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           treatment  with  a  combination  of physicochemical  treatment  and membrane
           technologies. Desalination, 149,169-1 74.
             Bilstad, T., Espedal, E. and Madland, M. (1994). Membrane separation of wool
           scour effluent. Water Sci. Technol., 29,251-256.
             BTTG  (1992). Water management and effluent treatment in wool  scouring
           industry. British Textile Technology Group, UK.
             Buckley, C.A. (1992). Membrane technology for the treatment of  dyehouse
           effluents. Wat. Sci. Technol., 25,203-209.
             Calabro,  V.,  Pantano,  G.,  Kang,  G.,  Molinari,  R.  and  Drioli,  E.  (1990).
           Experimental  study  on  integrated  membrane  processes  in  the  treatment  of
           solutions simulating textile effluents. Energy and exergy analysis. Desalination,
           78,257-277.
             Calabro,  V.,  Drioli, E.  and Matera,  F.  (1991). Membrane  distillation  in the
           textile wastewater treatment. Desalination, 83,209-224.
             Cheryan,  M. (1998). Ultrafiltration and microfiltration handbook. Technomic,
           Basel, pp. 388-393.
             Churchley, J.H. (1994). Removal of  dyewaste colour from sewage effluent -
           the use of a full-scale ozone plant. 30,2 75-284.
             Ciardelli,  G.,  Corsi, L.  and Marcucci, M.  (2001). Membrane  separation for
           wastewater  reuse  in  the  textile  industry.  Resources,  Conservation  and
           Recycling, 31,189-197.
             Colour Index, 3rd Revision (1987). Society of  Dyers and Colourists (UK) and
           the American Association of Textile Chemists and Colourists (USA).
             Cooper, S.G. (1978). The textile industry, environmental control and energy
           conservation. Noyes Data Co., Park Ridge, NJ.
             Cooper, P. (1993). Removing colour from dyehouse wastewaters - a critical
           review of technology available. J. SOC. Dyers and Colourists, 109,97-100.
             Delee, W., O’Neill, C., Hawkes, F.R. and Pinheiro,  H.M.  (2002). Anaerobic
           treatment of  textile effluents: a review. J. Chem. Technol. Biotechnol., 73, 323-
           355.
             Diaper, C., Correia, V.M.  and Judd, S.J. (1996). The use of membranes for the
           recycling  of  water  and  chemicals  from  dyehouse  effluents:  an  economic
           assessment. J. Soc. Dyers and Colourists, 112,2 73-282.
             Dulio,  V.  (2001). Integrated  pollution  prevention  and  control  (IPPC)  -
           reference document on best available techniques for the textile industry. Draft
           document.
             EPA  (1978).  Textile  processing  industry,  EPA-625/778-002.  US
           Environmental Protection Agency, Washington.
             EPA (1982). The Textile Mills Point Source Category effluent guidelines, 40
           CFR Part 410.
             EPA  (199 7).  Profile  of  the  textile  industry,  EPA-3 10-R-9 7-009.  US
           Environmental Protection Agency, Washington.
             Erswell, A., Brouckaert, C.J.  and Buckley, C.A. (1988). The reuse of  reactive
           dye liquors using charged ultrafiltration  membrane technology. Desalination,
           70,157-167.
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