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This article reviews more than 50 references covering the solvent sublation as one of the adsorptive bubble separation methods for organic and inorganic coumpounds removal from aqueous solutions, which were published last 50 years. The solvent sublation is very simple, effective and fast process for removal and separation of chemical compounds from dilute aqueous solutions and can be treated as preconcentration method in their analytical determination. This review concerns the fundamentals of solvent sublation process and desribes the factors determinating the process (temperature, composition of initial aqueous solution, pH, ionic strength, surfactants and ligands presence, organic solvent presence with additives and gas bubble generation). The examples of metal ions selective removal (Table 1) and organic coupounds removal (Table 2) are shown.
Czasopismo
Rocznik
Tom
Strony
23--38
Opis fizyczny
Bibliogr. 51 poz., rys., tab.
Twórcy
autor
autor
autor
- Chemical Metallurgy Division, Faculty of Chemistry, Wrocław University of Technology, Wybrzeże Wyspiańskiego 27, 50-370 Wrocław, Poland, katarzyna.sobianowska@pwr.wroc.pl
Bibliografia
- [1] Karger B.L., Grieves R.B., Lemlich R., 1967. Note – Nomenclature recommendations for adsorptive bubble separation methods. Separation Sciences 2, 401-404.
- [2] Sebba F., 1962. Ion Flotation. Elsevier New York.
- [3] Lemlich R. (ed.), 1972. Adsorptive Bubble Separation Techniques. Academic Press New York.
- [4] Rubin E., Gaden E.L., 1962. Foam Separation. [In:] New Chemical Engineering Separation Techniques, Interscience, H.M. Schoen (eds.), New York, 319-385.
- [5] Karger B.L., DeVivo D.G., 1968. General survey of adsorptive bubble separation processes. Separation Sciences 3, 393-424.
- [6] Lemlich R., 1968. Adsorptive bubble separation methods – foam fraction and allied techniques, Industrial and Engineering Chemistry 60, 16-29.
- [7] Walkowiak W., Charewicz W., 1971. New methods of ion flotation. Wiadomości Chemiczne 25, 419-433.
- [8] Kuzkin S.F., Goldman A.M., 1971. Flotatsya ionov i molekul. Atomizdat Moscow.
- [9] Lemlich R., 1973. [In:] Proceedings of the Conference on Traces of Heavy Metals in Water: Removal Processes and Monitoring, Princeton Univ., Princeton N.J., 211-223.
- [10] Somasudaran P., 1973. Foam separation methods. [In:] Separation and Purification Methods, E.S. Perry, C.J. VanOss (ed.), Vol. 1, Marcel Dekker New York, 117-198.
- [11] Selecki A., 1972. Separation of Mixtures, Nonconventional Methods. WNT Warszawa, 119-180.
- [12] Solvent extraction and liquid membranes – fundamentals and applications in new materials, Edited by M. Aguilar, J.L. Cortina, CRC Press, London, 2008.
- [13] Grieves R.B., 1975. Foam separation: A Review. Chemical Engineering Journal 9, 93-106.
- [14] Golman A.M., 1982. Ion flotation. Nedra Moscow.
- [15] Wilson D.J., Clarke A.N., 1983. Topics in foam flotation. Marcel Dekker New York.
- [16] Walkowiak W., 1992. Mechanism of selective ion flotation. [In:] Innovation in flotation technology, P. Mavros, K.A. Matis (eds.), NATO ASI Series, Vol. 208, Kluwer Academic Publishers London.
- [17] Zouboulis A.I., Matis K.A., Stalids G.A., 1990. Parameters influencing flotation in removal of metal ions. International Journal of Environmental Studies 35, 183-196.
- [18] Leu M.H., Chang J.E., Ko M.S., 1994. Removal of heavy metals from a chelated solution with electrolytic separation. Separation Sciences and Technology 29, 2245-2261.
- [19] Charewicz W., Niemiec J., 1969. Flotation of anions using cationic surfactants. I. Flotation of molybdates. Nukleonika 14, 17-28.
- [20] Walkowiak W., Ulewicz M., 1999. Kinetic studies of ion flotation. Physicochemical Problems of Mineral Processing 33, 201-214.
- [21] Lu Y., Zhu X., 2001. Solvent sublation: theory and application. Separation and Purification Methods 30, 157-189.
- [22] Bi P., Dong H., Dong J., 2010. The recent progress of solvent sublation. Journal of Chromatography A 1217, 2716-2725.
- [23] Kim Y., Choi Y., Lee W., Lee Y., 2001. Determination of zinc and lead in water samples by solvent sublation using ion pairing of metal-naphthoate complexes and tetra-n-butylammonium ion. Bulletin of the Korean Chemical Society 22, 821-826.
- [24] Kim Y., Shin J., Lee W., Lee Y., 2001. Solvent sublation trace noble metals by formation of metal complexes with 2-mercaptobenzothiazole. Bulletin of the Korean Chemical Society 22, 19-24.
- [25] Kim Y., Shin J., Choi Y., Lee W., Lee Y., 2001. Solvent sublation using 8-hydroxyquinoline as a ligand for determination of trace elements in water samples. Microchemical Journal 68, 99-107.
- [26] Kim Y., In G., Kim M., Choi Y., 2006. Fundamental study on solvent sublation using salphen and its application for separative determination of trace Ni(II), Co(II) and Cu(II) in water samples. Bulletin of the Korean Chemical 27, 11, 1757-1762.
- [27] Kim Y., Shin J., Choi Y., Lee W., 2003. Studies on solvent sublation of trace heavy metals by continuous flow system as ternary complexes of 1,10-phenanthroline and thiocyanate ion. Bulletin of the Korean Chemical Society 24, 1775-1780.
- [28] Aki M.A., Mori Y., Sawada K., 2006. Solvent sublation and spectrometric determination of iron(II) and total iron 3-(2-pyridyl)-5,6-bis(4-phenylsulfonic acid)-1,24-triazine and tetrabutylammonium bromide. Analytical Sciences 22, 1169-1174.
- [29] Lu Y., Hong G.W., Gao Y., Zhang X., Li J., 2006. The thermodynamics and kinetics on the solvent sublation of Ni. Chinese Journal of Chemical Physics 19, 159-163.
- [30] Cheng Q., Dong H., 2005. Solvent sublation using dithizone as a ligand for determination of trace elements in water samples. Microchimica Acta 150, 59-65.
- [31] Kim Y.S., Jung Y.J., Choi H.S., 1998. Organic precipitate flotation of trace metallic elements with ammonium pyrrolidine dithiocarbamate(II). Application of solvent sublation for determination of trace Cd, Co, Cu and Ni in water samples. Bulletin of the Korean Chemical Society 19, 50-56.
- [32] Lu Y., Liu J., Xiong Y., Zhu X., 2003. Study of a mathematical model of metal ion complexes in solvent sublation. Journal of Colloid and Interface Science 263, 261-269.
- [33] Charewicz W., Gendolla T., Podgórska D., 1973. Comparison of concentration methods of metals from aqueous solutions, Scientific Papers of the Institute of Inorganic Chemistry and Metallurgy of Rare Elements 27, Technical University of Wroclaw, 273-284.
- [34] Walkowiak W., 1980. Ion flotation and solvent sublation of cobalt cyanide complexes. Journal of Chemical Technology and Biotechnology 30, 611-619.
- [35] Berg E.W., Downey D.M., 1980. The separation of rhodium and iridium by ion flotation. Analytica Chimica Acta 121, 239-247.
- [36] Cervera J., Cela R., Perez-Bustamante J., 1982. Analytical solvent sublation of metallic dithizonates. Part I. Solvent sublation of copper. Analyst 107, 1425-1430.
- [37] Caragay A.B., Karger B.L., 1966. Use of rate phenomena in solvent sublation separation of methyl orange and rhodamine B. Analytical Chemistry 38, 652-654.
- [38] Lu Y., Wei B., Wang Y., Li J., 2007. Studies on the removal of bromocresol green from water by solvent sublation. Separation Science and Technology 42, 1901-1911.
- [39] Lu Y., Wang Y., Zhu X., 2001. The removal of bromophenol blue from water by solvent sublation. Separation Science and Technology 36, 3763-3776.
- [40] Lu Y., Zhu X., Peng Y., 2003. The removal of methyl violet from water by solvent sublation. Separation Science and Technology 36, 1385-1398.
- [41] Horng J., Huang A., 1993. Removal of organic dye (direct blue) from synthetic wastewater by adsorptive bubble separation. Environmental Science & Technology 27, 1169-1175.
- [42] Grieves R.B., Charewicz W., Brien S.M., 1974. The separation of phenol from dilute, alkaline aqueous solution by solvent extraction, solvent sublation and foam fractionation. Analytica Chimica Acta 73, 293-300.
- [43] Bryson B.G., Valsaraj K.T., 2001. Solvent sublation for waste minimization in a process water stream – a pilot-scale study. Journal of Hazardous Materials 382, 65-75.
- [44] Sun X., Chang Z., Lin H., Wang F., Zhang Y., 2005. Recovery of butyl acetate in wastewater of penicillin plant by sublation. I. Experimental study. Separation Science and Technology 40, 927-940.
- [45] Sun X., Chang Z., Shen S., Hu X., Liu H., 2006. Effects of emulsion properties on recovering butyl acetate from waste water of penicillin plant by solvent sublation. Colloids and Surfaces A: Physicochemical and Engineering Aspects 286, 8-16.
- [46] Ma Y., Chang Z., Hu X., Yu P., Wang S., Lei Ch., Liu H., 2010. Separation of butyl acetate from model emulsions by solvent sublation. Separation and Purification Technology 72, 77-84.
- [47] Li S.R., Dong H.R., 2007. Separation and enrichment of total phytosterone in achyranthes bidentata by solvent sublation. Chemistry of Natural Compounds 43, 635-636.
- [48] Dong H.R., Liu X.Q., 2008. HPLC analysis of magnolol and honokiol in magnoliae cortex after solvent sublation. Acta Chromatographica 20, 147-156.
- [49] Guo L., Dong H.R., 2009. Trace determination of phthalate esters in river water by solvent sublation followed by high-performance liquid chromatography-ultraviolet detection. International Journal of Environmental Analytical Chemistry 89, 357-365.
- [50] Li M., Dong H.R., 2010. The investigation on the aqueous two-phase flotation of lincomycin. Separation and Purification Technology 73, 208-212.
- [51] Shen S., Chang Z., Sun X., Liu H., 2006. Process integration for production of 6-aminnopencillanic acid from penncillin G fermentation broth. Process Biochemistry 41, 571-574.
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-article-BAT8-0018-0010
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