A Detailed Examination of Solar Photovoltaic Technology, Design, Efficiency Improvement and Applications

Ever since the discovery of the photovoltaic effect, several researchers have proposed methods to harness the endless, free radiation produced by solar panels. The inherent inefficiency of solar panels is a big issue regardless of factors like cell type, temperature, irradiation intensity, panel orientation, etc. Because of their high production cost, multi-junction solar panels with greater efficiency are seldom deployed. To maximize power generation while decreasing environmental impacts, solar panels must be constructed and operated with utmost efficiency. Important factors for panel installation are land and accessibility. Advances in PV cell architecture and technology have been covered by several writers. To make up for that, however, we need to focus on solar energy systems that combine state-of-the-art PV structures and technology to increase efficiency. The efficiency of PV panels is limited by current technology; so, new methods are needed to increase power extraction while removing these technical constraints. To improve efficiency, building integrated PVs and floating PVs have the potential to gather more power in a smaller space. This research compiles all of these factors into a summary of designs for silicon-based efficient photovoltaic cells benchmark of 25% or above. Solar cell layouts and efficiency-preserving approaches in practical applications may be studied with the help of the materials provided with impact of AI. We talk about what's coming up next and the difficulties of incorporating solar panels. Solar panel efficiency, methods to increase it, and difficulties in deployment are all clarified in this study.