1M. Tech Scholar,
2HOD of
Solar water heaters are increasingly being adopted as an efficient and sustainable alternative for heating water in residential and commercial buildings. However, optimizing their performance is crucial to maximize energy efficiency and minimize operational costs. In this study, we explore and numerically analyze the performance of a solar water heater using ANSYS FLUENT, a computational fluid dynamics (CFD) software. The objective of this research is to identify key parameters that significantly influence the performance of solar water heaters and propose strategies for enhancing their efficiency. Through ANSYS FLUENT simulations, we investigate the impact of factors such as collector design, fluid flow rate, insulation, and solar radiation on the overall performance of the system. By utilizing CFD techniques, we gain insights into the fluid dynamics and heat transfer processes within the solar water heater. We evaluate various performance indicators, including thermal efficiency, heat loss, temperature distribution, and energy output. The numerical analysis enables us to assess the impact of design modifications and operational parameters on the system's performance. The results highlight the importance of considering key parameters and their interactions to enhance the overall efficiency of solar water heating systems. The proposed strategies can assist in developing more sustainable and cost-effective solutions for meeting hot water demands while reducing reliance on conventional energy sources.
