Time | Paper ID | Title / Authors | Keywords | Topic code | Ack. number |
---|---|---|---|---|---|
Chemical reaction engineering | |||||
(9:30–10:42) (Chair: Hiroyuki Imai, Tsutomu Ono) | |||||
B01 | Oxygen permeable flux through the perfluorinated sulfonic acid membrane in polymer electrolyte fuel cells | Polymer electrolyte fuel cell Oxygen crossover Gas chromatography | 5-i | 166 | |
B02 | Synthesis of xylitol from xylose using copper-based catalysts under low hydrogen pressure | Carbon-supported catalysts Ion-exchange resin Xylose hydrogenation | 5-a | 121 | |
B03 | n-Butane dehydrogenation over carbon-supported Pt-Sn catalyst prepared from an anion exchange resin | Anion exchange resin Carbon-supported Pt-Sn catalyst n-Butane dehydrogenation | 5-a | 123 | |
B04 | Development of Cu catalyst precursors for CO2 hydrogenation | CO2 hydrogenation Cu catalyst methanol synthesis | 5-a | 164 | |
B05 | Relationship between iron complex and ultraviolet radiation | metal complex ultraviolet radiation ligand | 1-e | 96 | |
B06 | Research on the conditions of an aqueous solution suitable for eco-cairo | super cooling heat of solidification eco-cairo | 3-f | 52 | |
Break | |||||
Chemical reaction engineering | |||||
(10:50–12:02) (Chair: Shohei Tada, Yoshinori Murakami) | |||||
B08 | Synthesis of small-pore zeolite catalyst with dehydrogenation ability | CHA zeolite dehydrogenation light alkan | 5-a | 231 | |
B09 | Ethanol steam reforming using metal nanoparticle encapsulated zeolite catalyst | Ethanol Steam Reforming Zeolite supported metal catalysts Encapsulation structure | 5-g | 173 | |
B10 | Low temperature catalytic cracking of hardly decomposable naphtha fraction using noble metal particle-encapsulated zeolite catalysis | naphtha cracking dehydrogenation metal encapsulated zeolite | 5-c | 105 | |
B11 | Kinetic study of allylic oxidation over BiMo oxide-supported CoFeMo mixed oxide catalysts | allyl oxidation oxygen transfer multiple oxide catalyst | 5-a | 148 | |
B12 | The Effects of Coordination Complexes during the Formation of Copper Dendrites | Copper dendrites Complexes Chelate | 14-e | 269 | |
B13 | Doedorization ofurine utilizing photocatalytic decomposition of ammonia | ammonia photocatalyst deodorize | 5-a | 51 | |
Lunch break | |||||
Chemical reaction engineering | |||||
(13:00–14:12) (Chair: Hiroyasu Fujitsuka, Hidetaka Kawakita) | |||||
B19 | Structural Design of Visible Light-Sensitive CuOx-Grafted TiO2 Photocatalyst | Photocatalyst visible light structural design | 5-a | 249 | |
B20 | Photocatalytic Decomposition of Water over Picene Derivative Introduced with Nitro Group under Visible Light Irradiation | Hydrogen Photocatalyst Organic semiconductor | 5-a | 297 | |
B21 | Investigation of the OH-radical formation and charge transfer process in AgI-TiO2 nanocomposite photocatalyst | AgI-TiO2 | 5-a | 43 | |
B22 | Synthesis of Bronze Type TiO2 and Characterization of Photo-catalytic Reactivity | Bronze Type TiO2 Photo-catalytic Reactivity Hollow Spheritic Particle | 5-a | 223 | |
B23 | Limitations of various catalysts in the luminol reaction | chemiluminescene luminol reaction catalyst | 5-a | 215 | |
B24 | Prevention of fading of fibers by Ultraviolet rays using titanium dioxide | titanium dioxide rayon fading | 14-e | 210 | |
Break | |||||
Chemical reaction engineering | |||||
(14:20–15:44) (Chair: Teruoki Tago, Motoaki Kawase) | |||||
B26 | Effect of electron beam irradiation on chemical structure and photocatalytic activity of graphitic carbon nitride | graphitic carbon nitride photocatalysis electron beam | 5-a | 235 | |
B27 | Hydrogen Peroxide Production by Photo-oxidation of Water over Picene Derivatives Photocatalyst | Hydrogen peroxide Photocatalyst Organic semiconductor | 5-a | 290 | |
B28 | Study on the reaction mechanism for the visible light irradiated BiVO4-TiO2 photocatalysts using the detection of OH radicals | BiVO4-TiO2 OH radicals | 5-c | 18 | |
B29 | Preparation and evaluation of cellulose-nanofiber/pigment composites using the laser ablation method | cellulose nanofiber laser ablation | 5-i | 19 | |
B30 | Decomposition of Organic matter by dehydrating and oxidizing agents | Decomposition of Organic matter Dehydrating agent Oxidizing agent | 14-e | 212 | |
B31 | Approaching the reaction mechanism of silver mirror reaction using ammonia | Silver mirror reaction Reaction mechanism Metal ions | 14-c | 103 | |
B32 | Mathematical analysis of 1,4-dioxane decomposition using continuous stirred tank reactor by photo-Fenton reaction | 1,4-dioxane photo-Fenton CSTR | 5-a | 25 |