催化学报 ›› 2024, Vol. 58: 7-14.DOI: 10.1016/S1872-2067(23)64599-1

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多相催化与均相自由基反应在药物废物销毁中的协同作用: 展望

Dmitry Yu. Murzin*()   

  1. 图尔库阿卡德米大学, 图尔库, 芬兰
  • 收稿日期:2023-12-07 接受日期:2024-01-05 出版日期:2024-03-18 发布日期:2024-03-28
  • 通讯作者: *电子信箱: Dmitry.Murzin@abo.fi (D. Murzin).

Synergy between heterogeneous catalysis and homogeneous radical reactions for pharmaceutical waste destruction: Perspective

Dmitry Yu. Murzin*()   

  1. Åbo Akademi University, Turku/Åbo, Finland
  • Received:2023-12-07 Accepted:2024-01-05 Online:2024-03-18 Published:2024-03-28
  • Contact: *E-mail: dmurzin@abo.fi (D. Murzin).
  • About author:Professor Dmitry Yu. Murzin studied chemical engineering at the Mendeleev University of Chemical Technology in Moscow, USSR (1980‒1986) and graduated with honors. He obtained his PhD (advisor Prof. M.I. Temkin) and DrSc degrees at Karpov Physico-Chemical Institute, Moscow in 1989 and 1999, respectively. After postdoc stays in France and Finland (1992‒1994), he was working at BASF from 1995 to 2000. Since 2000 Prof. Murzin holds the Borgström Chair of Chemical Technology at Åbo Akademi University, Turku, Finland. He is an elected member of Academia Europaea, the Finnish Academy of Science and Letters and holds honorary professorships from Tianjin University and St. Petersburg Technological Institute. In 2016 he became the Knight, First Class, Order of the White Rose of Finland. He is the co-author of a monograph (Catalytic Kinetics), and an author of several textbooks (Chemical Reaction Technology, Engineering Catalysis, Formulation Product Technology). He holds several patents and is an author or co-author of > 930 journal articles and book chapters.

摘要:

人类生活大量使用药物, 这些药物释放的有害成分不断进入环境, 尤其是水系统中. 然而, 现有的传统水处理设施主要是为去除可生物降解的有机物和营养物质而设计的, 对于药物和个人护理产品中的化学成分, 由于它们的化学稳定性, 这些处理设施往往难以有效地对其进行降解. 为了应对这一挑战, 需要采用更先进的技术. 利用由臭氧产生的自由基的高级氧化过程, 可以与多相催化技术结合, 用于更有效地处理含有药物和个人护理产品的废水. 从技术角度看, 通过臭氧多相催化氧化技术去除水中药物应该在连续固定床反应器中完成. 这种方法需要结构化的催化剂, 并可以通过增材制造技术, 如3D直接打印载体/催化剂, 来制备. 该技术为催化剂的组成和设计提供了很大的自由度, 使其更适合于固定床多相-均相反应. 此外, 这些结构化材料可以表现出非周期性结构, 如受自然启发的半有序结构. 对于周期性和半周期性结构, 可以使用计算流体动力学和流动成像方法研究其传热和传质过程, 以指导新型结构的进一步设计, 并与材料开发相结合, 从而实现对活性和选择性的有效控制. 在催化反应器工程方面, 可以采用实验和数值模拟的研究方法, 以探索不同阶段的氧化剂注入、反应器横截面大小的改变、催化剂床之间距离的调整以及循环回路的引入等因素对处理效果的影响. 这些研究将有助于优化反应条件, 提高处理效率, 从而实现更有效地从水中去除药物和个人护理产品的目标.

关键词: 反应工程, 臭氧氧化, 分子筛, 药物, 增材制造

Abstract:

Enormous quantities of pharmaceuticals are consumed by humans leading to a growing and continuous release of harmful components into the environment. Existing conventional water treatment plants are designed mainly for eliminating biodegradable organics and nutrients and cannot degrade pharmaceuticals and personal care products efficiently enough due to their chemical stability. Advanced oxidation processes using radicals generated from ozone can be efficiently combined with heterogeneous catalysis for treatment of wastewater containing pharmaceuticals and personal care products. From the technology viewpoint, elimination of pharmaceuticals from water by heterogeneously catalyzed ozonation should done in a continuous fixed bed reactor. The structured catalysts can be prepared by additive manufacturing using 3D-direct printing of supports/catalysts allowing a high degree of freedom in both the composition and design of the final catalytic material for a fixed bed heterogeneous-homogeneous reaction. Structured materials can exhibit non-periodic structure, such as for example semi-ordered structures, inspired by nature. For periodic and semi-periodic structures, heat and mass transfer should be investigated using computational fluid dynamics and flow imaging methods, guiding further design of novel architectures and subsequently allowing in combination with the materials development efficient control of activity and selectivity. The innovative catalytic reactor engineering should include experimental and numerical investigation of the stage wise injection of the oxidation agent, variation of the reactor cross-section size, changing the distance between the catalyst beds and introduction of the recycle loops.

Key words: Reaction engineering, Ozonation, Zeolite, Pharmaceuticals, Additive manufacturing