Fundamentals Of Solar Photovoltaic Technologies And Systems
Last updated 12/2019
MP4 | Video: h264, 1280x720 | Audio: AAC, 44.1 KHz
Language: English | Size: 1.51 GB | Duration: 2h 53m
Last updated 12/2019
MP4 | Video: h264, 1280x720 | Audio: AAC, 44.1 KHz
Language: English | Size: 1.51 GB | Duration: 2h 53m
PV Technologies & Systems
What you'll learn
Describe various energy sources
Describe the fabrication process of solar-PV cells.
State the functions of various assemblies, and subassemblies comprising solar-PV systems considering various modes of operation.
Realize the requirements, and validity of the simplified assumptions for fast analysis of the performance of solar-PV systems.
Evaluate the performance of various solar-PV systems.
Select appropriate solar-PV topologies for various operation modes, and load types.
Learn the quantitative characterizations of various generations of solar-PV technologies.
Learn the near optimal design of various configurations of solar-PV systems.
Use of software tools for design, and performance analysis of solar-PV systems.
Searching the internet, and libraries for reporting advanced topics.
Requirements
Basics of electrical engineering
Description
The course presents the basics, and advances of solar-PV technologies, and systems. It starts from the basics of energy and the fabrication and then covers the major theoretical, and practical methods for successful implementation of solar-PV systems for electric energy production. Various modes of operation (off-grid, and grid-connected), load types (non-deferrable, and deferrable), system configurations are well covered. The course also provides several case studies, and use of computer software for modeling, analysis, and sizing of various solar-PV configurations. The topics of the course are coupled with relevant numerical examples to demonstrate the use of international online software modules and the given mathematical models. The course also presents practical sizing methods for the design of solar-PV systems. Relevant standards are considered in the sizing process. The overall outcome of the course is to facilitate to the students the required knowledge, skills, and tools for successful design, and implementation of various solar-PV systems.The course consists of 15 lectures and two quizzes. The titles of the lectures are: 1. Course overview and ILOs. 2. Energy. 3. Classification of energy resources. 4. Solar-PV technological generations. 5. PV module (panel), and array. 6. Fabrication of solar cells. 7. Quantitative Characterization of solar-PV technologies. 8. Basic scheme of solar-PV generators and loads. 9. Sun tracking mechanisms. 10. MPPT and DC-DC converters. 11. PCU and Inverters. 12. Energy storage options. 13. Simplified PV Energy Production Models. 14. Off-grid systems supplying non-deferrable loads. 15. Grid-connected Solar-PV Systems and Battery Backup
Overview
Lecture 1 Course overview & ILOs
Section 1: Energy resources, and technologies
Lecture 2 Energy
Lecture 3 Classification of Energy Resources
Section 2: Basics of solar energy characteristics and technologies
Lecture 4 Solar-PV technological generations
Lecture 5 PV module (panel), and array
Section 3: Fabrication of solar cells
Lecture 6 Fabrication of solar cells
Section 4: Quantitative Characterization of solar-PV technologies
Lecture 7 Quantitative Characterization of solar-PV technologies
Section 5: Layout of solar-PV systems
Lecture 8 Basic scheme of solar-PV generators and loads
Lecture 9 Sun tracking mechanisms
Lecture 10 MPPT and DC-DC converters
Lecture 11 PCU and Inverters
Lecture 12 Energy storage options
Section 6: Simplified energy production models
Lecture 13 Simplified PV Energy Production Models
Section 7: Sizing of components
Lecture 14 Off-grid systems supplying non-deferrable loads
Lecture 15 Grid-connected Solar-PV Systems and Battery Backup
Section 8: Assess your learning - part 2
Engineering students.,Electrical engineering students.,Energy engineering students.,Engineers and technicians working in the field of photovoltaics.