design of an innovative system for the detoxification of pharmaceutical wastewater from pharmaceutical facilities.

Technical Annals Pub Date : 2023-11-30 DOI:10.12681/ta.35979
Maria Loizidou, Eleni Alexia Giouni, Maria Kyriazi
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Abstract

The concentration of Active Pharmaceutical Ingredients (APIs) in wastewater is directly affected by the increasing worldwide use of pharmaceuticals. The release of the wastewater may contaminate the surface water and marine life. Conventional wastewater treatment plants are unable to remove completely all APIs. The most frequently used methods are conventional activated sludge system (CAS) and membrane biological reactors (MBR), based on studies the removal percentage of APIs was lower than 10% in some compounds. Catalytic hydrogenation is a highly effective water treatment process that offers superior selectivity and reactivity compared to traditional methods, without the use of any chemicals. There is no need for additional wastewater treatment to remove any toxic byproducts that may be produced, making the process cost-effective and efficient.  The catalytic reactions of hydrogenation are also rapid reactions with short residence times and smaller reactors, reducing both the operations and installation costs. The pilot will operate under room temperature and pressure conditions. This pilot will fully operate with renewable energy-solar energy (RES). The main components of the developed pilot system are a mixing tank, a  filtration system, a water electrolysis unit operating with RES and a catalytic reactor where the concentrated stream from filtration system will be treated. In this reactor, the pharmaceutical compounds in the presence of a catalyst will be hydrogenated and converted to non-critical organic matter.
设计一种创新的制药设施制药废水解毒系统。
废水中活性药物成分 (API) 的浓度直接受到全球药品使用量不断增加的影响。废水的排放可能会污染地表水和海洋生物。传统的废水处理厂无法完全去除所有原料药。最常用的方法是传统活性污泥系统(CAS)和膜生物反应器(MBR),根据研究,某些化合物对原料药的去除率低于 10%。催化氢化是一种高效的水处理工艺,与传统方法相比,它具有更高的选择性和反应性,而且无需使用任何化学品。不需要额外的废水处理来去除可能产生的任何有毒副产品,因此该工艺成本低、效率高。 氢化的催化反应也是快速反应,停留时间短,反应器较小,从而降低了操作和安装成本。试验将在室温和压力条件下运行。该中试系统将完全利用可再生能源(RES)运行。所开发的中试系统的主要组成部分包括一个混合罐、一个过滤系统、一个利用可再生能源运行的水电解装置和一个处理过滤系统浓缩流的催化反应器。在该反应器中,药物化合物在催化剂的作用下进行氢化,并转化为非临界有机物。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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