School of Nuclear Engineering
Purdue University
West Lafayette, IN 47907-1290
NUCL 350 Nuclear Thermal Hydraulics - I (Fluid
Dynamics)
Fall 2002
Instructor: Professor S. T.
Revankar Office: NUCL 132E, Phone:
496-1782
Office Hours: 9:30 am-10:20 am – Monday,
Wednesday and Friday or by appointment
Class Room: GRIS 276, MWF 8:30-9:20am
Text: "Introduction to Fluid
Mechanics," Fifth Edition, Fox, Robert W. and McDonald, Alan T John Wiley
& Sons Inc. (1998)
Attendance: Since class discussion is a
major course ingredient, regular attendance is mandatory. Attendance record
will be taken into consideration in any borderline grade decisions.
Homework: Homework
will be assigned at least one week in advance and will be due at the beginning
of the Monday class period, unless specified otherwise. All handwritten
homework will be completed on engineering quadrille paper using the attached
sample format. The work must be legible, neat, and in H-B pencil. Be sure that
your name, date, set number, and appropriate page number, in accordance with
the attached format, are included on all sheets. Computer output is acceptable
for programs, numeric output, and graphical results. Homework may be completed
using MATHCAD or other such software. When such tools are used the problem
statement, assumptions, and solution approach should be organized in a manner
similar to the hand written example attached.
Team
Design Project: A
fluid system design problem will be assigned to a each team made of 3-4
students after the second hour exam and each team members will be expected to
orally present and produce a complete engineering report documenting the work
on this project. The format and further instructions for the project will be
provided when the problem is assigned. The report will be due the last day of
class before finals week.
Homework
and the Design Project report will be graded based on neatness and format
(10%), clarity of presentation (20%), correctness of approach (50%), right
answer or reasonable conclusions (20%).
Course Grading: Hour exams (3) 45%
Homework 25%
Design
Project 10%
Final exam 20%
Final Grade Scale: A =
85-100; B = 75-84; C = 65-74; D = 55-64; F < 55
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NOTES
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WORK SOLUTIONS
Introduction
Fundamental Concepts
Fluid Motion, Viscosity
Hydrostatics and Manometry
Force on Submerged Surfaces
Systems and Control Volumes
Control Volume Mass Balance and Examples
Control Volume Momentum Balance
Angular Momentum Principle
Control Volume Energy Balance
Application and Reviews (Reactor Application)
Application of Control Volume Balance to 1-D Systems
1-D Mass and Momentum Balances,
Application and Review
1-D Energy Balances
Kinematics
Momentum Equation
Incompressible Inviscid flow
Pressure and Measurement
Energy and Bernoulli Equations
Dimensional Analysis
Flow Similarity and Scaling
Internal Laminar Flow
Laminar Pipe Flow
Flow in Pipes and Bends and Review
Calculation of Head Lass, Friction Factor
Minor Losses and Non-circular Ducts
Solution of Pipe Flow problem
Flow Measurement
Boundary Layer Introduction (2-D cases)
Fluid Drag
Turbomachinery Analysis
Turbomachinery Performance
Pump Applications and Review
One Dimensional Compressible Flow
Isentropic Flow
Flow with Friction
Introduction to Two-Phase Flow
Applications in Nuclear Safety and Review
School of Nuclear Engineering
Purdue University
West Lafayette, IN 47907-1290
NUCL 350 Nuclear Thermal-Hydraulics I
REFERENCE LIST
Books on Fluid Mechanics:
Basic Texts:
1.
Fox,
Robert W. and McDonald, Alan T., "Introduction to Fluid Mechanics," Fourth
Edition, John Wiley, 1992.
2.
White,
Frank M., "Fluid Mechanics," Third Edition, McGraw-Hill,1994.
3.
Potter
Merle C. and Wiggert David C., "Mechanics of Fluids," Second Edition,
Prentice Hall, 1997.
4.
Bertin
John, J., Engineeing Fluid Mechanics, Second Edition, Prentice Hall, 1987.
5.
Daugherty
Robert L., and Franzini Joseph B., Fluid Mechanics with Engineering
Applications, Seventh Edition, McGraw-Hill Book Co. 1977.
Advanced Texts:
1.
Panton,
Ronald L., "Incompressible Flow," John Wiley, 1984.
2.
White,
Frank M., "Viscous Fluid Flow," McGraw-Hill, Second Edition.
3.
Schlichting,
H., "Boundary Layer Theory," McGraw-Hill, 1960.
Two-Phase Flow
1.
Wallis,
G.B., "One-Dimensional Two-Phase Flow," McGraw-Hill, 1969.
2.
Lahey,
R.T. and Moody, F.J., "The Thermal-Hydraulics of a Boiling Water Nuclear
Reactor," American Nuclear Society, 1977.
3.
Hewitt,
G.F. and Taylor, N.S.H., "Annular Two-Phase Flow," Pergamon Press,
1970.
4.
Delhaye,
J.M., Giot, M., Riethmuller, M.L., "Thermohydraulics of Two-Phase Systems
for Industrial Design and Nuclear Engineering," Hemisphere Publishing Corporation, McGraw-Hill, 1981.
Compressible Flow
1.
Shapiro,
Ascher H., "The Dynamics and Thermodynamics of Compressible Fluid
Flow," Vols. I and I, Ronald Press, 1953.
2.
Zucrow,
M.J. and Hoffman, J.D., "Compressible Flow," Vol. 1, John Wiley, 1976.
Websites:
Pictures
1.
http://www.princeton.edu/~asmits/pow_index.html
2.
http://www-fpc.stanford.edu/CTR/gallery/gallery.html
3.
http://www.Lehigh.EDU/~fluids/tjp3/flowpics.html
CFD
Movie
gallery
1.
http://www.swcp.com/itsc/movies/
2.
http://cfd10.eng.buffalo.edu/gallery.html
MHD-CFD
1.
http://www.ornl.gov/fed/mhd/mhd.html
2.
http://www.engin.umich.edu/research/mhd/mhd_intro.html
Scientific
Journals
1.
http://www.eng.vt.edu/fluids/links/jourlinks.htm