Qi Lu, Shen Yudong, Wang Hongchen, Liang Heng, Li Guibai, Chen Qing. Pilot study of immersed UF membrane substituted for sand filtration in drinking water treatment of Dongjiang River[J]. Chinese Journal of Environmental Engineering, 2013, 7(3): 857-862.
Citation: Qi Lu, Shen Yudong, Wang Hongchen, Liang Heng, Li Guibai, Chen Qing. Pilot study of immersed UF membrane substituted for sand filtration in drinking water treatment of Dongjiang River[J]. Chinese Journal of Environmental Engineering, 2013, 7(3): 857-862.

Pilot study of immersed UF membrane substituted for sand filtration in drinking water treatment of Dongjiang River

  • Received Date: 21/12/2011
    Accepted Date: 13/11/2011
    Available Online: 18/03/2013
    Fund Project:
  • To focus on the upgrade and improvement of the conventional drinking water treatment processes, the effluent quality of immersed ultrafiltration(UF) for the treatment of Dongjiang River was investigated, and the operation conditions under higher flux were studied. Results show that effluent turbidity of UF which is lower than that of sand filter during the same period, was not affected by the quality of source water, and the tubidity of which were maintained less than 0.1 NTU. But the removal of organics by UF was almost the same as sand filter. Tests on optimization of operating conditions show that membrane filtration cycle should be shortened appropriately under the condition of a relatively high flux. Effective physical cleaning and auxiliary to short-term enhanced flux maintenance (EFM) cleaning would ensure the long-term stable operation of membrane filtration.
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Pilot study of immersed UF membrane substituted for sand filtration in drinking water treatment of Dongjiang River

Fund Project:

Abstract: To focus on the upgrade and improvement of the conventional drinking water treatment processes, the effluent quality of immersed ultrafiltration(UF) for the treatment of Dongjiang River was investigated, and the operation conditions under higher flux were studied. Results show that effluent turbidity of UF which is lower than that of sand filter during the same period, was not affected by the quality of source water, and the tubidity of which were maintained less than 0.1 NTU. But the removal of organics by UF was almost the same as sand filter. Tests on optimization of operating conditions show that membrane filtration cycle should be shortened appropriately under the condition of a relatively high flux. Effective physical cleaning and auxiliary to short-term enhanced flux maintenance (EFM) cleaning would ensure the long-term stable operation of membrane filtration.

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