Merouani Slimane, Dehane Aissa, Hamdaoui Oualid
Laboratory of Environmental Process Engineering, Department of Chemical Engineering, Faculty of Process Engineering, University Salah Boubnider Constantine 3, P.O. Box 72, 25000 Constantine, Algeria.
Chemical Engineering Department, College of Engineering, King Saud University, P.O. Box 800, 11421 Riyadh, Saudi Arabia.
Ultrason Sonochem. 2024 Oct;109:107009. doi: 10.1016/j.ultsonch.2024.107009. Epub 2024 Jul 31.
This study investigates the effectiveness of ultrasonic (US) treatment in removing and mineralizing surfactants in wastewater. It examines the complex mechanisms and variables (acoustic conditions, solution temperature, initial dose, etc.) that affect sonolytic processes. The effect of water matrix components (such as salts and the presence of secondary pollutants) on process performance is thoroughly investigated. Various treatments are analyzed through a detailed comparison of synergistic hybridization processes. The study also provides a comprehensive review of current environmental applications and explores potential directions for surfactant degradation using ultrasound. Insightful information is presented to advance sustainable wastewater treatment techniques. The literature review clearly reveals the promising future of sonotreatment for degrading various surfactants under different conditions. The use of multifrequency mechanisms and the integration of other advanced oxidation processes (AOPs) with the US process have significantly enhanced the energy efficiency of the sonochemical system. Additionally, the results highlight the need to focus on developing new sonoreactor designs, identifying degradation intermediates, and hybridizing the sonochemical system under innovative operating conditions.
本研究调查了超声(US)处理去除废水中表面活性剂并使其矿化的有效性。研究了影响声解过程的复杂机制和变量(声学条件、溶液温度、初始剂量等)。深入研究了水基质成分(如盐和二次污染物的存在)对处理性能的影响。通过对协同杂交过程的详细比较,分析了各种处理方法。该研究还对当前的环境应用进行了全面综述,并探索了使用超声降解表面活性剂的潜在方向。提供了有见地的信息,以推进可持续废水处理技术。文献综述清楚地揭示了声处理在不同条件下降解各种表面活性剂的广阔前景。多频机制的使用以及其他高级氧化过程(AOPs)与超声过程的整合显著提高了声化学系统的能源效率。此外,结果强调了需要专注于开发新的声反应器设计、识别降解中间体以及在创新操作条件下使声化学系统杂交。