33 courses with the subject EE, each shown exactly as we captured it from the college's catalog, with every element we hold. Where the wording looks broken, that is our reading of the catalog, not the college's text.
EE 200Computer Utilization3
An introduction to the use of computers and computing methods to solve engineering problems.
Direct current circuit analysis, Ohm’s law, Kirchoff’s laws, nodal analysis and mesh analysis, Thevenin’s theorem, source transformation, maximum power transfer, R-L, R-C, and RLC transient circuit analysis.
A grade of C or better in both EE 211 and EE 221. Completion of, or concurrent enrollment in EE 202. Credits: 1
EE 221Logic Systems Design I3
Introduction to Boolean algebra; mixed logic; design of combinational circuits; introduction to sequential systems; MSI building blocks; includes laboratory design projects.
Introduction to electromagnetic fields and waves. Static electromagnetic fields, potentials, solution techniques, and boundary conditions. Introduction to Maxwell’s equations applied to time-varying electromagnetic fields. Study of wave propagation in various media and guiding structures and at media interfaces.
A grade of C or better in the following: EE 202, MATH 256, and PHYS 231. Credits: 3
EE 331Fundamentals of Electronics and Semiconductors3
Theory and applications of semiconductor devices. Ideal operational amplifier applications including difference amplifiers and instrumentation amplifiers; non-idealities of operational amplifiers and their compensation; diode/p-n junction principles and applications; bipolar transistors (BJTs) and MOSFETs principles and circuits including DC biasing, small-signal analysis, and basic amplifier configurations.
Low and high-frequency analysis of transistor amplifiers. Multistage and feedback amplifier design. Stability and oscillation. Operational amplifier design and applications.
Modeling and analysis of continuous systems in time and frequency domains; control system design; and applications of control theory to electromechanical system simulations.
Completion of, or concurrent enrollment in EE 202. Credits: 3
EE 354Electric Power Engineering3
Fundamentals of power systems, energy conversion and electromagnetic induction. Topics include basics of AC power generation, transmission and distribution, transformers, DC and AC machines, introduction to power semiconductor converters.
An introduction to industrial controls and automation systems with a focus on industrial process automation. Topics may include programmable logic controllers, industrial communication and data analysis, PID and model-based control, machine vision systems, and application of artificial intelligence in industrial processes.
Completion of, or concurrent enrollment in EE 333 or ME 403 or ECET 452 . Credits: 3
EE 411Analog Communication Systems3
This course presents the fundamentals of analog communications including the analysis of signals and systems, amplitude modulation and demodulation, and frequency modulation and demodulation. Course topics are reinforced with computer simulation of analog communication systems and labs. 2 Lecture, 2 Lab.
EE 412Fundamentals of Analog and Digital Communications3
Fundamentals of analog and digital communication systems including the analysis of analog and digital communication signals and systems, amplitude modulation and demodulation, frequency modulation and demodulation, digital encoding and decoding, basic error detection and error correction. Course topics are reinforced with computer simulations and hands-on labs. 4 Lecture/Lab.
This course presents the fundamentals of digital communications including a review of linear system theory and spectral analysis of signals, discrete-time sampling, baseband modulation and demodulation, bandpass modulation and demodulation, and synchronization. Course topics are reinforced with computer simulation of digital communication systems.
This course presents concepts of advanced digital communications including signal space, additive white Gaussian noise (AWGN), optimum detections and BER analysis, receiver equalizers, measure of information, mutual information, channel capacity and basics of error correcting codes. Course topics are reinforced with computer simulations.
Study of design principles and considerations for complex digital systems; logic synthesis, verification methodologies, timing analysis, and prototyping. Focus on HDL-based implementation of sizeable design problems using current design automation tools and programmable devices. The course will culminate in a design project with multiple constraints, appropriate engineering standards, and an associated technical report. 2 Lecture, 2 Lab.
Sampling and signal recovery in linear systems; analysis of sampled systems; discrete and fast Fourier transforms; z-transform; discrete convolution; design of digital FIR and HR filters.
Modern optics, optical communications, optical materials, optical devices, optical fiber and integrated optics, optical signals, optical networks, basic Fourier optics, and methods in signal processing.
PHYS 322 and a grade of C or better in EE 322 . Credits: 3
EE 426Advanced Electromagnetic Fields and Waves3
Study of advanced topics in electromagnetic (EM) fields and waves with a focus on practical applications. Topics may include sensors, waveguide systems, microstrip and stripline devices, and antennas.
Design principles and analysis methods of optical imaging systems including advanced geometrical optics approach, diffraction integral approach, and plane wave spectrum approach.
Optical waveguides, attenuation and dispersion, single and multi-mode fiber properties and measurements, sources and detectors, transmitter and receiver design, modulation, and multiplexing and system design.
A grade of C or better in both EE 425 and PHYS 322 . Credits: 3
EE 451Electric Power Systems3
Analysis, computer simulation, and hands-on activities of electric power systems. Electric energy and the environment; AC power transmission network parameters and models; power flow studies; power transformers; distribution system and loads; and synchronous generators.
Basic principles of electromechanical energy conversion and power electronics in drives; operational principles of DC and AC machines; torque, speed and position controller concepts for motor drives are introduced.
Completion of, or concurrent enrollment in EE 333 . Credits: 3
EE 453Smart Grid Design and Analysis3
Modeling concepts and operational principles in smart power grid, solar and wind energy generation systems, load flow, and fault studies in smart power grid systems are introduced.
A grade of C or better in EE 322 and the completion of PHYS 310 . Credits: 3
EE 471Power Electronics: Design and Analysis3
Analysis, design, and operation of power electronic circuits for motor drives and electric utility applications. Topics include power conversion methods and techniques which may cover AC→DC, DC→DC, DC→AC. 2 Lecture, 2 Lab.
Completion of, or concurrent enrollment in EE 333 . Credits: 3
EE 472Advanced Power Electronics and Drives: Design and Analysis3
The synthesis of power electronics-based converters for electric drives, utility related applications and AC synchronous and asynchronous machine control methodologies are introduced. 2 Lecture, 2 Lab.