Last modified: 2024-06-18 12:32:12
Time | Paper ID | Title / Authors | Keywords | Topic code | Ack. number |
---|---|---|---|---|---|
5. Chemical reaction engineering | |||||
Organized Session (CVD Reactions Section, Division of Chemical Reaction Engineering) | |||||
(9:00–10:00) (Chair: | |||||
F201 | Reaction Rate Equation Determination of Chemical Vapor Deposited Bismuth-based Perovskite Thin Film | Chemical vapor deposition Methylammonium bismuth iodide Perovskite solar cell | 5-h | 686 | |
F202 | Evaluation of Reactive sputtered MAX alloy thin films with reducing gas | sputtering MAX-phase | 5-h | 787 | |
F203 | Rate analysis of carbon CVD from hydrocarbons with different degrees of unsaturation | CVD carbon coking | 5-h | 785 | |
(10:00–11:00) (Chair: | |||||
F204 | Exploring the large-area graphene CVD conditions by machine learning assisted image analysis | Graphene Chemical vapor deposition Machine learning | 5-i | 302 | |
F205 | Stable and continuous synthesis of carbon nanotubes by floating catalyst CVD with fluid mixing control | carbon nanotube chemical vapor deposition continuous process | 5-h | 225 | |
F206 | Reduction of reaction mechanism of SiC-CVI | SiC-CVI CH3SiCl3 Reduced model | 5-h | 562 | |
(11:00–12:00) (Chair: | |||||
F207 | Research on improving uniformity in furnace and high speed SiC infiltration in the production of SiC-CMC using Chemical Vapor Infiltration method. | SiC CVI CVD | 5-h | 233 | |
F208 | Exploration of exhaust gas reforming conditions to improve yield and reduce by-product formation in SiC-CVI with high MTS partial pressure | CVI SiC Recycling | 5-h | 633 | |
F209 | Strategy for CVI process development in SiCf/SiC-CMC production | CVI SiC Process design | 5-h | 634 | |
(13:20–14:20) (Chair: | |||||
F214 | Influence of binder added zeolite catalyst on hydrotreating of vegetable oil | binder vegetable oil zeolite | 5-a | 628 | |
F215 | Saccharification of Cellulose by Using Mesoporous Carbons | Mesoporous carbon Saccharification Cellulose | 5-a | 671 | |
F216 | Reactive extraction process of lignin under hydrothermal condition: a use of slug flow of qater/organic biphasic system | vanilin slug flow hydrothermal reaction | 5-d | 714 | |
(14:20–14:40) (Chair: | |||||
F217 | [The SCEJ Award for Outstanding Young Researcher] Mechanistic understanding of catalytic reaction utilizing automated flow reactor systems | The SCEJ Award for Outstanding Young Researcher | 0-c | 745 | |
(15:00–16:00) (Chair: | |||||
F219 | Polymer immobilization catalysts using machine learning methods | Polymer Immobilized Catalyst Machine Learning Pd | 5-f | 717 | |
F220 | Kinetic analysis of Claisen rearrangement using near-infrared spectroscopy and transient flow method | automated flow reactor NIR kinetic analysis | 5-f | 136 | |
F221 | Evaluation of the mass transfer model and analysis of the error causes for the Taylor flow reactor with hydrogenation reaction | Taylor flow Gas-Liquid reaction Mass transfer | 5-f | 406 | |
(16:00–17:00) (Chair: | |||||
F222 | Oxygen Transport Analysis in Meso Pores of Carbon Support for Polymer Electrolyte Fuel Cells by Reactive Molecular Dynamics Method | Polymer Electrolyte Fuel Cell Catalyst Layer Reactive Molecular Dynamics Method | 5-a | 52 | |
F223 | Graphical Analysis of Infinite Number of First-order Parallel Reactions | Kinetic analysis DAEM Activation energy | 5-i | 307 | |
F224 | Modeling of Autocatalytic Reaction by Cylindrical Particle with Finite Length | cylindrical particle with finite length autocatalytic reaction reaction-diffusion equation | 5-i | 98 |
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SCEJ 89th Annual Meeting (Sakai, 2024)