SOLAR ENERGY TECHNOLOGY
- Course
- ENRE311 - SOLAR ENERGY TECHNOLOGY
- Department
- Energy Systems Engineering - English - Undergraduate
- Course Type
- Course
- Status
- Required
- Language
- English
- Credit
- 3
- ECTS
- 0
- T+P+L
- 3 + 0 + 0
- Course Coordinator(s)
- -
- Prerequisite
- -
Course Description
The aim of this course is to introduce students the fundamental technology associated with photovoltaic systems including semi-conductor physics, cells and modules. Environmental characteristics such as solar angles, sun path diagrams, solar radiation, thermal radiation and the radiation on tilted surfaces are examined. PV cell types including crystalline solar cells, c-Si, thin film and multi-junction solar cells are discussed. PV system component are introduced. Planning and sizing grid-connected and stand-alone PV systems are also involved in the course. The course aims to teach the students how to design a PV system using simulation software. Students also learns about solar thermal systems, their types and technologies, efficiency and costs.
SOLAR ENERGY TECHNOLOGY
Evaluation Tools (Active Term)
No evaluation items have been defined.
Course outcomes
- 01 Learn the theory and the practice about Solar Energy.
- 02 Learn the usage of the methods for research, design and development in the analysis of the energy transformation at applications of solar energy.
- 03 Plan and size the grid-connected PV systems.
- 04 Plan and size the off-grid PV systems.
- 05 Learn the types and technologies of solar cells
Course Syllabus
| Week | Topic |
|---|---|
| Week 1 | Environmental Characteristics: Solar Angles Geometry |
| Week 2 | Environmental Characteristics: Solar Angles Geometry |
| Week 3 | Environmental Characteristics: Solar Angles Geometry |
| Week 4 | Environmental Characteristics: Sun Path Diagrams and Shading Analysis |
| Week 5 | Environmental Characteristics: Sun Path Diagrams and Shading Analysis |
| Week 6 | Environmental Characteristics: Solar Radiation, Thermal Radiation, Radiation on Tilted Surfaces |
| Week 7 | Introduction to PV: Solar Cell Operation and Categorization |
| Week 8 | Physics od Solar Cells: Fundamental Properties of Semiconductors, Solar Cell Fundamentals |
| Week 9 | Charge Carriers in Solar Cells: Doping, PN-Junction in Solar Cells |
| Week 10 | MID-TERM EXAMINATIONS / Solar Cell Operation: OC and SC Characteristics, Equivalent Circuit, JV-Curves |
| Week 11 | Types of Solar Cells: c-Si; Manufacturing, Wafer Based Technologies. Thin Film Solar Cells; a-Si, CdTe, CIGS |
| Week 12 | Introduction to PV Systems: General Overview, Main Components |
| Week 13 | Off-Grid PV Systems: Desing and Sizing |
| Week 14 | On-Grid PV Systems: Desing and Sizing |
| Week 15 | On-Grid PV Systems: Desing and Sizing |
Reference Books & Course Materials
- 01 S.A. Kalogirou, Solar Energy Enginering Processes and Systems, Elsevier 2009.
- 02 Antonio Luque and Steven Hegedus, Handbook of Photovoltaic Science and Engineering, Wiley 2011
- 03 Planning and Installing Photovoltaic Systems 2nd Ed, Earthscan 2010.
Learning Outcomes
No learning outcomes have been defined.
Program Outcomes
- P01 Should have sufficient knowledge in mathematics, science, and subjects specific to the relevant engineering discipline.
- P02 Should have the ability to use theoretical and applied knowledge in mathematics, science, and related engineering disciplines in complex engineering problems.
- P03 Should have the ability to detect, define, formulate, and solve complex engineering problems.
- P04 Should have the ability to select and apply appropriate analysis and modeling methods to solve complex engineering problems.
- P05 Should have the ability to design a complex system, process, device, or product to meet specific requirements under realistic constraints and conditions.
- P06 Should have the ability to apply modern design methods.
- P07 Should have the ability to develop, select, and use modern techniques and tools necessary for the analysis and solution of complex problems encountered in engineering applications.
- P08 Should have the ability to use information technologies effectively.
- P09 Should have the ability to design experiments, for the study of complex problems or discipline-specific research topics.
- P10 Should have the ability to conduct experiments, collect data, analyze and interpret results for the study of complex problems or discipline-specific research topics.
- P11 Should have the ability to work in intradisciplinary teams.
- P12 Should have the ability to work in interdisciplinary teams.
- P13 Should have the skills to work individually.
- P14 Should have the ability to communicate effectively verbally and in writing.
- P15 Should have the knowledge of at least one foreign language.
- P16 Should be able to write effective reports, understand written reports, and prepare design and production reports.
- P17 Should have the ability to make effective presentations.
- P18 Should have the ability to give and have clear and understandable instructions.
- P19 Should gain consciousness (awareness) about the necessity of lifelong learning.
- P20 Should have the ability to access information.
- P21 Should have the ability to follow developments in science and technology and constantly renew himself/herself.
- P22 Should gain the awareness of professional and ethical responsibility and should act in accordance with ethical principles.
- P23 Should gain knowledge about the standards used in engineering applications.
- P24 Should gain knowledge about project management, risk management, and change management practices in business life.
- P25 Should gain awareness about entrepreneurship, and innovation.
- P26 Should gain knowledge about development in sustainability.
- P27 Should gain knowledge about the effects of engineering practices on health, environment, and security at universal and social dimensions and the problems of the age reflected in the field of engineering.
- P28 Awareness should be gained about the legal consequences of engineering solutions.
Po-Lo Matrix
The PO-LO matrix has not been populated yet.