BakerA.
J. (1983). Finite Element
Computational Fluid Mechanics: A Handbook for Educators, Healthcare Professionals, and
Counselors. Bristol, PA: Hemisphere Publishing Corporation.
2.
BakerA. J., RoyS., KelsoR. M. (1994). CFD experiment characterization of arborne
contaminant transport for two practical 3-D room air flow fields. Building and Environment, 29(3), 253–259.
3.
CFDesign. (2000).
Tutorial manual (version 4.1). Charlottesville,
VA: Blue Ridge Numerics,
Inc.
4.
CooperS. (2003). Private communication.
5.
EmmerichS.
J. (1997) Use of
computational fluid dynamics to analyze indoor air quality issues, Building and Fire Research Laboratory, NIST Report NISTIR
5997.
6.
JiangY., ChenQ. (2001). Study of natural ventilation in buildings by large
eddy simulation. Journal of Wind Engineering and Industrial
Aerodynamics, 89, 1155–1178.
KolesnikovA., RyanR., WaltersD. (2002). Use of computational fluid dynamics to optimize
airflow and energy conservation in laboratory hoods. Labs for
the 21st Century EPA Conference, Washington, DC: Environmental Protection Agency.
9.
KolesnikovA., RyanR., WaltersD. (2003). Use of CFD to design containment systems for work
with hazardous materials. Chemical Health and Safety, 10(2), 17–20.
10.
LanN. S., ViswanathanS. (2001). Numerical simulation of airflow around a variable
volume/constant face velocity fume cupboard. American Industrial
Hygiene Association Journal, 62, 303–312.
11.
MemarzadehF. (1996). Methodology for optimization of laboratory hood
containment. volumes I, II. Bethesda,
MD: Division of Engineering Services, Office of Research
Services, National Institutes of Health.
12.
MoraL., GadgilA. J., WurtzE. (2003). Comparing zonal and CFD model predictions of
isothermal indoor airflows to experimental data. Indoor
Air, 13, 77–85.
13.
NielsenP.
V. (1998). The selection
of turbulence models for prediction of room airflow. ASHRAE
Transactions, 104, (Part 1), 1119–1127.
14.
RotaR., NanoG., CanossaL. (2001). Design guidelines for push-pull ventilation systems
through computational fluid dynamics modeling. American
Industrial Hygiene Association Journal, 62, 141–148.
15.
SansoneE. B., LosikoffA. M. (1977). A note on the chemical contamination resulting from
the transfer of solid and liquid materials in hoods. American
Industrial Hygiene Association Journal, 38, 489–491.
16.
WaltersD., RyanR. (May,
2001). Re-engineering ventilation for control of hazardous
materials. American Biotechnology Laboratory, 52–54.
17.
WurtzE., NatafJ., WinkelmannF. (1999). Two- and three-dimensional natural and mixed
convection simulation using modular zonal models in buildings. International Journal of Heat and Mass Transfer, 42, 923–940.
18.
YaghoubiM. A., KnappmillerK. D., KirkpatrickA.
T. (1995).
Three-dimensional numerical simulation of air contamination dispersal in
a room. ASHRAE Transactions, 101(1), 1031–1040.
19.
YangC., DemokritouP., ChenQ. (2000). Ventilation and air quality in indoor ice skating
arenas. ASHRAE Transactions, 106(2), 338–346.
20.
ZhangJ. S., ChristiansonL. L., WuG. J., RiskowskiG. L. (1992). Detailed measurements of room air distribution for
evaluating numerical simulation models. ASHRAE
Transactions, 98(1), 58–65.
21.
ZhangJ. S., WuG. J., ChristiansonL.
L. (1992), Full scale
experimental results on the mean and turbulent behavior of room ventilation
flows. ASHRAE Transactions, 98(2), 307–316.
22.
ZhangW., ChenQ. (2000). Large eddy simulation of natural and mixed
convection airflow indoors with two simple filtered dynamic subgrid scale
models. Numerical Heat Transfer, Part A, 37, 447–463.