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EE 201 Structured Computer Programming
Introduction to computers. Simple algorithms and flowcharts.
Solving engineering and mathematical problems using a mathematically-oriented
programming language. Programming concepts: I/O, assignment, conditional
loops, functions and subroutines. Programming selected numerical and
non-numerical problems of mathematical and engineering nature.
Prerequisites MATH 110, CPIT 110
EE 202 Object-Oriented Computer Programming
Object-oriented programming: classes, objects and methods.
Object-oriented design. Simple data structures. Best programming practices
(structured coding, documentation, testing and debugging).
Prerequisites EE 201
EE 250 Basic Electrical Circuits
Electric quantities and circuit elements. Kirchhoff’s laws. Mesh
and node analyses. Sinusoidal steady-state analysis using phasors. Network
theorem and transformations. Ideal transformers. Three-phase circuits.
Prerequisites PHYS 202
EE 251 Basic Electrical Engineering
Electrical engineering applications. Basic concepts of electricity,
electric components, elementary circuit analysis and measurements. Balanced
three-phase systems. Ideal transformers. Application-specific circuits.
Electrical safety. DC generators and the motors. Basic operation of sensors
and actuators. Concept of data acquisition systems.
Prerequisites PHYS 202
Note: This course is offered to non-Electrical Engineering
students.
EE 300 Analytical Methods in Engineering
Linear
algebra: matrices and determinants, eigenvalues and eigenvectors. Complex
analysis: complex arithmetic, complex algebra, power series, differentiation
and integration in the complex plane and residue analysis.
Prerequisites MATH 204
EE 301 Electrical Circuits and Systems
Resonance circuits. Magnetically-coupled circuits. Op-amp
circuits. Transient analysis via the conventional and Laplace methods.
Fourier analysis with applications to circuits. Two-port networks.
Prerequisites MATH 204, EE 250
EE 302 Electromagnetic Fields
Electrostatic
fields. Poisson and Laplace equations. Steady Electric Current. Steady
Magnetic Field. Time-varying electric and magnetic fields. Maxwell equations
and magnetic fields. Maxwell equations.
Prerequisites EE 250, MATH 204
EE 303 Electrical Measurements and
Instrumentation
Fundamental
Measurement Concepts. Generalized measurement system, errors in measurements,
and characteristics of measuring instruments, statistical analysis of errors.
Oscilloscopes, analog AC and DC instruments, measurement of power, DC and AC
bridges, transducers, fundamental of electronic instruments, attenuators,
converters, peak and average detectors. RMS detectors, digital instruments,
digital display units, digital voltmeter.
Prerequisites EE 311, STAT 110
EE 305 Discrete Mathematics and its Applications
Sets,
sequences, properties of Integers. Proof techniques, mathematical induction.
Basic counting: permutations, combinations, probability, and recurrence
relations. Cartesian products and power sets, relations and digraphs. Types
of functions, permutation functions. Binary trees, traversals. Graphs,
transport networks.
Prerequisites EE 202, IE 202, MATH 204
EE 306 Electrical Engineering Technologies
Electrical
engineering fields of activities. Sources of electrical energy: power supplies,
batteries, generators and alternative power sources. Distribution and
utilization of electrical energy, commentators and protection devices.
Conversion of electrical energy; sensors and actuators. Electrical safety.
Principles of electrical and electronic measurements and instrumentation,
standards and calibration. Sources of measurement errors, and analysis of
measured data.
Prerequisites EE 250, STAT 110
EE 311 Electronics I
Conduction
in metals and semiconductors, P-N junctions, diode circuits. Field-effect and
junction transistors. Low frequency equivalent circuits. Basic amplifiers.
Prerequisites EE 250
EE 312 Electronics II
Feedback
in amplifiers. Frequency response of amplifiers. Operational amplifiers:
design and applications as linear and non-linear analog building blocks,
adders, subtractors, differentiators, integrators, analog simulation, and
active filters. Logarithmic and exponential amplifiers, precision converters,
analog multipliers, wave-shapers, sinusoidal and square wave oscillators.
Prerequisites EE 311
EE 321 Introduction to Communications
Fourier
Signal Analysis. Linear Modulation: AM, DSBSC, SSB, Frequency Conversion,
generation and detection. FDM, Exponential Modulation: FM, PM, NBFM, WBFM.
Pulse Modulation, Sampling Theorem, PAM, PDM, PPM, PCM, TDM, Digital
Modulation ASK, PSK and FSK.
Prerequisites EE 301
EE 331 Principles of Automatic Control
Introduction
to control systems with examples from different fields. Transfer functions
and block diagram algebra. Stability analysis (Routh-Hurwitz and Nyquist).
Tracking performance to different inputs. Root locus and frequency-domain
analysis and design of control systems. State variable representation of a
system and state space analysis.
Prerequisites EE 300, EE 301
EE 332 Numerical Methods in Engineering
Introduction.
Solution of non-linear equations. Solution of large systems of linear
equations. Interpolation. Function approximation. Numerical differentiation
and integration. Solution of the initial value problem of ordinary
differential equations.
Prerequisites EE 201, MATH 204
EE 341 Electromechanical Energy Conversion I
Theory
and modeling of electromechanical devices. Magnetic circuit. Power
transformers. Physical construction and applications of DC machines.
Qualitative introduction to AC Machines and renewable energy resources.
Prerequisites EE 250
EE 351 Electrical Power Systems I
Electrical
Characteristics and steady state performance of overhead transmission lines.
Equivalent Circuit and Power Circle Diagrams. Per-unit Systems and
Symmetrical Short-Circuit calculations. Power systems economics. Introduction
to Switchgear and Protection.
Prerequisites EE 250
EE 360 Digital Design I
Representation
and manipulation of digital information. Basic Boolean logic. Elements of
digital building blocks. Computer arithmetic unit. Memory unit. Input-Output
unit. Basic operation of the computer control unit.
Prerequisites EE 250
EE 361 Digital Computer Organization
Basic
architecture of digital computers. Hardware-software interface starting from
the Instruction Set Architecture (ISA) and its implementation. Other
important digital components including the microarchitecture of the processor
and the hierarchy of the memory subsystem. Performance techniques including
parallel processing and multicore computers.
Prerequisites EE 360, STAT 110
EE 364 Advanced Programming
Structured
programming concepts and control structure. Systematic program design.
Modularization and scope concepts. Use of a variety of data structures and
programming techniques. Iteration and recursion. Memory management. Program
correctness, informal verification and testing.
Prerequisites EE 202
EE 366 Microprocessors and Microcontrollers
Design
of microcontroller-based embedded systems. Overview of a single-chip
microcontroller, hardware and software concepts in microcontrollers. System
architecture, central processing unit (CPU), internal memory (ROM, EEPROM,
RAM, FLASH). Input/ Output ports, serial communication, programmable
interrupts. ADC, DAC, interfacing and timers. Microcontroller programming
model and instruction set, assembly and C language programming.
Prerequisites EE 202, EE 360
EE 367 Data Structures and Algorithms
Basic
concepts of data and their representations inside a computer (scalar,
structured and dynamic). Manipulation of arrays, strings, stacks, queues,
linear lists, circular lists, orthogonal lists, trees and graphs. Sorting and
searching algorithms.
Prerequisites EE 202, EE 305
EE 370 Biomedical Engineering Primer
Biomedical
engineering fields of activity. Research, development, and design for
biomedical problems, diagnosis of disease, and therapeutic applications.
Modular blocks and system integration. Physical, chemical and biological
principles for biomedical measurements. Sensors for displacement, force,
pressure, flow, temperature, biopotentials, chemical composition of body
fluids and biomaterial characterization. Patient safety.
Prerequisites EE 306, BIO 321
EE 372 Physiology for Biomedical
Engineers
Body
environment, fluids and compartments, digestive system. Metabolism,
energetics of glucose metabolism. Respiratory system and artificial
respiration. Cardiovascular system and its regulatory mechanism,
hemodynamics. Metabolism and body temperature regulation. Endocrinology,
reproductive system and renal physiology.
Prerequisites BIO 321
EE 374 Experimentation and Data Analysis in Health Care
Descriptive
statistics; elementary probability; discrete and continuous random variables
and their distributions; hypothesis testing involving continuous and
categorical (nominal and ordinal) variables, two and more treatments; linear
regression; analysis of survival data. Design of clinical trials; sample size
and selection of samples; selection and preparation of apparatus and
preparing experimental protocols. Clinical standards for data collection,
organization, summarization and verification; medical sample handling,
transporting and disposal; sterilization, cleansing and hygiene. Applications
of essential statistical techniques for use in analyzing data from different
types of engineering experiments, biological experiments and clinical
studies. Term project.
Prerequisites BIO 321, STAT 110
EE 390 Summer
Training
Ten
weeks of training in industry under the supervision of a faculty member.
Students have to submit a report about their achievements during training in
addition to any other requirements as assigned by the department.
Prerequisites Approval of Department
EE 400 Cooperative Work
Extensive
25 weeks of training in industry under the supervision of a staff member.
Students should submit a final report about their training in addition to any
other requirements as assigned by the department.
Prerequisites Approval of Department
EE 404 Power Systems lab
Single-phase
and three-phase AC-DC converters for resistive and large inductive loads.
Determine the phase sequence of the three-phase source. Power flow and
voltage regulation of a simple transmission line. Control of active power
flow in interconnected power networks. Reactive power flow in ac transmission
lines. Control of reactive power flow in interconnected power networks. Over
current protection relay and distance relay.
Prerequisites EE 351
EE 405 Machines Lab
Single-phase
Transformer and three phase transformer connections. DC machine: Torque Vs
Speed Characteristic of D.C Shunt Motor, D.C Series Motor, and D.C Compound
Motor. Voltage Regulation of Synchronous Machine and alternator
Synchronization of Synchronous Machine. Squirrel cage motor using MOMO
Software. Slip ring Induction motor.
Prerequisites EE
341
EE 411 Digital Electronics
Switching of electronic devices. Integrated
circuit gates, multi vibrators, registers, charge coupled device. Memories.
Digital to analog and analog to digital converters.
Prerequisites EE 311, EE 360
EE 413 Communication Circuits
Behavior of Transistors at high frequencies.
Analysis and design of electronic circuits employed in electronic and
communication systems.
Prerequisites EE 312, EE 321
EE 416 Optoelectronics
The optical fiber: Types, effects of
dispersion, attenuation, nonlinearities. Coupling between optical sources and
waveguides. Optical detectors and noise. Optical sources: Optical radiation
and amplification, lasers. Optical devices: Sensors and modulators.
Prerequisites EE 312
EE 418 Microwave and Optical Devices
Structure, analysis and the principles of
operation of some selected Microwave Devices. These Devices can be either in
the form of 2-Terminal Devices such as Gunn, Ga N based Gunn, InP Gunn, Impatt, Ga N Impatt,3C SIC Impatt, Dovett,
Trapatt, Baritt, Tunnel, Mitatt QWITT, Varactors and Tunnett, or in the form of 3-Terminal Devices such
as MES FET,4H-SiC MESFET, H-FET and HEMTs. Design high quality stable and
tunable microwave oscillators. Design
a high gain, low FM noise and noise figure and low intermediation distortion
microwave amplifiers.
Prerequisites EE 312, EE 423
EE 420 Microwave Circuits
Review of transmission line theory, some of
its applications and Smith Chart. Brief discussion on various types of
transmission lines. Derivation of micro strip parameters and losses.
Distinguish between normal and higher order mode of propagation in micro
strip. Derivation of the Scattering matrix parameters of any given network
under review. Filters implemented in microstrip line. Derivation of all the
parameters of Coupled Line
micro strip and its applications .Theoretical Analysis and
Design of some selected networks such as Quadrature Couplers, Power
Combiner/Divider, Phase Shifter and Magic Tee, etc. Reviewing of
Ferromagnetic Material and its applications especially in micro strip
circulators, isolator and phase shifters. Design of microstrip antenna and
switches.
Prerequisites EE 312, EE 423
EE 421 Communication Theory I
Spectral density and correlation,
input-output correlation, sources of noise, white and colored noise, optimum
receiver filter, random variables and stochastic signals, signals and noise,
baseband communication, Binary Digital transmission, pulse modulation (PAM,
PCM), noise in Analog Modulation.
Prerequisites EE 321, IE 331
EE 423 Electromagnetic Waves
Wave equation from Maxwell’s equations,
Poynting’s theorem, Uniform Plane Waves, Propagation in general media with
approximations for good dielectrics and conductors, Normal and Oblique
Reflection and Transmission of Plane Waves, Smith Chart Applications for
Lossless Transmission Lines, Parallel-plate and Rectangular Waveguides.
Prerequisites EE 302, MATH 204
EE 424 Antennas and Propagation
Radiation and Antenna Fundamentals. Linear
Antennas, Current distribution, Short dipoles and Monopoles/dipoles,
radiation resistance and gain, longer dipoles, folded dipoles. Antenna
Arrays. Aperture Antennas. Special types of antennas. Traveling wave
antennas, loop antennas. Frequency independent antennas, helical antennas,
corner reflector, lenses. Space Wave Propagation. Ground Wave Propagation.
Tropospheric waves. Ionospheric waves.
Prerequisites EE 302
EE 425 Communication Systems
Detailed description of at least three out of
the following systems. Radio broadcasting Systems. TV and Video Systems.
Radar Systems. Microwave Links, Telephony, Telegraphy and Telex systems.
Satellite Communication Systems. Optical Communication Systems. Aircraft and
Ship navigational systems.
Prerequisites EE 421, EE 423 (concurrent)
EE 426 Digital Communications
Sampling theorem, PCM, band pass digital
modulation methods (ASK, FSK and PSK), noise analysis and error probability,
digital filters, and digital and discrete-time signal processing, Z
transform, digital filter design in frequency domain, digital matched
filters, interference and jamming, effects of sampling errors, modern digital
modulation methods, chirp modulation, spread spectrum.
Prerequisites EE 421
EE 429 Introduction to Digital Signal Processing
Discrete time signals and systems. Fourier
analysis of discrete-time signals and Systems. Fast Fourier Transform.
Digital Filter Design. Computer applications. Advanced Topics.
Prerequisites EE 321
EE 431 Advanced Control Systems
State space representation and realization,
controllability and observability. Liapunov and popov stability criteria,
stochastic and sampled data control theory, optimal control theory.
Prerequisites EE 331
EE 432 Digital Control Systems
Derivation of differential/difference
equations for physical systems. The Laplace transform. The Z transform. The
transfer function. Stability in the Z plane. System response in the time
domain. Controllability and Observability - Design of Closed-loop digital
control systems: a) by conventional means: b) by the digital computers.
Prerequisites EE 331
EE 441 Electromechanical Energy Conversion II
Polyphase induction and synchronous machines.
Models and performance characteristics for steady-state operations.
Fractional horsepower machines, their performance and application.
Prerequisites EE 341, EE 351
EE 442 Power Electronics I
Power semiconductor switches, theory of
operation and commutation methods. Single- phase and three- phase AC-DC
converters for resistive and large inductive loads. Single- phase and three-phase
AC-AC converters. Analysis and design of DC-DC converters (Shoppers) for
resistive and general inductive loads. Single-phase and three-phase DC- AC
inverters: Square waves and PWM inverters. Power electronics applications: cycloconverter
and FACTS (Flexible AC Transmission System).
Prerequisites EE 311
EE 444 Power Electronics II
Static switches. Power supplies. DC drives.
AC drives. Traffic Signal Control. Power Transistors. Solid-state temperature
and air conditioning control. Light activated thyristor applications. Test
and protection of power electronic devices and circuits.
Prerequisites EE 442
EE 445 Utilization of Electrical Energy
Utilization in mechanical plants: Drives,
Electromagnetic. Utilization in chemical plants: Electroplating, Welding.
Utilization in urban plants: Illumination, Traction, Electrical
Installations.
Prerequisites EE 341, EE 351
EE 448 Power System Planning and Reliability
Engineering
system reliability assessment, Effect of Load Forecasting, Principles of
Power Systems Reliability, Generation system modeling, Planning for Future
Expansion in Generation Systems.
Prerequisites STAT 110, EE 351
EE 450 Power System Control
Power
factor Control, Automatic generation control, Load-frequency Control, Economic
dispatch, Unit Commitment, reactive power control, Potential Instability and
Breakdown, Reactive power distribution.
Prerequisites EE 331, EE 441 (concurrent)
EE 451 Electrical Power Systems II
Load
Flow Analysis, Solution of Load Flow Equations, Gauss-Seidel and Newton
Raphson Techniques, Asymmetrical Faults, Phase Sequence Networks, Use of
Matrix Methods. Power System Stability: Steady-State and Transient.
Prerequisites EE 351
EE 452 High Voltage Techniques I
Generation of high AC and DC impulse
voltages, and impulse currents. Measurement of high voltages and currents.
Dielectric loss and capacitance measurements. Traveling waves.
Prerequisites EE 351
EE 453 Power Transmission and Distribution
Load
Characteristics. Design of sub-transmission lines and distribution
substations. Design considerations of primary and secondary systems. DC and
AC Distributers. Main components of overhead lines. Line supports. Insulators
and conductors. Sag Calculations. Corona Effect. Underground cables: types, constructions,
sizing, losses, resistance and capacitance. Travelling Waves on transmission
lines. Power System Grounding.
Prerequisites EE 351, STAT 110
EE 454 Switchgear and Protection of Power Systems I
Switch gear, bus bar systems, couplers,
cubicles, auxiliaries, and single line diagram. Relays, electromagnetic,
static, thermal relay, and over current, voltage. Distance relays.
Differential relays. Feeder protection system. Transformer protection system.
Generator protection system.
Prerequisites EE 341, EE 351
EE 455 Economic Operation of Power Systems
Operating constraints. Short-term load
forecast. Load curve analysis. Economical load sharing between units and
between stations. Tariffs. Incremental costs. Unit commitment and generator
scheduling. Voltage and VAR control. Energy conservation.
Prerequisites EE 451, STAT 110
EE 458 Computer Applications in Power Systems
Power network equations and digital solution
techniques. Network reduction methods. Computer programs for steady state
analysis of power systems. Transmission Line performance. Short-circuit
calculations, and Load flow studies. Digital and analogue simulation of power
system component dynamics. Digital evaluation of power system stability.
Computer applications in utilities and power industry.
Prerequisites EE 451
EE 460 Digital Design II
Advanced techniques in the design of digital
systems. Hardware description languages, combinational and sequential logic
synthesis. Emphasis on reconfigurable logic as an implementation medium.
Memory system design. Serial/parallel communication. Introduction to testing, simulation, fault
diagnosis and design for testability.
Prerequisites EE 360
EE 462 Computer Communication Networks
Components of data communication systems.
Topologies and protocols. Network Protocols including (OSI, TCP/IP) models. Switched networks. Error detection
and corrections techniques. Multiple access methods (MAC). Evolution of the Ethernet. Wireless LANs
technology. Connect different LANs (internetworking devices). Logical
Addressing and subnetting (IPv4 & IPv6).
Prerequisites EE 202, EE 321
EE 463 Operating Systems
Operating systems as resource managers.
Process concepts. Synchronous concurrent processes, and threads. Concurrent
programming monitors. Real and virtual storage management. Processor
scheduling. Disk scheduling. File systems and security. Some case studies.
Prerequisites EE 361, EE 367
EE 466 Computer Interfacing
Data
Acquisition, Sensors and Actuators interfacing, Common computer interfacing
such as USB and SPI, Analog-to-digital
and Digital-to-Analog converters, Real-time operating system, and Raspberry Pi applications.
Prerequisites EE 361, EE 366
EE 467 Databases
Need for the database approach. Database
system architectures (1-tier, 2-tier and 3-tier). Database management
systems. Data modeling at the conceptual level (ER and UML). Overview of some
modern data models at the Logical level. In-depth study of a selected logical
data model (e.g. relational database model). Mapping from the conceptual
model to the selected logical model. Database querying and application
programming languages. Data modeling at the Physical level (e.g. basic data
and storage structures).
Prerequisites EE 367
EE 468 Systems Programming
System calls, File manipulation, Memory management. Processes, Synchronization,
Inter-process communication, Remote procedure
call, Threads and concurrent programming, Socket-programming.
Prerequisites EE 361, EE 367
EE 469 Compiler Construction
Languages and grammars. Formal syntax and
semantics. Formal grammars, parsing, ambiguities, syntax trees. Techniques
for top-down and bottom-up syntax analysis. Regular expressions, finite
automata and Lexical analysis. Code generation and syntax-directed
translation. Symbol tables and storage allocation. Translator-writing
systems.
Prerequisites EE 367
EE 470 Biomedical Signals and Systems
Definition of signals and systems. Types of
signals. Examples of biomedical signals and systems. Mathematical description
of signals, continuous- and discrete-time signals, scaling and shifting
transformations, differentiation and integration, differencing and
accumulation. Description of systems, block diagrams, system terminology,
system characteristics, and convolution integral. Analysis of signals and
systems using Fourier series and Fourier transform. Introduction to
z-transform and its applications in digital filtering. Biomedical signals and
systems applications.
Prerequisites EE 321, EE 370, EE 374, and IE
202
EE 471 Biomedical Instrumentation
Electrical safety and precautions required in
medical applications. Electrocardiography (ECG), analog and digital
processing of ECG signals. Measurement of blood pressure, heart sound, flow
and volume of blood. Statistical analysis of heart rate and blood pressure
measurements. Basic respiratory system measurements. Principles of clinical
lab instrumentation. Term project.
Prerequisites EE
312, EE 370, EE 372
EE 472 Biomedical Imaging Systems
Fundamentals of medical imaging physics and
systems: X-ray radiography, ultrasound, radionuclide imaging, and magnetic
resonance imaging (MRI). Biological effects of each modality. Tomographical reconstruction
principles, including X-ray computed tomography (CT), position emission
tomography (PET), and single-photon emission computed tomography (SPECT).
Prerequisites EE 250, MATH 207
EE 473 Introduction to Rehabilitation Engineering
Concepts of therapy, rehabilitation,
prosthesis, orthosis. Therapeutic effects of electrical current. Examples of
common devices: pacemakers and defibrillators. Sensory and communication
aids. Neuromuscular stimulators. Physical therapy equipment. Electro-surgical
equipment. Medical applications of lasers. Ventilators. Artificial kidney.
Neonatal care. Radiation therapy.
Prerequisites EE 370
EE 474 Safety, Reliability and Maintenance in Health Care
Definition of safety. Electrical, gas, and
fire safety and how to make safe environment for patients, medical personnel
and attendants. Reliability in health care facilities. Training of operators
for proper use of equipment. Generation of a computer database for equipment,
suppliers, dealers and manufacturers. Preventive maintenance procedures.
Corrective maintenance, repair and amendment of existing equipment. Basic
troubleshooting principles. Retrieving information from manufacturer's
catalogs and technical libraries.
Prerequisites EE 370
EE 475 Bimolecular Engineering
Thermodynamics, bimolecular
interactions, enzyme kinetics and bioenergetics. Biodesign, molecular
modeling and case studies. Cellular warfare, bioreactor networks. Application
examples and term project.
Prerequisites BIO 321
EE 476 Biomedical Systems Management
Responsibilities of biomedical engineers
working in health-care facilities. Codes, standards and regulations governing
clinical engineering practices. Bids preparation and tender evaluation.
Designing and layout of medical facilities. Equipment selection and
evaluation. Term project.
Prerequisites IE 256, EE 370
EE 477 Essentials of Medical Informatics
Electronic Medical Record (EMR), hospital
information system (HIS) standards and systems; image data compression, data
communication and transmission, security and protection for medical image
data. Picture archiving and communication systems (PACS), radiology
information system (RIS), lab information system (LIS) and medical imaging informatics (MII) for
filmless hospitals. A knowledge-based digital library for retrieving scenario
specific medical text documents. Integrated multimedia patient record
systems, computer-aided diagnosis (CAD), clinical decision support systems
(CDSS). Medical robotics and computer-integrated interventional medicine.
Molecular imaging in biology and pharmacology. The evolution of e-health
systems and smart medical home.
Prerequisites EE 370
EE 478 Biosensors and Biochips
Biosensors: introduction, concepts and
applications; biosensors for personal diabetes management; micro fabricated
sensors and the commercial development of biosensors; electrochemical sensors
and chemical fibro sensors. Biochips: introduction, basics of biochips and
microarray technology; construction, types of microarrays, data analysis;
biochips in health care and diagnostics, other applications; biochips
application to genomics. Micro
fluidics, BIAcore - an optical biosensor, use of microarrays in population
genetic and epidemiology, use of microarrays on forensics, DNA chip technology
for water quality management; bioagent chip, limitation of biochip
technology, commercial aspects of biochip technology, DNA computing.
Prerequisites EE 370
EE 479 Genetic Engineering and Health Diagnostics
Introduction to genetic engineering and its
role in health diagnosis. Enzymes in genetic engineering. Nucleic acid
hybridization and amplification. DNA based diagnosis, biochemical
diagnostics, cell based diagnostics and immunodiagnostics. Imaging
diagnostics and its relation to genetic expressions.
Prerequisites EE 370
EE 480 Computer Applications in Biomedical Engineering
Classification of computer applications in
the biomedical field. Available tools and techniques: hardware and software
resources in the PC field. Selected application examples: medical record
system, lab and pharmacy information system, office practice system, clinical
decision support system. Computerized diagnostics and therapeutic equipment.
Prerequisites EE 366
EE 482 Introduction to Artificial Intelligence
Expert systems, Machine Learning Algorithms,
Pattern recognition, Computer vision, Knowledge representation and datasets,
Optimization and problem-solving methods, Reasoning, AI applications.
Prerequisites EE 367
EE 484 VLSI Design
Theory and design of computational/computer
systems with very large scale integration (VLSI). Flow of data and control
signals in processor systems: array systems, systems of systematic structures
and systems of hierarchical organization. Algorithms for processor systems.
Control units and system controllers. Highly concurrent systems. Layout
theory and algorithms. Computer-aided layout (interactive layout).
Prerequisites EE 460, EE 411
EE 490 Special Topics in Electrical Engineering
Selected topic to develop the skills and
knowledge in a given field.
Prerequisites Approval of Department
EE 491 Special Topics in Electrical Power Engineering
Selected topic to develop the skills and
knowledge in a given field.
Prerequisites EE 451
EE 492 Special Topics in Electrical Machines
Prerequisites EE 441
EE 493 Special Topics in Electronics
Prerequisites EE 312
EE 494 Special Topics in Communications
Prerequisites EE 321
EE 495 Special Topics in Computer Engineering
Prerequisites EE 361, EE 367, EE 331
EE 496 Special Topics in Automatic Control
Prerequisites EE 331, IE 331
EE 497 Special Topics in Biomedical Engineering
Prerequisites EE 370
EE 499 Senior Project
The student is required to function on a
multidisciplinary team to design a system, component, or process to meet
desired needs within realistic constraints. A standard engineering design
process is followed including the selection of a client-defined problem,
literature review, problem formulation (objectives, constraints, and
evaluation criteria), generation of design alternatives, work plan,
preliminary design of the selected alternative, design refinement, detailed
design, design evaluation, and documentations. The student is required to
communicate, clearly and concisely, the details of his design both orally and
in writing in several stages during the design process including a final
public presentation to a jury composed of several subject-related
professionals.
Prerequisites Approval of Department
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