EL3001 Engineering Electromagnetics I
Kredit :
Semester :
Kode Kuliah
KBK/Bidang Keahlian:
Sifat:
EL3001
3 SKS
5
Teknik Elektro
Wajib
Kuliah
Sifat kuliah
MK Dasar Engineering
Kelompok Kuliah
Course Title (Indonesian) Medan Elektromagnetik I
Nama Matakuliah
Engineering Electromagnetics I
Course Title (English)
Nama Matakuliah
Vector analysis, line and area integral, electric-field and magnetic-field
Short Description
concepts, Maxwell's Law, flat wave, electromagnetics materials, bond limits,
Silabus ringkas
Poynting vector, static electromagnetics.
The course explains the electromagnetics phenomenon and its basic laws,
Goals
analitically or by experiments
Tujuan Instruksional
Umum (TIU)
Dept/PS: EL / EL, EC, EP, ET
Fak: FTI
ITB
Offered To(PS Peserta)
1. MA2107 Matematika Teknik I
Prerequisit
Related Courses
2. MA2108 Matematika Teknik II
Prerequisit
3. EL2003 Rangkaian Elektrik
Prerequisit
Knowledge = 76 %
Facility/
x White board
Percentage
Skill = 9 %
Media
LCD/Infocus
Attitude = 15 %
Computer (lab)
Course (kuliah) = 3
courseware
Activity (hour/week)
Tutorial (Responsi)= 1
e-learning
Lab Works (Prakt)= 0
x Others.
(OHP)
Others = 0
UTS = 25 %
Assessment/Penilaian
UAS = 45 %
Tugas = 5 %
Others:…TEST 25 %
1. M. F. Iskander, Electromagnetics Fields & Waves, Prentice Hall Inc., 1992,
References/Bibliography
ISBN 0-13-249780-8.
2. S. V. Marshall and G.G. Skitek, Electromagnetic Concept & Applications,
Prentice Hall Inc., 1990, ISBN 0-13-247842-0.
3. D.K. Cheng, Fundamentals of Engineering Electromagnetics, AddisonWesley, 1993, ISBN 0-201-56611-7.
Pedagogy Strategy and Suggestions for Lecturers
- Describe the course correlation with others disciplines in daily practice
- Explain practical examples of electromagnetics facts/phenomenons
- Give test every 2-3 week during the semester to supervise the progress of students' understanding
level
Course Descriptions
Week
#
1.
Topics
Sub Topics
Goals
Vectors
Able to solve vector and
vector field problems in
cartesian, sylinder and sphere
coordinate system.
2.
Coulomb's Law
3.
Coulomb's Law
4.
Maxwell's Law in
statics
Vector algebra, cross and
node multiplications,
Cartesian coordinates,
cylinder and coordinates
transformations
Electric fields, electric
flux, Biot-Savart Laws,
magnetic fields,
magnetic flux, Lenz's
Law
The relation between
electric and magnetic
fields, line and area
integral for scalar and
vector, Maxwell's Law in
integral form
Vector difference,
position vector, scalar
gradient.
5.
6.
TEST # 1
Maxwell's Law in
statics
Uniform flat-wave
Vector difference,
divergence theorems,
pusaran vektor,
Stokes theorem.
Wave equation, electric
and magnetic fields,
Able to calculate the force in
between small surfaces and
calculate electric field of
discrete charge and distributed
charge.
Understand the relation
between electric and magnetic
fields.
Activity
K/P/R/X/U
K
K
K
Understand static Maxwel's
Law
TEST # 1
Understand divergence
theorem and
U
K
pusaran pada vektor
Understand electromagnetic
wave equation and flat-wave
parameters.
K
arah dan kecepatan
rambat,
TEST # 2
wave length,
intrinsic impedance,
wave polarisation,
electromagnetic in
material
TEST # 2
7.
Conductors
Free electrons, mobility,
conductivity; dielectric :
polarization, polarization
current, Ampere and
Gauss Law in dielectric
Understand the characteristics
of conductors and ablet to
calculate conductor and
dielectric boundary
conditions.
8.
Semiconductors
Electron and holes,
mobility, conductivity,
dopping, Lorenz law and
force in electrical current
Understand the characteristics
of semiconductor material and
able to calculate boundary
condition between to
dielectrics.
9.
Midtest
Magnetic Moment
Magnetic materials:
Understand magnetic
U
K
K
U
K
Week
#
Topics
10.
Magnetic Moment
11.
TEST # 3
Magnetic and Electric
Energy
12.
Static Electric
TEST # 4
13.
Moment Methods
14.
Magnetization
15.
TEST # 5
Review of all topics
16.
TEST # 6 and 7
FINAL TEST
Sub Topics
Goals
magnetisation, Maxwell
law for random state
materials.
Electromagnetic field
boundary, electrical and
magnetic flux,
polarisation and
magnetisation
Energy density,
potential, power
dissipation in conductors,
Poynting theorem,
electromagnetic wave in
conductor, impedance,
redaman
Potential difference,
potential gradien,
electrical dipole,
teori bayangan,
capacitor,
iteration technique,
Laplace equation,
Poisson equation.
Exact solution for
potential, magnetic
circuit, magnetic circuit,
magnetic vector
potential, comparation to
electrical fields.
Ferromagnetic materials,
inductance and coupled
inductance.
Activity
K/P/R/X/U
K
TEST # 3
Able to calculate magnetic
fields, and figure out
electromagnetic power
density.
U
K
Able to calculate electric
potential and understand the
application of Laplace and
Poisson Equation in electric
field.
K
TEST # 4
U
Able to determine potential
using moment method.
Understand the characteristic
of magnetic materials
K
Short review / course
summary
TEST # 5
Review and understand the
whole topics
U
R
-
TEST # 6 dan 7
FINAL TEST
U
U