MSE in Electrical Engineering
Program Sections:
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- Program Overview
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Advancements in electrical engineering are accelerating faster and faster, challenging the visionary engineer to find a place in the intensely competitive world of high technology. At ASU's Ira A. Fulton School of Engineering, faculty and student research teams are working on "breakthrough" knowledge, setting the pace for the remarkable spectrum of innovation that promises to revolutionize life and work!
The online graduate professional program in electrical engineering will connect you to the challenges of global integration and help prepare you and your virtual global peers for the many exciting career possibilities.
The online M.S.E. in Electrical Engineering offers area of studies in control systems, electric power and energy systems, electronic and mixed-signal circuit design, electromagnetics, antennas and microwave circuits, signal processing and communications, and solid-state electronics. A number of courses are offered online each semester.
- Admission Requirements
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- Student must hold an ABET accredited engineering undergraduate degree, 3.0 GPA in the last two years of undergrad course work
- Non-ABET engineering undergraduate degree, 3.5 GPA in last two years of study- Or have graduated first class with distinction- And must score 90 percent (720) or higher on the GRE quantitative section- And 4.0 or better on the writing section of the GRE
- Complete all required Division of Graduate Studies application materials
- ASU classes can be supplemented with up to six credit hours of approved graduate credit transferred from other institutions with advisor approval
- The program can be completed in two years, must be completed within a six year time period. Note: Courses must be taken concurrently to avoid having to reapply which will include additional application fees
- Program Requirements
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- At least 5 EEE courses
- At most 2 400-level courses
- At least 3 EEE 500-level courses
- At least 2 courses outside area of specialization
- At most 1 Independent Study (EEE590)
- No thesis required
- Students must complete a total of 30 credit hours equaling 10 courses
- A final comprehensive exam in the area of specialization completes the MSE requirements.
- Areas of study in Electrical Engineering
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Solid State Electronics
Solid-state electronics engineering studies the behavior of solids, including semiconductor materials and devices, insulators, and conductors. Semiconductors are the building blocks of integrated circuits for computers; electronic quartz watches; television and radio components, lasers in compact disc players, light emitters and detectors in fiber optic communication systems, and various automotive systems such as brakes, crash impact detectors, battery chargers, and power transmission systems.
COURSES
- EEE 435/591 - Microelectronics: Web
- EEE 436/591 - Fundamentals of Solid-State Devices: Web
- EEE 437/591 - Optoelectronics
- EEE 530 - Advanced Silicon Processing
- EEE 531 - Semiconductor Device Theory I
- EEE 532 - Semiconductor Device Theory II
- EEE 533 - Semiconductor Process/Device Simulation
- EEE 534 - Semiconductor Transport
- EEE 536 - Semiconductor Characterization
- EEE 537 - Semiconductor Optoelectronics I
- EEE 539 - Introduction to Solid-State Electronics
- EEE 731 - Advanced MOS Devices
Electronic and Mixed-Signal Circuit Design
Electronic and Mixed-Signal Circuit Design centers on integration of many analog and digital devices into one small package by combining innovative systems and integrated-circuit design techniques.
COURSES
- EEE 405/591 - Filter Design
- EEE 425/591 - Digital Systems and Circuits
- EEE 433/591 - Analog Integrated Circuits
- EEE 445/591 - Microwaves
- EEE 498/591 - VLSI
- EEE 523 - Advanced Analog Integrated Circuits
- EEE 524 - Communication Transceiver Circuits Design
- EEE 527 - Analog-to-Digital Converters
- EEE 545 - Microwave Circuit Design
- EEE 547 - Microwave Solid-State Circuit Design I
Signal Processing and Communications
Communication systems engineers design, build, and operate systems that transmit information, including cellular phones, radio, television, satellite, wireless and optical networks, and the Internet. Communication systems engineering relies on mathematical signal and system theory.
Digital signal processing extracts, encodes, and processes signals from sources such as radar, sonar, wireless communication transmitters, geological sensors, medical imaging devices, speech, music, and video while attempting to suppress noise and other forms of distortion.
COURSES
- EEE 448/591 - Fiber Optics
- EEE 455/591 - Communication Systems
- EEE 459/591 - Communication Networks
- EEE 546 - Advanced Fiber Optics
- EEE 548 - Coherent Optics
- EEE 551 - Information Coding Theory
- EEE 552 - Digital Communications
- EEE 553 - Coding and Cryptography
- EEE 558 - Wireless Communications
- EEE 405/591 - Filter Design
- EEE 407/591 - Digital Signal Processing
- EEE 506 - Digital Spectral Analysis
- EEE 507 - Multidimensional Signal Processing
- EEE 508 - Digital Image Processing and Compression
- EEE 550 - Transform Theory and Applications
- EEE 554 - Random Signal Theory
- EEE 598 - MATLab for DSP
- EEE 598 - Multimedia Signal Processing
- EEE 606 - Adaptive Signal Processing
- EEE 607 - Speech Coding for Multimedia Communications
Electric Power and Energy Systems
The development of new types of power supplies for both utility and high technology applications. The control of electric power systems by electronic devices and analysis of the dynamic interactions between the devices and systems. The work in recent years concentrated on power conditioning devices, force commutated PWM inverters, variable speed motor drives and evaluation of harmonics generated watt-hour meters disturbances.
COURSES
- EEE 460/591 - Nuclear Concepts for the 21st Century
- EEE 463/591 - Electrical Power Plants
- EEE 470/591 - Electric Power Devices
- EEE 471/591 - Power System Analysis
- EEE 473/591 - Electrical Machinery
- EEE 490/591 - Projects in Power Engineering
- EEE 571 - Power System Transients
- EEE 572 - Advanced Power Electronics
- EEE 573 - Electric Power Quality
- EEE 574 - Computer Solution of Power System
- EEE 577 - Power Engineering Operations and Planning
- EEE 579 - Power Transmission and Distribution
- EEE 598 - Power Plant Diagnostics, Modeling and Dynamics
- EEE 598 - Modern Power Plant Engineering
- EEE 770 - Advanced Topics in Power Systems
Electromagnetics, Antennas and Microwave Circuits
Electromagnetics is a discipline concerned with the study of charges, at rest and in motion, that produce currents and electric-magnetic fields. It is fundamental to the study of electrical engineering and physics, and indispensable to the understanding, design, and operation of many practical systems using antennas, scattering, microwave circuits and devices, wireless radio-frequency and optical communication, and radar.
COURSES
- EEE 443/591 - Antennas for Wireless Communications
- EEE 445/591 - Microwaves
- EEE 448/591 - Fiber Optics
- EEE 541 - Electromagnetic Fields and Guided Waves
- EEE 543 - Antenna Analysis and Design
- EEE 544 - High Resolution Radar
- EEE 545 - Microwave Circuit Design
- EEE 546 - Advanced Fiber Optics
- EEE 547 - Microwave Solid-State Circuit Design I
- EEE 548 - Coherent Optics
- EEE 549 - Lasers
- EEE 641 - Advanced Electromagnetic Field Theory
- EEE 643 - Advanced Topics in Electromagnetic Radiation
- EEE 647 - Microwave Solid State Circuit Design
Control Systems
The Systems and Controls program includes six graduate and seven graduate special topics courses in the areas of linear and nonlinear control systems, real-time and digital control systems, optimal control, distributed parameter systems, adaptive control, and neural networks. In addition, the theoretical material taught in the upper division undergraduate and graduate courses is enhanced through the use of computer projects.
COURSES
- EEE 511 – Artificial Neural Computation Systems
- EEE 550 – Transform Theory and Applications
- EEE 554 – Random Signal Theory I
- EEE 581 – Filtering of Stochastic Processes
- EEE 582 – Linear System Theory
- EEE 585 – Digital Control Systems
- EEE 586 – Nonlinear Control Systems
- EEE 587 – Optimal Control
- EEE 588 – Design of Linear Multivariable Control Systems
- EEE 686 – Adaptive Control Theory
