CANKIRI KARATEKIN UNIVERSITY Bologna Information System


  • Course Information
  • Course Title Code Semester Laboratory+Practice (Hour) Pool Type ECTS
    Photovoltaic Systems EEM541 FALL-SPRING 3+0 E 6
    Learning Outcomes
    1-Explains the bases and working principles of PV systems
    2-Describes electricity generation from photo-voltaic effect and various PV cell structures
    3-Creates mathematical model of complete PV systems using models of all components that make up a PV system
    4-Defines concept of maximum power point tracking and evaluation of various algorithms
  • ECTS / WORKLOAD
  • ActivityPercentage

    (100)

    NumberTime (Hours)Total Workload (hours)
    Course Duration (Weeks x Course Hours)14342
    Classroom study (Pre-study, practice)14456
    Assignments0000
    Short-Term Exams (exam + preparation) 0000
    Midterm exams (exam + preparation)2011010
    Project3015050
    Laboratory 0000
    Final exam (exam + preparation) 5011010
    0000
    Total Workload (hours)   168
    Total Workload (hours) / 30 (s)     5,6 ---- (6)
    ECTS Credit   6
  • Course Content
  • Week Topics Study Metarials
    1 Introduction to photovoltaic (PV) systems. Historical development of PV systems. R1-Chapter 1
    2 Solar energypotential for PV, irradiance, solar radiation and spectrum of sun, geometric and atmospheric effects on Sunlight. R1-Chapter 2
    3 Photovoltaic effect, conversion of solar energy into electrical energy, behavior of solar cells. R1-Chapter 2
    4 Solar cells, basic structure and characteristics. R1-Chapter 3
    5 Electrical characteristics of the solar cell, mathematical model and equivalent circuit, modeling of solar cells including the effects of temperature, irradiation and series/shunt resistances on the open-circuit voltage and short-circuit current. R1-Chapter 3
    6 Solar cell arrays, PV modules, PV generators, shadow effects and bypass diodes, hot spot problem in a PV module and safe operating area. R1-Chapter 4
    7 Interfacing PV modulestoloads, direct connection of loads to PV modules, connection of PV modules to a battery and load together. R1-Chapter 5
    8 Power conditioning and maximum power point tracking (MPPT) algorithms based on buck and boost-converter topologies. R2-Chapter 5
    9 Maximum power point tracking (MPPT) algorithms. R2-Chapter 5
    10 Energy storage alternatives for PV systems. R2-Chapter 6
    11 Energy storage alternatives for PV systems. Storage batteries, lead-acid, nickel-cadmium, nickel-metal-hydride and lithiumtypebatteries. Small storage systems employing Inverter control topologies for stand-alone and grid-connected operation. Analysis of inverter at fundamental frequency and at switching frequency. R2-Chapter 7
    12 Stand-alone PV systems. Consumer applications, residential systems, PV water pumping, PV powered lighting, rural electrification, etc . R2-Chapter 8
    13 Grid-connected (utilityinteractive) PV systems. R2-Chapter 9
    14 Modeling and simulation of complete stand-alone and grid-connected PV systems. R2-Chapter 10
    Prerequisites -
    Language of Instruction Turkish
    Responsible Asst. Prof. Dr. Göksu Görel
    Instructors -
    Assistants -
    Resources R1-G. M. Masters. (2013). Renewable And Efficient Electric Power Systems (2nd Edition), Wiley, USA. R2-S. R. Wenham & M. A. Green & M. E. Watt & R. Corkish & A. Sproul. (2012). Applied Photovoltaics (3rd Edition), Taylor & Francis, UK.
    Supplementary Book -
    Goals To provide the fundamental information required to understand the principles and operation of PV systems, To provide necessary knowledge about the modeling, design and analysis of various PV systems.
    Content PV systems, Solar cells, basic structure and characteristics, Interaction of PV modules with load, Maximum power point scanning algorithms, Grid-connected PV systems
  • Program Learning Outcomes
  • Program Learning Outcomes Level of Contribution
    1 Acquires information by carrying out scientific research in the field of Electrical and Electronics Engineering, evaluates the findings and makes comments 3
    2 Complements the restricted or incomplete information and applies it, unifies the multidisciplinary information 4
    3 Designs and implements a system meeting the requirements in the field of Electrical and Electronics Engineering 3
    4 Makes an interpretation of a problem in the field of Electrical and Electronics Engineering, develops models for solutions and applies innovative methods in these solutions 3
    5 Has comprehensive knowledge on the contemporary applied method and techniques used in the field of Electrical and Electronics Engineering and their limitations -
    6 Undertakes and implements analytic, simulation or experimental types of research and has the ability to solve the complex problems encountered there 5
    7 Can participate and assume responsibility in multidisciplinary task forces 3
    8 Observes the scientific, professional and ethical rules during data collection, its introduction and interpretation 1
    9 Be aware of recent advances and developments in the field of Electrical and Electronics Engineering, learns, analyses and applies them wherever needed 3
    10 Publishes his/her research findings verbally and in written forms in national and international arena -
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