Sustainable Development Goals

Abstract/Objectives

Course Objectives: This hands-on solar photovoltaic creative project course will introduce the principles of solar cells, providing an accessible and in-depth understanding of the fundamental knowledge and key technologies of solar cell technology and its applications. It aims to cultivate a strong interest in and appreciation of the solar energy technology field. The course will not only provide a deep understanding of the principles, advantages, disadvantages, bottlenecks, and importance of solar engineering and systems science, but also foster innovative systems for scientific integration within the solar energy field. Course Objectives: 1. Characteristic curves of solar modules 2. Standalone solar power generation systems 3. Parallel solar power generation systems 4. Hybrid solar power generation systems 5. WiFi wireless monitoring 6. Solar-powered hydrogen fuel cell systems 7. Stirling generators 8. Practical visits to solar system sites

Results/Contributions

I. Course Objectives and Core Values:

​​This course aims to guide learners to understand the principles of solar cells in a clear and accessible way, and to master the basic knowledge and key technologies for their applications. Through hands-on practice, learners will gain a deeper understanding of the advantages and disadvantages, application bottlenecks, and importance of solar energy engineering and systems science, further cultivating their appreciation for green energy technology and fostering innovative systems that integrate science.

 

II. Experimental Modules and Practical Content:

The course features diverse experimental system modules, covering everything from basic characteristic measurements to cutting-edge technology applications:

  1. Basic Characteristics and Power Generation Systems: Learn the characteristic curves of solar modules and practice three types of solar power generation systems: "standalone," "parallel," and "hybrid."
  2. Smart Technology and Diverse Applications: Integrate WiFi wireless monitoring technology and explore the operation of solar-powered hydrogen fuel cell systems and Stirling generators.
  3. Practical Visit: Visit the rooftop of the educational building for a system practical visit, connecting classroom theory with on-site facilities.

 

III. In-Depth Technical Expertise

At the technical level, the course covers the equivalent circuit analysis of solar cells, understanding the relationship between light current and dark current. Furthermore, it explores advanced structures such as PERC (Performance-Resistant Cell) technology, learning how to improve cell efficiency by reducing the surface recombination rate of electrons and holes.

 

IV. Summary

Facing the ten major challenges humanity will face in the next 50 years—energy, environment, and pollution—this course provides a solid technical foundation, equipping learners with the professional skills to address future energy challenges.

Keywords

Solar CellsSolar Power GenerationSolar System Practice

Contact Information

吳永俊 (Yung-Chun Wu) (Eugene Wu)
ycwu@ess.nthu.edu.tw, ycwuess@gmail.com