Ultra- and microfiltration in drinking water production from surface water

被引:0
|
作者
Panglisch, S [1 ]
Dautzenberg, W [1 ]
Kiepke, O [1 ]
Gimbel, R [1 ]
机构
[1] Univ Duisburg, Rhein Westfael Inst Wasserforsch, IWW, D-45476 Mulheim, Germany
关键词
D O I
暂无
中图分类号
TV21 [水资源调查与水利规划];
学科分类号
081501 ;
摘要
The IWW Rheinisch-Westfaelisches Institut fuer Wasserforschung gemeinnuetzige GmbH, an Institute at the University of Duisburg, the Institute of Hygiene of the University of Bonn and the Wasserwerk des Kreises Aachen (WdKA) have realised a project supported by the German Federal Ministry for Education, Science, Research and Technology (BMBF). This project was to investigate whether membrane filtration (micro- or ultrafiltration) is able to enhance the particle removal efficiency of an existing drinking water treatment plant. Since the end of 1996 three pilot plants with a capacity of approx. 6-10 m(3)/h, one microfiltration (Memtec, Windsor, NSW 2756, Australia) and two ultrafiltration (Aquasource, 9 Avenue Alexandre Maistrasse, F 92500 Rueil Malmaison, France and X-Flow. BV, Bedrijvenpark Twente 289, 7602 KK Almelo, The Netherlands) plants, have been operated in dead-end mode with four different feed qualities: after the existing water treatment plant (flocculation, filtration stage, removal of iron and manganese by a second filtration stage); after flocculation, filtration stage and dosing of an oxidising agent; after flocculation, filtration stage, dosing of an oxidising agent and a CaCO3-filter; after the flocculation. The permeate of all pilot plants was impeccable except that Memtec microfiltration was not able to remove spiked viruses completely. Turbidity and particles >0.5 mu m were removed almost beneath the detection limit for all feed water qualities tested, it seems to be possible to replace the treatment step for the removal of manganese by ultrafiltration. However, in this case backwashing with only permeate or air is not able to remove the arising manganese layer and oxidising agents (NaOCl or H2O2) have to be added or disinfection backwashes have to be conducted, respectively. The adsorption of foulants - which usually fouled the membrane - at the manganese layer, which could be easily removed by the disinfection backwash, probably caused a higher performane of the ultrafiltration pilot plants. Furthermore, it was surprising that all pilot plants were able to treat water coming from the flocculation reaction basin of the existing treatment plant without passing the first filtration stage. In this case the X-Flow pilot plant has even reached better results, as in the case of operating after the existing treatment plant.
引用
收藏
页码:415 / 418
页数:4
相关论文
共 50 条
  • [21] Pressure-dependent permeate flux in ultra- and microfiltration
    Zhang, MM
    Song, LF
    JOURNAL OF ENVIRONMENTAL ENGINEERING-ASCE, 2000, 126 (07): : 667 - 674
  • [22] Effect of source water quality on arsenic (V) removal from drinking water by coagulation/microfiltration
    Zhang, Guanghui
    Li, Xiaobo
    Wu, Shuibo
    Gu, Ping
    ENVIRONMENTAL EARTH SCIENCES, 2012, 66 (04) : 1269 - 1277
  • [23] Drinking water production from surface water sources in the tropics: Brasília DF, Brazil
    Ekaterina Vasyukova
    Wolfgang Uhl
    Fuad Braga
    Claudia Simões
    Tânia Baylão
    Klaus Neder
    Environmental Earth Sciences, 2012, 65 : 1587 - 1599
  • [24] Discovery of Welcome Biopolymers in Surface Water: Improvements in Drinking Water Production
    Su, Zhaoyang
    Yu, Wenzheng
    Liu, Ting
    Li, Xing
    Graham, Nigel J. D.
    Lu, Yonglong
    Wiesner, Mark R.
    ENVIRONMENTAL SCIENCE & TECHNOLOGY, 2021, 55 (03) : 2076 - 2086
  • [25] Arsenic removal from drinking water using the coagulation/microfiltration process
    Chwirka, Joseph D.
    Colvin, Christian
    Gomez, Juan D.
    Mueller, Paul A.
    Journal / American Water Works Association, 2004, 96 (03): : 106 - 114
  • [26] Effect of source water quality on arsenic (V) removal from drinking water by coagulation/microfiltration
    Guanghui Zhang
    Xiaobo Li
    Shuibo Wu
    Ping Gu
    Environmental Earth Sciences, 2012, 66 : 1269 - 1277
  • [27] Selection of membrane for production of drinking water from surface and groundwater by nanofiltration
    Rychlewska, Katarzyna
    Wodzislawska-Pasich, Karolina
    DESALINATION AND WATER TREATMENT, 2024, 318
  • [28] Coagulation-microfiltration processes for NOM removal from drinking water
    Carroll, T
    Vogel, D
    Rodig, A
    Simbeck, K
    Booker, N
    CHEMICAL WATER AND WASTEWATER TREATMENT VI, 2000, : 171 - 180
  • [29] Arsenic removal from drinking water using the coagulation/microfiltration process
    Chwirka, JD
    Colvin, C
    Gomez, JD
    Mueller, PA
    JOURNAL AMERICAN WATER WORKS ASSOCIATION, 2004, 96 (03): : 106 - 114
  • [30] Colloidochemical properties of ultra- and, microfiltration membranes in electrolyte solutions
    Pripisnova, VA
    Ermakova, LE
    Sidorova, MP
    COLLOID JOURNAL, 2006, 68 (03) : 321 - 327