Characterization and Modeling of Microstructuctural Stresses in Alumina.
Abstract not provided.
Teague, Melissa Christine↗
Engineering topics
Rodgers, Theron
Publications and source records attributed to Rodgers, Theron.
Advanced Model Predictions of Mechanical Properties and Process Parameter Effects in High Throughput L-PBF Tension Specimens.
Abstract not provided.
Johnson, Kyle↗
Powder Bed Modeling Big and Small: Simulating Microstructural Evolution from a Single Bead to (Closer to) the Part Scale.
Abstract not provided.
Rodgers, Theron↗
Using additive manufacturing as a pathway to change the qualification paradigm.
Abstract not provided.
Roach, Robert Allen↗
Predicting Baseplate Preheating Effects on Residual Stress and Microstructure in LENS Parts.
Abstract not provided.
Johnson, Kyle↗
Monte Carlo Simulation of Polycrystalline Additive Manufacturing Microstructures.
Abstract not provided.
Rodgers, Theron↗
Changing the Engineering Design & Qualification Paradigm in Component Design & Manufacturing (Born Qualified).
Abstract not provided.
Roach, Robert Allen↗
Toward Validated Multiscale Multiphysics Modeling for Additive Manufacturing Processes.
Abstract not provided.
Lefantzi, Sophia↗
Modeling the multiscale mechanical performance of additively manufactured components using multigrid concepts.
Abstract not provided.
Bishop, Joseph E.↗
Direct Numerical Simulation of Mechanical Response in Synthetic Additive Manufacturing Microstructures.
Abstract not provided.
Rodgers, Theron↗
Quantifying the Impact of Microstructure Variability and Local Micro-Textures on Mechanical Performance of Additively Manufactured Metals.
Abstract not provided.
Brown, Judith Alice↗
Multi Scale Solid Mechanics Models of Additive Manufacturing.
Abstract not provided.
Ford, Kurtis Ross↗
Simulating Microstructural Evolution during Metal Additive Manufacturing.
Abstract not provided.
Rodgers, Theron↗
Characterization and modeling of microstructural stresses in alumina
Brittle failure is often influenced by difficult to measure and variable microstructure–scale stresses. Recent advances in photoluminescence spectroscopy (PLS), including improved confocal laser measurement and rapid spectroscopic data collection have established the potential to map stresses with microscale spatial resolution (< 2 μm). Advanced PLS was successfully used to investigate both residual and externally applied stresses in polycrystalline alumina at the microstructure scale. The measured average stresses matched those estimated from beam theory to within one standard deviation, validating the technique. Modeling the residual stresses within the microstructure produced qualitative agreement in comparison with the experimentally measured results. In conclusion, microstructure scale modeling is primed to take advantage of advanced PLS to enable its refinement and validation, eventually enabling microstructure modeling to become a predictive tool for brittle materials.
36 MATERIALS SCIENCE↗
Predicting Residual Stress and Microstructural Equiaxed-to-Columnar Grain Transition in 304L Stainless Steel LENS Parts.
Abstract not provided.
Johnson, Kyle↗
Incorporating Texture Models in Monte Carlo Simulations of Solidification.
Abstract not provided.
Rodgers, Theron↗
Characterization and Modeling of Microstructural level Stresses in Brittle Materials.
Abstract not provided.
Teague, Melissa Christine↗