Skip to Content

Course Search Results

  • 3.00 Credits

    This course emphasizes the design, analysis, computer simulation, testing, and documentation of analog and digital electronic circuits, semiconductor devices, and complex electronic systems. Calculus, differential equations, Laplace transforms, Fourier transforms, and basic electromagnetic theory will be employed as required. (Fall) [Graded (Standard Letter)] Co-requisite(s): EE 3035 Prerequisite(s): EE 2250 and EE 2255 - Prerequisite Min Grade: D- Prerequisite:    EE 2250 A EE 2255 Corequisite:    EE 3035
  • 1.00 Credits

    This laboratory accompanies EE 4030. Emphasis will be placed on the construction, simulation, testing, and documentation of complex electronic circuits and systems. All projects will be completed in small teams. (Fall) [Graded (Standard Letter)] Co-requisite(s): EE 3030 Corequisite:    EE 3030
  • 3.00 Credits

    This second course of the digital circuits sequence is devoted to the study and analysis of circuits for digital arithmetic, counters, registers, decoders, encoders, multiplexers, characteristics of the various families of ICs, and interfacing digital & analog systems. Digital circuits are simulated, constructed, and tested. (Spring) [Graded (Standard Letter)] Prerequisite(s): EE 2780 - Prerequisite Min Grade: D- Prerequisite:    EE 2780
  • 3.00 Credits

    This class will familiarize students with the basic elements of signal processing. It will teach the key concepts in discrete- and continuous-time signals and systems including frequency domain analysis, linear time invariant systems, Fourier transforms, and filtering. The students will learn how to sample and reconstruct analog signals. The course will include a methodology to solve problems in signal processing numerically using programming languages (e.g. Matlab). (Fall) [Graded (Standard Letter)] Prerequisite(s): ENGR 2170 and EE 2250 - Prerequisite Min. Grade: D- Prerequisite:    ENGR 2170 ( A EE 2250 O ENGR 2250 )
  • 3.00 Credits

    This course will be an introduction to communication circuits and systems. Topics include noise, oscillators, RF amplifiers, AM modulations/receptions, TRF and super-heterodyne receivers, single sideband techniques, and introduction to FM. Circuits studied in class will be constructed and tested in lab. (Spring - Odd Years [As Needed]) [Graded Letter] Prerequisite(s): (EE 3030 and EE 3035) or EET 2710 - Prerequisite Min. Grade: D- Prerequisite:    ( EE 3030 A EE 3035 ) O EET 2710
  • 3.00 Credits

    This course will use Electronic Design Application (EDA) software to design electronics circuits. Electronic engineering drawings required for various electronics circuitry will be covered. Printed Circuit Board (PCB) design and fabrication will be covered. (Spring) [Graded (Standard Letter)] Prerequisite(s): EE 3030 or EET 2710 - Prerequisite Min Grade: D- Prerequisite:    EE 3030 O EE 4030 O EET 2710
  • 3.00 Credits

    A course designed to prepare the student with the key concepts of microprocessor architecture, interfacing, and assembly language programming. (Fall) [Graded Letter] Prerequisite(s): EE 3080 - Prerequisite Min. Grade: D- Prerequisite:    EE 3080
  • 3.00 Credits

    Application of engineering design principles to a team-based capstone project in the student's specialty area. Emphasis on creative and critical thinking, planning, design, execution and statistical evaluation of experiments, as well as teamwork, project management, and communication. Students will use engineering, systems engineering and project-management principles and concepts learned to-date to execute the project, complete a design report, and present results. Should be taken in the last semester before graduation. (Fall, Spring) [Graded (Standard Letter)] Registration Restriction(s): Senior standing required Equivalent Course(s): CE 4055, ME 4055
  • 3.00 Credits

    This class will familiarize students with the basics of power electronics. The topics will include principles of switch mode power conversion, analysis, design and control of dc-dc converters, PWM rectifiers and inverters, power management, power electronics applications in information technology, renewable energy systems, motion control, and lighting. (Spring [As Needed]) [Graded (Standard Letter)] Prerequisite(s): EE 3100 and EE 3030 - Prerequisite Min. Grade: D- Prerequisite:    EE 3100 ( A EE 3030 O EE 4030 )
  • 3.00 Credits

    This class will introduce the theory and practice of feedback control systems to students. The topics will include the Laplace transform, control system block diagrams and the transient and steady state response of the control systems. Also, students will learn how feedback systems affect to the transient and steady state response of the control systems. Other topics include dynamic systems, modelling, linearization techniques, and PID controllers. (Fall) [Graded (Standard Letter)] Prerequisite(s): EE 3030 - Prerequisite Min. Grade: D- Equivalent Course(s): ME 4310 Prerequisite:    EE 3030 O EE 4030