Research on Solar Adsorption Refrigeration System
DOI:
https://doi.org/10.13052/dgaej2156-3306.3721Keywords:
Solar energy, cold tube, adsorption refrigeration, energy saving, environmental protection.Abstract
In order to achieve solar adsorption refrigeration, this paper studies the
surface water source solar absorption refrigeration system combined with
surface water source cooling and solar absorbent refrigeration techniques: the
solar radiation intensity is adjusted by changing the distance between iodine
tungsten lamps and solar cold tubes. The results show that the entire cycle
has a range of solar radiation intensity of 400 to 1000 W/m2, and the indoor
ambient temperature ranges from 19 to 25◦C, and the humidity is maintained
around 40%. The highest temperature in the solar cold tube adsorption bed is
12◦C; during the adsorption process, the temperature drops to about 20◦C; the
solar cold tube is 160 kJ in one cycle of the solar cold tube, and the cooling
coefficient is about 0.15. Conclusion: solar cold tubes can effectively utilize
solar refrigeration, it is a refrigeration method for environmentally friendly,
no greenhouse effects and ozone destruction, which has potential application
value and has energy saving and environmental protection.
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References
Boushaba, H., Mimet, A., Ganaoui, M. E., Mouradi, A. Performance
evaluation of an adsorption refrigeration system powered by solar heat
storage based on Moroccan irradiation[J]. MATEC Web of Conferences,
(3), p. 01014, 2020.
Youssef, P. G., Mahmoud, S. M., Al-Dadah, R. K. Performance analysis
of four bed adsorption water desalination/refrigeration system, compar-
ison of AQSOA-Z02 to silica-gel[J]. Desalination, 375, pp. 100–107,
Shi, C., Chen, H., Chen, W., Zhang, S., Chong, D., Yan, J. 1D model to
predict ejector performance at critical and sub-critical operation in the
refrigeration system[J]. Energy Procedia, 75, pp. 1477–1483, 2015.
Yatagan Baba, A., Kilicarslan, A., Kurtbas, I. Exergy analysis of
R1234yf and R1234ze as R134a replacements in a two evaporator
vapour compression refrigeration system[J]. International Journal of
Refrigeration, 60, pp. 26–37, 2015
Kocyigit, N. Fault and sensor error diagnostic strategies for a vapor
compression refrigeration system by using fuzzy inference systems and
artificial neural network[J]. International Journal of Refrigeration, 50,
pp. 69–79, 2015.
She, X., Yin, Y., Zhang, X. Suggested solution concentration for an
energy-efficient refrigeration system combined with condensation heat-
driven liquid desiccant cycle[J]. Renewable Energy, 83, pp. 553–564,
Smolka, J., Palacz, M., Bodys, J., Banasiak, K., Fic, A., Bulinski,
Z., Nowak, A. J., Hafner, A. Performance comparison of fixed- and
controllable-geometry ejectors in a CO2 refrigeration system[J]. Inter-
national Journal of Refrigeration, 65, pp. 172–182, 2016.
Agrawal, T., Varun, Kumar A. Solar absorption refrigeration system for
air-conditioning of a classroom building in Northern India[J]. Journal of
the Institution of Engineers, 96(4), pp. 389-396, 2015.
Agrawal, T., Varun, Kumar A. Solar absorption refrigeration system for
air-conditioning of a classroom building in Northern India[J]. Journal of
the Institution of Engineers, 96(4), pp. 389–396, 2015.
Nunes, T. K., Vargas, J. V. C., Ordonez, J. C., Shah, D., Martinho, L. C.
S. Modeling, simulation and optimization of a vapor compression refrig-
eration system dynamic and steady state response[J]. Applied Energy,
(NOV.15), pp. 540–555, 2015.