Identification

liftdroveMechanics

Oct 24, 2013 (3 years and 7 months ago)

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Identification

Subject

Fluid Mechanics
(
FM
)

(3
KU/6 ECTS credits
)

Department

Petroleum Engineering

Program

Underg
raduate

Term

Spring
, 201
3

Instructor

Nazim Nasibov

E
-
mail:

nazim_nasibov@yahoo
.com

Phone:

(+994 12) 421
-
79
-
16

(ext. )

Classroom/hours

11 Mehseti str.

(Neftchilar campus),
Room #
403
N,
Saturday,

18:30
-
21:
20


Office hours


Prerequisites

Consent of instructor

Language

English
\
Azerbaijan

Compulsory/Elective

Required

Required text
books
and course materials

Core

textbook:

1.
T. Al
-
Shemmeri
,

Engineering Fluid Mechanics ,

20
12

2.
Rjucsh K. Kundu,

Ira M. Cohen, Fluid Mechanics
,
2002


Course website


Course outline

This course is prepared to gain high knowledge
about Fluid

Mechanics
(
FM
)
discipline
.
Reservoir
analysis

is

the main concern of the course. The course combines
theoretical foundations with practical applications. We will begin with a general
overview in each topic and then go into more detail on several concepts.
Fluid
mechanics deals with the flow
of fluids
. I
ts study is important to physicists,
whose
main

interest is
in understanding

ph
e
nomena. The study or fluid mechanics is just as
important to engineers, whose main interest is in the ap
plications
of fluid

mechanics t
o
solve industrial problems.


Course objectives

Generic Objective of the Course:

Fluid mechanics deals with the study of all fluids under static and dynamic situations.

The fluid mechanics study involve many fields that have no clear boundaries

between them. Researchers distinguish betwe
en orderly flow and chaotic flow as the
laminar flow and the turbulent flow

1
st

mid
-
term includes

chapters Notation, Fluid Statics and Internal Fluid Flow

2
nd

mid
-
term includes chapters External Fluid Flow, Compressible Fluid Dynamics and
Hydroelectric Power

Learning outcomes

By the end of the course the students should be able:




Understand Fluid Properties ,

Pascal’s Law, Fluid
-
Static Law,

Pressure
Measurement,

Buoyancy



Understand

Flow Measurement,

Darcy Formula e.t.g


Teaching methods

Lecture

x

Group
discussion

x

Experiential exercise

x

Simulation

x

Case analysis

x

Course paper


Others


Evaluation

Methods

Date/deadlines

Percentage (%)

Midterm Exam


30

Case studies



Class Participation


10

Assignment and
quizzes


20

Project



Presentation/Group
Discussion



Final Exam


40

Others



Total


100

Polic
y



Preparation for class


The structure of this course makes your individual study and preparation outside
the class extremely important. The lecture material will focus on the

major points
introduced in the text. Reading the assigned chapters and having some familiarity
with them before class will greatly assist your understanding of the lecture. After
the lecture, you should study your n
otes and work relevant problems.




With
drawal (pass/fail)


This course strictly follows grading policy of
the School of
Engineering

and
Applied Science
. Thus, a student is normally expected to achieve a mark of at
least 60% to pass. In case of failure, he/she will be required to repeat the co
urse
the following term or year.




Cheating/plagiarism


Cheating or other plagiarism during the Quizzes, Mid
-
term and Final Examinations
will lead to paper cancellation. In this case, the student will automatically get zero
(0), without any considerations
.




Professional behavior guidelines


The students shall behave in the way to create favorable academic and professional
environment during the class hours. Unauthorized discussions and unethical
behavior are strictly prohibited.


Tentative Schedule

Week

Date/Day

(tentative)

Topics

Textbook/Assignments

1


Introduction.

Notation

Fluid Statics



Fluid Properties



Pascal’s Law



Quiz


2


Fluid Statics



Fluid
-
Static Law



Pressure Measurement

Quiz


3


Fluid Statics



Centre of pressure & the Metacentre



Resultant Force and Centre of Pressure on a Curved
Surface in a Static Fluid



Quiz


4


Fluid Statics



Buoyancy



Stability of floating bodies

Quiz



This syllabus is a guide for the course and any modifications to it will be announced in advance.

5


Internal Fluid Flow



Definitions
-

Conservation of Mass



Conservation of Energy



Flow Measurement



Quiz




6


I n t e r n a l F l u i d F l o w



Flow Regimes



Darcy Formula



Quiz


7


I n t e r n a l F l u i d F l o w



The Friction factor and Moody diagram
Conservation
of Energy



Flow Obstruction Losses



Quiz


8



Mi d t e r m Ex a m


9


I n t e r n a l F l u i d F l o w



Fluid Power



Fluid Momentum



Quiz


1
0


Ex t e r n a l F l u i d F l o w



Regimes of External Flow



Drag Coefficient



The Boundary Layer



Quiz


1
1


Co mp r e s s i b l e F l u i d Dy n a mi c s



Compressible flow definitions



Derivation of the Speed of sound in fluids



The Mach number



Quiz



1
2


Co mp r e s s i b l e
F l u i d Dy n a mi c s



Compressibility Factor



Energy equation for frictionless adiabatic gas processes




Stagnation properties of compressible flow



Quiz



1
3


Hydroe le ctric Power




Introduction



Types of hydraulic turbines




Quiz


14


Hydroelectric Power



Performance evaluation of Hydraulic Turbines



Pumped storage hydroelectricity



Quiz


15


Final Exam



TBA