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针对开发新型建筑固体废物(CSW)为基础的人工湿地系统进行二级污水的三级处理。

Towards the development of a novel construction solid waste (CSW) based constructed wetland system for tertiary treatment of secondary sewage effluents.

机构信息

Shaanxi Key Laboratory of Environmental Engineering, Xi'an University of Architecture and Technology, Xi'an, PR China.

出版信息

J Environ Sci Health A Tox Hazard Subst Environ Eng. 2011;46(7):758-63. doi: 10.1080/10934529.2011.571621.

DOI:10.1080/10934529.2011.571621
PMID:21644153
Abstract

This study was conducted to examine the possibility of using construction solid waste (CSW), an inevitable by-product of the construction and demolition process, as the main substrate in a laboratory scale multi-stage constructed wetland system (CWs) to improve phosphorus (P) removal from secondary sewage effluent. A tidal-flow operation strategy was employed to enhance the wetland aeration. This will stimulate aerobic biological processes and benefit the organic pollutants decomposition and nitrification process for ammoniacal-nitrogen (NH(+)(4)-N) removal. The results showed that the average P concentration in the secondary sewage effluent was reduced from 1.90 mg-P/L to 0.04 mg-P/L. CSW presents excellent P removal performance. The average NH(+)(4)-N concentration was reduced from 9.94 mg-N/L to 1.0 mg-N/L through nitrification in the system. The concentration of resultant nitrite and nitrate in the effluent of the CSW based CWs ranged from 0.1 to 2.4 mg-N/L and 0.01 to 0.8 mg-N/L, respectively. The outcome of this study has shown that CSW can be successfully used to act as main substrate in CWs. The application of CSW based CWs on improving N and P removals from secondary sewage effluent presents a win-win scenario. Such the reuse of CSW will benefit both the CSW disposal and nutrient control from wastewater. More significantly, such the application can transfer the CSW from a 'waste' to 'useful' material and can ease the pressure of construction waste solid management. Meanwhile, the final effluent from the CSW-based CWs can be used as non-potable water source in landscape irrigation, agriculture and industrial process.

摘要

本研究旨在探讨利用建筑固体废弃物(CSW)作为主要基质,在实验室规模的多阶段人工湿地系统(CWs)中处理二级污水,以提高磷(P)去除率。采用潮汐流操作策略增强湿地曝气,这将刺激好氧生物过程,有利于有机污染物分解和氨氮(NH(+)(4)-N)去除的硝化过程。结果表明,二级污水中的平均 P 浓度从 1.90mg-P/L 降低至 0.04mg-P/L,CSW 具有优异的 P 去除性能。系统中的硝化作用将平均 NH(+)(4)-N 浓度从 9.94mg-N/L 降低至 1.0mg-N/L。CSW 基 CWs 出水中的亚硝酸盐和硝酸盐浓度分别在 0.1 至 2.4mg-N/L 和 0.01 至 0.8mg-N/L 之间。研究结果表明,CSW 可成功用作 CWs 的主要基质。CSW 基 CWs 应用于提高二级污水中的 N 和 P 去除率是一种双赢的方案。这种 CSW 的再利用将有利于 CSW 的处置和废水的养分控制。更重要的是,这种应用可以将 CSW 从“废物”转变为“有用”材料,并减轻建筑废弃物管理的压力。同时,CSW 基 CWs 的最终出水可用于景观灌溉、农业和工业过程中的非饮用水源。

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