污水处理中消毒性能的CFD优化——以臭氧化池中隔板气升式反应器设计实施为例

IF 4.3 Q1 ENVIRONMENTAL SCIENCES ACS ES&T water Pub Date : 2025-01-06 DOI:10.1021/acsestwater.4c01002
Mohamed El Amine Elaissaoui Elmeliani*, Hakim Aguedal, Samia Benhammadi, Mohamed El Amine Belhadj, Gaurav Goel, Meng Sun, Kulbir Singh, Abdelkader Iddou, Magnus So, Bing Liu and Mitsuharu Terashima, 
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引用次数: 0

摘要

有效和节能的废水消毒对于可持续水管理至关重要,特别是在全球水资源短缺的情况下。本研究介绍了一种新型的计算流体动力学(CFD)优化的挡板气升反应器(BALR),以解决臭氧消毒的低效率问题。通过集成垂直和水平挡板,BALR增强了气液相互作用,增加了臭氧接触时间,并最大限度地减少了死区,与传统系统相比,总大肠菌群去除效率达到99.62%,能耗降低38% (0.011 kWh·m-3)。除了废水处理之外,BALR还可以被视为工业应用的一种选择,例如化学加工和食品安全,具有广泛的用途。灵敏度分析和可扩展性测试验证了设计的鲁棒性和对不同设置的适用性。这些发现为先进的水处理系统建立了一个可扩展的、高效的框架,为未来将可再生能源整合到臭氧化技术中奠定了基础。
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CFD Optimization of Disinfection Performance in Wastewater Treatment: A Case Study of Baffled Airlift Reactor Design Implementation in an Ozonation Tank

Effective and energy-efficient wastewater disinfection is crucial for sustainable water management, especially in light of global water scarcity. This study introduces a novel computational fluid dynamics (CFD)-optimized Baffled Airlift Reactor (BALR) to address inefficiencies in ozonation-based disinfection. By integrating vertical and horizontal baffles, the BALR enhances gas–liquid interaction, increases ozone contact time, and minimizes dead zones, achieving a 99.62% total coliform removal efficiency and a 38% reduction in energy consumption (0.011 kWh·m–3) compared to conventional systems. Beyond wastewater treatment, BALR can also be considered as an option for industrial applications, such as chemical processing and food safety, offering broad utility. Sensitivity analysis and scalability testing validate the design’s robustness and applicability to diverse settings. These findings establish a scalable, high-efficiency framework for advanced water treatment systems, laying the groundwork for the future integration of renewable energy sources into ozonation technologies.

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