ELE 100 - ELEMENTS OF ELECTRONICS



COURSE DESCRIPTION:
Basic principles used to explain the operation of electrical and electronic devices such as radios, stereos, televisions, radars, computers, microwave ovens, and other common electronic equipment..
CREDITS: 3

 


ELE 210 - ENGINEERING CIRCUIT ANALYSIS



COURSE DESCRIPTION:
Properties of electric circuit elements, Ohm’s and Kirchhoff’s laws; node and loop equations; AC sources and impedance; time domain transient and frequency domain; and steady state analysis. Three lectures and one recitation per week.
CREDITS: 3
PREREQUISITE: MATH 230 and PHYS 273 with a grade of C or better

 


 

 

ELE 210U - ENGINEERING CIRCUIT LABORATORY PROJECT



COURSE DESCRIPTION:
Laboratory to design and build electrical circuit projects. Team project must be designed and implemented by the end of the semester. Meets two hours a week.
CREDITS: 1
PREREQUISITE: ELE 250
COREQUISITE: ELE 210

 


 

 

ELE 215 - ELECTRONIC INSTRUMENTATION



COURSE DESCRIPTION:
Concepts and principles of analog and digital transducers, amplifiers, and instrumentation. Emphasis on use of electronic laboratory equipment and experimental instrumentation. Not available for credit to electrical engineering majors. Two one-hour lectures and one two-hour laboratory per week.
CREDITS: 3
PREREQUISITE: ELE 210

 


 

 

ELE 250 - COMPUTER ENGINEERING I



COURSE DESCRIPTION:
Design of digital circuits using SSI, LSI, and VLSI components. Combinational design techniques as well as sequential design techniques presented with the use of Boolean algebra, map method, tabulation method, and state transition diagrams. Lecture, discussion three periods per week; laboratory, problem session two periods per week.
CREDITS: 4
PREREQUISITE: MATH 155

 

 

ELE 315 - SIGNALS AND SYSTEMS



COURSE DESCRIPTION:
Analysis of RLC circuits with applications to filters; Bode Plot; Fourier transforms, Laplace transforms, introduction to discrete time systems; 2 -port network.
CREDITS: 3
PREREQUISITE: ELE 210 with a grade of a C or better and MATH 336.

 


 

 

ELE 330 - ELECTRONIC CIRCUITS



COURSE DESCRIPTION:
Unified treatment of the applications of semiconductor devices, including p-n junctions, bipolar transistors, and field effect devices. Topics include device modeling, biasing, input impedance, output impedance, voltage gain, current gain, and power gain and Op. Amp. Design and analysis of single and multiple stage amplifiers. Lecture, discussion three periods per week; laboratory session two periods per week.
CREDITS: 4
COREQUISITE: ELE 210U and MATH 336.

LINK TO SYLLABI


 

 

ELE 335 - THEORY OF SEMICONDUCTOR DEVICES I



COURSE DESCRIPTION:
Unified treatment of the theory of operation of semiconductor devices, including p-n junctions, bipolar transistors, and field effect transistors. Topics include doping, band gap, mobility, carrier lifetime, photolithographic techniques, passivation, chemical etching, metallization, and device testing.
CREDITS: 3
PREREQUISITE: CHEM 210T and CHEM 212 with a grade of C or better, ELE 210, and PHYS 283.

 


 

 

ELE 340 - ELECTRICAL POWER SYSTEMS



COURSE DESCRIPTION:
Study of the fundamentals of magnetic circuits and Faraday’s law to create electrical or mechanical energy. Study of transformers, mutual inductance, 3-phase power systems, induction motors, synchronous machines, and DC machines, with emphasis on the applications in engineering practice. Lecture, discussion three periods per week; laboratory, problem session two periods per week.
CREDITS: 4
PREREQUISITE: ELE 210 with a grade of C or better and PHYS 273.

 


 

 

ELE 356 - COMPUTER ENGINEERING II



COURSE DESCRIPTION:
Analysis of microprocessors with emphasis on architecture, bus cycle, internal registers, addressing modes, and instruction sets. Memory and I/O interface techniques.  Lecture, discussion three periods per week; laboratory, problem session two periods per week.
CREDITS: 4
PREREQUISITE: ELE 250

 

 

ELE 360 - COMMUNICATIONS SYSTEMS



COURSE DESCRIPTION:
.Introduction to communication system analysis. Analysis and design of radio frequency electronic circuits; building blocks of radio transmitters and receivers; circuit conditions required to produce oscillation, frequency translation, modulation, and detection. Introduction to phase lockedloop circuit design. Lecture, discussion three periods per week; laboratory, problem session two periods per week.
CREDITS: 4
PREREQUISITE: ELE 315, ELE 330, and IENG 335 or STAT 350.

 


 

 

ELE 370 - ENGINEERING ELECTROMAGNETICS



COURSE DESCRIPTION:
Fundamentals of electromagnetic field theory; concepts of force, energy, potential, capacitance, and inductance in electromagnetic fields; analytical and experimental solutions of Laplace’s equation; Maxwell’s equations in differential and integral form.
CREDITS: 3
PREREQUISITE: ELE 210, MATH 232, and MATH 336

 


 

 

ELE 380 - CONTROL SYSTEMS I



COURSE DESCRIPTION:
Control system modeling for electromechanical systems using block diagram, flow chart, flow graphs, and derivation of transfer function using Laplace transforms.  Time and frequency domain analysis and controller design using root-locus, Routh- Hurwitz stability method, and Bode Plots. Software for control system used as an aid in the control system analysis and design process.
CREDITS: 4
PREREQUISITE: ELE 315 and ELE 330 or ELE 215 and MEE 321.

 


 

 

ELE 421 - BIOMEDICAL SENSOR ENGINEERING



COURSE DESCRIPTION:
Theory, analysis, and design of biomedical sensors. Topics include biological elements; immobilization of biological components; medical, biological, and chemical sensors; and transducers based on electrochemistry, optics, and solidstate devices.
CREDITS: 3
PREREQUISITE: Grade of C or better in CHEM 210T and CHEM 212, ELE 215, ELE 330, ELE 335, and PHYS 273; or consent of department.

 


 

 

ELE 430 - DESIGN WITH FIELD PROGRAMMABLE LOGIC DEVICES



COURSE DESCRIPTION:
Design of high performance logic designs utilizing programmable logic gates. Design of finite state machines and introduction to latest computer-aided tools.
CREDITS: 3
PREREQUISITE: ELE 250 or consent of department.

 


 

 

ELE 431 - THEORY OF SEMICONDUCTOR DEVICES II



COURSE DESCRIPTION:
Continuation of ELE 335 dealing with complex semiconductor devices. Theory of operation of integrated circuits, solid state lasers, switching devices, and negative conductance microwave devices.
CREDITS: 3
PREREQUISITE: ELE 335

 


 

 

ELE 432 - SEMICONDUCTOR DEVICE FABRICATION LABORATORY



COURSE DESCRIPTION:
Design and fabrication of active semiconductor devices. Laboratory exercises include artwork and pattern generation, mask making, oxidation, photolithographic processing, diffusion, metallization, and device testing.
CREDITS: 3
COREQUISITE: ELE 335 or consent of department

 


 

 

ELE 433 - DESIGN OF GALLIUM ARSENIDE INTEGRATED CIRCUITS



COURSE DESCRIPTION:
Fundamentals of GaAs devices and logic families; fabrication processes; physical layout for VLSI circuits; interconnection and
testing of high speed systems.
CREDITS: 3
PREREQUISITE: ELE 335

 


 

 

ELE 434 - SEMICONDUCTOR MATERIAL AND DEVICE CHARACTERIZATION



COURSE DESCRIPTION:
Study of fundamentals and principles of semiconductor material properties with applications to device characterization. Modern measurement techniques of semiconductor industry including electrical, optical, chemical, and physical methods.
CREDITS: 3
PREREQUISITE: ELE 335 or consent of department.

 


 

 

ELE 435 - INTEGRATED CIRCUIT ENGINEERING



COURSE DESCRIPTION:
Basic theory of integrated circuits including MOS processing technology. Principles of layout design, simulation, and design rule checking of large-scale integrated circuits. Introduction to design tools and techniques including utilization of available design software packages. Requirements include the design, simulation and layout of an integrated circuit to the point of mask generation.
CREDITS: 3
PREREQUISITE: ELE 250 and ELE 330.

 


 

 

ELE 436 - ANALOG MOS VLSI ENGINEERING



COURSE DESCRIPTION:
Introduction to analog MOS (nMOS and CMOS) circuits. MOS transistor as both a switch and a linear device. Different MOS circuits such as amplifiers, switches, comparators, sensors, D/A-A/D converters, multipliers, and neural networks are investigated.
CREDITS: 3
PREREQUISITE: ELE 330 or consent of department.

 


 

 

ELE 437 - HYBRID CIRCUIT DESIGN



COURSE DESCRIPTION:
Lecture/laboratory course covering thick film processing techniques as they apply to the design and fabrication of miniature electronic circuits. Topics include minimum design rules, design of electronic components, artwork generation, screen preparation, screen printing, drying and firing profiles, and trimming.
CREDITS: 3
PREREQUISITE: ELE 360

 


 

 

ELE 438 - THIN FILM ENGINEERING



COURSE DESCRIPTION:
Lecture/laboratory course designed to demonstrate theory and principles of thin film processing including vacuum processing and deposition techniques. Topics include resistive evaporation, DC sputtering, RF sputtering, ion beam sputtering, electron beam evaporation, methods of achieving vacuum, and measurement techniques.
CREDITS: 3
PREREQUISITE: ELE 335

 


 

 

ELE 440 - POWER ELECTRONICS



COURSE DESCRIPTION:
Introduction to concepts involved with switch mode power electronic circuits. Analysis of basic circuit topologies including AC/DC, DC/DC, and DC/AC converters.  Discussion of the desired outputs of these circuits as well as undesired components such as harmonies and ripple.
CREDITS: 3
PREREQUISITE: ELE 330 and ELE 340

 


 

 

ELE 441 - ELECTRIC DRIVES



COURSE DESCRIPTION:
Advanced discussion of different types of electric motors under various load conditions. Application of power electronic drives to electric motors. Topics include DC drives, AC induction motor drive, and AC synchronous motor drives. Efficiency and harmonic effects discussed for each drive system.
CREDITS: 3
PREREQUISITE: ELE 330 and ELE 340.

 


 

 

ELE 450 - DIGITAL DESIGN WITH HDL



COURSE DESCRIPTION:
Design, simulation, and synthesis of digital circuits and systems using Verilog HDL or VHDL.  Topics include digital design methodologies, finite state automata, behavioral models, structural design, finite state machines and datapath controllers, and algorithms and architectures for digital signal processors. Includes term project to design, simulate, and synthesize a digital circuit/system.
CREDITS: 3
PREREQUISITE: ELE 250 and CSCI 240, or consent of department.

 


 

 

ELE 451 - DIGITAL FILTER DESIGN



COURSE DESCRIPTION:
Difference equations, z-transform, Fourier representation of sequences, discrete-time system transfer functions, and infinite impulse response discrete-time filters design.  Includes implementation considerations and computer aided filter design. Practical examples and computer simulations.
CREDITS: 3
PREREQUISITE: ELE 315

 


 

 

ELE 452 - REAL-TIME DIGITAL SIGNAL PROCESSING



COURSE DESCRIPTION:
In-depth presentation of the use of single-chip programmable signal processors.  Hardware design aspects of digital signal processing (DSP) systems, architectural issues, and fixed versus floating pointing representations for implementing DSP algorithms. Applications to speech processing, adaptive filtering, and telecommunications.
CREDITS: 3
PREREQUISITE: ELE 356 and ELE 451, or consent of department.

 


 

 

ELE 454 - INTRODUCTION TO DIGITAL IMAGE PROCESSING



COURSE DESCRIPTION:
Principles, techniques, and algorithms for enhancements of degraded images, compression of pictorial information, recognition of patterns in scenes, reconstruction of a picture from projections, and descriptions of objects in a scene.
CREDITS: 3
PREREQUISITE: Senior standing, CSCI 240, and consent of department.

 


 

 

ELE 455 - COMPUTER SYSTEM ARCHITECTURE



COURSE DESCRIPTION:
Register transfer and micro-operation, basic computer organization and design; central processing unit; micro-programmed control; pipeline and vector processing; computer arithmetic; input/output organization, and memory organization.
CREDITS: 3
PREREQUISITE: ELE 250

 


 

 

ELE 456 - INTRODUCTION TO PATTERN RECOGNITION



COURSE DESCRIPTION:
Theory and design of pattern recognition systems. Topics include pattern recognition and perception, non-parametric decision theoretical classification, statistical discriminant functions, Fisher’s approach, unsupervised learning systems (clustering) and their performance, and neural networks for pattern recognition.
CREDITS: 3
PREREQUISITE: CSCI 240 or CSCI 241, ELE 350, and STAT 350 or IENG 335, or consent of department.

 


 

 

ELE 457 - MICROPROCESSOR



COURSE DESCRIPTION:
Analysis of computer logic systems.  Topics include parallel and serial I/O ports; memory interface, I/O interface, and interrupt interface.
CREDITS: 3
COREQUISITE: ELE 356

 


 

 

ELE 461 - SYNTHESIS OF ACTIVE AND PASSIVE FILTERS



COURSE DESCRIPTION:
Principles of network synthesis are introduced. Synthesis techniques are used to design active and passive filters.
CREDITS: 3
PREREQUISITE: ELE 360

 


 

 

ELE 464 - SYSTEM DESIGN UTILIZING ANALOG INTEGRATED CIRCUITS



COURSE DESCRIPTION:
Basic theory for the utilization of special purpose integrated circuit amplifiers in application specific to circuit designs, including special differential and operational amplifier circuits.
CREDITS: 3
PREREQUISITE: ELE 330

 


 

 

ELE 470 - MICROWAVE CIRCUITS AND DEVICES



COURSE DESCRIPTION:
Wave equation; microwave waveguides and components; solid-state devices and circuits; microwave integrated circuits; microwave test equipment and laboratory measurements.
CREDITS: 3
PREREQUISITE: ELE 370

 


 

 

ELE 471 - LIGHTWAVE ENGINEERING



COURSE DESCRIPTION:
Theory, analysis, and design of opto electronic communication techniques. Multi-mode and monomode optical fibers examined for loss, dispersion, and practical considerations. Optical receiver, transmitter, and repeaters presented with an introduction to optical signal processing.
CREDITS: 3
PREREQUISITE: ELE 335, ELE 360, and ELE 370, or consent of department.

 


 

 

ELE 474 - TRANSMISSION LINE MEDIA AND WAVE PROPAGATION



COURSE DESCRIPTION:
Theory and applications of various transmission line media such as two-wire, coaxial, stripline, and microstrip lines. Principles of wave propagation in freespace and waveguides. Distributed circuits and impedance matching using the Smith chart approach.
CREDITS: 3
PREREQUISITE: ELE 370

 


 

 

ELE 475 - ANTENNA THEORY AND DESIGN



COURSE DESCRIPTION:
Fundamentals of electromagnetic radiation from wire and aperture-type antennas; applications of field equivalence principles to aperture radiation; receiving antennas and noise evaluation of communication systems; antenna test equipment and measurement techniques.
CREDITS: 3
PREREQUISITE: ELE 370

 


 

 

ELE 477 - ADVANCED MICROWAVE AND MILLIMETER WAVE ENGINEERING



COURSE DESCRIPTION:
Analysis of various transmission-line media, including rectangular and circular waveguides, dielectric waveguides, finlines, and microstrip transmission lines; microwave/millimeter wave passive and active components; theory and design of integrated circuits, such as receiver front-ends; application of microwave systems and measurement techniques.
CREDITS: 4
PREREQUISITE: ELE 370

 


 

 

ELE 480 - CONTROL SYSTEMS II



COURSE DESCRIPTION:
Design and compensation of feedback control systems. State-variable approach to the analysis and design of feedback control systems. Use of digital controllers in modern control systems.
CREDITS: 3
PREREQUISITE: ELE 380 or MEE 322.

 


 

 

ELE 481 - DIGITAL CONTROL SYSTEMS



COURSE DESCRIPTION:
Introduction to digital and sampled-data control systems. Analysis and design of digital systems using z-transform and state-space methods. Study of the effects of quantization and sampling upon stability and performance.
CREDITS: 3
PREREQUISITE: ELE 480

 


 

 

ELE 491 - ELECTRICAL ENGINEERING DESIGN PROPOSAL



COURSE DESCRIPTION:
Discussion of educational programs, career opportunities, and modern topics in electrical engineering. Select and write proposal for senior design project. For electrical engineering students only. Team project required.
CREDITS: 1
PREREQUISITE: Consent of department.

 


 

 

ELE 492 - ELECTRICAL ENGINEERING DESIGN PROJECT



COURSE DESCRIPTION:
Students use their engineering design concepts and analytical and computer tools, in conjunction with their own ingenuity, to create a new solution to a specified engineering design problem. Team project required.
CREDITS: 3
PREREQUISITE: ELE 491.

 


 

 

ELE 497 - INDEPENDENT STUDY



COURSE DESCRIPTION:
Independent pursuit of problems in electrical engineering under faculty supervision. Written report required. May be repeated to a maximum of 3 semester hours.
CREDITS: 1-3
PREREQUISITE: Consent of department.

 


 

 

ELE 498 - SPECIAL TOPICS



COURSE DESCRIPTION:
Regularly scheduled courses in advanced topics in electrical engineering. Biomedical Engineering, Microelectronics, Power Electronics, Computer Engineering, Communications Engineering, Electromagnetics, Control Systems, Digital Signal Processing.  May be repeated to a maximum of 3 semester hours.
CREDITS: 1-3
PREREQUISITE: Consent of department.

 


 

 

ELE 499H - HONORS UNDERGRADUATE RESEARCH



COURSE DESCRIPTION:
Pursuit of an undergraduate research topic in electrical engineering under faculty supervision. Written report required. May be repeated to a maximum of 3 semester hours over two or three semesters.
CREDITS: 1-3
PREREQUISITE: Consent of department.

 


 

 

ELE 530 - ADVANCED INTEGRATED CIRCUIT ENGINEERING



COURSE DESCRIPTION:
Design of large integrated circuits explored at transistor, gate, and register subsystem level. Mathematical abstractions related to parasitic effects and discussion of physics layout complications.
CREDITS: 3
PREREQUISITE: ELE 435 or consent of department.

 


 

 

ELE 531 - VLSI ENGINEERING: COMPUTER-AIDED DESIGN



COURSE DESCRIPTION:
Creative use of design aids in parameter extraction, schematic capture, chip layout, channel routing, and maze routing multilevel simulation. Artwork generation and verification.
CREDITS: 3
PREREQUISITE: ELE 435 or consent of department.

 


 

 

ELE 532 - VLSI ENGINEERING: DEVICE DESIGN



COURSE DESCRIPTION:
Special design considerations of NMOS, COMS, and bipolar technologies. Topics include device simulation, application of graph theory to chip layout, design rules and validation techniques, and strategies for layout of microcells and macrocells.
CREDITS: 3
PREREQUISITE: ELE 530 or consent of department.

 


 

 

ELE 533 - VLSI ENGINEERING: CHIP DESIGN



COURSE DESCRIPTION:
Complete design of integrated circuits in MOS and bipolar technologies. Designs evaluated by computer simulation with the computer results utilized in an iterative manner to optimize circuit design prior to mask generation.
CREDITS: 3
PREREQUISITE: ELE 532 or consent of department.

 


 

 

ELE 534 - INTEGRATED CIRCUIT DESIGN FOR TESTABILITY



COURSE DESCRIPTION:
Current methodologies and techniques for design of VLSI systems are introduced. Topics include the introduction to integrated circuit design; modeling integrated circuits at functional, structural, and physical levels; fault modeling and fault detection; testing; design for testability; built-in self test; and test pattern generation.
CREDITS: 3
PREREQUISITE: ELE 435 or consent of department.

 


 

 

ELE 535 - ADVANCED ELECTRONIC DEVICES



COURSE DESCRIPTION:
Theory, analysis, and design of advanced electronic devices such as metal semiconductor field effect transistors, modulation doped field effect transistors, heterojunction bipolar transistors, and quantum well devices.
CREDITS: 3
PREREQUISITE: ELE 335 or consent of department.

 


 

 

ELE 536 - DESIGN OF MICROSYSTEMS



COURSE DESCRIPTION:
Theory, analysis, and design of micro-electro-mechanical systems. Topics include fabrication process of micro and nano-devices; electrical, mechanical, magnetic and thermal properties of micro and nanostructures; and analysis of newly developed nanostructures.
CREDITS: 3
PREREQUISITE: ELE 335 and ELE 330, or consent of department.

 


 

 

ELE 537 - THIN FILM RESISTIVE SENSORS



COURSE DESCRIPTION:
Analysis and design of resistive sensors and capacitive sensors. Includes anisotropic magnetoresistors (AMR), giant magnetoresistors (GMR), thermistors, humidity sensors, and mass flow sensors.
CREDITS: 3
PREREQUISITE: ELE 335 and ELE 370; or consent of department.

 


 

 

ELE 540 - ADVANCED POWER ELECTRONICS



COURSE DESCRIPTION:
Discussion of advanced topics involved with switch mode power electronic circuits.  Topics include switching characteristics of power semiconductor devices, resonant converters, and soft-switching converters.  Advanced techniques for the modeling and control of power electronic circuits.
CREDITS: 3
PREREQUISITE: ELE 440.

 


 

 

ELE 550 - DIGITAL SIGNAL PROCESSING



COURSE DESCRIPTION:
Theory and computer realization of digital signal processing. Fourier and z-transform hardware and software implementation of digital filters. Discrete Butterworth and Chebyshev filters. FIR, IIR, and linear phase filters.  Effects of finite word length in fixed and floating-point arithmetic.
CREDITS: 3
PREREQUISITE: ELE 315 or consent of department.

 


 

 

ELE 551 - RANDOM SIGNAL PROCESSING



COURSE DESCRIPTION:
Statistical description of discrete and continuous signals in communication. Power spectrum analysis. Applications to filtering and interpolation problems.  Detection and extraction of signals in noise background based on statistical decision theory.
CREDITS: 3
PREREQUISITE: ELE 360 or ELE 550, or consent of department.

 


 

 

ELE 553 - DIGITAL SPEECH PROCESSING



COURSE DESCRIPTION:
Principles, techniques, and algorithms for speech signals. Emphasis on the representation of speech signals in digital form, the implementation of sophisticated processing techniques, and the classes of applications which rely heavily on digital processing.
CREDITS: 3
PREREQUISITE: ELE 551 or consent of department.

 


 

 

ELE 554 - ADVANCED TOPICS IN DIGITAL IMAGE PROCESSING



COURSE DESCRIPTION:
Advanced treatment of image processing techniques; linear and nonlinear image restoration, image segmentation, image enhancement, image encoding, feature description, and image understanding; and related computer projects.
CREDITS: 3
PREREQUISITE: ELE 454 or consent of department.

 


 

 

ELE 555 - MICROPROCESSOR SYSTEM DESIGN



COURSE DESCRIPTION:
Principles and techniques required to design a microprocessor-based electronic system by treating the microprocessor as a component of the overall system. Hardware design aspects of systems including buses, memory system design, I/O, interrupts, DMA, and memory management will be examined.
CREDITS: 3
PREREQUISITE: ELE 457 or consent of department.

 


 

 

ELE 556 - PATTERN RECOGNITION



COURSE DESCRIPTION:
Principles of approaches currently employed in pattern recognition; nonparametric classification, clustering analysis, nonsupervised learning, dimensionality reduction, feature extraction, shape recognition, curve fitting, polygon clipping, and graphic display generation.
CREDITS: 3
PREREQUISITE: CSCI 230 or consent of department.

 


 

 

ELE 557 - PARALLEL PROCESSING



COURSE DESCRIPTION:
Fundamental concepts of parallel processor organization. Development of basic algorithms suitable for such systems. Parallel sorting and interconnection networks.  Applications and discussion of specific processors.
CREDITS: 3
PREREQUISITE: Consent of department.

 


 

 

ELE 558 - ARTIFICIAL INTELLIGENCE



COURSE DESCRIPTION:
Methodology in the design of a knowledge-based system using LISP or other appropriate computer language. Subjects and strategies including information base, forward chaining, testing and debugging, and dedicated hardware.  Stages from initial problem definition to system implementation will be discussed.
CREDITS: 3
PREREQUISITE: Consent of department.

 


 

 

ELE 559 - ADAPTIVE SIGNAL PROCESSING



COURSE DESCRIPTION:
The adaptive transversal filter with least mean square algorithm introduced and compared with frequency-domain and lattice algorithms. Applications to modeling and system identification, inverse modeling, deconvolution, equalization, adaptive noise canceling, and adaptive array. Practical examples and computer simulations.
CREDITS: 3
PREREQUISITE: ELE 551 or consent of department.

 


 

 

ELE 560 - DIGITAL AND ANALOG COMMUNICATION SYSTEMS



COURSE DESCRIPTION:
Theory of digital communication systems including digital transmission of analog systems. Digital communication in the presence of noise and the use of error correcting codes.
CREDITS: 3
PREREQUISITE: ELE 360 or consent of department.

 


 

 

ELE 561 - ERROR CONTROL CODING



COURSE DESCRIPTION:
Fundamentals of coding theory digital communications. Topics include finite fields, linear block codes, convolutional codes, and parallel concatenated codes. Design and implementation for a digital communication system.
CREDITS: 3
PREREQUISITE: ELE 360 or consent of department.

 


 

 

ELE 562 - OPTICAL COMMUNICATION



COURSE DESCRIPTION:
Fundamentals of the propagation of optical beams in various media. Theory and applications of optical resonators. Laser oscillation and modulation techniques of laser beams. Optical detection and noise in optical systems. Twolaser optical systems and phase conjugate optics.
CREDITS: 3
PREREQUISITE: ELE 335 and ELE 360, or consent of department.

 

ELE 564 - SPREAD SPECTRUM COMMUNICATION SYSTEMS



COURSE DESCRIPTION:
Concepts of spread spectrum digital communication and frequency hopped communication systems, including code tracking loops, synchronization of the receiver spreading code, and binary shift register sequence.
CREDITS: 3
PREREQUISITE: ELE 560 or consent of department.

 

ELE 571 - MICROWAVE INTEGRATED CIRCUITS



COURSE DESCRIPTION:
Analysis and design of microwave/millimeter wave integrated circuits using various transmission-line media, such as microstrips, finlines, and dielectric waveguides. “Supercompact” will be used as a design tool.
CREDITS: 3
PREREQUISITE: Consent of department.

 

ELE 572 - MICROWAVE SOLID-STATE DEVICES AND CIRCUITS



COURSE DESCRIPTION:
Theory of operation of passive and active microwave devices including beamlead detector and mixer diodes, switching and varactor diodes, Gunn and IMPATT diodes; use of these devices in various microwave circuits, such as receiver front-ends, Gunn and IMPATT oscillators, and voltage-controlled oscillators. Design of practical microwave/millimeter wave circuits.
CREDITS: 3
PREREQUISITE: Consent of department.

 

ELE 580 - MICROPROCESSOR SENSORS AND CONTROL SYSTEMS



COURSE DESCRIPTION:
Application of microprocessors to various sensors including temperature, pressure, flow, and moisture measurements. Development of microprocessor based control systems. Includes laboratory experiments in microprocessor interface techniques.
CREDITS: 3
PREREQUISITE: ELE 380 or MEE 322, or consent of department.

 

ELE 581 - STATE SPACE ANALYSIS



COURSE DESCRIPTION:
Study of linear systems emphasizing state space analysis. Topics include signals and signal representation, mathematic description of continuous and discrete systems, matrices and linear spaces, state variables and linear continuous systems, state variables and linear discrete systems, system controllability and observability, and introduction to stability theory.
CREDITS: 3
PREREQUISITE: ELE 480 or consent of department

 

ELE 582 - NONLINEAR CONTROL SYSTEMS



COURSE DESCRIPTION:
Study of the methods used for the analysis and design of nonlinear feedback control systems. Emphasis on the phase-plane method, numerical techniques, describing functions, and the methods of Lyapunov.
CREDITS: 3
PREREQUISITE: ELE 480 or consent of department.

 

ELE 583 - COMPUTERIZED CONTROL AND MODELING OF AUTOMATED SYSTEMS



COURSE DESCRIPTION:
Study of computerized control in automated systems for industries, emphasizing digital controllers and linear quadratic controllers (LQC). Topics include introduction to computer control, digital controller design, command generation for process control, process modeling, optimal design methods, finite-wordlength effects, and case studies.
CREDITS: 3
PREREQUISITE: ELE 480 or consent of department.

 

ELE 584 - OPTIMUM CONTROL SYSTEMS



COURSE DESCRIPTION:
Introduction to the basic theory and methods for the optimization of control system problems. Topics include matrix calculus, optimization with and without constraints, calculus of variations, dynamic programming with applications, optimal control of continuous and discrete systems, state estimation, and Kalman filters with electrical engineering applications.
CREDITS: 3
PREREQUISITE: ELE 481 or consent of department.

 

ELE 585 - CONTROL LAWS AND STRATEGIES FOR MULTI-LINK MANIPULATORS



COURSE DESCRIPTION:
Study of servo control for manipulators, emphasizing various control schemes currently active in the robotic field. Topics include single-link control, kinematics and dynamics of multi-link manipulators, computed torque technique, variable-structure control, nonlinear feedback control, resolved motion control, adaptive control, and force control.
CREDITS: 3
PREREQUISITE: ELE 480 or consent of department.

 

ELE 587 - FUZZY LOGIC IN ENGINEERING



COURSE DESCRIPTION:
Study of fuzzy logic with emphasis on its engineering applications. Topics include classical and fuzzy sets, classical and fuzzy relations, membership functions, fuzzyto-crisp conversions, fuzzy arithmetic, classical and fuzzy logic, fuzzy rule-based systems, fuzzy control systems, and other engineering applications.
CREDITS: 3
PREREQUISITE: Consent of department.

 

ELE 589 - INTRODUCTION TO NEURAL NETWORKS



COURSE DESCRIPTION:
Study of neural networks with an engineering application emphasis. Topics include feedforward neural networks, single layer feedback neural networks, supervised and unsupervised learning, and associative memories, as well as topics related to intelligent systems such as genetic algorithms.
CREDITS: 3

 

ELE 597 - INDEPENDENT STUDY



COURSE DESCRIPTION:
Independent pursuit of advanced problems in electrical engineering under faculty supervision. Written report required. May be repeated to a maximum of 3 semester hours.
CREDITS: 1-3
PREREQUISITE: ELE 590 or consent of department.

 

ELE 598 - SPECIAL TOPICS IN ELECTRICAL ENGINEERING



COURSE DESCRIPTION:
Biomedical Engineering, Microelectronics, Power Electronics, Computer Engineering, Communications Engineering, Electromagnetics, Control Systems, Digital Signal Processing Advanced study of electrical engineering topics offered in a regular class format. May be repeated to a maximum of 3 semester hours in each topic, but combined semester hours taken in all 400-level courses, ELE 597, and ELE 598 may not exceed 12 semester hours.
CREDITS: 1-3
PREREQUISITE: Consent of department.

 

ELE 599A - MASTER'S THESIS



COURSE DESCRIPTION:
May be repeated to a maximum of 6 semester hours.
CREDITS: 1-6
PREREQUISITE: Consent of department.

 

ELE 599B - MASTER'S PROJECT



COURSE DESCRIPTION:
May be repeated to a maximum of 3 semester hours.
CREDITS: 1-3
PREREQUISITE: Consent of department.

 

ELE 650 - MODERN SIGNAL PROCESSING ALGORITHMS AND APPLICATIONS



COURSE DESCRIPTION:
Study of modern signal processing algorithms and their applications. Algorithms to be investigated include fast signal processing algorithms, neural networks, higher-order spectrum analysis, wavelet analysis, and other emerging signal processing techniques. Example application areas are biomedical signal processing, signal representation and data compression, telecommunications, and speech processing.
CREDITS: 3
PREREQUISITE: ELE 550 and ELE 551, or consent of department.

 

ELE 656 - ADVANCED TOPICS IN PATTERN RECOGNITION



COURSE DESCRIPTION:
Advanced treatment of pattern recognition techniques; clustering analysis and nonsupervised learning, symbolic representation, pictorial shape analysis and recognition, graphics and image understanding.
CREDITS: 3
PREREQUISITE: ELE 556 or consent of department.