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About!Program!
Power electronics plays a very important role in generating and efficient usage of electrical energy from clean energy sources. Power electronics is a science that constantly evolves and has a broad range of growing applications. It is a combination of electrical, electronics and control theory fields that are processed together in a way that relies on control and conversion of electrical energy. Power electronics, which has found a significant place in modern technology, has been used in a wide variety of applications where electrical energy is produced and distributed such as wind turbines, photovoltaic solar panels, piezoelectric systems, fuel cells and high voltage direct current generation. It has also been used in some other important applications such as robotics, aerospace, automotive technologies, communication systems, electric motor drives, uninterruptible power supplies, drive-trains of electrical and hybrid electric vehicles, temperature, illumination and position controls, and factory automation. Okan University Institute of Sciences has developed a graduate program educate engineers to be proficient in their field of study, to equip engineers with the technical knowledge to meet the needs of industry, and to instill in these engineers the ability to conduct further research in their field. The language of instruction for the Power Electronics and Clean Energy Systems will be English, so that graduates can follow the latest advancements in the world and have a say in the international arena int his field.
Objectives
Upon completion of the Power Electronics and Clean Energy Systems Master of Science program, participants will:
• Have increased/refreshed their knowledge in power electronics and clean energy systems,
• Contribute to the body of knowledge in the field of power electronics and clean energy systems and find solutions to fundamental problems in this field,
• Assume leadership positions in the area of power electronics and clean energy systems,
• Pursue new opportunities in education,
• Pursue new opportunities in research and development (R&D),
• Have increased employment prospects.
The total credits required for the satisfactory completion of the curriculum are 21 credits. The program additionally requires a seminar and a masterthesisto be successfully completed.
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CURRICULUM!(with!Thesis)!
1ST SEMESTER COURSE PLAN
Code Course Title *C **A ***L+P Hours Credits
EEE501 Fundamentals of Engineering Mathematics Yes Yes 3 + 0 3
Program Elective No Yes 3 + 0 3
Program Elective No Yes 3 + 0 3
Program Elective No Yes 3 + 0 3
Total : 12
322ND SEMESTER COURSE PLAN
Code Course Title *C **A ***L+P Hours Credits
EEE550 Seminar Yes Yes 0 + 2 0
Program Elective No Yes 3 + 0 3
Program Elective No Yes 3 + 0 3
Program Elective No Yes 3 + 0 3
Total : 9
Grand Total (without seminar and thesis) 21
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*C: Compulsory **A: Average
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Elective Course List
Code Course Title *C **A ***L+P Hours Credits
EEE503 Clean Energy Technology and Energy Storage Systems
No Yes 3 + 0 3
ECE516 Electromagnetic Modelling and Simulation No Yes 3 + 0 3
EEE505 Advanced Power Electronics No Yes 3 + 0 3
EEE507 Advanced Electric Drives No Yes 3 + 0 3
EEE504 Electric and Hybrid Electric Vehicles No Yes 3 + 0 3
EEE502 DSP-Based Electromechanical Motion Control
No Yes 3 + 0 3
MCHT606 Theory and Design of Advanced Control Systems
No Yes 3 + 0 3
ECE504 Digital System Design No Yes 3 + 0 3
ECE506 Embedded System Design No Yes 3 + 0 3
33
*C: Compulsory
Course Descriptions
EEE503 Clean Energy Technology and Energy Storage Systems (3 credits) The purpose of this course is to introduce following topics: Global Energy Outlook, Introduction to Renewable and Clean Energy Technologies. Solar-Derived Renewable Energy:Solar Thermal Energy, Photovoltaic. Non-Solar Derived Renewable Energy:Wind Energy, Biomass, Hydropower, Wave and Tidal Energy, and Geothermal energy. Interactions with Electric Power Systems.Economical, Environmental and Social Impacts of Clean Energy.Hydrogen and Fuel Cells. Energy Storage Systems:Electrical(SMES), Electromechanical (flywheels), Electrochemical (batteries), and Thermal .Lead Acid and Li Batteries.
Modeling and Simulation of Energy Systems. Design and Applications of Renewable Energy Sources and Batteries for Stationary and Mobile Systems: Solar House, Electric Vehicle and smart Grid.
ECE516 Electromagnetic Modeling and Simulation (3 credits) The purpose of this course is to review the importance of well-defined problems and fundamental engineering terms and concepts. Then modeling and simulation will be reviewed. The process of validation, verification and accreditation will be emphasized. Fundamentals of electromagnetic theory will be summarized. Numerical analysis including root search, numerical derivation and integration, solution of systems of equations will be reviewed. Then, Sturm-Liouville equation in electromagnetic will be discussed in 1D. The definitions of the eigenvalue and Green’s function problems will be stated and their relation will be illustrated. Finally, numerical models such as FDTD, MoM, FEM, and SSPE will be reviewed and examples will be given.
EEE505Advanced Power Electronics (3 credits) The purpose of this course is to introduce following topics: Introduction to power electronics converters and their applications. Properties of semiconductor switches. Modeling and analysis of single and multi phase uncontrolled and controlled rectifiers, evaluation of input and output parameters (Harmonics, PF, HF, DF, DisF, RF, FF,CF). Modeling, analysis and design of DC/DC conversion techniques (buck, boost, buck-boost, Cuk, flyback, forward, pushpull, full bridge), Switched mode power converters. Hard and soft switching techniques.Simulation and control of power electronics systems.Power electronics in motion control systems, power electronics in electric power systems; Flexible AC Transmission, renewable energy production and smart grids.
EEE507 Advanced Electric Drives (3 credits) The purpose of this course is to introduction students electric drive systems, principles of electro-mechanical energy conversion, DC-motor drives and electronically-commutated motor drives, Designing feedback controllers for motor drives, Introduction to AC Machines and Space Vectors, Induction machine equations in phase quantities: Assisted by space vectors, Dynamic Analysis of Permanent-Magnet AC Machines in Terms of dq- Windings, Sinusoidal Permanent Magnet AC (Brushless DC) Drives, Vector Control of AC Motor Drives, Vector Control of Permanent-Magnet Synchronous-Motor Drives.
EEE504 Electric and Hybrid Electric Vehicles (3 credits) The purpose of this course is to introduce following topics: Brief History of Hybrid and Electric Vehicles (EV & HEV) ; Definitions and Classifications , Components and Systems of EVs and HEVs; Electric Drive Systems, Battery Charging and Battery Management Systems, Energy Management Systems and Drive Scenarios; In Vehicle Communication, Control and Fault Diagnostics; Modeling and Simulations of EVs & HEVs, Outside Charging Methods and Power System Interactions.
EEE502 DSP-Based Electromechanical Motion Control (3 credits) The purpose of this course is to
TMS320F28335 Digital Signal Controller. The series of modules will guide the students through the various elements of this device, as well as train them in using Texas Instruments development tools and additional resources from the Internet.The material in several Modules shall be used in a semester, accompanied by lab exercises in parallel. Each module includes a detailed lab procedure for self study and guidance during the lab sessions.The experimental lab sessions are based on the Texas Instruments
“Peripheral Explorer Board” (TI part number: TMDSPREX28335). A 32K code-size limited version of the software design suite “Code Composer Studio” that is bundled with the TMS320F28335 Peripheral Explorer Board is used for the development of code examples.
MCHT606 Theory and Design of Advanced Control Systems (3 credits) The purpose of this course is to introduce following topics: Linear algebra review, state-space modeling, controllability, observability, minimal realizations, stability, design using linear state feedback control laws, observers, introduction to optimal control.
ECE504 Digital System Design (3 credits) The purpose of this course is to prepare students to analyze and design of digital circuits using Verilog and VHDL. The emphasis of this course is on the analysis and design of digital signal processing algorithms using Verilog and VHDL on FPGA.
ECE506 Embedded System Design (3 credits) The purpose of this course is to introduce following topics:Embedded system design techniques, system modeling and specifications, software organization, real-time operations, scheduling, real-time operating systems, low-power design, power reduction techniques, timing analysis, testing, fault tolerance, debugging, hardware and software partitioning and optimization, embedded system security, calibration for performance improvement, machine-human interfaces, embedded systems on safety applications.