Heat Transfer Analysis of Nuclear Waste Casks Stored in the Yucca Mountain Repository
Document Type
Article
Publication Date
2005
Publication Title
Numerical Heat Transfer; Part A: Applications
Volume
47
Issue
7
First page number:
671
Last page number:
690
Abstract
A numerical model of the residual heat associated with stored nuclear waste casks proposed for long-term storage in Yucca Mountain has been developed. The Yucca Mountain Repository, located about 100 miles from Las Vegas, NV, is the proposed long-term geologic repository for high-level nuclear waste. STAR-CD, one of several commercial computational fluid dynamics packages being used for the assessment studies, was used to establish the numerical model. The model was developed to simulate the fluid flow and heat transfer within the drift tunnels generated by the waste casks over a 10,000-year time cycle. The model shows that the heat generated from within the casks is partially removed by ventilating air moving through the drifts and conduction through the drift walls. Thermal radiation was found to have little effect on overall cooling compared to the roles of natural convection adjacent to the casks and forced convection from the drift ventilation.
Keywords
Engineering & Technology; Fluid Mechanics; Heat – Transmission; Heat Transfer; Mathematical models; Mechanical Engineering; Nevada – Yucca Mountain; Radioactive waste canisters
Disciplines
Aerodynamics and Fluid Mechanics | Engineering | Heat Transfer, Combustion | Mechanical Engineering | Nuclear Engineering | Oil, Gas, and Energy
Language
English
Permissions
Use Find in Your Library, contact the author, or interlibrary loan to garner a copy of the item. Publisher policy does not allow archiving the final published version. If a post-print (author's peer-reviewed manuscript) is allowed and available, or publisher policy changes, the item will be deposited.
Repository Citation
Pepper, D.,
Chen, Y.
(2005).
Heat Transfer Analysis of Nuclear Waste Casks Stored in the Yucca Mountain Repository.
Numerical Heat Transfer; Part A: Applications, 47(7),
671-690.