Optimizing Energy Collection using Monocrystalline Solar Cells

Abstract

This study explores the best settings for maximizing energy production with monocrystalline solar cells, renowned for their effectiveness and long-lasting performance in solar power systems. The research seeks to discover the optimal environmental and operational conditions as including temperature, light intensity, and angle of incidence that can improve the performance of solar cells without changing the electrical load. To accomplish this, a mix of experimental tests and computer simulations was utilized. The testing configuration featured halogen lamps on a steel frame placed on adjustable steel beams for accurate positioning. The results provide important information on how to improve the efficiency of solar panels in different situations, enhancing the performance of solar energy systems and promoting the use of sustainable renewable energy technologies to meet worldwide needs. In the second, the solar panels were accurately positioned and exposed to different angles and levels of sunlight over a period of time, allowing for a thorough examination of how these factors affect energy capture and conversion efficiency. Findings show that adjusting the angle of light and keeping the panel temperature within a certain range can greatly enhance energy absorption, increasing efficiency by around 10-15%. Moreover, it is essential to keep the load conditions constant all day in order to ensure consistent performance.