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Meeting 2025 TMS Annual Meeting & Exhibition
Symposium Materials Aging and Compatibility: Experimental and Computational Approaches to Enable Lifetime Predictions
Presentation Title Predicting Electrochemical Responses Using Machine Learning
Author(s) Matthew Roop, David Montes de Oca Zapiain, Aditya Venkatraman, Sam Moran, Rebecca Schaller, Ryan Katona
On-Site Speaker (Planned) Matthew Roop
Abstract Scope The electrochemical response of metals can be ascertained through various methods. Potentiodynamic polarizations provide electrochemical behavior of a metal in an electrolyte solution. Polarization curves are generated through physical experiments which can be costly. Machine Learning (ML) was used to predict polarization curves from metal and electrolyte properties without conducting physical experiments, saving time and resources. However, there is no suitable repositories for holding polarization curves properly that is easily accessible to ML. To solve this issue, a database has been constructed using python specifically for storing electrochemical data and extracted properties. This database, however, is sparse. The database uses ML to identify experimental conditions so that minimal scans need to be obtained through physical experiments to produce a satisfactory model able to predict electrochemical materials’ performance. Acknowledgements SNL is managed and operated by NTESS under DOE NNSA contract DE-NA0003525. SAND2024-08538A
Proceedings Inclusion? Planned:
Keywords Computational Materials Science & Engineering, Machine Learning,

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

A Mean-field Approach for High-temperature Shape Memory Alloys
Accelerated Aging and Lifetime Performance Predictions of Silicone Cushions Under Compression
Accelerated aging of aluminum alloys for long-term predictions of corrosion under atmospheric conditions of temperature and relative humidity
Accelerated oxidation of epoxy thermosets with increased O2 pressure
Accelerating Compatibility Assessments through Adoption of Selected-Ion Flow-Tube Mass Spectrometry (SIFT-MS)
Accelerating Computational Calculations of Galvanic Corrosion using Machine Learning
Bimodal Microstructure Modeling due to Non-Isothermal Loading in Ni-based Single-crystal Superalloys via Phase-field Method
Characterization of localized oxidation in tantalum and cracking susceptibility at high temperatures using Auger Electron Spectroscopy
Characterization of Long Term Service Effect on Turbine Blade Alloy
Environmentally assisted corrosion testing of 7xxx series aluminum to create an SCC susceptibility profile for temperature, humidity, and stress through accelerated testing.
High-throughput Creep Characterization for Use in Accelerated Aging Prediction
Impacts of aging additively manufactured silicone polymers in the presence of organic solvents
Kinetic assessments of TATB formulations after mild thermal aging
Materials Compatibility Testing and Assessment for Materials Reliability
Mechanical Performance, Aging, and Compatibility of Additive Manufactured Silicone Elastomers
Modeling Corrosion: Efficient Models and Validation for Long Term Degradation
Predicting compatibility and aging at the system-level with a Reaction, Sorption, Transport, and chemo-mechanics (ReSorT-M) model
Predicting Electrochemical Responses Using Machine Learning
Predicting Photo-Oxidative Embrittlement of a Semicrystalline Thermoplastic from Micromechanical Damage
Probing Bulk Mechanical Properties of Silicones Over the Course of Long-term Compressive Strain
Research on Shape Optimization of Work Roll in Hot Rolling
Strain-Controlled High-Cycle Fatigue of Aged Solder Joints for High-Reliability Environments
Towards High Throughput Materials Advancement: Thinking About Database Management in Our Studying-Polymers-on-a-Chip (SPOC) Platform

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