利用纳米气泡控制农业废水灌溉系统复合污垢的机制

Yang Xiao; Bo Zhou; Siyuan Tan; Lei Li; Tahir Muhammad; Buchun Si; Changjian Ma; Sunny C. Jiang; Yunkai Li

doi:10.1016/j.eng.2023.10.013

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工程（英文） ›› 2024, Vol. 35 ›› Issue (4) : 214-225. DOI: 10.1016/j.eng.2023.10.013

研究论文

Article

利用纳米气泡控制农业废水灌溉系统复合污垢的机制

Yang Xiao ^a^,^b ,
Bo Zhou ^a^,^b ,
Siyuan Tan ^a ,
Lei Li ^c ,
Tahir Muhammad ^a ,
Buchun Si ^a ,
Changjian Ma ^d ,
Sunny C. Jiang ^e^,^* ,
Yunkai Li ^a^,^b^,^*

作者信息 +

Nanobubbles for the Mitigation of Fouling in Wastewater Distribution Systems

Yang Xiao ^a^,^b ,
Bo Zhou ^a^,^b ,
Siyuan Tan ^a ,
Lei Li ^c ,
Tahir Muhammad ^a ,
Buchun Si ^a ,
Changjian Ma ^d ,
Sunny C. Jiang ^e^,^* ,
Yunkai Li ^a^,^b^,^*

Author information +

History +

Highlight

・Nanobubbles (NBs) effectively mitigated biofouling, scaling, and particulate fouling.

・The control mechanisms of NBs for various foulants were revealed.

・The NBs antifouling were investigated using different gas types, doses and strategies.

・Practical measures for the successful engineering application of NBs were proposed.

Abstract

The increasing demand for wastewater treatment has become a notable trend for addressing global water scarcity. However, fouling is a significant challenge for wastewater distribution engineering systems. This study provides an approach using nanobubbles (NBs) to control fouling. The antifouling capacities of three types of NBs, six oxygen concentrations, and two application procedures (prevention and removal) are investigated. The results show that NBs effectively mitigate composite fouling—including biofouling, inorganic scaling, and particulate fouling—in comparison with the non-NBs group. More specifically, hydroxyl radicals generated by the self-collapse of NBs oxidize organics and kill microorganisms in wastewater. The negatively charged surfaces of the NBs transform the crystalline form of CaCO₃ from calcite to looser aragonite, which reduces the likelihood of ion precipitation. Furthermore, the NBs gas-liquid interfaces act as gas “bridges” between colloidal particles, enhancing the removal of particles from wastewater. Lastly, although the NBs inhibit the growth of fouling, they do not significantly remove the already adhered fouling in non-NBs treated groups. This study anticipates that the application of NBs will address the significant fouling issue for various wastewater distribution engineering systems in order to meet the global challenge of sustainable water supplies.

Keywords

Biofouling / Scaling / Colloidal fouling / Wastewater / Antifouling mechanism

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Yang Xiao, Bo Zhou, Siyuan Tan. . Engineering. 2024, 35(4): 214-225 https://doi.org/10.1016/j.eng.2023.10.013

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