Abstract
The use of solar energy for desalination purposes was one of the first processes developed for producing fresh water from salt water. The process is based on the use of solar thermal energy to evaporate water, thus separating pure water from brine. In this chapter an overview of solar thermal desalination processes is presented. The first sections introduce the use of the simplest devices, i.e. solar stills, as stand alone systems or integrated into more complex geometries such as greenhouses. Couplings of the most recent technologies for solar thermal energy collectors with conventional thermal desalination processes are then presented. In all cases, a study of the feasibility and potential for further developments are presented. Solar thermal systems seem to be a very good option in remote areas with high insolation and where the use of conventional energy sources for desalination is not a viable option. Moreover the rising energy cost and continuous improvements of solar technologies are making such technologies more and more competitive compared with conventional ones.
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Abbreviations
- CPC:
-
compound parabolic collector
- ETC:
-
evacuated tube collector
- FPC:
-
flat plate collector
- ITG:
-
integrated solar water desalination green house
- LCZ:
-
lower convective zone
- MED:
-
multiple-effect distillation
- MES:
-
multiple-effect stack
- MSF:
-
multi stage flash
- MVC:
-
mechanical vapour compression
- NCZ:
-
non-convective zone
- PAR:
-
Photosynthetically Active Radiation
- PR:
-
performance ratio
- PSA:
-
Plataforma Solar de Almeria
- PTC:
-
parabolic trough collector
- RO:
-
reverse osmosis
- SEGS:
-
solar electric generating systems
- SGSP:
-
salt gradient solar pond
- TVC:
-
thermal vapour compression
- UCZ:
-
upper convective zone
References
Telkes M (1956) Research on methods for solar distillation. US Office of Saline Water, Washington, DC, Res. Dev. Prog., Rep. No. 13, PB 161388
Fath HES (1998) Solar distillation: a promising alternative for water provision with free energy, simple technology and a clean environment. Desalination 116: 45–56
Mink G, Aboabbous MM, Karmazsin E (1998) Air blown solar still with heat recycling. J. Sol. Energy 62: 309–317
Graeter F, Duerrbeck M, Rheinlaender J (2001) Muti- effect still for hybrid solar/fossil desalination of sea and brackish water. Desalination 138: 111–119.
Bourouni K, Chaibi MT, Tadrist L (2001) Water desalination by humidification and dehumidification of air: state of the art. Desalination 137: 167–176
Malik MAS, Tiwari GN, Kumar A, Sodha MS (1996) Solar distillation: a practical study of a wide range of stills and their optimum design, construction and performance, 1st edition, Pergamon Press Ltd., New York, USA
Kudish AI (1991) Water desalination. In: Parker BF (ed.) Solar energy in agriculture, Elsevier, New York
Tanaka K, Yamashita A, Watanabe K (1981) Experimental and analytical study of the tilted wick type solar still. In: (19th edition.) Proc. International Solar Energy Congress, Brighton
Sodha MS, Kumar A, Tiwari GN, Tyagi RC (1981) Simple multiple-wick solar still: analysis and performance. J. Sol. Energy 26: 127–131
Cooper PI, Appleyard JA (1967) The construction and performance of a three effects, wick type tilted solar still. Sun at Work 12: 1–4
Tanaka H, Nosoko T, Nagata T (2002) Experimental study of basin-type, multiple-effect, diffusion-coupled solar still. Desalination 150: 131–144
Tanaka H, Nakatake Y (2007) Numerical analysis of the vertical multiple-effect diffusion solar still coupled with a flat plate reflector: optimum reflector angle and optimum orientation of the still at various seasons and locations. Desalination 207: 167–178
Trombe F, Foex M (1961) Utilisation of solar still energy for simultaneous distillation of brackish water and air conditioning of hot houses in arid regions. U.N. Conf. On new sources of energy, Paper 35/S/64 Revised, Rome
Boutiere H (1971) Cultivation in arid areas and greenhouse-solar stills. COMPLES meeting, Athens, Greece
Bettaque R (1999) An integrated solar desalination system in controlled environment greenhouses. SunWord 23: 18–20
Selsuk MK, Tran VV (1976) An overview of solar still greenhouse performance and optimal design studies. Conf on Heliothermique and Development, ed. M.A Kettani and J.E. Soussou, Vol. II, 349
Strauch KH (1985) A closed system greenhouse with integrated solar desalination for arid regions. Acta. Hortic. 170: 29–36
Dumont M, de Cachard M (1984) A greenhouse with solar distillation. Plasticulture 61: 11–24
Chaibi MT, Jilar T (2004) System design, operation and performance of roof integrated desalination in greenhouses. J. Sol. Energy 76: 545–561
Zaragoza G, Buchholz M, Jochum P, Pérez-Parra J (2007) Watergy project: towards a rational use of water in greenhouse agriculture and sustainable architecture. Desalination 211: 296–303
Dunkle RV (1961) Solar water distillation: the roof type still and a multiple effect diffusion still. Int. Dev. Heat Transfer, ASME Proceedings (Part 5) 895–902
Mohamed AMO, Maraqa M, Al Handhaly J (2005) Impact of land disposal of reject brine from desalination plants on soil and groundwater. Desalination 182: 411–433
Someswara Rao N, Venkateswara Rao TNV, Babu Rao G, Venu Gopala Rao K (1990) Impact of reject water from the desalination plant on ground water quality. Desalination 78: 429–437
Gomkale SD (1988) Solar distillation as a means to provide Indian villages with drinking water. Desalination 69: 171–176
Cooper PI (1973) The maximum efficiency of single-effect solar stills. J. Sol. Energy 15: 205–217
Kaabi A, Smakdji N (2007) Impact of temperature difference (water-solar collector) on solar still global efficiency. Desalination 209: 298–305
Jensen MH, Eisa HM (1972) Controlled-environment vegetable production; results of trials in Puerto Penasco, Environmental Research La. Univ. of Arizona, USA
Kalogirou SA (2004) Progress in energy and combustion science. Prog. Ener. Combust. Sci. 30: 231–295
Huanmin Lu, Walton JC, Andrew HP (2001) Swift, Desalination coupled with salinity-gradient solar ponds. Desalination 136: 13–23
Kreith F, Kreider JF (1978) “Principles of solar engineering”, McGraw-Hill Book Co., New York
Harris NC, Miller CE, Thomas IE (1985) “Solar Energy System Design”, by John Wiley & Sons, Inc., New York
Sanyo Electric Trading Co. (1983) “Evacuated glass tube collector Model STC-BH250 R/L B”, Technical Data, report No. WM-9177
Kalogirou SA (1998) Use of parabolic trough solar energy collectors for sea-water desalination, Appl. Energy 60: 65–88
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Chaibi, M., El-Nashar, A.M. (2009). Solar Thermal Processes. In: Micale, G., Rizzuti, L., Cipollina, A. (eds) Seawater Desalination. Green Energy and Technology. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-642-01150-4_6
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DOI: https://doi.org/10.1007/978-3-642-01150-4_6
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