Faraz Afshari, Emre Mandev, Burak Muratçobanoğlu, Ali çelik, Mehmet Akif Ceviz
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Experimental and Numerical Study On Solar Energy Storage in Black-Covered Sunspace Using Water-Filled Tin Cans
In this study, it is aimed to store solar energy in a sunspace room for energy saving in cold regions by using water-filled tin cans. The energy collected in the water during the sunbathing hours is transferred to the environment in the evening when the ambient air temperature suddenly drops. Additionally, in the sunspace area, the walls were covered with black material and by absorbing more solar radiation inside the room, the heating performance was evaluated. In addition to experimental studies, ANSYS Fluent software (2022 R1 version) as a computational fluid dynamics (CFD) program has been used to simulate the sunspace domain in analyses. According to the results obtained, while there was a sudden drop in temperature in the ambient air after sunset, it was observed that the water temperatures in the tin cans decreased more slowly. This indicates that heat transfer from the tin cans to the ambient air occurs during the night times. In addition, the effect of black surface application was shown and the differences between indoor and outdoor temperatures were evaluated. While the average temperature difference between the indoor and outdoor environment during the sunshine period without the black surface was 4.67 °C, this difference reached 9.53 °C in the case of the black surface. The maximum energy efficiency was obtained when black surface was used, and this value was recorded as 58.2%.
期刊介绍:
The Journal of Enhanced Heat Transfer will consider a wide range of scholarly papers related to the subject of "enhanced heat and mass transfer" in natural and forced convection of liquids and gases, boiling, condensation, radiative heat transfer.
Areas of interest include:
■Specially configured surface geometries, electric or magnetic fields, and fluid additives - all aimed at enhancing heat transfer rates. Papers may include theoretical modeling, experimental techniques, experimental data, and/or application of enhanced heat transfer technology.
■The general topic of "high performance" heat transfer concepts or systems is also encouraged.