Course No. |
Course Title |
Cr. Hrs. |
Prerequisite |
Course Description |
615211 |
Principles of Electric Circuits |
2+1 |
General Physics (2) |
Definitions, Basic Concepts; Charge, Current, Voltage, Power, Energy. Circuit Elements Kirchhoff’s laws. Mesh and Nodal Circuit Analysis. Network Theorems (Thevenin, Norton, and superposition). Introduction to AC Circuits. Experimental work: DC current circuits, Kirchhoff’s laws, networks theorems, power measurement |
615313 |
Electric Machines |
2+1 |
Principles of Electric Circuits |
Single phase and three phase Induction motors. Single phase and three phase transformers. AC Generators. Three-Phase Synchronous Generators. AC Series Motor. Repulsion Motor. Experimental work: DC transformers, generators and motors. Single phase and three phase Synchronous motors and generators. AC Series Motors. |
615311 |
Instrumentation and Measurement |
2+1 |
Principles of Electronic Circuits |
Applications of Electrical and Mechanical Sensors. Data Acquisition and Applications of Logic Controllers in Power Systems. Identify the Physical Information Needed to Control and Record Data. Methods of Calibration and Correction. Experiments on: Oscillations. Measurement of Ground Resistance. Data Acquisition. Signal Generators. Overlap and Isolation. Open and Closed-Circuit Systems. Speed feedback on system Performance. Frequency Response Measurements. |
615312 |
Automatic Control Systems |
2 |
Instrumentation and Measurement |
Introduction to Feedback Systems. Review of System Equations. Block Diagram and Signal Flow Graphs. Time Response of Systems and Closed Loop Performance. Routh's Stability Criterion. The Root Locus Method. Frequency Methods. Compensation Techniques. Introduction to Sampled Control Systems. Computer Control Systems. |
615212 |
Principles of Electronic Circuits |
2+1 |
Principles of Electric Circuits |
Semiconductor Circuit Analysis. Full Wave and Half Wave Semiconductor Diodes Rectifiers. Zener Diodes, Clippers, Clampers. Bipolar Junction Transistor (BJT), Biasing Circuits. Common Emitter Amplifier. Common Collector Amplifier. Common Base Amplifier. Design of BJT Amplifier. Field Effect Transistor (FET): JFET & MOSFET. JFET Amplifiers. Design of JFET Amplifier. Introduction to OP-AMP & Its Applications. Experimentation on: |
615225 |
Mechanics (Statics+Dynamics) |
3 |
General Physics (1) + Calculus (2) |
Introduction to Mechanics of Rigid Bodies. Basic Principles in Forces and Vectors Analysis, forces Systems, Equivalent forces Systems, Static Equilibrium, Simple Structures Analysis, Friction, Geometric Properties, Centroids and Moments of Inertia. Kinematics of Particles. Rectilinear and Curvilinear Motion in Various Coordinate Systems. Kinetics of Particles. Newton’s Second Law. Central Force Motion. Work-Energy Equation. Principle of Impulse and Momentum. Impact, Conservation of Energy and Momentum. Application to a System of Particles. Kinematics of Rigid Bodies. Relative Velocity and Acceleration. Instantaneous Center, Analysis in Terms of a Parameter. Plane Kinetics of Rigid Bodies with Application of Newton’s Second Law. Energy and Impulse-Momentum. Vibrations. |
615226 |
Fluids and Thermal Sciences |
3 |
Mechanics + Calculus 2 |
Hydrostatics, steady and unsteady flow, continuity equation, ideal uncompressed flow, one dimensional Euler’s and Bernoulli’s Equations. Energy equation, Momentum Principle. Dimensional Analysis, Introduction to Boundary Layer Theory. Flow in Conduits, Frictional and Minor Losses in Piping Systems.
Thermodynamic Concepts and Definitions. Pure Substances. The First and second laws of thermodynamics. Control volumes and cycles analysis. |
615261 |
Fluids and Thermals lab |
1 |
Thermodynamics |
Experimentation on topics covered in the courses of heat transfer and fluid mechanics. |
615323 |
Heat transfer |
3 |
Fluids and Thermal Sciences |
Introduction to Modes of Heat Transfer; One-Dimensional Steady State Conduction, Unsteady State Thermal Conduction. Lumped Heat Capacity System. Convection Heat Transfer. Empirical and Practical Relations for Convection Heat Transfer. Free Convection Heat Transfer. Condensation and Evaporation. Introduction to Heat Exchangers. Introduction to Thermal Radiation. |
615322 |
Strength of materials |
2+1 |
Mechanics |
The concept of Stresses and Strains. Stresses due to Axial Loading. Material Properties Obtained from Tensile Tests. Thermal Stresses. Elementary Theory of Torsion, Stresses in Beams Due to Bending, Shear and Combined Forces. Composite Beams, Combined Stresses. Deflection of Beams, Buckling of Columns. |
615331 |
Internal and external combustion |
2+1 |
Heat transfer |
Steam power cycles. Types of internal combustion engines, spark ignition machines, Compression ignition engines, turbines and external compression engines, air pollution. |
615314 |
Electrical power systems |
2 |
Electrical machines |
System representation, parts of power systems, generators, power transformers, transmission lines, failure analysis. |
615334 |
Energy conversion and storage |
3 |
Heat transfer |
Energy forms, energy needs and energy available sources; such as Fossil Fuels, oil shale, hydrogen, hydroelectricity, biomass principles of nuclear energy, solar energy, wind, Geothermal, and Ocean. Conversion of chemical energy into thermal energy, conversion of thermal energy into mechanical and electrical energy using heat engines and electrical generators, energy conversion through fuel cells. |
615435 |
Energy economics and management |
3 |
Energy conversion |
Principles of Energy Management. Energy Conservation. Energy Auditing and Analysis. Formulation of Energy Management Options. Economic Assessment and Conservation Technology of Energy. Energy Saving in Big Industries. Steam Generation. Electric and Distribution Energy Systems Management. Integral Planning for the Resources. Demand Management. Cogeneration. Total Power Schemes. Thermal Insulation. Energy Storage. |
615432 |
Conventional energy sources |
3 |
Energy conversion and storage |
Forms and availability of conventional energy sources, like coal, oil, and gas. Economic and environmental impacts of conventional energy sources. Methods of extraction. |
615462 |
Modeling and simulation of energy systems lab. |
1 |
Photovoltaics |
Experimentation on simulation definition, principles of physical systems; electrical, hydraulic, thermal, and mechanical. Simulation techniques using computers and simulation packages and their applications in conventional and alternative energy systems. |
615333 |
Power plants |
2 |
Electrical power systems |
Thermal cycles, steam generators, steam condensers, steam turbines. Load manipulation, economics of power plants. |
615434 |
Energy environment impact |
2 |
Internal and external combustion |
Applications of Chemistry and Engineering Fundamentals to Understand Environmental Concepts Related to Human Activities. Mass and Energy Transfer. Environmental Chemistry for Water and Air Pollution. Pollution Management and Hazard Evaluation. Introduction to Chemical. Physical and Biological Related to Quality of Water. Air and Earth Environment. Parameters That Effect Energy Consumption and Building Utilization. Basic Resources and Utilization of Energy. Energy Conversions. Distribution and Utilization of Electricity and Heat. Environment Impact of Energy Technology. |
615436 |
Nuclear Energy |
3 |
Conventional Energy Sources |
Introduction to nuclear energy and its use, environmental impact of nuclear energy, threats associated with the use of nuclear energy, measures and codes of nuclear energy utilization. |
615437 |
Oil shale |
3 |
Conventional Energy Sources |
Introduction to oil shale, oil shale composition, types of oil shale, oil shale utilization methods, global potential of oil shale, ways of extraction, economic viability, environmental impact of oil shale utilization. |
615343 |
Solar thermal energy |
3 |
Heat transfer |
Introduction to Solar Thermal Energy. Residential. Commercial and Industrial Applications. Solar Radiation. Heat Transfer. Plane and Concentrated Collectors. Water Heating Applications. Heating and Cooling the Buildings. Thermal Industrial Applications Water Desalination. Solar Thermal Energy System. |
615344 |
Photovoltaics systems |
3 |
Principles of Electronic Circuits |
Overview on functioning of the Photovoltaic principles. Stand alone and grid tied photovoltaic System. Cell as well as system efficiencies. Photovoltaic system components: Batteries, modules, charge controllers, power Factor. Power inverters. |
615463 |
Alternative energy workshop (1) |
1 |
Photovoltaic systems+Solar thermal energy |
PV modules installation of standalone and grid tied systems, balance of systems components, use of tools and test instruments for the installation of PV systems, PV system troubleshooting and maintenance procedures. Solar thermal energy systems installation, flat plate and concentrated solar thermal collectors, the application of water heating, space heating and cooling, thermal industrial processes, water desalination. |
615464 |
Alternative energy workshop (2) |
1 |
Wind energy |
Different experiments related to wind energy systems |
615443 |
Wind energy |
3 |
Electrical machines +Fluid and thermal sciences |
Historical Applications of Wind Energy. Basic Concepts of Wind Energy Converters. Physical Principles of Wind Energy Conversion. Types of wind turbines; vertical and horizontal axis turbines. Aerodynamics of Turbines. Using Computer Software for Wind Energy Analysis. |
615449 |
Other alternative and renewable energy systems |
3 |
Heat Transfer + Fluid and Thermal Sciences |
Hydrogen and fuel cells, wasted heat, hydroelectric and wave energy, tidal energy. |
615480 |
Field training |
0 |
90 credit hours |
The Student must Spend Eight Weeks after Completing 90 Credit Hours in the Industry (Inside or Outside Jordan) Under the Supervision of a faculty Member in the Department. The Student is Required to Submit Periodic Reports, Final Reports and Final Exam. This will be in a separate semester that is not synchronized with the study |
650481 |
Technological project (1) |
1 |
90 credit hours |
The Student Must be Associated with one or more Faculty Members from the Department where a Project is Assigned to him. The Student will Study the Project, analyze it and Submit a Proposal for its Implementation in the Next Stage. |
650482 |
Technological project (2) |
2 |
Technological project (1) |
The Student Carries Out the Project Suggested by the department Based on the Results Obtained from Engineering Project (1). |
615353 |
Drawing and reading of engineering sketches |
3 |
Engineering drawing by computer |
Principles, methods, and techniques for engineering plans drawing and reading. Bodies representation on plane surfaces, symbols drawing details. |
615351 |
Professional safety |
3 |
Drawing and read of engineering plans |
Role of worker in economic development. Administrational hierarchy. Industrial accents management. Protection and safety equipment. Understanding and preventing fires. Electrical shocks and their treatment. Storage of chemical materials. Jordanian work law. Jordanian social security law. |
615352 |
Material science |
3 |
Strength of materials |
Metal structures and crystallization, Materials used in engineering applications, Plastic deformation on the macro and micro-structure levels. Material failure, Heat treatment processes, Phase diagrams, Heat treatment of steel. |