Abstract
Irreversible thermodynamics is the fundamental principle in ion exchange membrane electrodialysis. The mechanism of saline water desalination is explained based on irreversible thermodynamics. The overall mass transport equation is developed on the basis of the electrodialysis experiments. The phenomenological equation appearing in irreversible thermodynamics is substantially identical to the overall mass transport equation. The overall membrane pair characteristics appearing in the overall mass transport equation are expressed by functions of the overall hydraulic permeability of the membrane pair. In an electrodialyzer, solution velocities in desalting cells vary between the cells. Salt concentrations are decreased along the flow-passes in desalting cells. These events give rise to electric resistance distribution and current density distribution in the electrodialyzer and exert an influence on the limiting current density of the electrodialyzer. The electrodialysis process is classified into a continuous (one-pass flow), a batch, and a feed-and-bleed process. The performance of each process is discussed using computer simulation (electrodialysis program) and by applying the principles of mass transport, current density distribution, cell voltage, energy consumption, and limiting current density. An electrodialysis program is operated for desalinating saline water, and the performance of a practical-scale electrodialyzer is discussed with figures created using computer simulation. The program aims to work as a pilot plant operation.
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Planck M (1890) Ueber die potentialdifferenz zwischen zwei verdunnten losungen binarer elektrolyte. Ann Der Physik u Chemie 40:561–576
Donnan FG (1924) The theory of membrane equilibria. Chem Rev 1:73–90
Michaelis L, Fujita A (1925) Permselectivity of biological membranes. Biochem Z 158:28, 161:47; 164:23
Teorell T (1935) An attempt to formulate a quantitative theory of membrane permeability. Proc Soc Exp Biol Med 33:282–285
Meyers KH, Sievers JF (1936) La permeabilite des membranes I, Theorie de la permeabilite ionique. Helv Chim Acta 19:649–664; La permeabilite des membranes II, Essis avec des membranes selectives artifielles. Helv Chim Acta 19:665–677
Meyers KH, Straus W (1940) La permeabilite des membranes VI, Sur le passage du courant electrique a travers des membranes selectives. Helv Chim Acta 23:795–800
Wyllie R, Patnode HW (1950) The development of membranes from artificial cation-exchange materials with particular reference to the determination of sodium-ion activity. J Phys Chem 54:204
Juda W, McRae WA (1950) Coherent ion-exchange gels and membranes. J Am Chem Soc 72:1044; Ion-exchange materials and method of making and using the same. USP at. 2,636,851
Kedem O, Katchalsky A (1961) A physical interpretation of the phenomenological coefficients of membrane permeability. J Gen Physiol 45:143–179
Onsager L (1931) Reciprocal relations in irreversible process. Phys Rev 37:405–426
Kedem O, Katchalsky A (1963) Permeability composite membranes, part 1. Electric current volume flow and flow of solute through membranes. Trans Faraday Soc 59:1918–1930
House CR (1974) Water transport in cells and tissues. Edward Arnold, London
Schulz SG (1980) Basic principles of membrane transport. Cambridge University Press, Cambridge
Tanaka Y (2006) Irreversible thermodynamics and overall mass transport in ion-exchange membrane electrodialysis. J Membr Sci 281:517–531
Bird RB, Stewart WE, Lightfoot EN (1965) Transport phenomena. Wiley, New York
Taky M, Pourcelly G, Lebon F, Gavach C (1992) Polarization phenomena at the interface between an electrolyte solution and an ion-exchange membrane. J Electroanal Chem 336:171–194
Takemoto N (1972) The concentration distribution in the interfacial layer at desalting side in ion exchange membrane electrodialysis. J Chem Soc Jpn 1972:2053–2058
Rubinstein I, Shtilman L (1979) Voltage against current voltage of cation-exchange membranes. J Chem Soc, Faraday Trans II 75:231–246
Rosenberg NW, Tirrel CE (1957) Limiting currents in membrane cells. Ind Eng Chem 49:780–784
Rubinstein I (1977) A diffusion model of “water splitting” in electrodialysis. J Phys Chem 81:1431–1436
Simons R (1984) Electric field effects on proton transfer between ionizable groups and water in ion exchange membranes. Electrochim Acta 29:151–158
Simons R (1985) Water splitting in ion exchange membranes. Electrochim Acta 30:275–282
Tanaka Y (2010) Water dissociation reaction generated in an ion exchange membrane. J Membr Sci 350:347–360
Peer AM (1956) Discus Faraday Soc 21:124 (communication in the membrane phenomena special issue)
Kooistra W (1967) Characterization of ion exchange membranes by polarization curves. Desalination 2:139–147
Spiegler KS (1971) Polarization at ion exchange membrane-solution interface. Desalination 9:367–385
Tanaka Y (2005) Limiting current density of an ion-exchange membrane and of an electrodialyzer. J Membr Sci 266:6–17
Cowan DA, Brown JH (1959) Effect of turbulence on limiting current in electro- dialysis cells. Ind Eng Chem 51:1445–1448
Tanaka Y (2003) Mass transport and energy consumption in ion-exchange membrane electrodialysis of seawater. J Membr Sci 215:265–279
Azechi S (1980) Electrodialyzer. Bull Soc Sea Water Sci Jpn 34:77–83
Minz MS (1963) Criteria for economic optimization are presented in the form of comparative performance equations for various methods of operation. Ind Eng Chem 55:19–28
Itoi S, Komori R, Terada Y, Hazawa Y (1978) Basis of electrodialyzer design and cost estimation. Ind Water 239:29–40
Leiz F B (1977) Measurements and control in electrodialysis. Desalination 59:381–401, presented at the international congress on desalination and water re-use, Tokyo
Belfort G, Daly JA (1970) Optimization of an electrodialysis plant. Desalination 8:153–166
Avriel M, Zeligher N (1972) A computer method for engineering and economic evaluation of electrodialysis plant. Desalination 10:113–146
Lee HJ, Sarfert F, Strathmann H, Moon SH (2002) Designing of an electrodialysis desalination plant. Desalination 142:267–286
Moon P, Sandi G, Stevens D, Kizilel R (2004) Computational modeling of ionic transport in continuous and batch electrodialysis. Sep Sci Technol 29:2531–2555
Fidaleo M, Moresi M (2005) Optimal strategy to model the electrodialytic recovery of a strong electrolyte. J Membr Sci 260:90–111
Sadrzadeh M, Kaviani A, Mohammadi T (2007) Mathematical modeling of desalination by electrodialysis. Desalination 206:534–549
Nikonenko VV, Pismenskaya ND, Itoshin AG, Zabolotsky VI, Shudrenko AA (2008) Description of mass transfer characteristics of ED and EDI apparatus by using the similarity theory and compartmentation method. Chem Eng Proc 47:1118–1127
Brauns E, De Wilde W, Van den Bosch B, Lens P, Pinoy L, Empsten M (2009) On the experimental verification of an electrodialysis simulation model for optimal stack configuration design through solver software. Desalination 249:1030–1038
Tanaka Y (2010) A computer simulation of ion exchange membrane electrodialysis for concentration of seawater. Membr Water Treat 1:13–37
Tanaka Y (2009) A computer simulation of continuous ion exchange membrane electrodialysis for desalination of saline water. Desalination 249:809–821
Tanaka Y (2010) Simulation of an ion exchange membrane electrodialysis process for continuous saline water desalination. Desalin Water Treat 22:271–285
Kusakari K, Kawamata F, Matsumoto N, Saeki H, Terada Y (1977) Electrodialysis plant at Hatsushima. Desalination 21:45–50
Tani Y, Doi K, Terada Y, Yokota M, Wakayama M (1978) Electrodialysis seawater desalination unit in a vessel. Ind Water 239:86–89
Rapp HJ, Pfromm PH (1998) Electrodialysis for chloride removal from the chemical recovery cycle of a kraft pulp mill. J Membr Sci 146:249–261
Eimidaoui A, Chay L, Tahaikt M, Menkouchi Sahli MA, Taky M, Tiyal F, Khalidi A, Alaoui Hafidi MyR (2006) Demineralisation for beet sugar solutions using an electrodialysis pilot plant to reduce melassigenic ions. Desalination 189:209–214
Banasiak LJ, Kruttschnitt TW, Schafer AI (2007) Desalination using electrodialysis as a function of voltage and salt concentration. Desalination 205:38–46
Walha K, Amar RB, Firdaous L, Quemeneur F, Jaouen P (2007) Brackish groundwater treatment by nanofiltration, reverse osmosis and electrodialysis in Tunisia, performance and cost comparison. Desalination 207:95–106
Kabay N, Yuksel M, Samata S, Arar O, Yuksel U (2007) Removal of nitrate from ground water by a hybrid process combining electrodialysis and ion exchange process. Sep Sci Technol 42:2615–2627
Kabay N, Arar O, Samatya S, Yuksel U, Yuksel M (2008) Separation of fluoride from aqueous solution by electrodialysis. Effect of process parameters and other ionic species. J Hazard Mater 153:107–113
Kabay N, Arar O, Acar F, Ghazal A, Yuksel U, Yuksel M (2008) Removal of boron from water by electrodialysis, effect of feed characteristics and interfering ions. Desalination 223:63–72
Parulekar SJ (1998) Optimal current and voltage trajectories for minimum energy consumption in batch electrodialysis. J Membr Sci 148:91–103
Demircioglu M, Kabay N, Ersoz E, Kurucaovali I, Safak C, Gizli N (2001) Cost comparison and efficiency modeling in the electrodialysis of brine. Desalination 136:317–323
Ahmed MI, Chang HT, Selman JR, Holsen TM (2002) Electrochemical chromic acid regeneration process, fitting of membrane transport properties. J Membr Sci 197:63–74
Ortiz JM, Sotoca JA, Exposito E, Gallud F, Garcia-Garcia V, Montiel V, Aldaz A (2005) Brackish water desalination by electrodialysis, batch recirculation operating modeling. J Membr Sci 252:65–75
Tanaka Y (2009) A computer simulation of batch ion exchange membrane electrodialysis for desalination of saline water. Desalination 249:1039–1047
Koga S, Mitsugami Y (1978) Supply of potable water from brackish water by electro-dialysis desalination process at Ohoshima island in Tokyo prefecture. Ind Water 239:41–47
Kawahara T (1994) Construction and operation experience of a large-scale electrodialysis water desalination plant. Desalination 96:341–348
Okada K, Tomita M, Tamura Y (1975) Electrodialysis in the treatment of dairy products. In: Symposium separation processes by membranes, ion-exchange and freeze-concentration in food industry, Paris, 13–14 Mar 1975
Matsunaga Y (1986) Reuse of waste water by electrodialytic treatment. In: Industrial application of ion exchange membranes, vol 1. Research group of electrodialysis and membrane separation technology, Soc Sea Water Sci Jpn 188–196
Ryabstev AD, Kotsupalo NP, Titarenko VI, Igumenov IK, Gelfond NV, Fedotova NE, Moroziva NB, Shipachev VA, Tibilov AS (2001) Development of two-stage electrodialysis set-up for economical desalination of artesian and surface waters of sea type. Desalination 137:207–214
Rapp HJ, Pfromm PH (1998) Electrodialysis field test for selective chloride removal from the chemical recovery cycle of a kraft pulp mill. Ind Eng Chem Res 37:4761–4767
Thompson R, Paleologou M, Wong RY, Berry RM (1997) Separation of sulphide from hydroxide in white liquor by electrodialysis. J Pulp Paper Sci 23:J182–J187
Tanaka Y (2010) A computer simulation of feed and bleed ion exchange membrane electrodialysis for desalination of saline water. Desalination 254:99–170
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Tanaka, Y. (2012). Principles of Ion Exchange Membrane Electrodialysis for Saline Water Desalination. In: Dr., I., Luqman, M. (eds) Ion Exchange Technology I. Springer, Dordrecht. https://doi.org/10.1007/978-94-007-1700-8_5
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DOI: https://doi.org/10.1007/978-94-007-1700-8_5
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