CAVITATION MEMBER OF MICROBUBBLE GENERATOR, MICROBUBBLE GENERATOR AND WASHING DEVICE

• 1. 洗衣机、微泡沫发生器和供给包含微泡沫的洗涤水的方法 [P] . 中国专利： CN108625103A . 2018-10-09
• 2. 洗衣机、微泡沫发生器和供给包含微泡沫的洗涤水的方法 [P] . 中国专利： CN108625104A . 2018-10-09
• 3. CAVITATOR OF MICROBUBBLE GENERATOR, MICROBUBBLE GENERATOR AND WASHING DEVICE [P] . US2021062386A1 . 2021-03-04

  机译： 微泡发生器，微泡发生器和洗涤装置的空穴机

• 4. CARBONATE SPRING MICROBUBBLE GENERATOR, SHOWER DEVICE HAVING CARBONATE SPRING MICROBUBBLE GENERATOR, MICROBUBBLE CARBONATE SPRING DEVICE AND ATOMIZING DISCHARGE MEMBER [P] . 日本专利： JP2014036913A . 2014-02-27

  机译： 碳酸盐弹簧微气泡发生器，具有碳酸盐弹簧微气泡发生器的淋浴设备，微泡沫碳酸盐弹簧设备和雾化放电部件

• 5. WASHING MACHINE, MICROBUBBLE GENERATOR THEREOF AND METHOD FOR SUPPLYING WASHING WATER INCLUDING MICROBUBBLES [P] . 韩国专利： KR20180108030A . 2018-10-04

  机译： 洗衣机，其微泡发生器及其供应包含微泡的洗涤水的方法

• 1. Numerical simulation of a self-absorbing microbubble generator for a cyclonic-static microbubble flotation column [J] . LI Lin, LIU Jiongtian, WANG Lijun, 矿业科学技术（英文版） . 2010,第001期
• 2. Optimization of Orifice Shape and Oscillatory Displacement of an Ultrasonic Microbubble Generator to Increase Microbubble Yield [J] . Hokuto KATAOKA, Ryo KAMEDA, Toshinori MAKUTA Advanced Experimental Mechanics . 2020,第4期
• 3. Hydrodynamic characteristics of the microbubble dissolution in liquid using orifice type microbubble generator [J] . Juwana Wibawa Endra, Widyatama Arif, Dinaryanto Okto, Chemical Engineering Research & Design: Transactions of the Institution of Chemical Engineers . 2019,第期
• 4. Effect of Throat Size on Performance of Microbubble Generator and Waste Water Treatment [C] . Xayalak Vilaida, Sengratry Kythavone, Toshio Iijima International Conference on Engineering, Applied Sciences and Technology . 2020
• 5. Bilayer Alteration from Ultrasound-Induced Microbubble Cavitation [D] . Walsh, Martin Phillip. 2020
• 6. Parameters Optimization of Catalytic Tubular Nanomembrane-Based Oxygen Microbubble Generator [O] . Sumayyah Naeem, Farah Naeem, Jing Zhang, 2020
• 7. We conducted experiments using a Solar-Sea-Oasis (SSO) and a microbubble generator (MB) toimprove hypoxic condition at mooring place in Tokyo University of Marine Science and Technology. We looked intoeffects of these apparatuses by computational fluid dynamics (CFD). When we operated SSO, the effect of dissolvedoxygen (DO) supply was only confirmed near the water outlet. This was suggested by computational fluid dynamicsthat water that came out from water outlet rising upward without staying in the bottom was the causes. Then, weconducted experiments using a MB to aerate bottom of the sea more directly. Vertical distributions of DO showedoxygen was supplied horizontally, but DO concentration increased about 0.24 mg L-1 that was lower than SSOexperiment. This was suggested by CFD that water came out from MB generator spread horizontally without stayingnear the MB generator was the cause. Therefore, it is necessary to improve of making the MB water staying morenear the MB generator. [O] . 遠矢 亮, 小島 諒子, 石丸 隆, 2010

• 1. Numerical simulation of a self-absorbing microbubble generator for a cyclonic-static microbubble flotation column [J] . LI Lin ,LIU Jiongtian ,WANG Lijun . 矿业科学技术 . 2010,第001期
• 2. Evaluation of the Power Generation Capacity of Hydrokinetic Generator Device Using Computational Analysis and Hydrodynamic Similitude [J] . Oladapo S. Akinyemi ,Terrence L. Chambers ,Yucheng Liu . 电力能源（英文） . 2015,第8期
• 3. Melody Generator: A Device for Algorithmic Music Construction [J] . Dirk-Jan Povel . 软件工程与应用（英文） . 2010,第7期
• 4. Cooking appliance with a microwave generator device [J] . . 家电科技 . 2006,第8期
• 5. 一种新型微泡发生器的流场仿真研究 [C] . 谢军 ,李浙昆 ,王高升 . 2008年全国金属矿山难选矿及低品味矿选矿新技术学术研讨与技术成果交流暨设备展示会 . 2008
• 6. 堇青石板式陶瓷膜微泡发生器的研究 [A] . 程敏 . 2019