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    • 3.00 Credits

      Protection fundamentals. Generator protection, transformer, reactor and shunt capacitor protection bus, motor, line protection and pilot protection. Offered on demand. Lecture 3 hours. Prerequisite: ENEE 4720 or equivalent with minimum grade of C or department head approval. Senior elective. Differential Course Fee will be assessed
    • 3.00 Credits

      Calculate protective relay settings for different microprocessor-based protective relays. Introduce test equipment and test procedures for testing modern microprocessor-based multifunction relays used for a transmission system. Configure and operate test equipment (60Hz voltage and current signals, as well as digital representations of those signals), calculate test quantities, make connections between relay and test set, and analyze results including all available sources of fault records. Spring semesters. Prerequisites: ENEE 4620 or department head approval. Differential Course Fee will be assessed.
    • 3.00 Credits

      The course covers theory and practical application methods available in the industry for the protection of distribution systems and includes smart grid applications for protection and control. Spring Semester. Pre- or corequisite: ENEE 4720 with a minimum grade of C or department head approval. Differential course fee will be assessed.
    • 3.00 Credits

      Physical operation and design of modern discrete and integrated electronic structures and their application in signal processing. Response time, resolution, sensitivity, and noise considerations in instrumentation systems. Offered on demand. Lecture 3 hours. Prerequisites: ENEE 3770, ENEE 3770L, ENEE 4770 with minimum grades of C or department head approval. Senior elective. Differential Course Fee will be assessed
    • 4.00 Credits

      Introduction to field programmable gate arrays (FPGAs) and microprocessors. Programming with hardware description language (HDL), C, and assembly language. Embedded systems principles, input and output, and serial communication protocols. Design of programs for basic data acquisition and control using the FPGA and microprocessor as system components. Review of number systems and digital logic. Lecture 3 hours, projects 3 hours. Fall Semester. Prerequisites: ENEE 2250 or CPSC 1110, and ENEE 2740 or CPEN 3700, all with minimum grades of C, or department head approval. Laboratory/studio course fee will be assessed. Differential course fee will be assessed.
    • 3.00 Credits

      Power Systems component modeling, transmission lines, machines, transformers. Load flow analysis, symmetrical components, symmetrical and unsymmetrical fault analysis. Spring semester. Lecture 3 hours. Pre- or Corequisites: ENEE 3800 or department head approval. Differential course fee will be assessed.
    • 1.00 Credits

      Computation of transmission lines parameters, formation of Bus Admittance and Impedance matrices, network solution methods, one-line diagrams and power flow simulation, balanced and unbalanced fault analysis, relay coordination, substation grounding design, renewable energy simulation, harmonic analysis and filter design. ETAP and other power simulator softwares will be used. Laboratory 3 hours. Pre- or corequisite: ENEE 4720 or department head approval. Laboratory/studio course fee will be assessed. Differential course fee will be assessed.
    • 3.00 Credits

      Definitions and basic concepts of analog and digital modulation techniques. Global and societal effects of communications technology. Transmission of signals through linear filters, time-bandwidth relationships. Amplitude, frequency, and pulse modulation techniques described and analyzed. Periodic sampling and the Nyquist sampling criterion. Applications of probability to error rates and noise probabilities. OSI Model. Fall semester. Lecture 3 hours. Prerequisites: ENCE 2220 and ENEE 3250 with minimum grades of C or department head approval. Differential Course Fee will be assessed
    • 1.00 Credits

      Definitions and basic concepts of analog communication techniques applications. Introduction and reinforcement of the following concepts: amplitude and angle based modulation and demodulation, time and frequency representation of analog signals, use of measurement equipment (i.e., oscilloscope, function generator, and spectrum analyzer), and application of Nyquist Sampling Theorem for conversion from analog to digital. Fall semester. Laboratory 3 hours. Pre- or corequisite: ENEE 4750 or department head approval. Laboratory/studio course fee will be assessed. Differential course fee will be assessed.
    • 3.00 Credits

      Analysis, design, modeling and simulation of modern digital communication systems. Transformation between analog (continuous) and digital (discrete) domains at baseband level; bandpass signals. Signal transmission and reception over an Additive White Gaussian Noise (AWGN) source (waveform) coding. Channel (bit-level) coding, e.g., block, cyclic, convolutional, etc., and decoding techniques. Methods of synchronization at the carrier, symbol, and frame rates are examined. Multiplexing and multiple access networking techniques and brief introduction to spread spectrum system analysis. Spring semester. Lecture 3 hours. Pre or Corequisites: ENEE 3250 and ENCE 2220 or department head approval. Differential course fee will be assessed.