
Last modified: 2026-07-16 06:38:20
| Time | Paper ID | Title / Authors | Keywords | Topic code | Ack. number | ||
|---|---|---|---|---|---|---|---|
| Hall A, Prev. Day | |||||||
| SP-1 [Special Symposium] Action Plan 2050 Toward Carbon Neutrality Based on Chemical Engineering | |||||||
| (13:00–17:00) | |||||||
| A011 | Carbon Independence Vision 5.0: Circular Transformation from Hard-to-Abate Industries | carbon cycling gap analyses promotion system | SP-1 | 965 | |||
| A013 | [Invited lecture] Hiroshima Prefecture's Pathway to Carbon Neutrality | Hiroshima Prefecture Carbon Recycling R&D Support | SP-1 | 966 | |||
| A015 | [Invited lecture] GX Policy Trend and Development ~Vision & Execution~ | GX=Carbon Neutral/Growth Strategy/Energy Security GX Chemicals | SP-1 | 967 | |||
| Break | |||||||
| A018 | [Invited lecture] Mitsui Chemicals' Initiatives Toward Creating the Green Sustainable Chemicals Market | Green Sustainable Chemicals Renewable plastics Blue Value products | SP-1 | 968 | |||
| Panel discussion Facilitator: Panelists: | |||||||
| Closing remarks | |||||||
| Hall A, Day 1 | |||||||
| ST-21 [Trans-Division Symposium] Frontiers of Data-driven Research and Development | |||||||
| (10:00–11:20) | |||||||
| A104 | Development of a Machine Learning Model for Predicting Solubility in Binary Solvent Systems at Arbitrary Temperatures | Chemoinformatics Solubility prediction Machine learning | ST-21 | 104 | |||
| A105 | A data-driven framework for identifying critical solvent parameters in hydrogenation reactions | Machine learning Hydrogenation Solvent effect | ST-21 | 778 | |||
| A106 | Optimal Design of e-Methanol Production Process Using Machine Learning and Superstructure Optimization | e-methanol Machine learning Process design | ST-21 | 301 | |||
| A107 | Verification and Evaluation of Large Language Models for Supporting Chemical Process Design | Large Language Models Chemical Process Benchmark | ST-21 | 481 | |||
| (11:20–12:00) | |||||||
| A108 | [Invited lecture] Hybrid modeling for connecting experimental data with process design | hybrid modeling pharmaceutical manufacturing design space | ST-21 | 920 | |||
| (13:00–13:40) | |||||||
| A113 | [Invited lecture] The Frontline of AI and Autonomous Experimentation for Winning the Competition | AI agent Autonomous experiment Materials informatics | ST-21 | 921 | |||
| (13:40–15:00) | |||||||
| A115 | Sequential Processing of Long Texts Using Large Language Models for Literature Mining of Endothelial Cell Culture Protocols | LLM Text mining Endothelial cell | ST-21 | 791 | |||
| A116 | Construction of machine learning models for predicting in vivo responses of artificial bone materials using in vitro indicators | artificial bone in vivo in vitro | ST-21 | 112 | |||
| A117 | Construction of a miRNA-mRNA Binding Prediction Model Using Unknown Interaction Data and Performance Evaluation with Non-binding Data | Machine Learning bioinformatics RNA | ST-21 | 305 | |||
| A118 | Development of an instability analysis for freezing process changes in cell-based products | Instability analysis Freezing process change Cell-based product | ST-21 | 578 | |||
| (15:20–16:40) | |||||||
| A120 | Automated MOF Synthesis Using a Robotic Arm and an Electric Pipette | Metal-organic framework Laboratory automation Particle size control | ST-21 | 450 | |||
| A121 | Advancing Chemical Engineering Research through an Integrated AI Platform | AI Cheminformatics Optimization | ST-21 | 635 | |||
| A122 | Development and evaluation using novel chemical feature-augmented GNN | machine learning molecular graph coarse graph | ST-21 | 754 | |||
| A123 | Fast estimation of H+ conductive barriers in perovskite oxides using the bond valence approach with machine learning | H+ conductive oxides Machine learning Solid oxide fuel cell | ST-21 | 474 | |||
| Hall A, Day 2 | |||||||
| (10:00–11:00) | |||||||
| A204 | Machine learning-based extrapolative prediction of dual-functional materials for CO and CH4 production via CO2 capture and reduction | CO2 capture and reduction (CCR) dual-functional materials (DFMs) machine learning (ML) | ST-21 | 264 | |||
| A205 | Development of a data-driven model for estimation of reaction diffusion mechanisms in porous solid catalysts | Reaction mechanism Reaction-diffusion system Data-driven | ST-21 | 909 | |||
| A206 | Integrating DFT Reaction Kinetics with Group Contribution-Based Environmental Impacts for Sustainable Solvent Selection | Density functional theory (DFT) Solvents screening Reaction rates | ST-21 | 326 | |||
| (11:00–12:00) | |||||||
| A207 | Data-Driven Research in MMA Production Catalyst Development: Utilization of HTS Data Based on Reaction Engineering | high throughput kinetics catalyst deactivation | ST-21 | 850 | |||
| A208 | Quantifying propagation distance of structural information in crystals | zeolite intergrowths crystal growth simulation | ST-21 | 462 | |||
| A209 | The relationship between entropy production governing crystal growth and information entropy identifying pattern formation | entropy production information entropy crystal growth | ST-21 | 389 | |||
| Hall A, Day 3 | |||||||
HQ-13 Symposium of the Working Committee on CCUS
| |||||||
| (9:00–10:20) | |||||||
| A301 | Estimation of amine solvent degradation and operating condition exploration using reduced chemical reaction models | CCS Degradation Bayesian optimization | HQ-13 | 121 | |||
| A302 | Structural analysis of monocarbamic acid formed during CO2 absorption process of isophorone diamine | direct air capture liquid-solid phase separation isophorone diamine | HQ-13 | 848 | |||
| A303 | Evaluation of operating conditions and CO2 capture performance in a 1t/y DAC pilot plant utilizing unused cryogenic | direct air capture process simulation modeling | HQ-13 | 398 | |||
| A304 | Solvent-Free Direct CO2 Capture from Air Using a Blowing-Type Device | Direct Air Capture Solvent-free System Blowing-type Device | HQ-13 | 633 | |||
| Break | |||||||
| (10:40–12:00) | |||||||
| A306 | Enhanced Oil Recovery Methods Using Thermodynamic Flooding through Active Fluids | active fluids Liquid-Liquid Phase Separation Enhanced Oil Recovery | HQ-13 | 464 | |||
| A307 | Continuous CO2 capture and steady-state syngas production using a particle circulation system with a dual-function material | dual-function materials CO2 capture and utilization moving-bed reactor | HQ-13 | 178 | |||
| A308 | [Invited lecture] From CO2 to Methanol : Development Toward the Commercialization of g-MethanolTM Technology | Green Methanol Carbon Neutral Energy Security | HQ-13 | 428 | |||
| (13:00–14:20) | |||||||
| A313 | [Invited lecture] Production of Liquid Synthetic Fuels through an Integrated Process Utilizing SOEC Co-Electrolysis and FT Synthesis | Synthetic fuel production SOEC Co-Electrolysis FT synthesis | HQ-13 | 429 | |||
| A315 | Evaluation of CO2 emissions in CO2 capture process using solid absorbents | Life cycle assessment (LCA) Carbon capture Solid CO2 absorbent | HQ-13 | 540 | |||
| A316 | Adsorption-Desorption Dynamics of Zeolite-Coated Adsorbent Layers in Conductive Heating CO2-TSA Process | TSA Zeolite Heat exchanger | HQ-13 | 433 | |||
| Break | |||||||
| (14:40–15:40) | |||||||
| A318 | Synthesis and characterization of zeolitic adsorbents derived from bentonite for CO2 capture | Zeolitic adsorbent Bentonite CO2 adsorption | HQ-13 | 652 | |||
| A319 | Investigation of a CO2 capture method by electrochemical hydrogen pumping | fuel cell electrodialysis electrochemical hydrogen pumping | HQ-13 | 138 | |||
| A320 | Effects of pore structure on carbonation of cement paste blended with blast furnace slag | CO2-absorbing concrete Blast furnace slag Pore structure | HQ-13 | 221 | |||
| (15:40–16:20) | |||||||
| A321 | [Invited lecture] | TBA | HQ-13 | 430 | |||
| Awards ceremony | |||||||
Technical program
Technical sessions (Wide)
(For narrow screen)
Session programs
Search in technical program
SCEJ 57th Autumn Meeting (Higashihiroshima, 2026)
© 2026 The Society of Chemical Engineers, Japan. All rights reserved.
www4.scej.org