Time | Paper ID | Title / Authors | Keywords | Topic code | Ack. number |
---|---|---|---|---|---|
Separation processes | |||||
(9:30–10:30) (Chair: No data , No data ) | |||||
B01 | Development of inorganic based nanofiltration by using a surface treatment method | Nano filtration membrane Surface treatment 3-aminopropyltrietothoxysilane | 4-a | 76 | |
B02 | Ion exchange for FAU zeolite membranes | FAU zeolite membrane ion exchange properties gas permeation | 4-a | 40 | |
B03 | Adsorption and pH effect of platinum group ion on a silk fiber | silk adsorption platinum group | 4-e | 99 | |
B04 | Deposition of hydrogen permselective membranes on porous silica substrates (Shibaura Inst. Tech. or Saitama Inst. Tech. or Shonan Inst. Tech.) *Shibata Ryo, | Silica substrate Counter diffusion CVD Hydrogen separation | 4-a | 114 | |
B05 | Preparation of silica membranes for high temperature hydrogen separation | Counter diffusion CVD methyltrimethoxysilane Hydrogen / hydrocarbon separation | 4-a | 85 | |
Break | |||||
Separation processes | |||||
(10:40–11:40) (Chair: No data , No data ) | |||||
B07 | Control of permselectivity through the MOR zeolite membranes | MOR zeolite membrane ion exchange properties pervaporation | 4-a | 80 | |
B08 | Advanced nuclide separation using several inorganic ion exchange techniques (Nat. Inst. Tech. or Nippon Inst. Tech. or NITechTC) *Banjarnahor Irvin Mardongan, | ion exchanger high-level radioactive waste | 4-e | 113 | |
B09 | Improvement of MFI zeolite membranes by post-treatment | MFI zeolite Surface treatment Gas permeation | 4-a | 41 | |
B10 | Improvement of permselectivity through the zeolite membranes by adding fluorine ion | Silicalite-1 zeolite membrane Silica support Gas separation | 4-a | 75 | |
B11 | Removal of secondary product from thermal oxidation of oil | oil oxidation peroxide | 14-c | 57 | |
Lunch break | |||||
Fluid & particle processing | |||||
(12:40–13:52) (Chair: No data , No data ) | |||||
B17 | Two-component three-dimensional PIV measurement of laminar flow velocity distribution in a SMX mixer | Static mixer Laminar flow PIV measurement | 2-b | 48 | |
B18 | Study on production of ozone water for sterilization using ultra-fine-bubbles | Ozone water Ultra-fine-bubbles Sterilization | 2-g | 103 | |
B19 | Preparation of Silica Hollow Particles Using Ultrasonically Generated Microbubbles | Microbubbles Silica Hollow Particles Ultrasonic Oscillation | 2-e | 1 | |
B20 | Quantification of the flow pattern ahead of and behind rotating blades from laminar to turbulent flow regime based on PIV measurements | mixing transition regime PIV | 2-b | 26 | |
B21 | The mechanism of supercooling in softdrinks | supercooling | 2-g | 46 | |
B22 | Preparation of monodisperse microbubbles for medical applications using microfluidic devices | Microbubbles Microfluidics Medical application | 2-d | 105 | |
Break | |||||
粒子・流体プロセス,熱工学 | |||||
(14:00–15:12) (Chair: No data , No data ) | |||||
B24 | Experimental study on pressure fluctuation analysis and fluidization similarity on the small-scale bubbling fluidized beds | Bubbling fluidized bed Pressure fluctuation scaling law | 2-c | 33 | |
B25 | Experimental scale-up study of venturi nozzle on macrobubble generator | Microbubble venturi nozzle scale-up | 2-e | 34 | |
B26 | Fractal structure of combustion instability in a gas turbine model combustor | combustion instability fractal gas turbine model combustor | 3-b | 117 | |
B27 | Scale-free nature of network structure in H2/O2 coaxial jet | Complex network Scale-free structure Large-eddy simulation | 3-b | 121 | |
B28 | The effect of carbon-based particles on evaporation rate in a solar distillation | Particles Evaporation Capillarity | 3-a | 77 | |
B29 | Scale-free structure in a turbulent fire | turbulent fire Large-eddy simulation scale-free structure | 3-b | 119 |