Investigation of saturation temperature in solar pond for different sizes

This paper deals with the modelling of solar ponds for different sizes to calculate saturation time and temperature by using discrete ordinates method. The modeled solar pond is a subsoil type and aimed to minimize the heat losses by isolating side wall and ground with foam with the thickness of 10...

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Main Authors: Sogukpinar Haci, Bozkurt Ismail
Format: Article
Language:English
Published: VINCA Institute of Nuclear Sciences 2020-01-01
Series:Thermal Science
Subjects:
Online Access:http://www.doiserbia.nb.rs/img/doi/0354-9836/2020/0354-98361900161S.pdf
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spelling doaj-40d71a71ec90409b984ea889a03f49bd2021-01-02T12:04:31ZengVINCA Institute of Nuclear SciencesThermal Science0354-98362020-01-01245 Part A2905291410.2298/TSCI181222161S0354-98361900161SInvestigation of saturation temperature in solar pond for different sizesSogukpinar Haci0Bozkurt Ismail1University of Adiyaman, Vocational School, Department of Electric and Energy, Adiyaman, TurkeyUniversity of Adiyaman, Faculty of Engineering, Department of Mechanical Engineering, Adiyaman, TurkeyThis paper deals with the modelling of solar ponds for different sizes to calculate saturation time and temperature by using discrete ordinates method. The modeled solar pond is a subsoil type and aimed to minimize the heat losses by isolating side wall and ground with foam with the thickness of 10 cm in all cases. In the model, upper convective zone is 10 cm deep and non-convective zone consists of five layer and each layer is 10 cm deep and storage zone depth ranges from 40-400 cm. Therefore, the solar pond totally consists of seven layers. The saturation temperature was found to be about 322 K for 12 different solar pond. For a depth of 40 cm, the equilibrium temperature was reached in 1000 hours, 1300 hours for 60 cm, 1400 hours for 80 cm, 1500 hours for 100 cm, 1600 hours for 120 cm, 1750 hours for 1140 cm, 1800 hours for 180 cm, 2700 hours for 200 cm, 1800 hours for 250 cm, 3400 hours for 300 cm, and 6000 hours have passed for 400 cm. As the depth increases, time to reach to the equilibrium temperature increases but increment amount of water and time to reach equilibrium temperature shows a proportional increase. At the same time we calculated that, when we increase the width of the pond by keeping the depth constant, the saturation temperature and the time did not changed for the seven different cases.http://www.doiserbia.nb.rs/img/doi/0354-9836/2020/0354-98361900161S.pdfsolar energysolar pondsaturation time and temperature
collection DOAJ
language English
format Article
sources DOAJ
author Sogukpinar Haci
Bozkurt Ismail
spellingShingle Sogukpinar Haci
Bozkurt Ismail
Investigation of saturation temperature in solar pond for different sizes
Thermal Science
solar energy
solar pond
saturation time and temperature
author_facet Sogukpinar Haci
Bozkurt Ismail
author_sort Sogukpinar Haci
title Investigation of saturation temperature in solar pond for different sizes
title_short Investigation of saturation temperature in solar pond for different sizes
title_full Investigation of saturation temperature in solar pond for different sizes
title_fullStr Investigation of saturation temperature in solar pond for different sizes
title_full_unstemmed Investigation of saturation temperature in solar pond for different sizes
title_sort investigation of saturation temperature in solar pond for different sizes
publisher VINCA Institute of Nuclear Sciences
series Thermal Science
issn 0354-9836
publishDate 2020-01-01
description This paper deals with the modelling of solar ponds for different sizes to calculate saturation time and temperature by using discrete ordinates method. The modeled solar pond is a subsoil type and aimed to minimize the heat losses by isolating side wall and ground with foam with the thickness of 10 cm in all cases. In the model, upper convective zone is 10 cm deep and non-convective zone consists of five layer and each layer is 10 cm deep and storage zone depth ranges from 40-400 cm. Therefore, the solar pond totally consists of seven layers. The saturation temperature was found to be about 322 K for 12 different solar pond. For a depth of 40 cm, the equilibrium temperature was reached in 1000 hours, 1300 hours for 60 cm, 1400 hours for 80 cm, 1500 hours for 100 cm, 1600 hours for 120 cm, 1750 hours for 1140 cm, 1800 hours for 180 cm, 2700 hours for 200 cm, 1800 hours for 250 cm, 3400 hours for 300 cm, and 6000 hours have passed for 400 cm. As the depth increases, time to reach to the equilibrium temperature increases but increment amount of water and time to reach equilibrium temperature shows a proportional increase. At the same time we calculated that, when we increase the width of the pond by keeping the depth constant, the saturation temperature and the time did not changed for the seven different cases.
topic solar energy
solar pond
saturation time and temperature
url http://www.doiserbia.nb.rs/img/doi/0354-9836/2020/0354-98361900161S.pdf
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