EML 5709 - Fluid Mechanics - Spring 1997 Principles With Selected Applications Van Dommelen
CATALOG DESCRIPTION
Introductory conceps,description, and kinematical concepts of fluid
motion, basic field equations, thermodynamics of fluid flow,
Navier-Stokes equations, elements of the effects of friction
and heat flow, unsteady one-dimensional motion, selected
nonlinear steady flows.
CREDIT HOURS
3
PREREQUISITES
EML 5060, EGM 5611, and graduate standing in Mechanical Engineering.
TEXTBOOKS
The following textbooks will be used:
Currie, I. G,
Fundamental Mechanics of Fluids.
McGraw-Hill
Second Edition 1993. ISBN 0-07-015000-1.
Leipmann, H. W, and Roshko, A,
Elements of Gasdynamics.
John Wiley & Sons, 1957.
Karamcheti, Krishnamurty
Principles of Ideal-Fluid Aerodynamics.
Robert E. Krieger Publishing Co, 1980.
INSTRUCTOR
Dr. Leon Van Dommelen (904) 487-6324
dommelen@eng.famu.fsu.edu http://www.eng.famu.fsu.edu/ dommelen
Office: M 10:30-12, T 3-4 (i.e. before the ME seminar)
TA
None.
TIMES
Class: MW 9:00-10:15
2/05/97 Test 1
3/19/97 Test 2
Final: 10-12 noon tuesday 4/22/96 (FAMU schedule) or TBA.
GOALS
Introduce students to the fundamentals of Fluid Mechanics.
COURSE OUTLINE
The course will cover:
Basic Concepts.
Continuum approximation, Lagrangian and Eulerian approaches,
Reynolds transport theorem, constitutive relations,
Newtonian fluids, Fourier law, boundary conditions.
Basic Conservation Laws.
Conservation of mass, momentum, and energy and the second law
in integral and differential forms. Relationships to computational
fluid dynamics.
Flow Kinematics.
Streamlines, streaklines, and path lines; circulation and vorticity;
streamtubes and vortex tubes; kinematics of vortex lines.
Relationship to the interpretation of computed solutions.
Special Forms.
Kelvin's theorem; Bernoulli equation, vorticity equation.
Relationships to viscous/inviscid decompositions, wingtip vortices,
bathtub vortices and computational methods.
Basic Complex Variables.
Basic complex functions, polar forms, roots, conformal mappings,
contour integrals. Relevance to problems in fluid mechanics
and other fields.
Two-Dimensional Potential Flows.
Velocity potential and stream function; complex form;
simple solutions; superposition; circular cylinder with
circulation; Blasius' integral laws; conformal transformations;
flow about ellipses, lift on airfoils.
Viscous Flows.
Couette flow; Poiseuille flow; flow between rotating cylinders;
flow near an impulsively moved surface. Computational issues.
Boundary Layers.
The limit of small viscosity; matched asymptotic expansions;
boundary layer equations; boundary layer along a flat plate;
Karman-Pohlhausen approximation; boundary layer separation;
notes on transition and turbulence.
One-Dimensional Inviscid Compressible Flows.
Shocks and expansion waves; governing equations; compatibility
equations; small perturbation approximation; method of
characteristics.
METHODS OF INSTRUCTION
Lectures, problem solving sessions, examinations.
STUDENT EVALUATION
The course grade will be computed as:
Homework: 25%
Exams: 50%
Final: 25%
Students may not copy homework or tests or allow others to copy their
homework or tests. Violations will result in reduced credit and a
failing final grade.
Homework must be handed in at the start of the lecture at which
it is due. It may not be handed in at the departmental office.
Homework that is not received at the start of class on the due date
listed above cannot be made up unless permission to hand in late has
been given before the homework is due, or it was not humanly
possible to ask for such permission before the class. If there is a
chance you may be late in class, hand the homework in to the
instructor the day before it is due. (Shove it under his door if
necessary.)
Tests will be loosely based on the homework.
Immediately check the dates listed above for any conflicts.
Students are bound by the honor code of their university. It requires
you to uphold academic integrity and combat academic dishonesty.
Please see your student handbook.
COMPUTER REQUIREMENTS
This class requires students to have an E-mail account.
E-mail must be checked daily. Course information will be
distributed through a mailing list; all students will be
entered on this list. Questions to the instructor of a
nonpersonal nature should be send to the mailing list,
instead of directly to the instructor's E-mail address.