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ME
326: Intermediate Fluid Mechanics
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Syllabus 
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Course Specifications
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Textbook:
Fluid Mechanics, 3rd
and 4th Eds., Cengel and Cimbala,
(ISBN-978-0-07-338032-2)
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Instructor:
Goodarz
Ahmadi (CAMP 267,
268-2322)
Office
Hours: Monday and Wednesday 12:30
- 3:30 p.m.
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Teaching
Assistant: Abbas Khanmohamdi khanmoa@clarkson.edu
(CAMP 275) Office
Hours: Friday 1:00-2:30
Teaching
Assistant: Seyi
Oluwadare oluwadsr@clarkson.edu
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Course
Site: http://webspace.clarkson.edu/projects/fluidflow/courses/me326/index.html
https://sites.clarkson.edu/gahmadi/courses/me-326-intermediate-fluid-mechanics/
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Prerequisites: ES330,
MA 212
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Course Learning
Objectives
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- Students to learn
the fundamentals of viscous incompressible flows.
- Students to learn
the basics of non-viscous potential flows.
- Students to learn
the fundamentals of computational fluid mechanics.
- Students to learn
the fundamentals of compressible flows.
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Course Learning
Outcomes
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Objective 1:
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- Students will be
able to formulate and solve incompressible laminar flows for simple
parallel flows in Cartesian and polar coordinates.
- Students will be
able to analyze boundary layer flows over a flat plate.
- Students will be
able to estimate drag forces in laminar and turbulent flows for
different immersed bodies.
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Objective 2:
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- Students will
become familiar with the stream function, potential functions and
elementary potential flows.
- Students will be
able to handle simple potential flow by the method of
superposition.
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Objective 3:
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- Students will
become familiar with computational fluid mechanics.
- Students will
demonstrate using the FLUENT Code for solving two-dimensional laminar
and turbulent flows.
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Objective 4:
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- Students will be
able to analyze one-dimensional isentropic compressible flows.
- Students will be
able to handle one-dimensional flows with shock waves.
- Students will be
able to handle one-dimensional compressible flows with friction.
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Course
Outline
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Dates |
Text Sections |
Topic |
Homework |
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1. Jan. 11-12 |
4.1 |
Applications,
Review
of
ES 330 |
-- |
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2. Jan. 15-19 |
9.1,2,4 |
Review
of Differential Eqs.,
Balance
Laws, Viscous
Flows |
HW-1.
4.19, 9.28,30,31,34,36,38 |
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3. Jan. 22-26 |
9.4,5,6 |
Navier
Stokes Equation,
Viscous Parallel flows |
HW-2.
9.86,87,89,91,95 |
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4. Jan. 29-
Feb. 2 |
9.6 |
Exact
Solutions,
Aproximate
Solutions |
HW-3.
9.96,101,102, 103,104 |
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5. Feb. 5-9 |
10.6 |
Boundary
Layer, Introduction
to CFD |
HW-4.
10.99,100,102, 114,115,116 |
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6. Feb. 12-16 |
10.6, 11.1-4 |
Boundary
Layer, Turbulent
Boundary Layer,
Introduction to CFD |
HW-5.
11.51,65,99,106 |
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7.
Feb. 19-21 |
11.1-4 |
Immersed
Bodies,
Drag
forces |
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Feb.
22-23
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Feb.
Recess
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8. Feb. 26-
Mar. 1
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9.3, 10.2-4 |
Stream
Function, Inviscid
Flows
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HW-6.
10.56,59,60,66,71 |
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Friday,
Mar. 1
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Exam
1
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CAMP
177, 178 (4:00-5:15 pm)
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9. Mar. 4-8 |
10.5 |
Inviscid
Irrotational Flows |
HW-7.
Assigned
Problems |
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10. Mar. 11-15
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12.1-3
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Acoustic
Waves, Isentropic Flows |
HW-8.
12.7,9,25,26,27 |
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11.
Mar. 18-22 |
Spring
Recess |
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12. Mar. 25-29
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12.3 |
Isentropic
Flows,
CFD |
HW-9.
12.38,40,45,48,50 |
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Friday, Mar. 29
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Exam 2
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CAMP
177, 178 (4:00-5:15 pm)
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13. Apr. 1-5 |
12.4 |
Normal
Shock, Nozzles, CFD
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HW-10.
12.62,63,65,66, 69,70 |
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14. Apr. 8-12 |
12.5,6 |
Flows
with Heat Transfer |
HW-11.
12.87,88,93,
95
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15. Apr. 15-19 |
12.6 |
Flows
with Friction
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HW-12.
12.105,106,107,
109,114
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16. Apr. 22-26 |
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Review |
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Final
Week |
Final
Exam |
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Evaluation Methods
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- Homework and quizzes
10%
- Exam 1 25%
Friday, March 1, CAMP
177, 178, 4:00-5:15
pm
- Exam 2 20%
Friday, March 29, CAMP
177,
178, 4:00-5:15 pm
- Projects 15%
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Course Description
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ME 326 Intermediate Fluid
Mechanics R-3, C-3.
Prerequisites: ES 330 (Fluid Mechanics), ES 340
(Thermodynamics), MA 232 (Differential Equations).
A continuation of ES 330.
Topics include: deformation and stress in
fluids; basic conservation laws; kinematics of fluid flow; theory of
potential flow; introduction to compressible flows; isentropic flows
and shock waves; compressible flows with friction and heat transfer; Navier-Stokes equation and theory of viscous
flow; low Reynolds number flows with applications to hydrodynamic
lubrication; laminar boundary layer theory and von Karman
momentum integral method; introduction to computational fluid dynamics;
applications of fluid mechanics to engineering problems including turbomachinery. Introduction to design
concepts.
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Exam & Homework
Policies
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Exam Policy
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Hourly Exams will be closed book and formula
sheets will be provided in the hourly exam sheets.
The final exam will be an open book. The students
are permitted to bring their textbook to the final
exam. Notes and homework solutions are not allowed.
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Homework Policy
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Homework must be submitted in pdf form
to Moodle on due date. Homework will be graded
and posted on Moodle.
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