Tracie Lee Durbin, Thomas Sanders, Jr.
This dissertation investigates the dissolution behavior in aluminum alloys, specifically focusing on the mechanisms that govern this phenomenon. The primary objective is to develop a comprehensive model that captures the dynamics of dissolution in these materials, thereby enhancing understanding and control over alloy performance. Methodologically, the study employs a combination of computational simulations and theoretical analysis to explore how various factors, such as temperature and alloy composition, influence dissolution rates. Results indicate a strong correlation between the alloying elements and the kinetics of dissolution, revealing critical insights into the microstructural changes that occur during alloy processing. The model developed provides a robust framework for predicting dissolution behavior under varying environmental conditions and can be utilized to optimize alloy formulations in future applications. This work contributes significantly to the field of mechanical engineering by offering valuable data that can inform both academic research and industrial practices in the development of aluminum alloys.
@article{76041676-c630-48c5-9889-ec10377db494,
title={Modeling Dissolution in Aluminum Alloys},
author={Tracie Lee Durbin and Thomas Sanders and Jr.},
year={2005},
language={English}
}TY - JOUR TI - Modeling Dissolution in Aluminum Alloys AU - Tracie Lee Durbin AU - Thomas Sanders AU - Jr. PY - 2005 LA - English ER -
Avala Lava Kumar
This document provides a comprehensive overview of the course on Physical Metallurgy, aimed at equipping students with a systematic introduction to th
Avala Lava Kumar
The course on Physical Metallurgy aims to provide students with a comprehensive introduction to the fundamental principles governing the behavior and
Zhihua ZHU
Application prospects in the automotive industry have led to increasing interests in the studies on Al-Mg-Cu-Si alloys. In this PhD thesis, nine Al-(1
Wei Hu
This thesis presents a data-driven approach to the design of high strength low alloy (HSLA) steel, focusing on metallurgical properties and modeling t
Wei Hu, Krishna Rajan
This thesis explores data-driven methodologies for metallurgical design aimed at enhancing the performance of high strength low alloy (HSLA) steels. T
G. Dieter
This lecture covers the principles of mechanical metallurgy focusing on the mechanisms of cold working and annealing in materials. The objective is to