Document Type
Annual Report
Publication Date
2004
Publisher
University of Nevada, Las Vegas
Publisher Location
Las Vegas (Nev.)
First page number:
14
Last page number:
15
Abstract
The corrosion of structural materials is a major concern for the use of lead-bismuth eutectic (LBE) systems for nuclear applications such as in transmuter targets or fast reactors. Corrosion in liquid metal systems can occur through various processes, including, for example, dissolution, formation of inter-metallic compounds at the interface, and penetration of liquid metal along grain boundaries. Predicting the rate of these processes depends on numerous system operational factors: temperature, system geometry, thermal gradients, solid and liquid compositions, and velocity of the liquid metal, to name a few. Corrosion, along with mechanical and/or hydraulic factors, often contributes to component failure.
There are two subtasks to this research. The first subtask develops the necessary tools to predict the levels of oxygen and corrosion products close to the boundary layer using Computational Fluid Dynamics (CFD) modeling. The second subtask predicts the corrosion process kinetics between the LBE and structural materials by incorporating pertinent information from the first subtask.
Keywords
Chemical kinetics; Cavitation erosion; Computational fluid dynamics; Corrosion and anti-corrosives; Eutectic alloys; Hydrodynamics; Lead-bismuth alloys; Lead-bismuth eutectic; Metals — Oxidation; Nuclear reactors — Materials — Testing; Oxygen; Steel — Corrosion
Controlled Subject
Chemical kinetics; Computational fluid dynamics; Steel--Corrosion
Disciplines
Materials Chemistry | Materials Science and Engineering | Metallurgy | Nuclear Engineering | Oil, Gas, and Energy
File Format
File Size
130 KB
Language
English
Rights
IN COPYRIGHT. For more information about this rights statement, please visit http://rightsstatements.org/vocab/InC/1.0/
Repository Citation
Moujaes, S.,
Chen, Y.
(2004).
Modeling Corrosion in Oxygen Controlled LBE Systems with Coupling of Chemical Kinetics and Hydrodynamics.
14-15.
Available at:
https://digitalscholarship.unlv.edu/hrc_trp_sciences_materials/73
Included in
Materials Chemistry Commons, Metallurgy Commons, Nuclear Engineering Commons, Oil, Gas, and Energy Commons
Comments
Publication date uncertain; circa 2004 to 2005.