Last modified: 2023-05-16 19:47:30
In this symposium, we call for lectures on energy devices and related energy conversion technologies such as fuel cell, solar cell, secondary battery, etc.. We have a special lecture time to discuss technolgy development of cells and energy conversion systems after FIT graduation. In addition to oral presentations, poster presentations are also welcomed for those who want to discuss thoroughly. In the poster presentation category, excellent presentations by students and young researchers will be awarded.
Time | Paper ID | Title / Authors | Keywords | Topic code | Ack. number |
---|---|---|---|---|---|
Hall L, Day 1 | |||||
(9:20–10:20) (Chair: | |||||
L102 | Energy Assessment on Supply Chain of Renewable Hydrogen | FIT Graduation Photovoltaic Water Electrolysis Hydrogen | ST-23 | 192 | |
L103 | Technology assessment for renewable energy sources considering environmental and technoeconomic aspects: A case study of battery-assisted hydrogen production | Electrolysis System design LCA(Life cycle assessment) | ST-23 | 536 | |
L104 | Providing dispatchable power using variable renewable energy with thermal energy storage: Life cycle assessment of wind powered thermal energy system in paper mills all over Japan | Greenhouse gas emission Dispatchable power source Paper production | ST-23 | 622 | |
Break | |||||
(10:40–12:00) (Chair: | |||||
L106 | Design of a distributed hydrogen energy storage system with solar cells considering waste heat utilization of fuel cells | energy system fuel cell hydrogen | ST-23 | 818 | |
L107 | [Invited lecture] Utilization of Residential Photovoltaic and Battery | Residential photovoltaic After FIT Battery for VPP | ST-23 | 114 | |
(13:00–14:20) (Chair: | |||||
L113 | [Invited lecture] Development of PEM Water Electrolysis | Water Electrolysis Hydrogen Renewable Energy | ST-23 | 115 | |
L116 | A Study on Potential of Home energy systems for accelerating renewable energy deployment | Home Energy Simulation Energy Conservation | ST-23 | 70 | |
Hall L, Day 2 | |||||
(9:00–10:40) (Chair: | |||||
L201 | Enhanced Electrocatalytic Activity of an Iron-based Electrocatalyst for Oxygen Evolution in Alkaline Water Splitting | oxygen evolution reaction density functional theory alkaline water splitting | ST-23 | 203 | |
L202 | Reaction controle on the counter electrode in the seawater electrolysis for hydrogen generation. | Seawater electrolysis Hydorogen generation Chlorine | ST-23 | 286 | |
L203 | Structure control of connected Ir-Ru nanoparticle catalysts for polymer electrolyte water electrolysis | Polymer electrolyte water electrolysis Connected nanoparticle catalysts Carbon free catalysts | ST-23 | 398 | |
L204 | Multi-scale pore morphologies of a compressed gas diffusion layer for polymer electrolyte fuel cells | Polymer Electrolyte Fuel Cells Gas Diffusion Layer Compression | ST-23 | 33 | |
L205 | Visualization of liquid water in hydrophobic materials by synchrotron X-ray nano CT | Polymer Electrolyte Fuel Cells Gas Diffusion Layer Microporous layer | ST-23 | 65 | |
(10:40–12:00) (Chair: | |||||
L206 | Connected Platinum-Iron Catalysts with Superlattice Structures as Durable Oxygen Reduction Electrocatalysts for PEFCs | Polymer Electrolyte Fuel Cell Chemically Ordered Structure Load Cycle Durability | ST-23 | 872 | |
L207 | The Effect of One-pass Conversion and Flow Pattern on Polymer Electrolyte Fuel Cell System with Hydrogen Circulation | polymer electrolyte fuel cell flow pattern one-pass conversion | ST-23 | 383 | |
L208 | Determination method of dimensionless moduli of PEFC from dependency of cathode catalyst layer thickness | polymer electrolyte fuel cell analysis method dimensionless moduli | ST-23 | 387 | |
L209 | Temperature and relative humidity dependencies of oxygen reduction reaction rate in PEFC measured by using ionomer-free thin layer electrode | polymer electrolyte fuel cell oxygen reduction reaction platinum-sputtered electrode | ST-23 | 411 | |
(13:00–15:20) (Chair: | |||||
L213 | Effects of temperature and pressure on relative humidity distribution in PEFC | polymer electrolyte fuel cell high temperature and pressure water permeation | ST-23 | 840 | |
L214 | Research and Development of Scalable Isolated Fuel Cells | polymer electrolyte fuel cell Electrolysis | ST-23 | 794 | |
L215 | [Invited lecture] Challenges to Governmental Support for R&D on FCV beyond 2030 | Polymer electrolyte fuel cell Fuel cell vehicle | ST-23 | 396 | |
L216 | [Invited lecture] Toward the Future Fuel Cell - Challenge for 2030/2040 - | Polymer electrolyte fuel cell Fuel cell vehicle | ST-23 | 406 | |
L217 | [Invited lecture] FCV R&D Strategy for 2030 /2040 Target | Polymer electrolyte fuel cell Fuel cell vehicle | ST-23 | 408 | |
L219 | [Invited lecture] Questions to Answers | Polymer electrolyte fuel cell Fuel cell vehicle | ST-23 | 410 | |
Hall L, Day 3 | |||||
(9:00–10:20) (Chair: | |||||
L301 | Effect of bilayer electrolyte on performance of protonic ceramic fuel cells with BaZr0.8Y0.2O3-δ and BaZr0.1Ce0.7Y0.1Yb0.1O3-δ electrolytes | Solid oxide fuel cell Bilayer electrolyte Proton conduction | ST-23 | 450 | |
L302 | Direct carbon dioxide methanation in a calcium looping process using Ni-CaO-Y doped BaZrO3 | CCU Ca looping Methanation | ST-23 | 756 | |
L303 | Proposal of the model of comprehensive anode reaction in solid oxide fuel cell / electrolysis cell and constructing the method of multivariable fitting | Solid Oxide Fuel Cell Kinetics modeling Langmuir-Hinshelwood | ST-23 | 103 | |
L304 | Effect of Ion Conductive Oxide for Direct Carbon Nanotube Growth in the Solid Oxide Fuel Cell | Solid oxide fuel cell Carbon nanotube oxide ion conductor | ST-23 | 573 | |
Break | |||||
(10:40–12:00) (Chair: | |||||
L306 | Potential behavior just after fuel supply of liquid fuel direct supply solid oxide fuel cell and evaluation of its electrode activity with modeling | SOFC solid oxide fuel cell | ST-23 | 757 | |
L307 | Effect of the properties of the diffusion layer on the power generation characteristics of the direct formic acid fuel cell | DFAFC Mass transport Porous Electrode | ST-23 | 683 | |
L308 | Synthesis of C/Fe3O4 composite microspheres prepared by spray pyrolysis and their application to energy storage devices | C/Fe3O4 composite microspheres Spray pyrolysis Energy storage devices | ST-23 | 423 | |
L309 | Synthesis of bio-based latent heat storage material with melting temperature suitable for environmental temperature | fatty acid ester latent heat storage bio-based | ST-23 | 766 | |
(13:00–15:00) (Chair: | |||||
L313 | Microwave synthesis of NMC811 cathode materials for Li-ion batteries | Microwave cathode material Lithium-ion battery | ST-23 | 68 | |
L314 | Analysis of Formation Behavior of NMC Cathode Material for Li-ion Batteries under Different Oxygen Cocentrations | Formation Behavior NMC Cathode Material Oxygen Concentrations | ST-23 | 188 | |
L315 | Electrochemical performance of sulfur-based lithium batteries with free-standing SiO2/C composite nanofiber mat as interlayer | Multi-functional interlayer Sulfur-based cathode lithium batteries | ST-23 | 407 | |
L316 | Charge-discharge characteristics of carbon-air secondary battery system using Ni/GDC and Ni/YSZ fuel electrode | Solid oxide fuel cell Secondary battery Electrolysis | ST-23 | 60 | |
L317 | Carbon electrode with a uniform diameter of consecutive macropores for redox flow batteries | Redox flow battery Carbon porous electrode Macropore | ST-23 | 118 | |
L318 | Effect of Particle Dispersion Condition in Electrode Layer on Cell Performance of All-Solid-State Batteries | All-solid state battery Numerical simulation particle dispersion | ST-23 | 890 |
Technical program
Technical sessions (Wide)
(For narrow screen)
Session programs
Search in technical program
SCEJ 51st Autumn Meeting (2020)