design of High-Temperature, High-Strength, Creep-Resistant Printable Al Alloys Using Machine Learning Methods
Plastic Deformation Reconstruction Based on Acoustic Emission Measurements
Predicting Multicomponent Alloy Properties with Neural Network Surrogate Models
Prediction of Anisotropic Plastic Flow from Indentation Responses Via Neural Networks Combined with Finite Element Analysis
Prediction of Stress-Strain Curve of High-Entropy Alloys and 3D Printed Steels Using Machine Learning
Predictive Modeling of Creep Elongation and Reduction in Area in High Temperature Alloys Using Machine Learning
Predictive Synthesis of Quantum Materials with Offline Reinforcement Learning
Productivity Enhancement of Photolithography by Big Data Learning
Profit-Driven Methodology for Servo Press Motion Selection Under Material Variability
Property Optimization of Multifunctional Materials with Complex Parameter Spaces
Qualitative Assessment of Degradation and Ageing Behaviour of Epoxy-Al Nanocomposites Through Machine Learning Assisted With LIBS.
Research Acceleration via Machine Learning for Characterization of Growing Dendritic Crystals from In Situ X-Ray Videos of Alloy Solidification
Semi-supervised Dynamic Sampling for 3D Electron Backscatter Diffraction
Supervised Machine Learning for Collision Weld Process Optimization
Teaching Printers How to Print: from Closed-Loop Control to Integrating AI and Cloud Computing into Additive Manufacture
Teaching the Machine: Characterizing Speckle Patterns for Virtual Demonstrations
Teaching Tools to be Teammates: Digital Manufacturing Research at AFRL
The nSoft Autonomous Formulation Laboratory: X-Ray and Neutron Scattering for Industrial Formulation Discovery
Uncovering Atomic Structure-Property Relationships Driving Segregation Energy Behavior
Unsupervised Topological Learning Approach for Crystal Nucleation in Pure Metals and Alloys
Use of Computer Vision to Characterize Non-Metallic Inclusions in Steel
Using Uncertainty in Machine Learning to Inform Decision Making on Structural Characterization of Materials
xT SAAM – An Industrial Small Data AI Platform(Design-Expert is Trying to Simplify Classical DoE. Making it a Bit Easier to Use)


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