(Computer Systems Engineering Students)            
Application of electrical network theorems, step response for first and second order electrical circuits, filter circuits, Transistor characteristics and biasing, amplifier circuits,  frequency response of amplifiers,  operational amplifiers, oscillators, voltage regulators  (Lab 3hrs).
Prerequisites: (PHYS 112 or concurrent), ENEE236

The concept of system, and its input and output signals, classification of systems and signals, Linear time invariant systems and convolution theorem. System characterization by the impulse response, periodic signals and their Fourier series representation. Response of  Linear time invariant systems to periodic input signals,   Fourier transform, frequency response, and use of Fourier transform in system analysis. Applications of Fourier transform in communications. Sampling theorem, Laplace transform , Z-transform, Application of Laplace transform  and z-transform in systems characterized by differential and difference equations. State space representation. 
Prerequisite: MATH331

(Computer Systems Engineering Students)
Electrical quantities and the basic elements of electrical circuits, DC circuit analysis, energy storage elements, first and second order circuits, sinusoidal steady state response, AC power, Power factor correction, three phase circuits, Laplace transform in circuit analysis, filter circuits’ analysis and design, two port networks. Using simulation tools for analysis and design of  electric circuits.
Prerequisites: PHYS132,  (Math331 or concurrent)

Set operations, axioms of probability, Bayes' theorem, independent events, the random variable, probability density function, examples of discrete probability distributions (Binomial, Poisson, geometric, hyper-geometric, multinomial), examples of continuous probability distributions (Normal, uniform, Log-normal, Gamma, Beta, Weibell), multivariate probability density functions, normal approximation to the Binomial distribution, population and sampling, unbiased estimators, sampling distribution of the mean with known and unknown variance, point and interval estimation, elements of hypothesis testing, linear correlation linear regression, least squares, the random process, stationarity and ergodicity, Gaussian random processes. 
Prerequisite: MATH132

DC and AC magnetic circuits and their solution by application of electromagnetic field theory, electromechanical energy conversion. Single and three phase transformers theory Synchronous Generators, construction, principle of operation and control. Synchronous motors principle of operation and applications.Single and Three-phase induction motors, types, principle of operation, characteristics. DC generators and motors types and principle of operation. Practical control circuits for AC and DC motors.
Prerequisite: ENEE2301

Selected experiments in the field of DC electrical machines (all types of motors and generators), single-phase and three-phase transformers, AC machines, three-phase induction machines, three-phase synchronous machines, single phase AC motors, contactors and relays application (Lab 3hrs).
Prerequisites: ENEE2102, ENEE2408

(For Architecture Engineering Students)
Lighting sources (natural and industrial), lighting calculations inside and outside buildings, lighting fixtures, laminar calculation and design, electrical drawings, acoustics principles, controlling of sound, suitable material for walls and ceilings that affect sound, design and measure of acoustic systems.
Prerequisite: ENAR237

Review of Fourier analysis, bandwidth definitions, time-bandwidth relations and rise time, Amplitude Modulation Systems: Normal AM, DSBSC, SSBSC, Vestigial sideband modulation systems, frequency and phase modulation systems, modulation and demodulation of narrow band and wide band FM signals, FM bandwidth, preview of super heterodyne receiver, the sampling theorem, pulse amplitude, pulse width, and pulse position modulation, random processes: stationarity and ergodicity, transmission of a random process through a linear filter, power spectral density, Gaussian processes, noise and narrow band noise representation, noise in AM receivers, noise in FM receivers, pre-emphasis and de-emphasis, comparison between AM and FM systems in terms of performance in a noisy channel, sampling theorem, pulse code modulation, quantization and encoding, delta modulation, differential pulse code modulation, base band data transmission.
Prerequisites: (ENEE2307 or concurrent), ENEE2302

Semiconductors, principles of modern power electronic devices and their characteristics, power diodes, Triacs and power Transistors, power MOSFETs and IGBTs.  Thyristors and their operation, protection, triggering and commutation circuits.  Principles of power electronic circuits (converters) that convert between different types of voltages: AC-AC converters including frequency changing converters (cycloconverters), AC-DC converters (controlled and uncontrolled rectifiers), DC-AC converters (inverters), and DC-DC converters (choppers), applications of power electronics in to controlling either power systems or AC and DC machines.​
Prerequisites: ENEE2303 or ENEE236

(Computer Systems Engineering Students)
Concepts of transmission of information via communication channels. Modulation techniques for transmission of continuous-time signals. Analog-to-digital conversion and pulse code modulation. Transmission of digital data. Effects of random signals and noise on communication. Optimum detection systems in the presence of noise. Elementary information theory.
Prerequisites: ENEE2307, ENEE2302.

Practical training during summer in a specialized institute for not less than 6 weeks. 
Prerequisite: Third or fourth year standing and department approval

Experiments on AM and FM modulation demodulation, experiments on sampling and multiplexing, Pulse Code Modulation (PCM), Delta Modulation (DM) and Sigma Modulation, experiments on noise in modulation techniques (digital and analog), digital carrier modulation, selected experiments on microwave, demonstration on transmission lines (Lab 3hrs). 
Prerequisite: (ENEE3306 or concurrent)  or ENEE339

Selected experiments in the field of control systems, power electronics, speed control for electrical machines using power electronics, different methods for the design of electrical circuits for speed control of motors (voltage method, frequency method, ...etc.), AC-to-DC and DC-to-AC power conversion (Lab 3hrs).
Prerequisite: ENEE4302, ENEE3305

(For Mechanical and Mechatronics Engineering Students)
Theory of electromagnetic conversion from electrical to mechanical and inversely, Transformers theory and Applications. Theory of DC electrical machines, operation and applications. Theory of AC electrical machines synchronous and asynchronous, operation and applications. Power electronic devices; diodes, thyristors, triacs, power transistors and their characteristics, triggering circuits of SCRs and power electronic converters.
Prerequisite: ENEE2301

Elements and applications of measurement systems, instrument types and performance characteristics, errors and noise during measurement process and how to treat them, grounding techniques, types of bridges and their applications, sensors/transducers: basic characteristic and selected practical examples of transducers . analog vs. digital measurements,  analog to digital conversion (ADC) and digital to analog conversion (DAC) techniques and problems, basics of sampling. Various types of  indicating instruments, structure and basic components of different measuring instruments, oscilloscopes, electronic measurement, data acquisition systems (DAS) using computers,  case study of a selected data acquisition card.
Prerequisite: ENEE3304, (ENCS238 or concurrent).

Selected experiments in digital modulation schemes such as ASK, PSK, FSK, digital signal processing techniques and computer simulation, selected experiments on antennas in high frequency region such as (gain, band width, radiation pattern, etc), selected experiments on optical communication (Lab 3hrs).
Prerequisites:  ENEE4103, ENEE5302

Introduction to the final graduation project, the main aim is to gather the necessary information and materials about the final project, students present at the end of the semester the ongoing steps to be applied during the following semester. 
Prerequisites: ENEE4000, fifth year standing, registered in student’s penultimate semester

(Mechatronics Engineering Students)
Introduction to drive principles, selecting the  proper motor for doing a specific job, Special purpose motors, types of motors used in computer controlled processes and their control, power electronic converters, DC and AC motor Drives. Programmable Logic Controllers (PLC), real time control of motors. 
Prerequisites: ENEE4301, (ENCS432 or concurrent)

Special purpose and single-phase fractional horsepower motors and their applications in light industry, types of motors used in computer controlled processes and their control. Selecting the proper motor for doing a certain job. DC and AC motors control and drives. Power Electronics applications for AC and DC motor drive; soft starting, speed control and Soft Braking. Conventional and advanced control (microcomputer control).Programmable Logic Controllers (PLCs) and their applications. 
Prerequisites: ENEE2408, ENEE3305

Mobile Radio Signal Propagation, Path Loss and Channel Models, Large Scale Path Loss, Small Scale Path Loss, Modulation Techniques for Wireless Communication, Multiplexing, Multiple Access Techniques,  Channel Equalizers, Cellular Concept and Cellular System Fundamentals, Trunking, Cell Splitting and Sectoring, Multipath Propagation, Diversity and Combining Techniques, Capacity of Cellular Communications, Wireless Generations and Standards, Global System for Mobile Communication (GSM), Code Division Multiple Access (CDMA) System, Multiple-Input Multiple-Output (MIMO) System, Modern Communications Systems
Prerequisites: ENEE5302

Energy Fundamentals, review of conventional power systems, overview of renewable energy sources and systems,  photovoltaic “PV” fundamentals,  detailed study of  PV systems, comparison of solar cell technologies,  PV system components and  design, wind resources, wind  energy systems  and their  basic components, electrical generators  for wind energy systems, site survey and pre-planning, standalone and grid-connected systems, system sizing and economic aspects
Prerequisite: ENEE2408, ENEE3305

Study of a particular subject related to Communications depending on students' needs and instructors interests.
Prerequisite: Fourth year standing and department approval

Study of a particular subject related to power systems depending on students needs and instructors interests.
Prerequisite: Fourth year standing and department approval