Simulation of Heat, Mass, and Momentum Transfer Within Building Interiors
Document Type
Conference Proceeding
Publication Date
7-17-2005
Publication Title
2005 ASME Summer Heat Transfer Conference
Publisher
American Society of Mechanical Engineers
First page number:
859
Last page number:
864
Abstract
An hp finite element-based model has been developed to calculate heat, mass, and momentum transfer within rooms and building interiors. The hp-adaptive methodology is based on both mesh enrichment (h-adaptation) and spectral order incensement (p-adaptation) in an effort to produce accurate results with the least computational cost. A Lagrangian Particle Transport (LPT) technique is coupled with the adaptive scheme to simulate mass transport. The model is particularly amenable for depicting the transport of contaminants associated with indoor air quality. The hp-adaptive algorithm is validated using natural convection in a square enclosure. The model is subsequently applied to the simulation of momentum, heat, and mass transport within building interiors: air and temperature distribution patterns are presented along with potential pathways of a powder dispersing within an office.
Keywords
Heat; Heat – Transmission; Indoor air quality; Mass transfer; Momentum; Momentum transfer; Pollutants; Simulation
Disciplines
Fluid Dynamics | Heat Transfer, Combustion | Mechanical Engineering
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
Wang, X.,
Pepper, D. W.
(2005).
Simulation of Heat, Mass, and Momentum Transfer Within Building Interiors.
2005 ASME Summer Heat Transfer Conference
859-864.
American Society of Mechanical Engineers.
Comments
ASME 2005 Summer Heat Transfer Conference, San Francisco, California, USA, July 17–22, 2005