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Meeting 2025 TMS Annual Meeting & Exhibition
Symposium Bridging Scale Gaps in Multiscale Materials Modeling in the Age of Artificial Intelligence
Presentation Title Realizing high-throughput multi-scale simulations of materials through machine learning
Author(s) Shyue Ping Ong
On-Site Speaker (Planned) Shyue Ping Ong
Abstract Scope A fundamental challenge in computational materials science is bridging length and time scales from quantum to atomistic to continuum. In this talk, I will present a roadmap to attacking this challenge in an automated fashion through machine learning (ML). In the past decade, ML interatomic potentials (MLPs) have emerged as a robust approach to bridge the quantum and atomistic scales by learning the potential energy surface from high-throughput ab initio calculations. In turn, simulations from MLPs can be used to learn statistical parameters for continuum scale models. I will illustrate this process using several prototypical examples from multi-principal element alloys and solid ceramic electrolytes for lithium-ion batteries. Finally, I will outline the major gaps that remain to the realization of high-throughput multi-scale simulations of materials.
Proceedings Inclusion? Planned:
Keywords Computational Materials Science & Engineering, Machine Learning, Mechanical Properties

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

A machine learning-assisted dislocation density-based crystal plasticity model for fcc aluminum
AI-Enabled Upscaling of Ab Initio Thermodynamics for 3C-SiC(100) Surface Reconstructions
An Ultra-Fast Machine-Learning Potentials to Investigate the Phonon-Dislocation Interaction of Lead Selenide
AtomAgents: Alloy design and discovery through physics-aware multi-modal multi-agent artificial intelligence
Atomistically-Informed Discrete Dislocation Dynamics Simulations of Shock in Aluminum
Atomistically informed mesoscale modeling of deformation behavior of bulk metallic glasses
Bridging scales in metal plasticity: the roles of theory, data science, and computing
Coarse-graining atomistic simulation data with physics-guided Gaussian process regression
Complex structure of liquid and machine-learning
Computational Studies on Statistical Features of Dislocation Glide Energetics in Refractory Complex Concentrated Alloys
Developing data-driven dislocation mobility laws for BCC metals
Developing On-Demand, Highly Efficient Digital Twins with DFT Accuracy for Iterative Alloy Discovery Frameworks
Discovering New Mechanisms of Grain Growth with a Machine Learning Model Trained on Experimental and Simulation Data
Efficient high-throughput ab initio prediction of liquidus curves
Engineering the crack-tip material composition to enhance the microplasticity in Refractory Complex Concentrated Alloys
First-principles models of solute-defect interactions in alloys
Influence of Surface Structure on Graphene Formation via Thermal Decomposition of Silicon Carbide
Integrating AI for high-dimensional saddle point sampling
Interplay between Hydrogen and Screw Dislocation in bcc-Fe: a Neural-network Potential Study
Machine Learning-Enhanced Multiscale Modeling of Solidification
Machine learning - Kinetic Monte Carlo Investigation on Sluggish Interstitial Diffusion in Fe-Ni-Cr-Cu-Co High Entropy Alloys
Machine Learning for the Efficient Identification of High-Performance Metal-Doped Transition Metal Compounds for Hydrogen Evolution Catalysis
Machine Learning Potentials for Chemically Complex Alloys
Material-agnostic training data generation for machine-learning interatomic potentials
Mechanism-Based Data-Driven Exploration of Complex Concentrated Alloys with Enhanced Mechanical Performance
Mesoscale Investigation of Dislocation-Grain Boundary Interactions in Metals and Alloys
Modelling Helium Bubble Evolution and Grain Decohesion in Nanostructured Tungsten Using ML-Based Interatomic Potential
Molecular dynamic studies of strain rate effects on screw dislocation mobility in bcc metals
Multiscale Computation-Experiment Study of Advanced Materials with Characteristic Microstructure
Multiscale Computational Tools and AI Integration Using Chocolate as a Frugal Model System in Self-Driving Lab
Multiscale modeling for studying corrosion-induced hydrogen embrittlement in zirconium
Neural network kinetics: exploring diffusion multiplicity and chemical ordering in compositionally complex materials
Pathways to the 7 × 7 Surface Reconstruction of Si(111) Revealed by Machine-Learning Molecular Dynamics Simulations
Peierls-Nabarro Modeling of Dislocations in High Entropy Alloys
Quantifying chemical short-range order in metallic alloys
Realizing high-throughput multi-scale simulations of materials through machine learning
Rethinking materials simulations; blending direct numerical simulations with machine-learning strategies
Revealing the Impact of Hydrogen on Iron: Large-Scale Quantitative Atomistic Analysis with Highly Accurate and Transferrable Machine Learning Interatomic Potentials
Simulation-informed models for amorphous metal mechanical property prediction
Study of Xe binding in Ag-Exchange Chabazite for radio-nuclide absorption.
Surrogate models in first-principles statistical mechanics methods
The connection between atomistic defect clusters and geometrically necessary dislocations in irradiated nanocrystals
UF3: Fast and Interpretable MLIP for High-Performance Molecular Dynamics
Understanding microstructural evolution using graph attention networks

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