膜生物反应器(MBR)技术的商业应用及其与其他膜技术杂交回收有价值工业副产品的可能性,以实现可持续发展和环境保护

A. Pardey, V. Sapkal, R. Sapkal
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引用次数: 2

摘要

膜生物反应器(MBR)技术在世界范围内的研究和商业应用都在迅速发展。尽管MBR系统的研究和全面应用越来越多,但学术研究和商业发展的方向和趋势需要进一步分析。本文旨在批判性地描述和回顾世界范围内MBR领域的学术研究成果,并将重点放在商业MBR应用上。在同行评议的国际期刊上发表的各种研究论文被用作本文提供的分析的数据库。在MBR出版物激增之后,在过去的7年里,使用水下和外部MBR装置的研究似乎达到了一个平台。虽然许多开创性的研究发生在日本、法国和英国,但在过去5年里,韩国、中国和德国等国家也对研究池做出了重大贡献。主要的研究重点是水过滤mbr,萃取和气体扩散mbr的发展有限,仍有未开发的潜力。学术研究的基础方面主要涉及与污垢、微生物表征和优化操作性能有关的问题。Zenon占据了美国MBR市场的大部分,而久保田和三菱人造革在世界其他地区的安装数量更多。由于更严格的法规和水回用战略,预计未来MBR工厂的产能将大幅增加,应用领域将扩大。潜在的应用领域包括饮用水处理中的硝酸盐去除,从水和废水流中去除内分泌干扰化合物;通过膜辅助发酵和气体提取和净化mbr提高生物燃料的生产。水循环处理技术包含了大量的选择。膜处理被认为是先进废水回收和再利用方案的关键要素,并被包括在世界范围内许多突出的方案中,例如用于人工地下水补给,间接饮用再利用以及用于工业过程用水生产。膜生物反应器(mbr)是一种将活性污泥处理与膜过滤相结合的生物质截留工艺。许多研究人员得出结论,当与其他先进处理技术相结合时,采用MBR技术回收废水是一种选择。由于水资源日益短缺,必须进行可持续的水处理和水的再利用。废水中水的回用可以在污水处理厂二级活性污泥阶段的膜生物反应器(MBR)中完成。为了去除病毒、溶解有机物和仍存在于MBR渗透物中的有机物,可采用纳滤(NF)。然而,纳滤膜的主要缺点是产生的浓缩流不能排放到环境中。研究表明,MBR - NF组合工艺与纳滤浓缩液回用是成功的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Review on Membrane Bioreactor (MBR) Technology: It’s Commercial Applications And Possibilities of Hybridization with other Membrane Techniques to Recover Valuable Industrial By-Products for Sustainable Development and Environmental Protection by and Large
Membrane bioreactor (MBR) technology is advancing rapidly around the world both in research and commercial applications. Despite the increasing number of studies and full-scale applications of MBR systems, directions and trends in academic research as well as commercial developments require further analysis. This paper aims to critically characterize and review worldwide academic research efforts in the area of MBRs as well as focus attention to commercial MBR applications. Various research papers published in peer-reviewed international journals were used as the database for the analysis provided in this paper. After a surge of MBR publications, research appears to have reached a plateau in the last 7 years using both submerged and external MBR units. Although much of the pioneering research occurred in Japan, France and the UK, countries such as South Korea, China and Germany have significantly contributed to the research pool in the last 5 years. The primary research focus has been on water filtration MBRs with limited growth in extractive and gas diffusion MBRs which still hold un-tapped potential. Fundamental aspects studied in academic research predominantly involve issues related to fouling, microbial characterization and optimizing operational performance. Zenon occupies the majority of the MBR market in America, whereas Kubota and Mitsubishi-Rayon has a larger number of installations in other parts of the world. Due to more stringent regulations and water reuse strategies, it is expected that a significant increase in MBR plant capacity and widening of application areas will occur in the future. Potential application areas include nitrate removal in drinking water treatment, removal of endocrine disrupting compounds from water and wastewater streams; enhancing bio-fuels production via membrane assisted fermentation and gas extraction and purification MBRs. Treatment technology for water recycling encompasses a vast number of options. Membrane processes are regarded as key elements of advanced wastewater reclamation and reuse schemes and are included in a number of prominent schemes world-wide, e.g. for artificial groundwater recharge, indirect potable reuse as well as for industrial process water production. Membrane bioreactors (MBRs) are a promising process combination of activated sludge treatment and membrane filtration for biomass retention. Many researchers have concluded that wastewater reclamation in intended MBR technology is the method of choice when it is combined with other advanced treatment technologies. As water shortages are increasing, the need for sustainable water treatment and the reuse of water is essential. Water reuse from wastewater can be accomplished in a membrane bioreactor (MBR) in the secondary activated sludge stage of a wastewater treatment plant. To remove viruses, dissolved organics and in organics still present in the MBR permeate, nanofiltration (NF) can be applied. Nevertheless, the major drawback of nanofiltration membranes is the production of a concentrate stream that cannot be discharged to the environment. The research show that the continuous production of reusable water from wastewater in a combined MBR and NF process with NF concentrates recirculation can be successful.
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