Course Code |
Course Name |
Credit Hours |
Prerequests |
10211101
|
Calculus I
|
3 |
|
This course covers the concepts of function, inverse function, models, limits, continuity and derivatives, the differentiation rules and their applications, related rates, linear approximation and hyperbolic functions. In addition to the mean value theorem, indeterminate forms and L' Hospital's rule, curve sketching and optimization problems. |
10211102
|
Calculus II
|
3 |
|
Definite integral and its properties, limited integration, integration of compensation, the space between two curves, volumes of revolution, ways of integration (integration by parts, integration of partial fractures, integration of trigonometric functions and integration with compensation trigonometric functions), integrals ailing, the length of the curve and the area of surfaces of revolution, final sequences and series, tests of convergent series, power series, Taylor series. |
10211201
|
Calculus III
|
3 |
|
Topics covered in this course include: parametric equations and polar coordinates; vectors in R2 and R3 & surfaces; vector-valued functions; partial differentiation with applications; multiple integrals. |
10211202
|
Engineering Mathematics
|
3 |
|
Classification and solution of first order equation with application, higher order and solution , power series and solution also the student will learn the fundamental of partial differential equation, method of solution of first and second order nonlinear partial differential equation |
10216230
|
Probability and Statistics for Engineers
|
3 |
|
Topics covered in this course include set theory, relative frequency and probability, joint probability and independent events, random variables, distribution functions, density functions, Gaussian random variables, multiple random variables, joint-distribution functions, joint-density functions, conditional distribution functions, central limit theorem, random processes (stationary and independent), correlation functions, covariance, Gaussian random processes, spectral characteristics of random processes, the power density spectrum, cross-power spectrum, and the relation between correlation functions and power density spectra. |
10221101
|
General Physics I
|
3 |
|
This course covers the following topics: motion in one and more dimensions, the laws of motion with an application of Newton’s laws, vector quantities, work and mechanical energy, linear momentum and collisions, and rotational dynamics |
10221102
|
General Physics II
|
3 |
|
This course is a study of the following topics: electric charges; forces and fields; electric potential and electric potential energy; electrical capacitance electric elements like capacitors, resistors, and conductors; electric current and direct-current circuits; magnetic fields; magnetic force; induction; and RC and RL circuits. |
10221115
|
General Physics Lab. for Engineering Students
|
1 |
|
This lab is offered to non-physics students. In this lab, experiments related to topics mostly covered in General Physics I (10221101) and General Physics II (10221102) are conducted. These include experiments on CRO and Ohm’s law potentiometer; Wheatstone bridge (AC and DC); capacitance and RC circuit; Joule’s constant; acceleration and speed of sound; viscosity; Newton’s 2nd law; simple harmonic motion; Boyle’s law; and Archimedes’ principle. |
10231101
|
General Chemistry 1
|
3 |
|
A compulsory 3-lecture course that is mainly designed to give students a knowledge of the most important chemical principles such as atomic structure and periodic table, mass relationships in chemical reactions, reactions in aqueous solutions, gases, thermo chemistry, quantum theory and the electronic structure of atoms, periodic relationships among the atoms, basic concepts of chemical bonding, molecular geometry and hybridization of atomic orbitals. |
10231107
|
General Chemistry 1 Lab.
|
1 |
|
A compulsory practical course, designed to introduce the students to various experimental practices used in general chemistry, such as accurate weighing, performing basic chemical methods such as filtration, titration and gravimetric analysis, make simple metathesis and redox reactions, calorimetry experiments and calculations. |
10601110
|
Statics
|
3 |
|
10606102
|
Engineering Drawing
|
2 |
|
Developing the engineering student's ability to express his ideas through drawings, so that he can draw any design in a way that specialists can understand and manufacture, according to agreed standard standards regarding shape and designation. Manual techniques are covered in this course using only known drawing tools. |
10621100
|
Engineering Workshop 1
|
1 |
|
Development of basic skills in fields of manual sheet metal fabrication, welding processes, and household electric circuits. Students should perform in individual practical exercises. |
10621101
|
Engineering workshop 1 Practical
|
0 |
|
This is the practical part of the previous course. |
10621200
|
Engineering Workshop (2)
|
1 |
|
Theoretical and practical development of basic skills in the fields of metal machining, sand casting, metal forming and welding. Students should perform in individual practical exercises |
10621201
|
Engineering Workshop (2) Practical
|
0 |
|
10621210
|
Dynamics
|
3 |
|
Kinematics of particles, planer dynamic analysis of rigid bodies. Force and acceleration, work and energy, impulse and momentum. Introduction to vibrations. |
10621213
|
Mechanical Drawing
|
2 |
|
Auxiliary views. Temporary fasteners and springs; their construction and standards. Power screws and welded symbols. Dimensioning, tolerance, limits and fits using ISO system. Detail and working drawing. Assembly drawing. |
10621214
|
Strength of Materials
|
4 |
|
Introduction to mechanics of deformable bodies; concepts of stress and strain, classification of materials behavior, stress-strain relations and generalized Hook’s law. Applications to engineering problems involving members under axial loads, torsion of circular rods and tubes, bending and shear stresses in beams/members, combined loading and stress transformation. Stress in thin- and thick-walled cylinders, curved beams, shrink and press fits, stresses in rotating disks, contact stresses. Failure theories under static loading. |
10621220
|
Thermodynamics (1)
|
3 |
|
Properties and behavior of a pure substance. First law and second law analysis applied to different system and control volumes, availability and irreversibility. |
10621301
|
Software Applications in Mechanical Engineering
|
2 |
|
Introduction to MatLab programming language. Solve applied mechanical engineering problems using MatLab. Build and analyze 3D Dynamic models and accomplish stress analysis using SolidWorks and Visual Nastran 4D and/or any other equivalent design software. |
10621310
|
Theory of Machines
|
3 |
|
Kinematic analysis of mechanisms. Velocity and acceleration polygons. Static and inertia force analysis of machinery. Dynamic analysis of cams, and flywheels. Balancing of machines. |
10621317
|
Machine Design (1)
|
3 |
|
Deflection of beams, deflection of members using energy method, buckling of columns, Fatigue failure theories. Design of basic machine elements including: screws, fasteners, welded joints, mechanical springs, and rolling contact bearings. |
10621320
|
Fluid Mechanics (1)
|
3 |
|
Introduction to fluid mechanics and units, properties of fluids, and fluid statics. Basics of fluid flow. Energy in steady flow, momentum and forces in fluid flow. Similitude and dimensional analysis. Steady incompressible flow in pressure conduits, and applications to fluid machinery. Introduction to fluid measurements. |
10621328
|
Fluid Mechanics Lab.
|
1 |
|
Laboratory applications to the related topics of the theoretical course of fluid mechanics (1). |
10621329
|
Thermodynamics (2)
|
3 |
|
Vapor and air-standard power and refrigeration cycles. Thermodynamic relations, and Psychrometry. Ideal and real mixtures and solutions. Chemical reactions and combustion. |
10621330
|
Engineering Materials
|
3 |
|
Atomic structure and bonding, structure of crystalline solids, and diffusion. Imperfections in solids. Dislocations and strengthening mechanisms, fracture of materials. Phase diagrams and alloy formation. Ferrous and nonferrous metals and alloys. |
10621331
|
Properties and Strength of Materials Laboratory
|
1 |
|
Hardness, tensile, compression, impact, torsion, creep and fatigue tests. Macro-and micro-examination of metals. Experiments in casting, forming, machining, welding, heat treatment and plastic manufacturing. |
10621332
|
Production and Manufacturing Processes (1)
|
3 |
|
Production of ferrous materials. Production of non-ferrous materials. Sand casting, powder metallurgy, rolling, forging, extrusion and drawing. Metal cutting. |
10621400
|
Internship (1)
|
3 |
|
A practical training of continuous 8 weeks period in an engineering institute approved by the program. The student should register for the course upon finishing the fourth year of study, which is equivalent to successful completion of 128 credit hours of program's compulsory and electives requirements. |
10621410
|
Machine Design (2)
|
4 |
|
This course concentrates on the design of certain machine elements such as: spur, helical, bevel and worm gears, belt-pulley system, cables, chain-sprocket system, brakes and clutches, rotating shafts, flywheels. With computer applications. |
10621413
|
Applied Mathematics for Engineers
|
3 |
|
Series solutions of differential equations, special functions (Legendre, Frobenius, Bessel…). Fourier Series, integrals, and transforms. Partial differential equations. |
10621414
|
Mechanical Vibrations
|
3 |
|
Properties of oscillatory motion. Derivation of governing differential equations. Free and forced vibrations. Harmonically excited motion, rotating and reciprocating unbalance, support motion. Vibration isolation. Transient vibrations. Free and forced vibrations in multi-degrees-of-freedom systems. |
10621416
|
Mechanics of Machines and Vibrations Lab.
|
1 |
|
Practical experiments related to the given topics in the courses of vibrations, theory of machines and machine design. |
10621420
|
Heat Transfer (1)
|
3 |
|
One dimensional conduction; steady and transient analysis. Introduction to convection heat transfer. Forced convection heat transfer in external flows. Radiation heat transfer; radiation properties, and radiation heat exchange between ideal surfaces. |
10621426
|
Thermal Sciences Laboratory
|
1 |
|
Laboratory experiments related to heat transfer, thermodynamics and thermal processes. |
10621440
|
Heating and Air Conditioning
|
3 |
|
Criteria for thermal comfort, introduction to heating and air conditioning systems. Vapor compression systems. Psychrometry, heating and cooling loads calculations. Classification of air conditioning systems. Duct system design, and pipe system design. Air conditioning control systems. Standards, symbols, selection, and layout and installation of heating and air conditioning systems components. Students in individual or groups should perform short projects to practice the main principles of the course. |
10621522
|
Operations Management
|
3 |
|
10621526
|
Turbo-Machinery
|
3 |
|
Theoretical analysis of energy transfer between fluid and rotor. Principles of axial-, mixed-, and radial-flow pumps and turbines. Pumps applications. Jet engines and compressors. |
10621529
|
Buildings Mechanical Systems
|
3 |
|
Introduction to buildings systems. Analysis, design, and selection of fluidic, thermal, electro-mechanical and electrical systems. Cold water, hot water, sewer and drainage systems analysis, standards, codes, specifications and networks, fire-fighting systems and alarms. Elevators and escalators, and accelerators systems standards, selection and specifications. Introduction to electrical power supply networks specifications, standards, and selection. |
10621551
|
Graduation Project (1)
|
2 |
|
Literature review of the selected project topic and preparation of the work out line of the project's practical implementation |
10621552
|
Graduation Project (2)
|
3 |
|
Practical implementation of theoretical and experimental knowledge gained from graduation project I. Formal and scientific written report of the work done in parts I and II, and presentation with public defense of the graduation project. |
10626251
|
Engineering Numerical Analysis
|
3 |
|
Numerical analysis is concerned with finding numerical solutions to problems, especially those for which analytical solutions do not exist or are not readily obtainable. This course unit provides an introduction to the subject and treats the topics of solving nonlinear equations, both in one variable and in many variables, solving linear systems of equations and of approximating functions by polynomials. These topics are of great practical importance in science, engineering and finance, for example, and also have intrinsic mathematical interest. The course unit concentrates on theoretical analysis and on the development of practical algorithms |
10631301
|
Engineering Economy and Feasibility Studies
|
3 |
|
This course covers the fundamental tools and concepts of economical evaluation of business and engineering projects such as cash flow diagrams, discounted cash flow, break even and minimum cost analysis, present value, future value, net present value, interest rates, decision making analysis and depreciation. The course also covers fundamentals of feasibility studies such as: Terms of reference, Details and problems of the current system, Study methodology, possible solutions & recommendations including a description of the costs and benefits to the enterprise. |
10636111
|
Computer Programming
|
3 |
|
Review of the methods of analysis and logical thinking to solve various issues, and students learn to find solutions using the flow diagram of the (flowcharts) and Zip Assistant (Pseudo code) and follow-up solutions to detect and correct logical errors. It also gives the student C++ language include input and output sentences, expressions, variables and constants, control sentences, redundancy and control, as well as matrices, functions, and indicators, also given an introduction to compositions, entities and structures. |
10636410
|
Critical Thinking and Research Skills
|
3 |
|
This course addresses the theoretical and practical considerations of critical thinking and research. It studies the process of developing, supporting and evaluating beliefs and arguments through effective inductive and deductive reasoning and cognitive skills. The course also applies the reasoning process to conduct and evaluate scientific research. The Students are expected to present relevant research topics for the course, in oral and written forms, to gain practical experience both conducting research as well as defending their own arguments and opinions. |
10641291
|
Electrical and electronic circuits
|
3 |
|
Introduction, Ohm's law, Kirchoffe's laws, and division rule, Nodal analysis, Mesh Analysis, Linearity and superposition, Thevenin's and Norton's theorems. Inductance and capacitance. AC circuits and three phase circuit analysis. Semiconductor materials. Diodes and Transistors circuits. Operational amplifiers |
10641294
|
Electrical and Electronic Circuits Lab.
|
1 |
|
Laboratory equipment. Ohm’s law, series-parallel resistances, Kirochoff’s laws, voltage and current divider rules, delta-wye transformations, Thevenin’s and Norton equivalents, superposition and reciprocal theorems, maximum power transfer. Three phase circuits |
10641391
|
Electrical Machines
|
3 |
|
Review of magnetic fields and circuits. Single and three phase transformers. Electromechanical energy conversion. DC-machines: DC-generators and DC-motors. Starting DC-motors and speed control. AC-machines: single and three phase induction motors. Three phase synchronous machines |
10641392
|
Electrical Machines Lab.
|
1 |
|
Laboratory experiments on single and three phase transformers. Electromechanical energy conversion, DC-machines: DC-generators and DC-motors, starting DC-motors and speed control, AC-machines: single and three phase induction motors. Three phase synchronous machines |
10651471
|
Control Systems I
|
3 |
|
Open and closed loops (feedback) control systems. Modeling of physical systems: electrical, Mechanical, hydraulic and pneumatic systems. Linearization of nonlinear systems. System representations: System block diagrams and signal flow graphs. State variable models. Feedback control system characteristics. Performance of feedback control systems. Routh-Hurwitz stability. Steady state error coefficient. Rout locus Method. Introduction to frequency response. |
10651571
|
Control Systems Laboratory
|
1 |
|
Open and closed loop control systems with applications to level and flow of fluids, and electrical, electromechanical, and thermal systems. Position and speed Control. Principles of controlling servomechanisms and stability tests. System performance under the action of proportional (P), integral (I), derivative (D) compensation controllers. Time and frequency response measurements. Computer simulation of control systems using MATLAB and SIMULINK software. |
11032101
|
English in the Workplace
|
3 |
|
This is a three-hour non-credited English course offered to students of Economics and Administrative Sciences and Engineering. This course is designed to train SENIOR students in these faculties to communicate effectively in the business world. It focuses on practical oral and written business communication principles and applications with particular emphasis on writing, sending and answering e-mails, writing proposals for field projects and discussing them with an audience as well as training students to prepare and execute presentations and to express themselves orally. Students are also trained to use modern technology in communication and to contact/ communicate with their instructors through the university e-learning MOODLE program. |
Course Code |
Course Name |
Credit Hours |
Prerequests |
10621401
|
Internship (2)
|
3 |
|
The student can register for the course in parallel with Internship 0621400 course, after program permission. These two courses together are for practical training of continuous four months period in a special engineering institute approved by the program. |
10621430
|
Industrial Plants Layout and Management
|
3 |
|
Introduction to plant layout and management. Plant location, industrial buildings, types and classification of plant layout. Facilities design procedures. Systematic layout planning: Product-Quality (P-Q) input data, material flow, relationship charts, flow and/ or activity relationship diagrams, space determinations, space relationship diagrams, and selecting the layout. Factors influencing plant layout: Materials, machines and equipment, employee, movement, waiting, service, building and flexibility. Line balancing and assembly lines. Project management. |
10621512
|
Rotor Dynamics
|
3 |
|
Characteristics of rotor element. Monorotors and multirotors. Symmetric and asymmetric rotors. Backward and forward whirl. Campbell diagram. Instability of rotating machines. Effects of internal and external damping and bearing and seals. Effects of rigid and elastic bearings. Balancing. Gyroscopic and aerodynamic effects. Industrial applications: Turbocharger, centrifugal compressor, steam turbine, Profanes. |
10621513
|
Finite Elements Analysis
|
3 |
|
Introduction to finite element methods. Integral formulation and variation methods. Modeling principles and mesh specification of one dimensional problems: derivation of element equations, assembly of element equations, imposition of boundary conditions, solution of equations, and error analysis. Introduction to two dimensional problems. Computer simulation for solving engineering problems. |
10621514
|
Fracture Mechanics
|
3 |
|
Role of failure prevention in Mechanical design. Stress and deformation. Classical theories of failure. Notches and notch sensitivity. Fracture Mechanics: Rowan–Irwin relationship, Linear elastic fracture mechanics, Elastic stress field approach, Energy balance approach, J-Integral. Fatigue: Low cycle fating, High cycle fatigue, and remaining life. Creep and some mathematical models. Wear. |
10621520
|
Heat Transfer (2)
|
3 |
|
Forced convection heat transfer in internal flows. Free convection heat transfer, heat exchangers, boiling and condensation. Radiation heat exchange between gray surfaces. Multi- mode heat transfer. Introduction to two-dimensional conduction steady-state heat transfer. |
10621523
|
Fluid Mechanics (2)
|
3 |
|
Potential flow and boundary layer analysis. Flow separation. The use of computational techniques to solve boundary layer problems. Viscous internal channel flow. One-dimensional Compressible flow in nozzles and ducts. Normal shock waves and channel flow with friction or heat transfer. |
10621524
|
Internal Combustion Engines
|
3 |
|
Air standard cycles, combustion processes in ICE. Compression ignition engines, spark ignition engines. Engine parts design, supercharging, engine tests and performance. |
10621525
|
Thermal Power Stations
|
3 |
|
Over view of different types of power stations, its components, features and applications. Economic studies, load curves, station performance. Selection of station. Energy rates. |
10621530
|
Computer Aided Design And Manufacturing
|
3 |
|
Principles of computer aided design and manufacturing. Computer aided design: Transformation and manipulation of objects, description of curves and surfaces, solid modeling, and optimization techniques. Implementation of finite element method techniques for analysis of trusses, heat conduction, and dynamics. Computer integrated manufacturing and implementation of a CAD/ CAM system. |
10621531
|
Dies and Tools Design
|
3 |
|
Principle of tool design. Tool Materials, Heat treatment of Cutting tools. Design of single point Tools, Drills, Milling and form relieved milling cutters, Broaches and their heat treatment, thread cutting tools, tool grindings, presswork die design principles, design of press-working dies, drawing die design, forming die design principle, design of open die and closed die forging, materials of die block. |
10621532
|
Production and Manufacturing Processes (2)
|
3 |
|
Special casting processes, sheet metal forming, press working and tooling, forming and shaping of plastics and composite materials. Forming and shaping of ceramics and glass, joining of materials. Specialized production and manufacturing processes. |
10621533
|
Pressure Vessels Design
|
3 |
|
Structural design criteria, stress categories and stress limits, design of cylindrical shells, design of heads and covers, design of nozzles and openings, fatigue assessment of pressure vessels, bolted flange connections, Design of vessel supports, Inelastic methods in pressure vessel. Case studies, ASME Boiler and Pressure Vessel Code. |
10621534
|
Material Selection in Mechanical Design
|
3 |
|
This course covers the following topics: the design process, material property charts, material selection basics, material selection case studies, process and process selection, multiple constraints and objectives, selection of material and shape, designing hybrid materials, materials and the environment; case studies. |
10621545
|
Diagnosis and Maintenance of HVAC systems
|
3 |
|
A basic study of the installation, maintenance, service and repair of residential, commercial and industrial Refrigeration and Air Conditioning systems. Tools and instruments used in the HVAC industry. |
10621546
|
Computer Aided Design for HVAC Systems
|
3 |
|
Under floor heating and cooling, heating and cooling using solar energy, variable air volume (VAV), variable refrigerant volume (flow) VRV/VRF, therma systems, geothermal systems. Proper selection of HVAC systems. Project work. |
10621547
|
Advanced HVAC Systems
|
3 |
|
Use computer applications for estimating heating and cooling load, duct sizing, pipe sizing, variable refrigerant flow system design, and drawing HVAC Systems. Selection of HVAC system components. |
10621548
|
Energy Conversions
|
3 |
|
Energy growth and economics. Energy classification, sources and utilization. Principal fuels for energy conversion. Production of thermal energy. Fossil-fuel systems. Nuclear reactor design and operation. Environmental impact of power plant operation. Production of mechanical and electrical energy. Energy storage. |
10621549
|
Refrigeration
|
3 |
|
Refrigeration systems and refrigerants. Multi-pressure and multi-temperature refrigeration systems. Absorption refrigeration systems. Design and operation of refrigeration equipment. Load calculation and design of cold storage rooms. Selection of refrigeration systems components. Students in individual or groups should perform short projects to practice the main principles of the course. |
10621553
|
Special Topics in Applied Mechanics
|
3 |
|
Current trends and developments in the field of Applied Mechanics. |
10621554
|
Special Topics in Thermal Sciences
|
3 |
|
Current trends and developments in the fields of thermal sciences. |
10621629
|
Heat Exchangers Design
|
3 |
|
Review of heat transfer. Types of heat exchangers, definitions and quantitative relationships, analytical and numerical solution procedures. Thermal and hydraulic design of heat exchangers, Design and analysis of cooling towers and water heating solar collectors. Review of mechanical design, codes, materials of construction, corrosion damage, testing and inspection, costing. |
10631300
|
Innovation and Entrepeneurship
|
3 |
|
This course is designed for students of the Faculty of Engineering and IT to help them be involved in creative, innovative, entrepreneurial and corporate ventures in the future. Subjects covered include: introduction to entrepreneurship & creativity; developing successful business ideas, managing and growing an entrepreneurial firm; technical and financial feasibility studies; business models; market survey; business plan preparation.Learning Outcomes: after successful completion of this course, students will be able to:1) Demonstrate a solid theoretical understanding of the innovation process, entrepreneurship and their associated management issues in the business economy.2) Find, launch and manage high growth potential new ventures by looking for and evaluating business opportunities, preparing business plans, designing and validating business models to build successful start-ups.3) Design, implement and manage a company’s innovation strategy, network or system. |
10631451
|
Maintenance Management
|
3 |
|
Maintenance organization, components of a maintenance plan, impact of maintenance on production, system operation and documentation, manual and computerized documentation systems, planned maintenance, FMEA methodology and related topics. The course also gives an overview about reliability engineering and its effects on production systems |
10651481
|
Transducers and Interfacing
|
3 |
|
Static, dynamic and statistical characteristics of measurement system elements. Loading effects in measurement systems. Sensing elements: Resistive, capacitive, inductive, electromagnetic, thermoelectric, elastic, piezoelectric and electrochemical sensing elements. Optical and ultrasonic measurement systems. Signal conditioning elements: Deflection bridges and amplifiers. Signal processing elements: Analogue to digital (A/D) conversion. |
10651483
|
Hydraulic and Pneumatic Systems
|
3 |
|
Introduction to fluid power systems design and operation. Characteristics of hydraulic fluids and standard tests. Characteristics and selection of positive and non-positive displacement pumps. Characteristics and standards of filters. Linear and rotary hydraulic Actuators. Characteristics and design of hydraulic and pneumatic distribution systems. Hydraulic and pneumatic control valves. Design, sizing and analysis of hydraulic and pneumatic circuits. |
10651682
|
Robotics
|
3 |
|
Robot fundamentals. Robot kinematics: position analysis. Differential motions and velocities (Jacobian and inverse Jacobian). Dynamic analysis and forces. Trajectory planning. Actuators and Sensors of robotic systems. |
11011222
|
Entrepreneurship and Innovation
|
3 |
|