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A
$25.00
per
semester
student
computing
facility
user
fee
is
assessed
for
CSEM
engineering
courses.
This
fee
is
in
addition
to
any
lab/material
fees.
EE
102
(3
Credits)
Spring
Introduction
to
Electrical
Engineering
(2+3)
Basic
modern
devices,
concepts,
technical
skills,
and
instruments
of
electrical
engineering.
(Co-requisite:
MATH
200.)
EE
203
(4
Credits)
Fall
Electrical
Engineering
Fundamentals
I
(3+3)
Analysis
of
alternating-current
circuits
using
complex
notation
and
phasor
diagrams,
resonance,
transformers,
Laplace
analysis,
the
complex
frequency
plane,
and
three-phase
circuits.
Introduction
to
network
and
system
analysis.
(Prerequisites:
MATH
200X,
EE
102.)
EE
204
(4
Credits)
Spring
Electrical
Engineering
Fundamentals
II
(3+3)
Electronics
of
solid
state
devices,
amplifier
design,
digital
circuits,
electromechanics,
control
systems,
and
instrumentation.
(Prerequisite:
EE
203.)
EE
303
(4
Credits)
Fall
Electrical
Machinery
(3+3)
Electromechanical
energy
conversion
principles,
characteristics
and
applications
of
transformers,
synchronous
and
induction
machines,
DC
machines,
and
special
machines.
(Prerequisite:
EE
204.)
EE
311
(3
Credits)
Fall
Applied
Engineering
Electromagnetics
(3+0)
Analysis
and
design
of
transmission
lines
and
distributed
linear
circuits
using
impedance
concepts.
Development
of
electromagnetic
field
equations
and
their
relation
to
circuit
models.
Magnetostatics
and
the
magnetic
circuit.
Electromagnetic
wave
propagation.
Application
of
the
wave
equation
to
engineering
systems.
(Prerequisites:
PHYS
212,
MATH
302,
EE
204.)
EE
312
(3
Credits)
Spring
Electromagnetic
Waves
and
Devices
(3+0)
Theory
and
design
of
antennas,
waveguides
and
other
periodic
structures.
Antenna
arrays,
broadband
design
techniques
and
related
topics.
Theory
and
design
of
practical
communication
links.
(Prerequisites:
EE
311,
331,
MATH
302.)
EE
331
(1
Credit)
Fall
High
Frequency
Lab
(0+3)
Laboratory
experiments
in
transmission
lines,
impedances,
bridges,
scattering
parameters,
hybrids,
and
waveguides.
(Co-requisite:
EE
311.)
EE
332
(1
Credit)
Spring
Electromagnetics
Laboratory
(0+3)
Use
of
Maxwell's
equations
in
analysis
of
waveguides,
cavity
resonators,
transmission
lines,
antennas,
and
radio
propagation.
(Co-requisite:
EE
312.)
EE
333W
(4
Credits)
Fall
Physical
Electronics
(3+3)
Basic
properties
of
semiconductors.
Principles
of
semiconductor
devices,
diodes,
transistors,
and
integrated
circuits.
(Prerequisites:
EE
204
and
ENGL
111X.)
EE
334
(4
Credits)
Spring
Electronic
Circuit
Design
(3+3)
Application
of
semiconductor
devices
in
circuit
design
in
computation,
automatic
control,
and
communication.
(Prerequisite:
EE
333.)
EE
341
(4
Credits)
Fall
Digital
and
Computer
Analysis
and
Design
(3+3)
Modular
structure
of
computer
systems.
Analysis,
design
and
implementation
of
combinational
and
sequential
logic
machines.
Introduction
to
microprocessor
architecture
and
microprocessor
programming.
Design
with
traditional
and
hardware
description
language
techniques.
(Prerequisites:
CS
201
and
one
year
of
college
physics.)
EE
342
(4
Credits)
Spring
Computer
Organization
II
(3+3)
Techniques
of
constructing
input/output
device
drivers,
8
and
16
bit
microprocessor
organization,
operation
and
programming,
and
central
processor
unit
microprogrammable
bit
slice
devices.
(Prerequisite:
EE
341.)
EE
343
(4
Credits)
Fall
Digital
Systems
Analysis
and
Design
(3+3)
Fundamental
principles
and
practices
of
digital
design.
Analysis,
design
and
implementation
of
combinational
and
sequential
logic
machines.
Introduction
to
microprocessor
architecture
and
microprocessor
programming.
Analysis
of
digital
data
transmission
techniques
and
microprocessor
interfacing.
Design
with
traditional
and
Hardware
Description
Language
techniques.
Implementation
with
both
Medium
and
Large
Scale
Integrated
(M/LSI)
chips
and
Programmable
Logic
Devices
(PLDs).
(Prerequisites:
EE
204,
333.
EE
333
may
be
taken
concurrently.)
EE
353
(3
Credits)
Fall
Circuit
Theory
(3+0)
Analysis
by
Laplace
transform,
state
variable,
and
Fourier
methods,
convolution,
frequency
selective
networks,
and
two-port
circuits.
(Prerequisite:
EE
204.)
EE
354
(3
Credits)
Spring
Engineering
Signal
Analysis
(3+0)
Analog
signals
and
Fourier
transform.
Discrete
time
signals
and
FFT.
Probability
theory
and
random
variables.
Random
signals
and
noise.
(Prerequisites:
EE
353,
MATH
302.)
EE
404
(4
Credits)
Spring
Electrical
Power
Systems
(3+3)
Electrical
power
transmission
and
distribution
systems,
power
flow,
symmetrical
faults,
and
economic
dispatch
with
computer-aided
analysis.
(Prerequisite:
EE
303.)
EE
406
(4
Credits)
Fall
Electrical
Power
Engineering
(3+3)
Economic
operation
of
power
systems,
symmetrical
and
unsymmetrical
faults,
power
system
protection,
dynamic
power
system
stability,
and
computer
aided
fault
and
transient
stability
analysis.
(Prerequisite:
EE
404
or
equivalent.)
EE
434W,O
(4
Credits)
Spring
Instrumentation
Systems
(3+3)
Analysis
and
design
of
instrumentation
systems:
static
and
dynamic
characteristics;
accuracy,
noise,
reliability;
sensors;
signal
conditioning;
typical
measurement
systems;
and
microprocessor
applications.
(Prerequisites:
EE
334,
343,
354;
COMM
131X
or
141X;
ENGL
111X;
and
senior
standing.)
EE
443
(4
Credits)
Spring
Computer
Engineering
Analysis
and
Design
(3+3)
Advanced
digital
design
and
principles
and
practices
of
computer
engineering.
Analysis
and
design
of
computer
architecture
and
organization.
Digital
signal
processing
techniques
and
hardware.
Microprocessor
operation,
control
and
interfacing.
Design
with
traditional
and
Hardware
Description
Language
techniques.
Implementation
with
both
Medium
and
Large
Scale
Integrated
(M/LSI)
chips
and
Programmable
Logic
Devices
(PLDs).
(Prerequisite:
EE
343.)
EE
444W,O
(4
Credits)
Fall
Embedded
Systems
Design
(3+3)
Focus
on
issues
surrounding
the
design
and
construction
of
a
microcontroller
evaluation
board.
Issues
include
hardware
architecture
and
glue
logic,
circuit
design
and
circuit
layout,
hardware/firmware
partitioning,
firmware
architecture
and
firmware
design.
Includes
building
a
wire
wrapped
evaluation
board
and
then
extending
the
capabilities
of
that
board
in
a
significant
project.
Emphasis
on
robust
designs
and
proper
documentation.
(Prerequisites:
ENGL
111X;
ENGL
211X
or
213X;
COMM
131X
or
141X;
EE
443;
and
senior
standing.
Recommended:
CS
301.)
EE
451
(4
Credits)
Fall
Digital
Signal
Processing
(3+3)
(Stacked
with
EE
651)
Time,
frequency
and
Z-transformation
domain
analysis
of
discrete
time
systems
and
signals;
Discrete
Fourier
Transformation
(DFT)
and
FFT
implementations;
FIR/IIR
filter
design
and
implementation
techniques;
discrete
time
random
signals
and
noise
analysis;
and
quantization
and
round
off
errors;
spectral
analysis.
Includes
applications
to
medical,
speech,
electromagnetic
and
acoustic
signal
analysis.
(Prerequisite:
EE
354
or
equivalent.)
EE
461
(4
Credits)
Fall
Communication
Systems
(3+3)
Theory
design
and
implementation
of
communication
systems.
Measurement
of
modulation,
noise,
channel
spectrum,
satellite
link
budget,
and
microwave
path
design.
(Prerequisites:
EE
354
and
senior
standing.)
EE
463
(3
Credits)
Spring
Communication
Networks
(3+0)
Design
of
voice
and
data
networks.
Traffic
measurement,
network
topology,
circuit
sizing,
and
network
performance
measures.
Tariffs
and
economic
considerations.
Cost-performance
relationships.
Cannot
take
both
EE
463
and
EE
464
for
credit.
(Prerequisites:
EE
354
and
senior
standing.)
EE
464W,O
(4
Credits)
Spring
Communication
Networks
Design
(3+3)
Design
of
voice
and
data
networks.
Traffic
measurement,
network
topology,
circuit
sizing,
and
network
performance
measures.
Tariffs
and
economic
considerations.
Cost-performance
relationships.
Cannot
take
both
EE
464
and
EE
463
for
credit.
(Prerequisites:
EE
354;
COMM
131X
or
141X;
ENGL
111X;
and
senior
standing.)
EE
471
(3
Credits)
Spring
Fundamentals
of
Automatic
Control
(3+0)
Linear
system
representation
by
transfer
functions,
signal
flow
graphics,
and
state
equations.
Feedback,
time
and
frequency
response
of
linear
systems.
Identification.
Controllability
and
observability.
Stability
analysis
by
Routh-Hurwitz
criterion
and
frequency
domain
methods.
Specifications
of
higher
order
linear
systems.
System
design
and
compensation.
(Prerequisites:
EE
353
and
MATH
302.)
EE
488
(1-3
Credits)
Fall,
Spring
Undergraduate
Research
Advanced
research
topics
from
outside
the
usual
undergraduate
requirements.
(Prerequisite:
Permission
of
instructor.
Recommendations:
A
substantial
level
of
technical/scientific
background.)
EE
603
(3
Credits)
Alternate
Fall
Advanced
Electric
Power
Engineering
(3+0)
Selected
advanced
topics
in
electric
power
generation,
transmission,
utilization,
optimization,
stability,
and
economics.
(Prerequisite:
EE
404
or
permission
of
instructor.)
EE
604
(3
Credits)
Alternate
Fall
Electric
Power
Systems
Transients
(3+0)
Power
system
transient
analysis,
use
of
the
Electromagnetic
Transients
Program
(EMTP),
insulation
coordination,
transient
recovery
voltage
phenomena,
and
resonance
conditions.
(Prerequisite:
EE
406
or
permission
of
instructor.)
EE
605
(3
Credits)
Alternate
Spring
Power
System
Stability
and
Control
(3+0)
Advanced
power
system
stability
analysis,
including
generator
steady
state
and
dynamic
models,
voltage
and
power
control
equipment,
load
models,
network
constraints,
numerical
methods,
supplemental
control
via
power
system
stabilizers
and
static
var
systems,
and
software
tools.
(Prerequisite:
EE
406
or
permission
of
instructor.)
EE
606
(3
Credits)
Alternate
Spring
Electric
Power
System
Protection
(3+0)
Principles
and
applications
of
electric
power
systems
protective
relaying.
Topics
include
fault
analysis,
relay
types,
instrumentation
transformers,
protection
schemes,
grounding,
stability,
and
computer
aided
design.
(Prerequisite:
EE
404,
EE
406,
or
permission
of
instructor.)
EE
610
(3
Credits)
Alternate
Fall
Linear
Systems
(3+0)
Methods
of
representation
and
analysis
for
discrete
time
and
continuous
time.
Topics
include
deterministic,
random,
continuous
and
discrete
inputs,
two
sided
Laplace
and
Z-transforms,
discrete
and
fast
Fourier
transformers,
and
state
variable
theory.
(Prerequisites:
EE
354,
MATH
302
or
permission
of
instructor.)
EE
611
(3
Credits)
Alternate
Spring
Waves
(3+0)
Introduction
to
waves
and
wave
phenomena.
Includes
electromagnetic,
acoustic,
seismic,
atmospheric
and
water
waves
and
their
mathematical
and
physical
treatment
in
terms
of
Hamilton's
principle.
Discusses
propagation,
attenuation,
reflection,
refraction,
surface
and
laminal
guiding,
dispersion,
energy
density,
power
flow,
and
phase
and
group
velocities.
Treatment
limited
to
plane
harmonic
waves
in
isotropic
media.
(Prerequisites:
MATH
302
or
MATH
421
or
permission
of
instructor.
Next
offered:
2004-05.)
EE
632
(3
Credits)
As
Demand
Warrants
Quantum
Electronics
(3+0)
Application
of
quantum
mechanical
concepts
to
problems
in
optical
electronics.
Study
of
principles
and
practices
in
design
and
operation
of
semiconductor
devices,
lasers
and
optical
propagation
systems.
Survey
of
applications
in
science
and
engineering.
(Prerequisite:
EE
332,
333
and
MATH
302;
or
permission
of
instructor.)
EE
634
(3
Credits)
Alternate
Fall
Microwave
Design
I
(2+3)
Analysis,
design,
fabrication,
and
measurement
of
passive
microwave
components
and
circuits
using
microstrip
construction
techniques.
Theoretical
and
computer-aided
design
of
transmission
lines,
power
dividers,
hybrids,
directional
couplers,
and
filters.
(Prerequisite:
EE
312,
EE
332,
and
EE
334
or
permission
of
instructor.
Next
offered:
2003-04.)
EE
635
(3
Credits)
Alternate
Spring
Microwave
Design
II
(2+3)
Analysis
and
design
of
solid-state
microwave
circuits.
Amplifier
and
oscillator
circuits
are
designed
and
fabricated
using
microstrip
construction
techniques
and
computer-aided
design
tools.
(Prerequisite:
EE
634
or
permission
of
instructor.
Next
offered:
2003
-
04.)
EE
651
(4
Credits)
Fall
Digital
Signal
Processing
(3+3)
(Stacked
with
EE
451)
Time,
frequency
and
Z-transformation
domain
analysis
of
discrete
time
systems
and
signals;
Discrete
Fourier
Transformation
(DFT)
and
FFT
implementations;
FIR/IIR
filter
design
and
implementation
techniques;
discrete
time
random
signals
and
noise
analysis;
and
quantization
and
round
off
errors;
spectral
analysis.
Includes
applications
to
medical,
speech,
electromagnetic
and
acoustic
signal
analysis.
(Prerequisite:
Graduate
standing
or
permission
of
instructor.)
EE
652
(3
Credits)
Alternate
Fall
Adaptive
Systems
and
Neural
Networks
(3+0)
Self-optimizing
systems
whose
performance
is
improved
through
contact
with
their
environments.
Feedback
models
for
least
mean
square
error
adaptation
processes.
Multiple-layer
adaptive
neural
networks.
Competitive
learning
back
propagation,
self
organization,
associative
memory.
(Prerequisites:
EE
451
or
equivalent.)
EE
656
(3
Credits)
Alternate
Spring
Space
Systems
Engineering
(3+0)
(Cross-listed
with
ESM
656
and
ME
656)
A
multidisciplinary
team
of
students
will
perform
a
preliminary
design
study
of
a
major
space
system.
Design
considerations
will
include
requirements
for
project
management,
spacecraft
design,
power,
attitude
control,
thermal
control,
communications,
computer
control
and
data
handling.
The
students
will
present
their
final
design
in
a
written
report
and
a
public
seminar.
(Prerequisites:
Graduate
standing
or
permission
of
instructor.)
EE
662
(3
Credits)
Alternate
Fall
Digital
Communication
Theory
(3+0)
Probability
in
communication
systems,
power
spectral
density,
baseband
formatting,
bandpass
modulation
and
demodulation,
link
analysis,
coding,
and
channel
models.
Sections
of
this
course
offered
in
Anchorage
have
a
$50
fee.
(Prerequisite:
EE
461
or
permission
of
instructor.
Next
Offered:
2004-05.)
EE
665
(3
Credits)
Alternate
Spring
Antennas
(3+0)
Fundamental
principles
of
antenna
theory.
Application
to
the
analysis,
design,
and
measurement
of
many
different
antenna
structures.
(Prerequisites:
EE
312
and
EE
461
or
permission
of
instructor.
Next
offered:
2004-05.)
EE
667
(3
Credits)
Alternate
Fall
Satellite
Communications
(3+0)
Satellite
orbital
parameters,
satellite
hardware,
link
budgets,
modulations
and
multiple
access
techniques,
operational
considerations,
operating
and
proposed
satellite
communication
systems.
(Prerequisites:
EE
461
and
either
graduate
standing
or
permission
of
instructor.
Next
offered:
2003-04.)
EE
669
(3
Credits)
Alternate
Spring
Radiowave
Propagation
(3+0)
A
study
of
the
effects
of
the
earth,
atmosphere,
ionosphere,
and
atmospheric
hydrometeors
such
as
raindrops,
snow,
and
hail
on
the
propagation
of
radiowaves.
Satellite
to
earth
propagation
effects
will
be
emphasized.
(Prerequisites:
EE
461
and
either
graduate
standing
or
permission
of
instructor.
Next
offered:
2003
-
04.)
EE
671
(3
Credits)
As
Demand
Warrants
Digital
Control
Systems
(3+0)
Study
of
digital
control
theory.
Topics
will
include
signal
conversion,
Z-transforms,
state
variable
techniques,
stability,
time
and
frequency
domain
analysis
and
system
design.
(Prerequisites:
EE
471
or
permission
of
instructor.)
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