Indirect contact freeze water desalination for an ice maker machine – CFD simulation
To offer for potable water shortages, sea water desalination is a potential solution for the global rising demand for fresh water. The latent heat of fusion is about one-seventh the latent heat of vaporisation, thus indicating the benefit of lower energy consumption for the freeze desalination proce...
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Online Access: | https://doi.org/10.1051/e3sconf/20172200072 |
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doaj-5fca2b7d12a4404db60dd158f4d707322021-08-11T14:28:29ZengEDP SciencesE3S Web of Conferences2267-12422017-01-01220007210.1051/e3sconf/20172200072e3sconf_asee2017_00072Indirect contact freeze water desalination for an ice maker machine – CFD simulationJayakody HarithAl-Dadah RayaMahmoud SaadTo offer for potable water shortages, sea water desalination is a potential solution for the global rising demand for fresh water. The latent heat of fusion is about one-seventh the latent heat of vaporisation, thus indicating the benefit of lower energy consumption for the freeze desalination process. Limited literature is reported on computational fluid dynamics (CFD) on freeze desalination. Therefore, analysing and investigating thermodynamic processes are easily conducted by the powerful tool of CFD. A single unit of ice formation in an ice maker machine was modelled using ANSYS Fluent software three-dimensionally. Energy, species transport and solidification/melting modules were used in building the CFD model. Parametric analysis was conducted using the established CFD model to predict the effects of freezing temperature and the geometry of the ice maker machine; on ice production and the freezing time. Lower freezing temperatures allowed more ice production and faster freezing. Increasing the diameter and the length of the freezing tube enabled more ice to be produced.https://doi.org/10.1051/e3sconf/20172200072 |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Jayakody Harith Al-Dadah Raya Mahmoud Saad |
spellingShingle |
Jayakody Harith Al-Dadah Raya Mahmoud Saad Indirect contact freeze water desalination for an ice maker machine – CFD simulation E3S Web of Conferences |
author_facet |
Jayakody Harith Al-Dadah Raya Mahmoud Saad |
author_sort |
Jayakody Harith |
title |
Indirect contact freeze water desalination for an ice maker machine – CFD simulation |
title_short |
Indirect contact freeze water desalination for an ice maker machine – CFD simulation |
title_full |
Indirect contact freeze water desalination for an ice maker machine – CFD simulation |
title_fullStr |
Indirect contact freeze water desalination for an ice maker machine – CFD simulation |
title_full_unstemmed |
Indirect contact freeze water desalination for an ice maker machine – CFD simulation |
title_sort |
indirect contact freeze water desalination for an ice maker machine – cfd simulation |
publisher |
EDP Sciences |
series |
E3S Web of Conferences |
issn |
2267-1242 |
publishDate |
2017-01-01 |
description |
To offer for potable water shortages, sea water desalination is a potential solution for the global rising demand for fresh water. The latent heat of fusion is about one-seventh the latent heat of vaporisation, thus indicating the benefit of lower energy consumption for the freeze desalination process. Limited literature is reported on computational fluid dynamics (CFD) on freeze desalination. Therefore, analysing and investigating thermodynamic processes are easily conducted by the powerful tool of CFD. A single unit of ice formation in an ice maker machine was modelled using ANSYS Fluent software three-dimensionally. Energy, species transport and solidification/melting modules were used in building the CFD model. Parametric analysis was conducted using the established CFD model to predict the effects of freezing temperature and the geometry of the ice maker machine; on ice production and the freezing time. Lower freezing temperatures allowed more ice production and faster freezing. Increasing the diameter and the length of the freezing tube enabled more ice to be produced. |
url |
https://doi.org/10.1051/e3sconf/20172200072 |
work_keys_str_mv |
AT jayakodyharith indirectcontactfreezewaterdesalinationforanicemakermachinecfdsimulation AT aldadahraya indirectcontactfreezewaterdesalinationforanicemakermachinecfdsimulation AT mahmoudsaad indirectcontactfreezewaterdesalinationforanicemakermachinecfdsimulation |
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