Describe the basic concepts and theories of circuit elements and the principles of resistive circuits. This course introduces three-phase circuits and power calculation, linear op-amp and op-amp circuits, transient and steady-state response of first-order and second-order circuits, Laplace transform and solution of circuits in complex frequency domain, frequency response of passive circuits, transfer functions, poles and zeros, resonant networks and filters, two-port networks, mutually coupled coils, and the ideal transformer.
Define the three basic coordinate systems, vectors and field vectors operators
Compute electrostatics and magnetics quantities
Analyze Electrostatic and Magnetostatics fields
Write Maxwell’s equations, Biot–Savart and Ampere's laws for Electrostatics and Magnetostatics fields
Discuss around one of the course topics on course forum
The students will be able to understand the most important basic principles and precautions related to the electrical circuit laboratory.
Identify the basic components and precautions of electric circuits laboratory
Develop appropriate electrical circuits experimentation, and analyses it
Analyze and Evaluate complex electrical circuits problems by applying principles of electrical circuits method
Perform experiments in laboratory to verify basic circuit laws, theorems and techniques involved in circuit theory by analyzing the experimental
Respond and present (in writing) the knowledge acquired from
Demonstrate the basics of measurement, the source of measurement errors, the construction of analog gauges and the construction of digital ones.
Demonstrate the basics of measurements, source of errors in measurements, construction of analog meters and construction of digital
Describe the analog and digital electrical equipment and the oscilloscope
Analyze the performance and theory of operation of all instruments and metering
This course introduces Signal Classification, System Properties, Linear Time Invariant System and Convolution, Fourier Series, Continuous Time Fourier Transform, Discrete Time Fourier Transform, Laplace Transform and z Transform.
Describe basic types of signals
Describe basic types of systems
Evaluate LTI systems and perform convolution on signals
Calculate Fourier series coefficients to represent a continuous or
Evaluate signals in frequency domain using Fourier, Laplace and z- transforms
This course introduces the fundamentals of probability theory, single and multiple discrete and continuous random variables, probability density function, Gaussian and other distributions, functions of random variables, joint and conditional probabilities, moments and statistical means, central limit theorem, random processes, stationarity and ergodicity , correlation function, power spectrum density, Gaussian and Poisson random processes and response of linear systems to random signals.
Describe key properties of random variables, distributions functions, and random processes
Evaluation of probability functions, moments and functions of discrete and continuous single and multiple random variables.
Evaluate probability functions, moments and functions of discrete and continuous single and multiple random variables
Analyze random processes and effects of linear systems on random processes
Calculate probabilities of various random events
This course introduces the hardware and software models of microprocessors, instruction sets, assembly language programming and debugging, memory allocation, input and output instructions, input/output interface, introduction to interrupts, basic microcontroller programming. This course introduces EMU8086, basic assembly language program instructions, learning INC, DEC and NEG instructions, learning flag registers.
Write assembly programs containing arithmetic, logic, loop, and program control instructions
Design microprocessor systems to produce solutions
Perform experiments in a laboratory using EMU8086 tool
Respond and Present (verbally and in writing) the subject knowledge based on lab experiments performed
Recall the construction, schematic symbols, and characteristics of basic electronic devices (diodes and transistors)
Solve basic circuits using various electronic devices of diodes and transistors; and apply the concepts of dc and ac models for the devices to
Design basic diode circuits and amplifier circuits of BJT and MOSFET to meet the required specifications
Present and interpret challenges and trade-offs of basic amplifier performance parameters
Use software " MULTISIM " to assemble basic electronic circuits
Recall the construction, schematic symbols, and characteristics of basic electronic devices (diodes and transistors)
Use software " MULTISIM " to assemble basic electronic circuits
This course covers frequency response of BJT and MOSFET amplifiers, feedback in amplifiers, differential amplifier and current mirror. The course introduces a modern topic on nanoelectronics and the comparison of microelectronic and nanoelectronic devices.
Demonstrate the phenomena which govern behaviour of electronic equipment, such as integration and difference amplification, current
Analyze response and performance characteristics of electronic circuits and devices, such as negative feedback circuits and differential
Estimate different characteristic parameters of oscillators by applying principles of positive feedback systems
Design electronic devices and systems and to achieve most economical designs while meeting performance requirements and other system and
Present professional responsibility in design of electronic devices and systems, and adherence to liability, accountability and codes of ethics
Demonstrate the phenomena that govern the behavior of electronic equipment, such as integration and differential gain, current. Identify the basic operation of operational amplifiers and their linear applications; and distinguish between their reinforcement functions.
Identify the basic operation of operational amplifiers and their linear applications; and differentiate between their gain functions
This lab course covers PSPICE simulation of electronic circuits, Linear applications of op-amp, Wein-bridge oscillator, Active filters: LPF and HPF, Schmitt trigger and astable multivibrator, Differential amplifier using BJT, Design and implementation of digital circuits using VHDL, CMOS inverter characteristics, TTL inverter characteristics.
Perform laboratory experiments to verify basic circuit laws, theorems and techniques involved in circuit theory by analyzing the experimental
Respond and present (in-writing) the subject knowledge based on the lab experiments performed
Renewable energy resources (PV, wind, etc.), Tariff, Economic impact factor improvement, Substations, Generating stations environmental impact factor.
Understand the basic fundamentals of conventional generating stations and Renewable energy resources
Analyze the impact of renewable energy resources on the energy tariff
Calculate and justify different methods of Economic power factor
Demonstrate electrical power plants problems
Contribute effectively in discussing the economics of renewable energy resources over the conventional ones
This course covers the principles of digital communication, Signal detection Vector representation of signals, the Gaussian channel (AWGN), optimal receivers, symbol error and bit error probability, matched filters, ML and MAP, techniques of digital modulation, ASK, FSK, PSK , QPSK, MSK, GMSK, M-ary frequency and phase modulations, MQAM; Non-coherent orthogonal modulation, Power spectra and bandwidth efficiency of binary and quaternary modulation, Comparison of digital modulation techniques including bandwidth, power spectrum, probability of error, introduction to information theory including channel capacity, source coding, channel coding and error correcting coding techniques.
Describe important features of a digital communication system
Evaluate information entropy, and the channel encoder and decoder, the probability of error in digital modulation techniques using advanced
Calculate the sets of orthonormal basis signals, the error probability based on geometric representations of signals, optimal receive filters.
Calculate the sets of orthonormal basis signals, the probability of error based on geometric representations of signals, optimum receiving filters
Analyse digital communication systems including those employing ASK, PSK, FSK, and QAM modulation formats, given constraints on data rate,
Describe theoretical expressions, terms, and results
Recognize experiments using communication lab instruments
Interpret the design of practical modulation modules e. Student Outcomes Addressed by the Course
This course covers antenna characteristics (gain, impedance, pattern, etc.); elementary antenna types (dipoles, loops, etc.), antenna setup theory, wire antennas; broadband antennas. Waveguides and Cavities; Radiation and antennas; Antenna parameters; dipoles and loop antennas; traveling wave antennas; Aperture and patch antennas; Linear and planar antenna arrays; Basic propagation methods; Expansion of free space; Propagation of ground waves; Cloud wave propagation; Space (terrestrial) wave propagation; Introduction to propagation models in mobile radio systems.
Describe important features of an antenna system
Evaluate effects of different media on wave propagation and on antenna communication system
Analyze various types of antennas including dipole, loop, and arrays
Demonstrate the ability to research a topic related to wave propagation
This course introduces the principles of magnetic circuits, construction of single-phase transformers, equivalent circuits, operation and voltage regulation, connections of three-phase.
Define fundamental concepts of electromagnetic circuits (magneto- motive force, reluctance, hysteresis and eddy current losses), single-
Define the fundamental concepts of electromagnetic circuits (magnetic motive force, reluctance, hysteresis and losses due to eddy currents), one-. Describe the basic concepts of a three-phase induction motor (theory, operation, equivalent circuit, torque, speed characteristics, speed.
Describe fundamental concepts of three phase induction motor (theory, operation, equivalent circuit, torque speed characteristics, speed
Develop and solve complex problems related to electric machines by applying principles of electrical engineering and mathematics
Analyze appropriate experimentation for different types of ac machines, and interpret data to draw conclusions
Interpret the ability to Communicate effectively with a range of audiences
Synchronous machines (construction, internal voltage, equivalent circuit, phasor diagram, performance of turbo alternator, generator working alone, parallel operation of AC . generators), synchronous machine dynamics, the swing equation, steady state and transient stability. Discuss the basic theory of three-phase synchronous generator, DC motor, and speed control of DC motor, starting of DC motor.
Discuss the basic theory of three-phase synchronous generator, DC motor, and speed control of DC motor, starting of DC motor
Identify and analyze the requirements and performance of parallel operation synchronous generators and grid connected
Develop electrical engineering design to produce solutions that meet electric machine applications
Demonstrate different synchronous generator and DC motor problems
Participate effectively in discussing different types of special synchronous machines and its applications
This course introduces Equivalent circuit of transformers; Three-phase connections using single-phase transformers; Equivalent circuit of three-phase and single-phase induction motors; Load testing of induction motors; Starting Single Phase Induction Motors;. Equivalent circuit of synchronous machine; Performance of synchronous motors; Equivalent circuit and performance of DC machines.
Recognize the basic components, precautions, and measurements of electric machines laboratory, and recall the fundamental concepts of
Know the basic components, precautions and laboratory measurements of electric machines and remember the basic concepts of.
Reconstruct and perform experiments in the lab to investigate the performance of single phase and three phase transformers, three phase
Reconstruct and carry out experiments in the laboratory to investigate the performance of DC machines, synchronous machines and single-phase machines.
Interpret the performances of the electric machines components by conducting the appropriate experiments in the laboratory and reporting
Performance and voltage regulation of DC generator 1 2 Connection of DC motor (shunt connection, series connection and compound connection) 1 2. This course introduces an overview of power concepts, three-phase circuits, Power system components and elements: Generation- Transmission- Distribution.
Describe the fundamentals of single, three phase circuits and current, voltage and power calculations
Unit calculation, Transmission lines: operational parameters and analysis, Underground cables: operational parameters and analysis, Distribution system analysis: radial and ring systems.
Analyze DC and AC distribution systems
Design overhead transmission line system
Operate and participate effectively in discussing new trends in power system engineering
This course introduces an overview Introduction to basic concepts in power generation, distribution, system control, economic operation, phasor representation, 3-phase transmission system, per-phase analysis, power system modeling, transmission lines, transformers, generators, network matrix, Flow solution power (using Gauss-Seidel and Newton Raphson methods), demand response and power markets, Swing.
Apply GAUSS – SEIDEL (GS) method and NEWTON method to solve the load power flow problem
Present and discuss different topics related to the power systems analysis
Describe the basic components, power system laboratory safety measures, and fundamental quantities of the power system.
Describe the basic components, precautions of power system laboratory and the fundamental quantities of power system
Reconstruct and perform experiments in the lab to investigate the performance of the transmission lines with different loading
Reconstruct and perform experiments in the lab to investigate the generator synchronization, and power factor correction
Interpret the performances of the power system components by conducting the appropriate experiments in the laboratory and reporting
Write and participate effectively in a teamwork and create collaborative discussion on energy system experiments during the lab.
Define basic concepts of control system representation
Describe system in Time domain and Laplace domain
Analyze system performances: Stability, speed and precision
Design PID control law for electrical and mechanical systems
This laboratory course covers the study of open and closed control systems, analysis of controlled systems, controlled systems with compensation, controlled systems with higher order time delay, and types and properties of PID controllers.
Demonstrate the construction and working of PID controllers and determine its pros and cons
Perform experiments in a laboratory using development kits
Respond and present in writing subject knowledge based on lab experiments performed
Introduction to the essential background of the engineering project management (PM) and project planning techniques; basic management processes; Project planning and scheduling;. Identify principles of engineering project management related to planning, time scheduling, cost estimation, quality and risk assessment.
Identify principles of engineering project management related to planning, time scheduling, cost estimation, quality, and risk assessment
Distinguish and Estimate the social, economic, technical and business resources/issues that are associated with the engineering projects
Develop professional projects-plans, to apply the project management
Participate in group-work and discussions to interpret and clarify the project plans and reports
Present the project outputs effectively with range of audience, justifying the values, and make use of IT and computer tools
The course begins with extensive MOS design: MOS transistors, static and dynamic MOS gates (AND, OR, NOT, NAND, NOR, XOR and XNOR). Explanation of topics relevant to technology and layout: stick diagrams, MOS circuit construction, design rules, resistance and capacitance extraction.
Demonstrate MOS technologies, layout techniques, and layout design
More advanced topics are also discussed: power and delay estimations, scale MOS combination (Multiplexers and Decoders) and sequential logic design, register and clock schemes, data path and control unit design, programmable logic array design, elements of computer -charged circuit analysis and layout techniques.
Analyze CMOS gates for static characteristics and rate factors affecting them
Estimate different dynamic characteristic parameters and power dissipation of CMOS circuits, taking into account physical parasitic
Design combinational and basic elements of sequential CMOS logic circuits
Present and interpret challenges and trade-offs of modern MOS nano- technology
This course provides students with the basics of digital circuit layout with the help of chip layout tools. Throughout the course plan, students will be able to practice designing, simulating, deploying, driving and implementing ASICs with conventional and high-level design techniques.
Recognize experiments using VLSI lab instruments
Question effectively on lab groups
Satellite Uplink and Downlink: Analysis and Design; Frequency plan; Carrier and transponder capacity, single-carrier and multi-carrier transponder; VSAT; Modern satellite systems and applications.
Explain the principles, concepts, and operation of satellite communication systems
Describe the propagation characteristics, frequency bands, and channel modelling
Represent and discuss different scenarios related to the modem satellite systems and applications
Analyze the different types of modulation and multiple Access techniques
This course covers optical propagation; Optical waveguides; Optical fibers: structure and manufacture, optical fiber types signal degradation, light sources; Light detectors; Optical amplifiers; Optical modulators; Digital Optical Communication Systems: Analysis and Design;.
Understand the light propagation and the physics of optical fiber
Describe the construction and working of light sources and photodetectors
Construct and design point to point optical fiber link
Analyze and differentiate between WDM and other conventional multiplexing techniques
Present and discuss different scenarios related to the latest topics on Optical Networking
This course provides the basic concepts of cellular cellular communications, specifications of current, proposed cellular systems, topics include frequency reuse, call processing,.
Comprehend the concept of mobile cellular system
Determine the system reliability in terms of frequency utilization (frequency reuse), traffic and call blocking and propagation loss
Demonstrate the diversity techniques, reducing multipath fading methods
Recognize the basics of MIMO systems and wireless networks
Present and discuss different scenarios related to the latest topics on
This course introduces the principles of semiconductor devices and characteristics, uncontrolled and controlled single-phase rectifiers, uncontrolled and controlled three-phase rectifiers, single-phase and three-phase AC voltage controllers, DC-DC shunt circuits, single-phase and three-phase DC-AC converters and application of power electronics in renewable energy. Define the basic concepts of semiconductor devices and characteristics, single-phase and three-phase AC-DC converters.
Define fundamental concepts of semi-conductor devices and characteristics, single phase and three phase AC-DC converters
Describe fundamental concepts of single phase and three phase DC-AC inverters, DC-DC choppers, and AC voltage controller
Develop and solve complex problems related to power electronics circuits by applying principles of electrical engineering and
Create efficient power electronics circuit design to build solutions that fit specific power electronics applications by considering.
Create efficient power electronics circuits design to produce solutions that meet specified power electronics applications with consideration
Interpret the ability to communicate effectively with a range of audiences
This course introduces the principle of electric lighting and the design of indoor and outdoor lighting and electrical wiring, types of electric heating and design of heating wire, operation of AC and DC electric traction and motor drives, various types of electric welding, principle of electric cooling and operation of refrigerators and air conditioning, law of electrolysis and electrodeposition, and metal refining. Define fundamental concepts of lighting engineering (laws of lighting and types of lamps), electric heating (heat transfer and.
Define fundamental concepts of illumination engineering (laws of illumination and types of lamps), electric heating (heat transfer and
Describe basic concepts of electric traction (traction systems, velocity-time curves and motor drives), electrolytic processes and electrical.
Describe fundamental concepts of electric traction (traction systems, speed time curve and motor drives), electrolytic processes, and electric
Develop and solve complex problems related to utilization of electric energy by applying principles
Create efficient design for different applications related to electric energy utilization with consideration of safety and economic factors
This course introduces the concepts of power system operation, network topology and incident matrix, bus impedance matrix design, economical thermal unit dispatch and solution methods, unit commitment. AGC-single-zone and multi-zone systems, power and energy exchange, power system security, optimal power flow, condition assessment.
Describe economic dispatch and its method of solutions
Construct the process of economic interchange among multi connected areas
Comprehend the main principle and operation of AGC in multi-
Formulate the power system incidence matrix and bus impedance matrix
Develop the optimal power flow (OPF) using MATPOWER toolbox
This course presents basic load forecasting methodologies, electrical load characteristics, consumer categories, power system generation, transmission and distribution reliability evaluation, system cost assessment, load management, and energy conservation strategies.
Recognize the fundamentals of load forecasting and load types
Analyze and evaluate the essential factors in power system planning namely reliability and cost assessment
Evaluate Load management and energy conservation strategies
Demonstrate effective working in stressful environment, within
Present ideas effectively with a range of audiences
This course introduces design considerations for industrial power systems: planning (safety, reliability, simplicity, maintenance, flexibility, cost) voltages (control selection effects of variation), protection (devices, constraints, requirements, coordination, testing), grounding (static and lightning protection , earth connections), voltage transformation, instruments and meters, cable construction and installation, bus lanes.
Describe the basic consideration of Industrial power system design
Analyze and evaluate the essential factors in industrial power
Apply and evaluate the appropriate protection and grounding systems for the industrial power system
Demonstrate different generator grounding problems
Contribute and participate effectively in discussing industrial power system design
This course introduces the generation and measurement of high DC, AC and impulse voltages, conduction and breakdown processes in gaseous/liquid/solid insulating media, high voltage testing, grounding and safety considerations, electrostatic hazards and high voltage .
Describe the different techniques for generating high voltages and currents such as High AC voltages, High DC voltages
Differentiate the different types of High Voltage Circuit and their advantages and disadvantages
Illustrate high voltage substations and gas insulated substations (GIS)
Demonstrate high voltage cables and protective Earthing and
Describe the various techniques for generating high voltages and currents such as high AC voltages, high DC voltages.
Develop and perform the different tests required for testing high voltage equipment’s and components
Interpret and participate effectively in reporting different issues and challenges related high voltage engineering
This course introduces protection system components: protection zones, main and backup protection, protection instrument transformers, protective relays, circuit breakers (air, vacuum, oil, SF6), transmission line, protection and design, generator protection and design, transformer protection and design: overcurrent protection, limited earth fault, .
Describe the main components of power system protective scheme CLO 2. Construct the protective scheme for generator, transmission line
Comprehend the construction and theory of operation of different types of relays
Develop the distance relay setting employed in transmission line CLO 5. Explain modern optimization algorithms in coordinating the
This course presents an introduction to the components of a protection scheme, characteristics of inverse time overvoltage relay, radial power supply protection, parallel power supply protection,.
Identify the vital use, nature, and main principle of power system protection
Perform the protective scheme for radial and parallel feeder protection
Provide a technical report of the power system protection experimentations
Clarify and interpret the obtained results in the power system protection lab
React positively in discussing power system protection experimentations
Describe the fundamental concepts of information theory
Analyze various kinds of source coding algorithms such as: Shanon- Fano, and Lempel- Ziv and channel coding schemes as cyclic code
Explain the operation of convolutional encoding and decoding
Demonstrate the benefits of teamwork through collaboration with other professionals
Demonstrate competence in oral, and visual communication in presentations on information theory and coding topics
Identify the objectives and milestones of the assigned project and compare them to previous related work.
Identify the objectives and milestones of the assigned project and compare it with previous related work
Analyze problem statement through detail/in depth research and literature review
Demonstrate a wide range of technical skills by testing and evaluating a working prototype that has passed through design and implementation
Perform necessary tasks required in the completion of research/project work as an individual or a team member
Present his research/project work in logical and well-planned way by appropriate communication and presentation skills
An ability of student to compile, write and present the project work carried out in the form of a project report
An ability of the student to identify personal professional goals that support lifelong learning, productivity and satisfaction in large
