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Communication Engineering Courses
EE303
Optical Communications, (2,2,0)
Prereq. None
Fundementals of
communicating with light. Guided electro-magnetic waves:
the slab waveguide, modes, dispersion. Fiber optics
cables, advantage and disadvantage of fiber optic
cables. Modes and attenuation in fibers. Properties of
LEDs and LASERs as communication sources. Photodiodes
and receiver circuits, sensitivity noise and bandwidth.
Modulation techniques, coherent communication. Time
division and wavelength division multiplexing. Optical
amplifiers, non-linear effects. System architectures and
applications. Free space systems, signal processing,
routing and timing.
Excess carrier in
semiconductors, Optical properties of semiconductors,
generation and recombination of electron and holes,
compound semiconductors: GaAs, GaP, etc., Theory of pn
junction, Light detection, photodectors, Light emission,
Lasers, Light emitting diodes, Optical transmission and
fiber optics.
EE313
Data Communications, (2,2,0)
Prereq. None
The ISO 7 layer model for
Open Systems Interconnection as a framework for looking
at the problems associated with transferring digital
data from one point to another. Topics covered at the
physical layer are line coding for bandwidth efficiency,
channel coding for error protection, analogue modulation
schemes for digital data, modem standards. The effects
of noise on the signals and the techniques needed to
counteract these effects are considered in details.
Error-detection and Error-correction codes are
described. Data compression methods are introduced. At
the data link layer the emphasis is on HDLC and similar
protocols.
Switching fundamentals;
space and time division switching; design of economical
switching networks, analog and digital terminations;
signaling methods and control systems. Software design;
network control and synchronization; traffic analysis;
circuit and packet switching; integrated voice and data
networking.
EE323
Antennas &Waves Propagation, (2,2,0)
Prereq.
EE093
Basic definition of
antennas, types of antennas: Aperture antennas,
Microstrip antennas, Array antennas, Reflector antennas.
Fundamental parameters of antennas: Radiation Pattern
(RP), Isotropic Directional & Omnidi Rectional, Field
Regions (FR), Radiation Power Density (RPD), Radiation
Intensity (RI), Directivity (D), Gain (G) and efficiency
of antennas. Half power Bean width-bean efficiency,
Bandwidth, application of antennas in satellite
communications.
Transmission line
analysis. Phasor diagram. Smith chart. General eigen-wave
analysis. Guided wave. Plane wave including optical
wave. oblique reflection and transmission.
Non-reciprocal wave systems. Antenna systems.
EE333
Video Engineering & Image Processing, (2,2,0)
Prereq. None
Video display principles.
Analogue and digital sources, scanning, synchronization,
composite video signals.
Monochrome CCTV systems. Colour specification by RGB
primaries or hue and saturation (HIS, YUV coding).
Luminance and colour-difference signals. Broadcast
television: channel characteristics, V.S.B. modulation.
Colour systems. Chrominance encoding, quadrature
modulation of subcarrier, differential phase distortion,
hue correction in PAL system. Satellite systems. Digital
systems. Text and graphics displays. Teletext; Encoding,
page acquisition and display. Viewdata.
Video signal digitization;
sampling, quantisation, aliasing, resolution, data
compression. Real-time image capture and frame store
hardware; input and output LUT’s, memory
architecture, system software, sources and displays.
Standard process classification and
examples: pixel point processing (histogram
manipulation), pixel group processing (spatial
convolution), frame processing (geometric
transformation).
Windows, masks and
operators. Statistical concepts: definitions of mean,
median andMode, frequency distribution, mean and median
filters. Image mathematics:
mathematical series,
Fourier coefficients and Fourier transform (FT), signal
transforms, convolution and
correlation, spatial convolution. Image enhancement
techniques:
spatial-domain operations,
frequency domain operations.
EE343
Computer Networks, (2,2,0)
Prereq EE313.
Networking: Local Area
Networks (LAN) and specifically the various medium
access methods (CSMA/CD, Token Passing) are covered. The
function of the upper five layers of OSI model are
introduced. Emerging data communications mechanisms such
as the Integrated Services Digital Networks (ISDN),
Frame Relay, SMDS, and ATM are introduced. New
networking technologies and a discussion of likely
future development. Example and standard protocols are
cited for point-to-point, satellite, packet radio and
Local Area Network.
EE353
Special Topics in Telecommunication, (2,2,0)
Prereq. None
Lectures on topics of
special interest to students in various areas of
Electronic Systems Engineering. Design to test new and
experimental courses in Electronic Systems Engineering.
Could
be one of the following subjects,
Transmission
systems,
Design of transmission
systems for television, and data using satellites,
microwave repeaters, mobile radio, and broad cast
transmitters. Performance of FM, AM, SSB common digital
schemes and spread. Spectrum modulation, time frequency,
and code multiplexing Emphasis on link performance,
capacity, total system design, and cost optimization.
Information Theory
Information theory and
statistics. The extreme points of communication theory:
data compression to the entropy limit, and communication
at the channel capacity limit. Kolmogorov complexity,
Shannon entropy. Rate distortion theory. Huffman coding
and random coding. Unified treatment based on asymptotic
equiportition theorem.
Laser
Electronics
Introduction
to laser and how they work , including Quentin
transitions in atoms , stimulated emission and
amplification , rate equations , saturation , feedback ,
coherent optical oscillation , laser resonators ,and
optical beams . Limited primarily to steady-state
behavior, uses Classic models for atomic transitions
with litter quantum mechanics background required.
Biomedical Instrumentation
Diagnostic and therapeutic
modalities related to engineering. Cardiovascular,
neural, sensory and respiratory instrumentation.
Electromagnetic
and Optical Measurements
Fundamental measurement
techniques in electromagnetic wave systems and optical
systems. Accurate measurements of microwave properties
of materials, laser transmission reception, modulation,
and holographs.
EE363
Radio Systems Design, (2,2,0)
Prereq. EE323
Electromagnetic
propagation in ionosphere and troposphere. Radio link
design. RF link design. Microwave links. VHF and UHF
systems. Antenna systems: Fundamental parameters.
Review of Electromagnetic
theory. Scattering Matrix Theory. Passive microwave
circuits, active microwave circuits, microwave systems:
Radar Systems, Satellite systems, troposcatter systems,
microwave radio relay systems, etc.
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