ELE - Electrical Engineering (ELE)
ELE 1133 Electrical Sustainability Design Project (1-4-3)
Covers the design thinking methodology to identify and address Electrical engineering problems sustainably. Includes solid modeling, rapid prototyping, understanding end users, and their unarticulated needs, and creating alternative solutions. Focus on creativity, and sustainability, identify potential solutions, and innovate new products and work processes. Students will apply design methodologies and innovation tools in an engineering technology problem, and build and test it to gain the spirit and initiative of the course.
ELE 1203 Digital Circuits (2-2-3)
This course introduces essential digital systems concepts, focusing on number system conversions across decimal, binary, octal, and hexadecimal. Students will analyze combinational logic circuits, utilizing symbols, truth tables, and Boolean equations to understand various digital IC families. The course also covers sequential logic circuits, such as counters and shift registers, with an emphasis on timing diagrams. Additionally, it provides an overview of computer memory systems, including ROM, RAM, and non-volatile memory, along with an analysis of error-correcting codes used in RAM.
ELE 1253 Fundamentals of Electrical Engineering (2-2-3)
Examine the fundamental concepts of electrical engineering, which include identifying basic electrical quantities and common scales relative to current, voltage, resistance and power. Describe the construction, value and voltage-current characteristics of common passive components. Ohm's law is investigated by using laboratory equipment to measure voltage, current, power of series, parallel, series-parallel DC circuits.
ELE 2113 Electrical Circuit Analysis (2-2-3)
This course introduces DC and AC circuit analysis and design. Students apply fundamental laws and techniques to solve complex circuits with multiple components and theorems. Topics include RC, RL, and RLC circuits under AC conditions, resonance, and power calculations. Students also design first-order passive filters based on frequency response. Laboratory sessions reinforce concepts through experiments on circuit theorems, power measurements, and filter analysis using experimental data.
Prerequisites: ELE 1253
ELE 2123 Electronics : Semiconductors & Transistors (2-2-3)
Analyze the construction and operation of a semiconductor diode. Explore the use of diodes in common practical applications. Analyze the construction, operation, characteristics, and common applications of semiconductor devices including BJTs, JFETs, MOSFETs, and IGBTs. Theoretical concepts are reinforced using both circuit simulation and practical experiments in a laboratory setting.
Prerequisites: ELE 1253
ELE 2233 Three-Phase Circuits and Electrical Energy Conversion (2-2-3)
Three phase electrical circuits are analyzed. Magnetic systems and electromagnetic induction is studied. The operation of electrical transformers and the performance of DC machines are explained. Practical investigations are utilized to reinforce concepts.
ELE 2603 Instrumentation and Control (2-2-3)
Explores open and closed loop control systems with a focus on the role of transducers and actuators. Introduces set-points, feedback and error signals. Examine transducers and actuators to measure and control physical properties such as temperature, flow, pressure, position, level, rotation speed and torque. Includes various on/off and PID closed loop control systems which are analysed through simulation and practical laboratories.
Prerequisites: ELE 1253
ELE 2903 Sophomore Design Project (2-2-3)
Requires the formation of a team to propose, plan design and prototype an open ended project. The student team is totally responsible for the completion of the project milestones and course objectives while working under the mentorship of a faculty or industry engineer. The team is evaluated on its ability to coordinate efforts to propose the project design criteria, components, resources, implementation and prototyping schedule, and estimated cost. Also covers health, safety and environmental aspects related to electrical industry.
Prerequisites: ELE 2114, ELE 2213
Corequisites: ICT 2013
ELE 3133 AC Electrical Machines (2-2-3)
The fundamentals of electrical machines are introduced. The construction, operation and testing of electrical machines are presented. The performance and characteristics of induction machines and synchronous machines are explained. Practical investigations are utilized to reinforce concepts.
ELE 3143 Electrical Installations: Design to Implementation (3-1-3)
This course provides a comprehensive approach to electrical installations, from initial design to practical implementation. Students learn core electrical principles, safety standards, and perform calculations for system optimization. Emphasis is placed on interpreting schematics, hands-on installation, and compliance with NEC and IEC codes. Students gain proficiency in CAD for documentation, master troubleshooting techniques, and complete training in PV system design and setup, including solar panel integration, testing, and maintenance to ensure efficiency and regulatory compliance.
ELE 3153 Signals and Systems (2-2-3)
This course introduces the fundamental concepts of signals and systems, focusing on the analysis of continuous and discrete-time signals and linear time-invariant (LTI) systems. Key topics include signal classification and representation, system properties, impulse response, convolution, and frequency analysis using the Laplace, continuous Fourier, discrete (time) Fourier, and Z transforms. Students will engage in practical applications related to communication and control engineering through theoretical study and laboratory experiments.
Prerequisites: MTH 1263
ELE 3223 Electronics: Amplifiers, Filters & Oscillators (2-2-3)
Explores the analysis and design of amplifier circuits in the context of various electronic applications, amplifier parameters such as frequency response, noise performance and impedance. Examines the properties of power amplifiers and circuit simulation and practical laboratories are utilized to reinforce concepts.
Prerequisites: ELE 2403
ELE 3233 Power Systems: Generation, Transmission, and Distribution (2-2-3)
Covers the layout, main components, and characteristics of common electrical power generation plants with application to various power plants to explore power generation technologies and the power transmission line, to understand the Line Concepts and Single Line Diagrams and at the end to understand distribution Distribution System Operation and Management
Prerequisites: ELE 2233
ELE 3253 Communication systems (2-2-3)
This course provides a comprehensive overview of key concepts in modulation techniques for communication systems. It covers analog modulation methods like amplitude and frequency modulation, pulse modulation techniques used for the digitization of analog signals, baseband data transmission along with various digital modulation methods such as ASK, FSK, and PSK. The course also addresses challenges like Shannon’s channel capacity, noise and error correction and detection.
Prerequisites: ELE 3153
ELE 3913 Electrical Junior Design Project (2-2-3)
This course introduces electrical circuit design, from initial concept to final prototype. Students will begin by understanding and analyzing electrical circuits, such as microcontroller-based systems. The course will guide students through designing these circuits using PCB software, fabricating the boards, programming the microcontroller, and troubleshooting the completed project. In addition to technical skills, students will learn to manage project timelines, collaborate in teams, and consider health and safety impacts. With support from faculty, students will complete project milestones,
Prerequisites: ELE 2903
ELE 4103 Computer Vision (2-2-3)
This course provides an overview of a wide range of advanced computer vision tasks, allowing the creation of systems capable of interpreting and comprehending visual data. It covers basic concepts as well as machine learning methodologies in computer vision including feature extraction, segmentation and classification, object detection and recognition. It also introduces deep learning techniques in computer vision.
ELE 4123 Speech Processing (2-2-3)
This course introduces students to the fundamental concepts and practical applications of speech processing in modern technology. Topics include speech signal analysis, feature extraction, speech enhancement, and basic techniques for speech recognition and synthesis. Advanced topics include automatic speech recognition (ASR), speaker identification, and text-to-speech synthesis, with an emphasis on machine learning and deep learning methods. Students will gain hands-on experience using tools like MATLAB/ Python to implement speech processing systems.
ELE 4133 Power Electronics and Machine Drives (2-2-3)
Examines the control, protection and commutation of power switching devices including the diode, thyristor, MOSFET, and IGBT. Power electronics systems such as: AC to DC converters; controlled rectifiers; choppers for DC-to-DC power conversion; inverters; and square-wave inverters are explored. Students learn single phase and three phase pulse width modulation (PWM) techniques. Covers the theory and control methods for DC and AC electrical drive systems in laboratory settings. Includes methods for controlling DC and AC motors and mathematical models to implement linear control techniques.
ELE 4143 Smart Grids and Sustainable Electricity Systems (2-2-3)
Covers fundamental concepts of smart grids, sustainable electricty systems along with integration of renewable energy systems. Explore control, information and communication technologies, artificial intelligence for smart grids. Covers applications of smart grids like demand response and demand side management, advance metering infrastructure, electrical vehicle, energy storage and harvesting, wide area monitoring and awareness. Includes distributed energy resources and their application in green buildings and micro-grids.
Prerequisites: ELE 3233
ELE 4163 Mobile and Satellite Communications (2-2-3)
Provides comprehensive knowledge of wireless communication technologies, encompassing both terrestrial mobile networks and satellite systems. The course covers modern cellular designs from GSM to 6G, alongside the design, planning, and signal processing techniques vital for effective satellite communication. It addresses the technical and spectral challenges of both mobile and satellite communications, focusing on efficient radio wave management across various platforms.
ELE 4173 Optical Communications (2-2-3)
This course introduces the fundamentals of photonics and optical communications, covering light propagation, fiber structure, characteristics, and fabrication. Through modeling and simulation, students explore modern optical fiber systems, analyzing properties like attenuation, dispersion, and nonlinear effects. The course also covers the basics of lasers, LEDs, amplifiers, and detectors, along with lightwave system design. Key concepts include power budgeting, multiplexing, and networking standards such as Passive Optical Networks (PON), SONET, and SDH.
Prerequisites: ELE 3253
ELE 4183 Wireless Communication (2-2-3)
This course provides comprehensive and advanced knowledge of broadband wireless communication techniques. This course includes radio wave propagation modern diversity techniques, error control coding and decoding, equalization, multiple-input/multiple-output (MIMO) communications, and the performance of digital modulation over wireless channels.
Prerequisites: ELE 3253
ELE 4193 Microwave and RF design (2-2-3)
This course provides telecommunications students with the skills to develop and optimize advanced communication systems, enhance signal quality, and work with technologies like 5G. It covers transmission line theory, reflection coefficients, VSWR, power flow, and Smith Chart applications. Students will explore microwave resonators and amplifier design. The course offers hands-on experience with industry tools, prepares students for diverse careers, and ensures a solid understanding of RF regulations and standards.
Prerequisites: ELE 3253
ELE 4263 Digital Signal Processing (2-2-3)
This course explores the fundamental principles and techniques used in the analysis and processing of discrete-time signals and systems. Students will develop a strong understanding of key mathematical tools such as the Fourier transform, and z-transform, which are essential for the design and analysis of DSP systems. Topics will include the design and implementation of digital filters (both IIR and FIR).
Prerequisites: ELE 3613
ELE 4273 Data Communication and Networks (2-2-3)
This course provides a comprehensive overview of Data Communication Networks, focusing on internationally recognized standards, protocols, and applications. Students will explore key topics such as LAN and WLAN technologies, the OSI and Internet models, and various network protocols. Through a combination of theoretical knowledge and practical lab experiments, learners will gain hands-on experience in configuring and troubleshooting network devices, implementing VLANs, and utilizing routing protocols.
Prerequisites: ELE 3253
ELE 4283 Antennas and Propagation (2-2-3)
This course provides essential knowledge for designing RF systems like mobile networks, WiFi, RFID, satellite communication, and GPS. It covers radiation theory, key antenna parameters, and various antenna types (dipoles, loops, arrays, horns, microstrip), along with numerical analysis and propagation effects on communication and radar systems. Students will gain practical experience by designing antennas using EMPro (Keysight), enhancing their readiness for careers in the field.
ELE 4293 Space Technology (2-2-3)
This course provides a foundational understanding of space technology, focusing on key principles, systems, and applications that underpin modern space exploration and satellite operations. It introduces the design, functionality, and applications of spacecraft and associated technologies, emphasizing the role of global and regional space agencies.
ELE 4303 Pattern Recognition (2-2-3)
This course offers a concise introduction to machine learning, blending theoretical foundations with hands-on applications. Key topics include probabilistic models for regression and classification, enabling decision-making under uncertainty; clustering with K-Means and GMMs, for pattern discovery; dimensionality reduction techniques like PCA, simplifying data analysis; and artificial neural networks, focusing on deep learning principles. The course culminates in a project-based learning module, where students apply their knowledge to solve real-world problems.
ELE 4313 Digital Image Processing (2-2-3)
This course covers fundamental and advanced concepts in digital image processing, focusing on practical applications in engineering. Topics include image formation, color representation, and color space transformations. Students will apply color segmentation for robotic perception, perform morphological operations for shape identification, and implement image compression techniques. The course also explores recent advancements in space technology, 3D imaging, and stereoscopic vision, equipping students with skills to address real-world challenges in modern engineering.
ELE 4343 Advanced Power Systems (2-2-3)
The ability to analyze and solve problems commonly encountered in electrical power systems is essential for quality power systems. A revision of complex power calculations, per-unit system of analysis, and electrical network calculations is included, and topics related to system modelling, load flow analysis, fault analysis, and stability problems.
Prerequisites: (ELE 2303, ELE 3323) or EEL 2023
ELE 4353 System Protection and Coordination (2-2-3)
Examines power system protection fundamentals, basic design requirements, and principles of operation for over-current, overvoltage, and under-voltage protection schemes for various power system components. Three-phase asymmetrical faults are analysed under various conditions and are used as a basis to select circuit breaker types and ratings. Various protective devices, such as over current and earth leakage, differential, distance, over voltage, and under voltage relays, are applied as appropriate. Unit protection, back up protection, and protection coordination are introduced.
Prerequisites: ELE 2314 or EEL 2043
Corequisites: ELE 4343
ELE 4383 Electrical Maintenance Operation (2-2-3)
Examines preventive, corrective and opportunistic maintenance and testing of electrical equipment and subsystems including substations, circuit breakers, power transformers, and industrial machines. Utilize Electrical Preventive Maintenance and Test (EPMT) program with consideration of electrical safety, switching practices and precautions taken with live circuits. Explore maintenance options with respect to economic considerations and cost benefit analysis.
Prerequisites: (ELE 3323 or EEL 3003), (ELE 2303 or EEL 2023), (ELE 2314 or EEL 2043)
ELE 4413 Intelligent Embedded Systems (2-2-3)
Design and Develop complex embedded systems to complete a real-world challenge. Students will learn how to develop bare-metal code for an ARM-based microcontroller. They will learn how to design device drivers for various peripheral subsystems that are critical in any embedded platform. They will also learn how to integrate AI components into the system to enhance its overall performance.
Prerequisites: ELE 3614
ELE 4633 Digital Control Systems (2-2-3)
This course covers the modeling, simulation, and analysis of analog and digital single-input single-output (SISO) linear time-invariant (LTI) control systems. Students will learn to enhance system performance using digital control techniques and explore real-world applications, such as robotics and industrial automation. Key topics include transfer function modeling, frequency response analysis, system stability, and compensator design. Hands-on experience with MATLAB/Simulink is emphasized for designing and analyzing controllers, including PID controllers.
Prerequisites: ELE 4623
ELE 4643 Intelligent Systems (2-2-3)
Explore Artificial intelligence (AI) and related system techniques and implement in various applications. Examine basic AI topics of search techniques and machine learning. Explore and implement the biological origins of artificial neural networks, deep neural networks, and convolutional neural networks. Develop concepts and methods used in fuzzy sets and systems using fuzzy practical applications. Explore the biological origins of genetic algorithms in practical applications.
Prerequisites: EGN 2712, MTH 2103
ELE 4713 Digital Image Processing (2-2-3)
This course covers the fundamental of image analysis and understanding: fundamentals of image formation, human vision system, spatial and frequency domain image processing, image transform and their use in image filtering, image segmentation and morphological image processing. It provides the basics concepts that enable learners understanding the compression of digital images. Also, the focus on the image representation and description gives students the necessary tools for applying image processing for solving real-life computer vision problems.
Prerequisites: ELE 3613, EGN 2712
ELE 4803 Hybrid and Electric Vehicle Technology (2-2-3)
This course will provide you with a broad technical knowledge and practical expertise of hybrid and electric vehicle (HEV) technologies, analysis, design, component selection and sizing at both system and vehicle level.
Prerequisites: ELE 1253
ELE 4863 Special Topics in Electrical Engineering (2-2-3)
Presents a theoretical or practical topic proposed by the faculty beyond what is offered in existing courses. Can be repeated for credit.
ELE 4913 Electrical Capstone Design Project I (2-2-3)
Coordinate to form project teams to propose, plan and design an engineering product. Gain the knowledge to identify design problems to meet industrial needs. Define design projects'' criteria, components, resources, implementation schedule, and estimated costs.
Prerequisites: ELE 3913
Corequisites: EGN 4816
ELE 4923 Electrical Capstone Design Project II (2-2-3)
Continue on the engineering design project carried forward from the preceding semester. Implement, build, test, evaluate, and analyze the proposed design. Develop and gain organizational, communicational and interpersonal skills.