Module description

Unique module number	ETechn-9310-M
Module number / code	P-UM-02
Module name	Energy and Thermodynamics Basics 2
Type of module	Compulsory module
Learning outcomes, acquired competencies and qualification goals	After the successful participation in the course Fluid Mechanics Fundamentals the students: measure the pressure and the velocity calculate hydrostatic strength determine the velocity profiles (in a pipe and inside the boundary layer) and determine the friction forces
Course types	VLmP+Ü (4 SWS)
Content	Students know fluid specifications, dimensions and units; the basic law of the hydrostatic; the applications (pressure variation, measuring pressure, hydrostatic force on a surface); fluid kinematics; dynamics of perfect incompressible fluids (Bernoulli equation, applications e.g. speed measurement); Euler theorem; dynamic of real incompressible fluids (Couette experience, laminar viscous flow, Poiseuille flow); concept of loss and singular linear load; boundary layer (concept of the boundary layer, local and global equations of the boundary layer, characteristics of the boundary layer, accurate and approximate solutions of the boundary layer); similitude and dimensional analysis; dynamics of elastic fluids (unidirectional flow); shockwave.
Title of courses	Fluid Mechanics Fundamentals
Teaching and learning methods	lecture, exercise
Usabilitiy in other programs
Duration	1 Semester
Frequency of module offer	annually in winter semester
Teaching language	English
Recommended (knowledge) prerequisites
Required prerequisites for participation	none
Student workload	120 hours (60 h course attendance; 60 h self-study)
Required course work	none
Prerequisites for examination(s)	none
Module examination(s)	midterm assignments (1/3), final written exam (90 min) (2/3)
Credit points (ECTS)	4 cp
Teaching unit	Elektrotechnik
Responsible person	Prof. El Alimi
Lecturer(s)	Abdelmajid JEMNI
Media used	black board and beamer, lectures and presentations, problem based teaching, experimental measurements, use of simple computer programs
Recommended literature	Yunus Cengel, John Cimbala, Fluid Mechanics Fundamentals and Applications, McGraw-Hill Higher Education.

Unique module number

ETechn-9310-M

Module number / code

P-UM-02

Module name

Energy and Thermodynamics Basics 2

Type of module

Compulsory module

Learning outcomes, acquired competencies and qualification goals

After the successful participation in the course Fluid Mechanics Fundamentals the students:

measure the pressure and the velocity
calculate hydrostatic strength
determine the velocity profiles (in a pipe and inside the boundary layer) and determine the friction forces

Course types

VLmP+Ü (4 SWS)

Content

Students know fluid specifications, dimensions and units; the basic law of the hydrostatic; the applications (pressure variation, measuring pressure, hydrostatic force on a surface); fluid kinematics; dynamics of perfect incompressible fluids (Bernoulli equation, applications e.g. speed measurement); Euler theorem; dynamic of real incompressible fluids (Couette experience, laminar viscous flow, Poiseuille flow); concept of loss and singular linear load; boundary layer (concept of the boundary layer, local and global equations of the boundary layer, characteristics of the boundary layer, accurate and approximate solutions of the boundary layer); similitude and dimensional analysis; dynamics of elastic fluids (unidirectional flow); shockwave.

Title of courses

Fluid Mechanics Fundamentals

Teaching and learning methods

lecture, exercise

Usabilitiy in other programs

Duration

1 Semester

Frequency of module offer

annually in winter semester

Teaching language

English

Recommended (knowledge) prerequisites

Required prerequisites for participation

none

Student workload

120 hours (60 h course attendance; 60 h self-study)

Required course work

none

Prerequisites for examination(s)

none

Module examination(s)

midterm assignments (1/3), final written exam (90 min) (2/3)

Credit points (ECTS)

4 cp

Teaching unit

Elektrotechnik

Responsible person

Prof. El Alimi

Lecturer(s)

Abdelmajid JEMNI

Media used

black board and beamer, lectures and presentations, problem based teaching, experimental measurements, use of simple computer programs

Recommended literature

Yunus Cengel, John Cimbala, Fluid Mechanics Fundamentals and Applications, McGraw-Hill Higher Education.