Time | Paper ID | Title / Authors | Keywords | Topic code | Ack. number |
---|---|---|---|---|---|
Fluid & particle processing | |||||
(9:32–10:44) (Chair: Uchida Hirohisa, Murakami Yuya) | |||||
B02 | Influence of pulse-jet pressure on the performance of the dust collector in clean-on-demand mode | Pleated filter Pulse-jet cleaning Clean on demand | 2-f | 316 | |
B03 | Numerical simulation of particle deposition behavior in bag filter | numerical simulation bag filter X-ray CT | 2-f | 10 | |
B04 | Synthesis of nickel oxide particles by denitration reaction using hybrid heating method | microwave hybrid heating method denitration reaction | 2-f | 380 | |
B05 | Mechanochemical synthesis of organoclay as organic dye removal adsorbent | Mechanochemical process Organoclay Dye removal | 2-f | 180 | |
B06 | Evaluation of Atomization Characteristics of Fine Mist Shower by Shadow Sizing Method | Atomization Fine Mist Shower Shadow Sizing Method | 2-e | 251 | |
B07 | Extrusion pelletization of Flexible metal-organic frameworks | Metal-organic frameworks Gate adsorption Extrusion pelletization | 2-f | 341 | |
Break | |||||
Fluid & particle processing | |||||
(10:50–12:02) (Chair: Kuroki Nahoko, Ishigami Toru) | |||||
B09 | Agitation of Liquids. Fundamental Studies of Mixing; Fabrication of Visualization Apparatus | Hagen–Poiseuille flow velocity distribution visualization device | 14-c | 96 | |
B10 | Effect of Actuating Pressure waveforms on the drop ejection from an inkjet nozzle | VOF droplets pressure waveforms | 2-e | 47 | |
B11 | Production of Sodium Chloride Fine Particles Enabling Salt Reduction by Supercritical CO2 Assisted Atomization with Spray Drying (SAA-SD) | Supercritical CO2 Spray drying NaCl | 2-f | 313 | |
B12 | The rotation of maple seeds.¶ | maple seed rotation | 2-g | 9 | |
B13 | Wettability of Gallium | Gallium wettability adhesion energy | 1-b | 182 | |
B14 | Solid electrolyte synthesis using dry grinding processprocess | grinding solid electrolyte mechanochemical effect | 2-f | 409 | |
Lunch break | |||||
Fluid & particle processing | |||||
(13:00–14:12) (Chair: Asahara Makoto, Nikaido Mitsuru) | |||||
B20 | Effect of Electrolyte Flow Condition on Cell Performance of Alkaline Water Electrolysis | alkaline water electrolysis cell overvoltage impedance measurement | 2-a | 195 | |
B21 | Growth rate analysis of oxygen and hydrogen bubbles at the electrode surface in alkaline water electrolysis | Alkaline Water Electrolysis bubble growth supersaturation | 2-a | 305 | |
B22 | Conditions for occurrence of dilatancy | multi-phase reaction beta-cyclodextrin 13C NMR | 2-f | 256 | |
B23 | Motion of paper plane after falling | Hop Fall Plane | 2-g | 264 | |
B24 | Create moisturizing and spreadable cream from Vaseline | moisturizing cream Vaseline glycerin | 2-g | 129 | |
B25 | Relationship between Brinicle Glowth and Solution | brinicle solution freezing point depression | 2-g | 162 | |
Break | |||||
Thermal engineering | |||||
(14:20–15:44) (Chair: Ryu Junichi, Tanoue Ken-ichiro) | |||||
B27 | Flame reaction with candles | flame reaction candle coating | 3-f | 278 | |
B28 | Simulation of hydrogen combustion and prediction of NO production with FGM model | Flamelet-Generated Manifolds model Hydrogen combustion Thermal NO | 3-b | 333 | |
B29 | Simulation of biomass char combustion considering heat and mass transfer around a single particle | Heat and mass transfer Biomass char combustion Homogeneous reaction | 3-b | 336 | |
B30 | Application of Flamelet Approach to Polycyclic Aromatic Hydrocarbons Formation in Counter-Flow Diffusion Flame | Flamelet Approach PAHs Counter-Flow Diffusion Flame | 3-b | 337 | |
B31 | Fast analysis of migration phenomena during SiC fabrication using the TSSG method with the help of machine learning | machine learning silicon carbide (SiC) migratory phenomenon | 3-a | 221 | |
B32 | Elucidation of the forced flow boiling promotion mechanism on SUS thjn films with micro polishing | forced flow boiling promotion mechanism SUS thjn film micro polishing | 3-b | 38 | |
B33 | Evaluation of Hydrogen Production Potential for Methane Pyrolysis Systems Using Exhaust Heat from Steel Plant by Heat Transfer and Chemical Reaction Coupled Simulations | methane thermal decomposition hydrogen geat exchanger | 3-b | 116 |