Last modified: 2020-03-02 11:00:00
Authors field exact matches “Yamaguchi Takeo”; 15 programs are found.
The search results are sorted by the start time.
Time | Paper ID | Title / Authors | Keywords | Topic code | Ack. number |
---|---|---|---|---|---|
Day 1 | PA164 | Connected Pt-Co Catalysts Possessing Chemically Ordered Structures for Improved Oxygen Reduction Performances | Polymer electrolyte fuel cell Carbon free ORR electrocatalyst | 9-e | 776 |
Day 1 | PA168 | Mathematical modeling for Direct Formate Solid Alkaline Fuel Cell considering reaction-diffusion phenomena of fuels. | Direct formate fuel cell Mathematical model Fuel transport | 9-e | 611 |
Day 1 | PA170 | Development of highly durable ether-linkage-free aromatic anion conducting membranes and their application to direct formate solid alkaline fuel cells | Direct formate solid alkaline fuel cell Anion conducting membrane Ether-free aromatic polymer | 9-e | 717 |
Day 1 | L119 | Membrane-based biosensor with efficient molecular recognition in small pore space | porous membrane biosensor immunoassay | 12-m | 708 |
Day 1 | L123 | Development of connected Ir-Ru nanoparticle catalysts for polymer electrolyte water electrolysis | Polymer electrolyte water electrolysis Connected nanoparticle catalysts Carbon free catalysts | 12-d | 587 |
Day 2 | PC236 | Effective enzyme immobilization method on the carbon surface using anthracene dimer | Biofuel cells Enzyme immobilization Suppression of physical adsorption | 12-a | 639 |
Day 2 | PC242 | Development of Composite Electrocatalysts Supported on Metal Oxide for Oxygen Evolution Reaction | Water splitting OER electrocatalyst Carbon free | 12-c | 612 |
Day 2 | PC283 | Improved Oxygen Reduction Performances by Structure Control of Connected Platinum-Iron Catalysts Using the Silica Coating Method for Polymer Electrolyte Fuel Cells | Chemically Ordered Structure Carbon-Free Nanostructured Catalyst | 12-i | 600 |
Day 3 | L301 | Noble Metal- Transition Metal Phosphide Catalysts for Alkaline Water Electrolysis: Oxygen Evolution Reaction | Oxygen Evolution Reaction Electrocatalysts Metal Phosphides | 9-a | 335 |
Day 3 | L302 | Boosted Oxygen Evolution Performance of an Iron-based Electrocatalyst in Alkaline Water Splitting | oxygen evolution reaction iron-based electrocatalyst alkaline water splitting | 9-e | 632 |
Day 3 | L306 | Electrochemical Conversion of Carbonate to Formate: Regenerating fuels for Direct formate fuel cell | Bipolar membrane Fuel Regeneration Formate | 9-a | 616 |
Day 3 | L308 | Catalyst Slurries Prepared Using a Hydrodynamic Cavitation Dispersion Method and Their PEFC Performances | Cavitation Microbubbles Continuous Flow Process Polymer Electrolyte Fuel Cell | 9-e | 701 |
Day 3 | L309 | Chemical durability of MEA using thin pore-filling electrolyte membrane with high-density structure of sulfonic acid groups | polymer electrolyte fuel cells pore-filling membrane chemical durability | 9-e | 643 |
Day 3 | Chair: | ||||
L313 | Investigation of high-efficiency solid oxide fuel cells with bilayer electrolyte | Solid oxide fuel cell Bilayer electrolyte Transport property | 9-e | 659 | |
L314 | 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 | 9-e | 698 | |
L315 | 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 | 9-e | 542 | |
L316 | Development of Intermediate-Temperature Electrolysis Cells Using Solid Phosphate Electrolytes | electrolysis intermediate temperature solid phosphate | 9-e | 437 | |
Day 3 | PE323 | Development of multi-stimuli responsive membrane for membrane chromatography | Membrane chromatography Protein Ion recognition | 4-a | 786 |
Technical program
Technical sessions (Wide)
(For narrow screen)
Session programs
Search in technical program
SCEJ 85th Annual Meeting (2020)