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Meeting MS&T23: Materials Science & Technology
Symposium Materials Processing and Fundamental Understanding Based on Machine Learning and Data Informatics
Presentation Title B-2: Simple Data Analytics Approach Coupled with Physics-based Model for Improved Prediction of Creep Rupture Life
Author(s) Taejoo Lee, Yoon Suk Choi, Chang Ho Lee
On-Site Speaker (Planned) Taejoo Lee
Abstract Scope Creep rupture life is important parameter for high-temperature materials like heat resistant steel and Ni-based superalloy. Therefore, various physics-based and empirical models were developed. Recently, there are also increasing cases of using machine learning models to predict creep rupture life. However, machine learning models are not suitable for small or non-uniform dataset. The proposed approach involves linear regression with four features as a major algorithm that exhibited superior creep rupture life prediction. In particular, the approach was useful to assess the fidelity of the Laron-Miller relation for a given creep rupture life dataset and to find an optimum Larson-Miller constant that minimizes a deviation from the ideal Larson-Miller relation. An analytical model was also developed based on curve fitting of Larson-Miller parameters calibrated by the optimum Larson-Miller constant. The proposed analytical model gave additional improvement in creep rupture life prediction.

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

Accurate Prediction of Oxygen Vacancy Concentration with Disordered A-site Cations in High-entropy Perovskite Oxides
AI/ML Aided Drug Biomolecule and Materials Design
Autonomous Learning of Phase Trajectories via Physics-inspired Graph Neural Networks
B-1: Multi-objective Optimization for Improving Mechanical Properties of Aluminum Alloys: A Data Analytics Approach with Machine Learning and Genetic Algorithms
B-2: Simple Data Analytics Approach Coupled with Physics-based Model for Improved Prediction of Creep Rupture Life
Computing Grain Boundary "Phase" Diagrams: From Thermodynamic Models and Atomistic Simulations to Machine Learning
Development of Machine Learning Interatomic Potentials to Model Materials Processing & Performance in Multicomponent Systems
High-throughput, Ultra-fast Laser Fabrication of Alumina sample arrays and Deep-learning Based Prediction of Realistic Alumina Microstructure from Hardness
Machine Learning-assisted Exploration of the Chemistry-processing Design Space Under Additive Manufacturing: Application to an FCC HEA Space
Machine Learning-based Prediction of the Mechanical Properties of Microalloyed Steel Subjected to Thermomechanical Controlled Processing
Machine Learning for Phase Prediction of High-entropy Alloys Assisted by Imbalance Learning
Online Mechanical Properties Control for Steel Coils Using Machine Learning Model
Optical and Photothermal Property Prediction of Gold Nanoparticle/polymer Hybrid Films Through Machine Learning and Finite Element Modeling
Optimizing Heat Treatment Routes for Ni-based Alloys Using Monte Carlo Tree Search
Physics-informed Machine Learning for Crystal Plasticity Model Calibration of Ti-7Al Alloy
Prediction of the Mechanical Response of Zirconia-reinforced Metal-matrix Composite Using Deep Learning Approaches
Process Cycle Modeling with AI
Representation, Regeneration and Prediction of Microstructure in Additive Friction Stirring via Deep Regeneration Neural Network

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