微纳米气泡

曝气滴灌迷宫流道微气泡气液两相流运动特性——多几何构型、涡旋轨迹与抗堵性能评价论文来源：Yanfang Liu, Guocui Wang, Xianna Zhang, Hongchen Li, Bingcheng Si, Wenqian Liu, Zhenhua Zhang. Motion Characteristics of Gas–Liquid Two-Phase Flow of Microbubbles in a Labyrinth Channel Used for Aerated Drip Irrigation[J]. Water, 2023, 15(7): 1432. D

季铵化纤维素无纺布＋微纳米气泡选择性吸附PFAS——气液界面富集约束与静电协同新范式论文来源：Yushen Kang, Fangfang Song, Jin Lin, Haowei Liu, Nan Wang, Lihua Zhu. Enhanced selective adsorption of perfluoroalkyl substances through an integration of quaternized cellulose nonwoven and micro-nano-bubbles[J]. Separation and Purification Technolog

微气泡强化纤维聚结器油水乳状液分离——“聚并–浮选“机制改写与动态防污新范式论文来源：Yudong Li, Haokun Jiang, Yunhao Wu, et al. Microbubbles enhance oil-in-water emulsion separation in fibrous coalescers[J]. Water Research, 2025, 268: 122573. DOI: 10.1016/j.watres.2024.122573（华东理工大学机械与动力工程学院；通讯作者杨强教授）

微气泡清洗核桃壳滤料中石油烃污染物——多孔介质内“碰撞–溃灭射流–孔隙穿透“的清洗新范式论文来源：Journal of Water Process Engineering, 2024, 58, 104761，"Washing performance of microbubbles on porous media"

空气纳米气泡的稳定性及理化特性——水力空化发生条件下粒径、Zeta 电位与环境因子的调控规律论文来源：陈二军, 张玉玲, 路少磊, 等. 空气纳米气泡的稳定性及理化特性[J]. 化工进展, 2021, DOI:10.16085/j.issn.1000-6613.2021-2388

空气纳米气泡水强化稻草–猪粪厌氧共消化——通过协同代谢与抗氧化节能实现甲烷增产 59.80%论文来源：Bioresource Technology, 2025, 436, 132955，"Augmented methanogenic performance in straw-manure co-digestion via micro/nano bubble-enhanced syntrophic metabolism"

颗粒活性炭负载壳聚糖协同纳米气泡吸附全氟烷基酸（PFAAs）——链长依赖的“纳米气泡-正电位点“捕获机制论文来源：Chemosphere, 2022, 309, 136733，"Adsorption of perfluoroalkyl acids on granular activated carbon supported chitosan: Role of nanobubbles"

臭氧微纳米气泡耦合颗粒活性炭（O₃-MNBs/GAC）深度处理饮用水中微量有机污染物——从实验室到中试的工程化验证论文来源：Separation and Purification Technology, 2026, 382, 135985，"Removal of trace organic pollutants in drinking water by an integrated ozone micro-nano bubble and granular activated carbon process: From laboratory scale to pilot studies"

臭氧/微纳米气泡（O₃-MNB）间接催化氧化同步脱除柴油车尾气多污染物论文来源：Environmental Technology, 2024, 45(12): 2417–2426，"Indirect catalytic oxidation of multi-pollutants in diesel exhaust by ozone/micro-nano bubbles system"

微气泡气液分散体系（MBGLS）协同空气/H₂O₂/Na₂S₂O₈ 同步脱除烟气 NO 与 SO₂论文来源：Environmental Technology, 2020, 41(27): 3573–3583，"Simultaneous removal of NO and SO₂ with a micro-bubble gas-liquid dispersion system based on air/H₂O₂/Na₂S₂O₈"

微纳米气泡辅助水合物成核与生长——再探“记忆效应“机制论文来源：Energy, 2024, 290, 130228，"Study of hydrate nucleation and growth aided by micro-nanobubbles: Probing the hydrate memory effect"

O₃纳米气泡强化表面活性剂淋洗柴油污染土壤的实验研究论文来源：Chemosphere, 2024, "Enhanced surfactant remediation of diesel-contaminated soil using O₃ nanobubbles"

在芬顿耦合微纳米气泡系统中最大化利用界面处的Fe²⁺以实现有机污染物降解。摘要：高盐废水中的杂环化合物极难降解，给处理带来了巨大挑战。本研究开发了一种混合微纳米气泡芬顿系统（FT-MNBs），通过界面效应增强Fe²⁺的活化。与单独使用微纳米气泡（MNBs，降解速率0.0046 min⁻¹）和传统芬顿法（降解速率0.01008 min⁻¹）相比，FT-MNBs对吲哚的降解速率显著提高，达到0.0380 min⁻¹。在处理总溶解固体（TDS）含量为3.266 g/L的实际焦化废水时，FT-MNBs在初始COD为200 mg/L和10,000 mg/L的条件下分别实现了93.42%和

【论文阅读】微纳米气泡技术作为CO2-EOR和CO2地质储存技术的新方向：综述Micro and nanobubbles technologies as a new horizon for CO2-EOR and CO2 geological storage techniques: A review 微纳米气泡技术作为CO2-EOR和CO2地质储存技术的新方向：综述期刊信息：Fuel 2023 期刊级别：EI检索 SCI升级版工程技术1区 SCI基础版工程技术2区 IF7.4 原文链接：https://doi.org/10.1016/j.fuel.2023.127661 全文翻译

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