Time | Paper ID | Title / Authors | Keywords | Topic code | Ack. number |
---|---|---|---|---|---|
Chemical reaction engineering | |||||
(9:30–10:42) (Chair: No data , No data ) | |||||
D01 | Simulation study for reducing by-product and precursor recycle in SiC-CVD | SiC CVI By-product | 5-h | 10 | |
D02 | Diversion of canal sediment (sludge) to catalyst (Tokyo Metro. High School of Sci. and Tech.) *Nishino K, | Sludge Catalyst | 5-a | 7 | |
D03 | Influence of defects in AlN buffer layer for epitaxial growth of GaN on Si substrates | GaN on Si AlN buffer MOVPE | 5-h | 64 | |
D04 | Reduction of nitrobenzene with hydrogen utilizing metal catalyst supported on chitin extracted from Cambaroides japonicus | nitrobenzene catalytic hydrogenation chitin | 5-a | 68 | |
D05 | Heterogeneous synthesis of levulinic acid from glucose in high-temperature and high-pressure water using zirconia as a catalyst | Zirconia Levulinic acid Reaction Kinetics | 5-a | 13 | |
D06 | (withdrawn) | 100 | 72 | ||
Break | |||||
Chemical reaction engineering | |||||
(10:50–12:02) (Chair: No data , No data ) | |||||
D08 | Preparation of iron oxide encapsulated in Birdcage type zeolite from silica-coated iron oxide | silica-coated metal nanoparticle zeolite iron oxide | 5-a | 46 | |
D09 | Continuous synthesis of solketal using a simulated moving bed chromatographic reactor | Simulated moving bed Chromatographic reactor Solketal | 5-d | 49 | |
D10 | Influence of catalyst and operation temperature on decomposition rate of hydrogen peroxide | reaction rate catalyst activation energy | 5-a | 112 | |
D11 | Analysis on mechanism of orientation decision of fcc-TiAlN in thermal CVD | CVD TiAlN cutting tool | 5-h | 65 | |
D12 | Photocatalytic study of zinc oxide in organic solution | Photocatalyst Organic solution Cl radical | 5-a | 126 | |
D13 | Synthesis of chemical hydride through electrolysis of water with hydrogen permeable palladium membrane electrode and structured catalyst | Hydrogenation hydrogen permeable membrane electrolysis of water | 5-e | 54 | |
Lunch break | |||||
Fundamental properties, Thermal engineering | |||||
(13:00–14:12) (Chair: No data , No data ) | |||||
D19 | Influences of Additives on Melting Phenomena of Organic Compound Cryst als | organic crystals melting phenomena additives | 1-b | 110 | |
D20 | Generation of metal mirror | metal mirror ascorbicacid | 1-e | 20 | |
D21 | Isotope separation based on thermal diffusion phenomenon by microfluidic device | Thermal diffusion Microfluidic device Separation | 3-e | 58 | |
D22 | Estimation of boiling and melting points by electronic state informatics | Thermodynamic physical property estimation Machine learning Electronic structure theory | 1-a | 29 | |
D23 | The application of Avogadro constant as the metal deterioration index | Avogadro deterioration NA | 1-b | 125 | |
D24 | PVT relationship of Tetraalkoxysilanes | PVT relationship Tetraalkoxysilane | 1-a | 81 | |
Break | |||||
Chemical reaction engineering | |||||
(14:20–15:32) (Chair: No data , No data ) | |||||
D26 | Reaction analysis of chemical looping methane reforming process using CeO2 nanoparticles | methane reforming CeO2 nanoparticles Reaction analysis | 5-a | 102 | |
D27 | Laccase/O2-catalyzed oxidative polymerization of tyrosine on the dispersed vesicles | vesicle laccase oxidative polymerization | 5-f | 43 | |
D28 | synthesis of azo dye | azo dye | 5-d | 71 | |
D29 | Photocatalytic degradation of methyl orange with high surface area TiO2-loaded alginate capsules | Photocatalytic degradation TiO2-loaded alginate capsules Methyl orange | 5-f | 39 | |
D30 | The isolation of cellulolytic fungus | cellulose glucose Bio-ethanol | 5-g | 116 | |
D31 | The study on the selective absorbent solid material for CO2 generated during biomass gasification and subsequent purification processes | Biomass gasification CO2 selective absorbent solid material CO2 containing gas | 5-g | 17 |