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Meeting MS&T26: Materials Science & Technology
Symposium Uncertainty Quantification in Ultra-High Temperature Materials Manufacturing
Presentation Title Data to Discovery: A Closed-Loop Ecosystem for Designing Compositionally Complex Alloys
Author(s) Shun-Li Shang, Adam Krajewski, Ricardo Amaral, Li-Cheng Hsiao, Wesley Reinhart, Zi-Kui Liu
On-Site Speaker (Planned) Shun-Li Shang
Abstract Scope The ULTERA (ultera.org) data ecosystem accelerates the discovery of ULtrahigh-TEmperature Refractory Alloys through four live, tightly coupled, database-driven loops: distributed, version-controlled data ingestion and curation from almost 1000 publications, rapid predictive ML modeling, cGAN inverse design, and advanced experimental manufacturing for validation. Here, we demonstrate ULTERA’s robust capabilities across data quality control and materials discovery. The platform successfully models ductile refractory alloys using DFT-based data, predicts mechanical properties by extracting natural language-derived descriptors for processing conditions, and implements a novel approach to graph-based eutectic refractory alloys exploration using nimplex. Other key achievements include automated anomaly detection via PyQAlloy and compositional scope optimization via nimCSO. Furthermore, we highlight the ongoing advancements in inverse design powered by a thermodynamics-inspired Zentropy-Enhanced Neural Network (ZENN) models. By unifying automated curation, multi-scale modeling, and AI-driven optimization, ULTERA provides a comprehensive, closed-loop framework to overcome the complex challenges of designing structural materials for extreme environments.

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

Autonomous Materials Characterization Through Simulation to Experiment Analysis with Continual Deep Learning
Bayesian Design of Experiments for Calphad Modeling
Computational Tools for Predicting High-Temperature Materials Properties via DFT, MD, and Deep Learning
Data to Discovery: A Closed-Loop Ecosystem for Designing Compositionally Complex Alloys
End-to-End Machine Learning for Creep Modeling: Data Processing, Parameter Learning, and Uncertainty Analysis
From Design to Melt: Rare Earth Retention in Ni-Based Superalloys
From Dirty Processing to Enhanced Performance: Hidden Variables for Strength Consistency in UHTCs
Generalization of a Crystal Plasticity Model from Grade 91 to Grade 92 Steel: A Coupled High-Throughput Constitutive Model and Data-Driven Analysis Approach
MXene and Polymer Derived TiC–SiC Ceramics with Enhanced Electrical Conductivity and Tailored Thermal–Mechanical Performance for High-Temperature Applications
UHTM and the Materials R&D Landscape
Uncertainty-Guided Experimental Determination of Phase Diagrams
Uncertainty Quantification of In-Situ Densification of Polymer-Derived Ceramics
Uncertainty Quantification via Deep Kernel Learning on Synchrotron Diffraction Patterns

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