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Meeting 2026 TMS Annual Meeting & Exhibition
Symposium Artificial Intelligence Applications in Integrated Computational Materials Engineering (AI-ICME)
Presentation Title Reward Engineering in AI-Driven Materials Discovery and Design
Author(s) Raymundo Arroyave
On-Site Speaker (Planned) Raymundo Arroyave
Abstract Scope AI–driven experimentation can fulfill ICME’s promise only when algorithms receive clear signals about what progress looks like, and those signals are encoded as rigorously engineered rewards. In this talk I will trace the emerging landscape of reward engineering for materials discovery, beginning with performance-oriented metrics that convert materials property/performance targets into actionable optimization objectives. I will then pivot to knowledge-oriented rewards—quantifiers of uncertainty reduction, entropy minimization and design-space coverage—that prevent premature convergence and turn exploration itself into a measurable benefit. Building on these foundations, I will introduce meta-reward learning, where a higher-level agent dynamically reshapes the reward landscape in response to evolving data, continuously re-balancing exploration and exploitation. Finally, I will discuss how these ideas extend to the multi-agent, self-driving laboratories now emerging: planners, simulators and robotic experimenters negotiate shared or role-specific incentives so that individual actions collectively advance both material performance and scientific understanding, enabling truly autonomous, knowledge-centric ICME.
Proceedings Inclusion? Planned:
Keywords ICME, Machine Learning, Modeling and Simulation

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

AI Augmented Molecular Dynamics Modeling of Novel Zeolite Nano Resins for Targeted Advanced Water Treatment
AI for Alloy Design in Extreme Environments
AlloyGPT 2.0: Develop A Self-Adaptive Multi-Agent Autonomous Framework for Additive Manufacturable Alloy Design
An Extensible, Data-Driven Platform for Automated Atomic Structure Analysis
Analyzing Microstructural Interactions in Materials Using Explainable Neural Networks
Artificial Intelligence for Additive Manufacturing
Automated Implementation of Axiomatic Design for Materials System Chart Using Large Language Models
Autonomous Fractography Analysis Framework Driven by Large Language Models
Blacksmithing AI: Using a Large Language Model to Predict Workpiece Shapes and Manufacturing Operations for Automated Manufacturing
Breaking Boundaries: Texture-Aware AI for Metallography
Data-Driven Design of Two-Phase Metallic Spinodoids for Thermomechanical Properties
Development of Machine Learning Interatomic Potentials for Ni-Al-Ti Systems to Study γ/γ' Phase Properties in Superalloys
From CALPHAD to AI: High-Throughput Pathways for Functionally Graded Alloy Design and Additive Manufacturing
Generative AI–Driven Process–Structure–Property Optimization for Materials Discovery
Graph Neural Network-Based Forecasting of Atomic Dynamics at Grain Boundaries
H-13: Establishing a Large Language Model-based Systematic Alloy Design Strategy for Advanced Titanium Alloys
H-14: Ionic Transport Properties and Phase Stability of Solid Electrolyte Material Li7La3Zr2O12: A Deep-Neural-Network Molecular Dynamics Investigation
H-15: Machine-Learned Force Field for the Energetic Molecular Crystal LLM-105
Harnessing AI for Prediction of Abnormal Grain Growth Using 3D Experimental Data
Integrating Microstructural, Diffraction, and Compositional Data for Predictive Materials Modeling
Large Language Model Agents for Atomistic Simulation Workflows
Leveraging Large Language Models for Inverse Design of Processing Parameters in Materials Engineering
Machine Learning-Augmented Finite Volume Modeling and Inverse Optimization of Velocity and Pressure Distribution of Bentonite Slurry in Slurry Shield Tunneling Applications
Machine Learning Prediction of Antioxidant Additive Performance from Atomistic Simulations
ML-Accelerated ICME Framework for Solid Phase Processing of Nuclear Cladding Materials
Physics-Constrained Neural Network for Increased Generalizability in Predicting Material Microstructure Evolution
Physics-Informed Neural–Cellular Framework for Predicting Grain Morphology and Microstructural Evolution in Metal Additive Manufacturing Simulation
Quantifying Relationship Between Creep and Microstructure of Metals Using Symbolic Regression
Reward Engineering in AI-Driven Materials Discovery and Design
Robust Physics-Informed Neural Networks for Modeling Oxide Film Growth in Corrosion Science
Toward an Interactive AI-Enabled Platform for Critical Materials Reduction: From Forecasting to Processing
Toward DFT-Accurate Modeling of HfNbTaTiZr High Entropy Alloy Using Moment Tensor Potential
Using Agentic AI Programming Tools for ICME Code Development

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