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• W2808221945 endingPage "28" @default.
• W2808221945 startingPage "28" @default.
• W2808221945 abstract "Desalination of sea or brackish water sources to provide clean water supplies has now become a feasible option around the world. Escalating global populations have caused the surge of desalination applications. Desalination processes are energy intensive which results in a significant energy portfolio and associated environmental pollution for many communities. Both electrical and heat energy required for desalination processes have been reduced significantly over the recent years. However, the energy demands are still high and are expected to grow sharply with increasing population. Desalination technologies utilize various forms of energy to produce freshwater. While the process efficiency can be reported by the first law of thermodynamic analysis, this is not a true measure of the process performance as it does not account for all losses of energy. Accordingly, the second law of thermodynamics has been more useful to evaluate the performance of desalination systems. The second law of thermodynamics (exergy analysis) accounts for the available forms of energy in the process streams and energy sources with a reference environment and identifies the major losses of exergy destruction. This aids in developing efficient desalination processes by eliminating the hidden losses. This paper elaborates on exergy analysis of desalination processes to evaluate the thermodynamic efficiency of major components and process streams and identifies suitable operating conditions to minimize exergy destruction. Well-established MSF, MED, MED-TVC, RO, solar distillation, and membrane distillation technologies were discussed with case studies to illustrate the exergy performances." @default.
• W2808221945 created "2018-06-21" @default.
• W2808221945 creator A5077646571 @default.
• W2808221945 date "2018-06-14" @default.
• W2808221945 modified "2023-09-26" @default.
• W2808221945 title "Exergy Evaluation of Desalination Processes" @default.
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• W2808221945 doi "https://doi.org/10.3390/chemengineering2020028" @default.

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