
| Time | Paper ID | Title / Authors | Keywords | Topic code | Ack. number |
|---|---|---|---|---|---|
| Energy engineering, Electronics | |||||
| H01 | Enhanced Congo Red Degradation via Interlayer Redox Reactions of Layered MnO2 under Light Irradiation | Congo Red Degradation Light Irradiation Layered Manganese Oxide | 11-b | 8 | |
| H02 | The optimal light-collecting shape. | light-collecting shape solar cell current and voltage | 9-f | 154 | |
| H03 | Evaluation of voltage sensitivity in quantum dots for voltage-sensitive nanoprobes | quantum dot quantum-confined stark effect nanoprobe | 12-c | 186 | |
| H04 | Conditions for the formation-disapperance reactions of metals during electrolysis | proportion electrolysis tempereture | 11-a | 238 | |
| H05 | Capacitor Characterization of Layered Manganese Oxide Films Adsorbed with Acid Red 18 | Acid red 18 Layered manganese oxide Electrochemical Capacitance | 12-a | 6 | |
| H06 | Dye-sensitized solar cells using common vegetable extracts | DSSC | 13-f | 29 | |
| Break | |||||
| Energy engineering, Electronics | |||||
| H08 | Study on Charge-Discharge Control Methods for Lithium-Ion Capacitors | Lithium-Ion Capacitors DC-DC converter LTspice Simulation | 9-e | 74 | |
| H09 | The Improvement of Aluminum-air Batteries for Longer-lasting (Nishinomiya Municipal Nishinomiya H.S) *Kuratani T., | air batteries aluminum | 11-a | 281 | |
| H10 | Hydrogen generation at a Pt cathode and the effect of light dependence in a layered MnO2 anode with intercalated Ru complex | Layered MnO2 Visible-Light Irradiation Hydrogen generation | 9-a | 4 | |
| H11 | Attempt to create a new type of storage battery using iodine ions | Iodine MOF Batteries | 9-f | 244 | |
| H12 | Charge–Discharge and EIS Analysis of Aqueous Batteries Employing Layered MnO2 with Interlayer Co Complexes | Aqueous Battery Layered MnO2 Electrochemical Impedance Spectroscopy | 11-a | 9 | |
| H13 | Development of a Novel Electrolyte for Rechargeable Aluminum–Air Batteries | aluminum-air battery electrolyte rechargeable | 11-a | 64 | |
| Lunch break | |||||
| Energy engineering, Electronics | |||||
| H20 | Effects of citrus molasses componets on dye-sensitized solar cells | DSSC citrus molasses solar cells | 11-a | 152 | |
| H21 | Effect of monosodium glutamate on iron elution-development of blue carbon technology | MSG slag sea | 5-g | 158 | |
| H22 | Elucidation of Charge Compensation Mechanism in Layered MnO2 Capacitors Using Electrochemical Impedance Spectroscopy (EIS) | Manganese oxide capacitor Electrochemical impedance spectroscopy Charge compensation mechanism | 11-a | 5 | |
| H23 | Construction and voltage measurement of a flow-type direct hydrogen water fuel cell | direct hydrogen water fuel cell dissolved hydrogen reductive fine bubble chemistry | 9-a | 174 | |
| H24 | Development of Phase Change Material Based on Solid-Solid Phase Transition | Phase Change Material Solid-Solid Phase Transition Pentaerythritol | 9-b | 85 | |
| H25 | Electrochemical reduction of carbon dioxide with Cu nanoparticle | CO2RR Cu nanoparticle Crystal structure | 12-k | 127 | |
| Break | |||||
| Energy engineering, Electronics | |||||
| H27 | A three-pronged approach to practical application of gel-air batteries | Gel Magnesium-Air Battery Gel Aluminum-Air Battery Magnesium Gallium Alloy | 11-a | 144 | |
| H28 | Recovery of Active Material from Lithium-ion Battery Cathode Films Using Liquid-Liquid Classification | Liquid-Liquid Classification Lithium-ion Battery Recycling Particle Separation | 13-e | 68 | |
| H29 | Attempts to elucidate the mechanism of slime solar cells! | solar cells slime Titanium dioxide | 11-a | 106 | |
| H30 | Development of Electrode Catalysts for Green Hydrogen Production Processes (Shibaura Inst. Tech. or Saitama Inst. Tech. or Shonan Inst. Tech.) *Tomizuka Taichi, | Electrode catalysts Sulfur dioxide Hydrogen production | 5-a | 51 | |
| H31 | Prototype Development of a Maximum Power Point Tracking Control Circuit for Solar Cells and Evaluation of Its Tracing Performance | Maximum Power Point Tracking Control Solar Cells Tracking Performance | 9-e | 114 | |
| H32 | Fundamental Evaluation of Power Generation Performance of Microbial Fuel Cells Using Sugar-Amended Soil | Microorganisms Sugar-Amended Soil Power Generation Performance | 11-a | 49 | |
| H33 | Kinetic contribution of anionic vesicles as templates on the enzymatic reaction of charged substrates | vesicle enzymatic oxidation template effect | 12-k | 250 | |
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