THE EFFECT OF SUN IRRADIANCE AND TEMPERATURE ON THE SOLAR ENERGY GENERATION SYSTEM.
Abstract
The need for clean, sustainable energy sources is growing worldwide, which has prompted much research and development into solar power exploitation. The full modeling and simulation of a cutting-edge solar energy generating system intended to maximize efficiency and solve issues with conventional photovoltaic technology is the main emphasis of this paper. The model considers solar irradiance and temperature as the primary variables influencing the power output, with a temperature correction factor accounting for the temperature-dependent efficiency. Simulations were conducted to analyze how sun irradiance and temperature profile variations impact overall energy generation over time. Real-world data from Bells University of Technology, Ota Ogun State, Nigeria geographical locations and climatic conditions validate the model’s accuracy. The results reveal the intricate relationships between solar panel performance and environmental factors, highlighting the need for adaptive solar energy system design strategies. This study also investigates the influence of these variables on the long-term reliability and maintenance requirements of solar installations. The research proposes mitigation strategies to enhance system resilience under varying conditions by integrating advanced technologies such as predictive control algorithms and adaptive thermal management systems. The findings contribute valuable insights to solar energy engineering, offering a deeper understanding of the challenges posed by sun irradiance and temperature variations. The developed model and simulations provide a robust framework for assessing and improving solar energy generation systems in diverse climates.
Keywords:
environmental factor, temperature variation, sun irradiances, stimulation, energy generator, solar powerDownloads
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Copyright (c) 2025 Augustine O. Folorunso, Olamide O. Olusanya, Oladimeji O. Fasipe
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