BUBBLE GENERATION MECHANISM AND BUBBLE GENERATION METHOD, POUR-OUT DEVICE COMPRISING BUBBLE GENERATION MECHANISM, AND METHOD OF MANUFACTURING BEVERAGE

• 1. 使用弹性表面波的雾以及微小气泡或者微小气泡的产生方法以及雾以及微小气泡或者微小气泡产生装置 [P] . 中国专利： CN102458627B . 2016.04.06
• 2. 微气泡产生设备和微气泡产生方法，以及具有该微气泡产生设备的淋浴装置和油水分离装置 [P] . 中国专利： CN110891674A . 2020-03-17
• 3. BUBBLE GENERATION METHOD, BUBBLE GENERATION DEVICE, BUBBLE-LIKE FIXER GENERATION METHOD, BUBBLE-LIKE FIXER GENERATION DEVICE, FIXER, IMAGE FORMING METHOD, AND IMAGE FORMING APPARATUS [P] . 日本专利： JP2008197188A . 2008-08-28

  机译： 气泡产生方法，气泡产生装置，气泡状定影剂产生方法，气泡状定影剂产生装置，定影剂，图像形成方法和图像形成装置

• 4. Bubble generation device, tubular member, bubble generation method, and method for manufacturing bubble generation device [P] . US11110414B2 . 2021-09-07

  机译： 泡沫生成装置，管状构件，泡沫生成方法和制造泡泡发电装置的方法

• 5. AIR BUBBLE GENERATION DEVICE, TUBULAR MEMBER, AIR BUBBLE GENERATION METHOD, AND METHOD FOR MANUFACTURING AIR BUBBLE GENERATION DEVICE [P] . 美国专利： US2019275481A1 . 2019-09-12

  机译： 气泡产生装置，管状构件，气泡产生方法以及制造气泡产生装置的方法

• 1. Nanobubble generation and its application in froth flotation(part Ⅰ): nanobubble generation and its effects on properties of microbubble and millimeter scale bubble solutions [J] . FAN Maoming, TAO Daniel, HONAKER Rick, 矿业科学技术（英文版） . 2010,第001期
• 2. Optimization of cavitation venturi tube design for pico and nano bubbles generation [J] . Xiong Yu, Peng Felicia⇑ 矿业科学技术（英文版） . 2015,第004期
• 3. Optimization of cavitation venturi tube design for pico and nano bubbles generation [J] . Xiong, Yu, Peng, 矿业科学技术学报：英文版 . 2015,第004期
• 4. The Generation of a Reduced Mechanism for Flame Inhibition by Phosphorus Containing Compounds Based on Path Flux Analysis Method [J] . LI Shanling, JIANG Yong, QIU Rong 中国化学工程学报（英文版） . 2013,第004期
• 5. Generation mechanism of micro-bubbles in a pressurized dissolution method [J] . Maeda Yasunari, Hosokawa Shigeo, Baba Yuji, Experimental Thermal and Fluid Science: International Journal of Experimental Heat Transfer, Thermodynamics, and Fluid Mechanics . 2015,第Null期
• 6. Influence of thermoplastic properties on coking pressure generation: Part Ⅳ - Further evidence of the role of bubble coalescence in the mechanism for pressure generation [J] . Karen M. Steel, Miguel Castro Diaz, John J. Duffy, Fuel . 2014,第auga1期
• 7. Generation of Monodisperse Microbubbles with a Controlled Size of Less Than 10?μm at a Generation Rate on the Order of 105 Bubbles/s in Glass Capillary Microfluidic Devices [J] . Risa Kitazaki, Hikaru Nemoto, Toshimitsu Kanai Journal of Chemical Engineering of Japan . 2021,第10期
• 8. MECHANISM OF TRANSPORT BETWEEN THE ANODE-BATH INTERFACE AND THE ACTIVE BUBBLE GENERATION SITES IN HALL-HéROULT CELLS [C] . Sándor Poncsák, László I Kiss Light metals 2012. . 2012
• 9. On the generation of electrolytic bubbles in artificial-photosynthetic devices. [D] . Lee, Kenneth Patrick. 2014
• 10. A New Method for Intense Cavitation Bubble Generation on Layer-by-Layer Assembled SLIPS [O] . Araz Sheibani Aghdam, Morteza Ghorbani, Gokberk Deprem, -1
• 11. Measurement of the air bubble size and velocity from micro air bubble generation (MBG) in diesel using optical methods [O] . Bader A. Alfarraj, Abdullah M. Alkhedhair, Ahmed A. Al-Harbi, 2020

• 1. Nanobubble generation and its application in froth flotation （part I）： nanobubble generation and its effects on properties of microbubble and millimeter scale bubble solutions [J] . FAN Maoming ,TAO Daniel ,HONAKER Rick . 矿业科学技术 . 2010,第001期
• 2. 玻璃中气泡的产生机理 [C] . 李启甲 ,陈国平 . 我国21世纪玻璃与耐火材料工业及其配套行业技术发展与信息交流会 . 2000
• 3. TFT LCD液晶气泡产生机理与改善研究 [A] . 谢克成 . 2017