Total views : 103
Experimental Investigation of One Glass Cover and Three Absorber Plates Two-Pass Solar Air Collector with Thermal Storage
Objective: Improvement of the thermal efficiency of solar air collector is a major issue in researcher's community. Therefore novel design of solar air collector is constructed. The objectives of this research paper are to obtained the results of novel solar air collector and compare it with conventional type solar air collector. Methods/Statistical Analysis: The experiments are carried out at the different mass flow rate of air on novel design of one glass cover and three absorber plates two-pass solar air collector (OGThApTPSAC) and one glass cover and two absorber plates single-pass solar air collector (OGTwApSPSAC) operating on the same atmospheric conditions. The various thermal parameters such as heat gain, heat loss and thermal efficiency are determined with respect to time of the day. Findings: Major heat loss in any type of solar air collector is due to convection. To minimise this convection loss, vacuum is formed on top portion of novel designed solar air collector. Both solar air collectors taken for the comparison also has a unique feature of thermal storage. Comparative results show that the novel designed two-pass solar air collector is more thermally efficient than conventional single pass solar air collector. Application/improvements: Such type of solar air collector can be used in drying of fruits, crops; space heating for greenhouse, residential building etc.
Heat Gain, Heat Loss, Thermal Efficiency, Thermal Storage, Two-Pass Solar Air Collector.
- Duffie JA, Beckman WA. Solar Engineering of Thermal Processes. New York: Wiley. 1991, p. 1−928.
- Satchunanathan S, Deonarine S. A Two Pass Solar Air Heater, Solar Energy. 1973; 15(1):41−49. Crossref.
- Persad P, Satchunanathan S. The Thermal Performance of the Two-Pass, Two-Glass-Cover Solar Air Heater, Journal of Solar Energy Engineering. 1983 Aug; 105(3):254−8. Crossref.
- Bhargav AK, Garg HP, Sharma VK. A Two-Pass Solar Air Heater, Energy. 1983 Apr; 8(4):267−76. Crossref.
- Verma R, Chandra R, Garg HP. Parametric Studies on the Corrugated Solar Air Heaters with and without Cover, Renewable Energy. 1991; 1(3-4):361−71. Crossref.
- Karim MA, Hawaldar MNA. Development of Solar Air Collectors for Drying Applications, Energy Conversion and Management. 2004 Feb; 45(3):329−44. Crossref.
- Naphon P. On the Performance and Entropy Generation of the Double-Pass Solar Air Heater with Longitudinal Fins, Renewable Energy. 2005 July; 30(9):1345−57. Crossref.
- Wenfeng G, Wenxian Lin, Tao L, Xia C. Analytical and Experimental Studies on the Thermal Performance of Cross-Corrugated and Flat-Plate Solar Air Heaters, Applied Energy. 2007 Apr; 84(4):425−41. Crossref.
- EI-Sebaii AA, Aboul-Enein S, Ramadan MRI, Shalaby SM, Moharram BM. Investigation of Thermal Performance of Double Pass Flat Plate and V-Corrugated Solar Air Heaters, Energy. 2011 Feb; 36(2):1076−86. Crossref.
- Chabane F, Moummi N, Benramache S. Experimental Study of Heat Transfer and Thermal Performance with Longitudinal Fins of Solar Air Heater, Journal of Advanced Research. 2014 Mar; 5(2):183−92. Crossref. PMid:25685486 PMCid:PMC4294719.
- McAdams WH. Heat Transmission. New-York: McGrawHill. 1954, 120(3128), p. 984.
- Niles PW, Carnegie EJ, Pohl JG, Cherne JM. Design and Performance of an Air Collector for Industrial Crop Dehydration, Solar Energy. 1978 Dec; 20(1):19−23.Crossref.
- Shrivastava V, Kumar A. Experimental Investigation on the Comparison of Fenugreek Drying in an Indirect Solar Dryer and Under Open Sun, Heat and Mass Transfer. 2016 Sep; 52(9):1963−72. Crossref.
- There are currently no refbacks.
This work is licensed under a Creative Commons Attribution 3.0 License.