LAPSE:2025.0321
Published Article

LAPSE:2025.0321
Optimization of Heat Transfer Area for Multiple Effects Desalination (MED) Process
June 27, 2025
Abstract
Seawater desalination is considered as the only available solution that can cope with the increasing demand for freshwater around the world. Improving the desalination techniques may help to cut off the cost and increase sustainability. In this paper, a mathematical model describing the MED process is developed within gPROMs software. The model includes all the necessary mass and energy balance equations together with thermodynamic and physical properties equations. The model predictions are validated against the actual plant data before using the model for optimizing the process to achieve minimum heat transfer area. For two different operating conditions (summer and winter) and a fixed production demand, the heat transfer area is minimised while optimising different parameters of the MED process. The results showed that a 10.4% reduction in the heat transfer area can be achieved under summer operating conditions and around 26% decrease in the heat transfer area can be met under winter operating conditions.
Seawater desalination is considered as the only available solution that can cope with the increasing demand for freshwater around the world. Improving the desalination techniques may help to cut off the cost and increase sustainability. In this paper, a mathematical model describing the MED process is developed within gPROMs software. The model includes all the necessary mass and energy balance equations together with thermodynamic and physical properties equations. The model predictions are validated against the actual plant data before using the model for optimizing the process to achieve minimum heat transfer area. For two different operating conditions (summer and winter) and a fixed production demand, the heat transfer area is minimised while optimising different parameters of the MED process. The results showed that a 10.4% reduction in the heat transfer area can be achieved under summer operating conditions and around 26% decrease in the heat transfer area can be met under winter operating conditions.
Record ID
Keywords
gProms, Heat Transfer Area, MED Desalination, Modelling and Simulations, Optimization
Subject
Suggested Citation
Alsadaie SM, Abukanisha SI, Omar AA, Mujtaba IM. Optimization of Heat Transfer Area for Multiple Effects Desalination (MED) Process. Systems and Control Transactions 4:1053-1058 (2025) https://doi.org/10.69997/sct.194868
Author Affiliations
Alsadaie SM: Sirte University, Department of Chemical Engineering, Sirte, Libya
Abukanisha SI: Sirte University, Department of Chemical Engineering, Sirte, Libya
Omar AA: Sirte Oil Company, National Oil Corporation, Libya
Mujtaba IM: Bradford University, Department of Chemical Engineering, Bradford BD7 1DP, UK
Abukanisha SI: Sirte University, Department of Chemical Engineering, Sirte, Libya
Omar AA: Sirte Oil Company, National Oil Corporation, Libya
Mujtaba IM: Bradford University, Department of Chemical Engineering, Bradford BD7 1DP, UK
Journal Name
Systems and Control Transactions
Volume
4
First Page
1053
Last Page
1058
Year
2025
Publication Date
2025-07-01
Version Comments
Original Submission
Other Meta
PII: 1053-1058-1283-SCT-4-2025, Publication Type: Journal Article
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LAPSE:2025.0321
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https://doi.org/10.69997/sct.194868
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Jun 27, 2025
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References Cited
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