ScholarWorks@SOONCHUNHYANG UNIVERSITY: Lee, YOUNG WOO

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Lee, YOUNG WOO (이영우)

SCH Media Labs (Department of Energy Engineering)

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Oxygen evolution reaction:7||Alkaline water electrolysis:3||Hydrogen evolution reaction:3||Hydroquinone:2||Microsupercapcitors:2||Flexible energy storage device:2||solid polymer electrolyte:2||stability:2||Energy storage system:2||microsupercapacitors:2||hydrogen evolution reaction:2||molybdenum disulfide:2||electric field enhancement:2||Supercapacitor:2||Carbon fiber:2||Redox mediator:2||flexible energy storage device:2||Desalination:2||Correlation between Composition and Structure of PtxNiy Alloy Nanodendrites:1||CsPbBr3 perovskite nanocrystals:1||DC and RF sputtering:1||DFT calculation:1||Dopant:1||Doping:1||Electrical conductivity:1||Electrocatalyst:1||Electrochemical and electrocatalytic reaction characteristics of boronincorporated graphene via a simple spinon dopant process:1||Electrochemical energy storage:1||FDTD simulation:1||Faradaic electrodes:1||Faradaic redox:1||Faradaic redox reaction:1||Faradaic redox reactions:1||Faradaic redoxreaction:1||Fe/N/Sdoped mesoporous carbon nanostructures as electrocatalysts for oxygen reduction reaction in acid medium:1||Ferric oxyhydroxide:1||Ferric oxyhydroxide nanoparticles:1||Fiber:1||Fiberbased supercapacitor:1||Flexible energy storage system:1||Full cell test station:1||Graphene supercapacitor:1||Heteroatom:1||Heterogeneous synthesis:1||High Performance Electrocatalysts Based on Pt Nanoarchitecture for Fuel Cell Applications:1||High valence metal:1||Hydrogen production:1||Hydrolysis:1||Hydrothermal synthesis:1||Ionic conductivity:1||JahnTeller distortion:1||Lattice oxygen mechanism:1||Li metal anode:1||Li transfer kinetics:1||Liion battery:1||LiI:1||LiNi0.5Mn1.5O4:1||LiNi0.6Co0.2Mn0.2O2:1||Longlife lithiumion batteries:1||Mechanical stability:1||Metal organic framework:1||Metalorganic framework:1||MnO2:1||Mo1xWxS2 alloy:1||MoS2:1||MoS2 catalyst:1||Molybdenum oxide:1||Nanoarray:1||Nanohybrids:1||Nanowire:1||NhBN addition:1||NiSO compound:1||Nickel sulfide:1||Operational durability:1||Organic electrode:1||Orientedattachment:1||Oxidative oxygen species:1||Oxygen vacancy:1||PVDFHFP:1||Pd@Pt coreshell nanostructures for improved electrocatalytic activity in methanol oxidation reaction:1||Phosphate adsorption:1||Phtalocyanine:1||Polydopamine:1||Practically high current operation:1||Pseudocapacitance:1||Pseudocapacitor:1||Quantum chain:1||Quantum dot:1||Raney Ni:1||Recycled silicon:1||Recycling of industrial waste:1||Redox mediators:1||Redoxactive:1||Redoxactive materials:1||Reduced binary anion:1||SERS:1||Selfassembly:1||Selfassembly synthesis:1||Silicon:1||Spinel structure:1||Surface functionalizationinduced photoresponse characteristics of monolayer MoS2 for fast flexible photodetectors:1||Sustainable hybrid energy harvester based on air stable quantum dot solar cells and triboelectric nanogenerator:1||Synergistic effects of engineered spinel heterometallic cobaltites on electrochemical pseudocapacitive behaviors:1||Tailored oxygen vacancy:1||Thermodynamically and Physically Stable DendriteFree Li Interface with Layered Boron Nitride Separators:1||TiO2@carbon CoreShell Nanostructure Electrodes for Improved Electrochemical Properties in Alkaline Solution:1||Transition metal chalcogenides:1||Wastewater treatment:1||Water electrolysis:1||allsolidstate batteries:1||allsolidstate lithium metal batteries:1||anion deficient molybdenum trioxide (MoO3X):1||ball milling:1||builtin potential:1||capacitive deionization:1||carbon nanotube:1||carbon nanotube sponges:1||copper sulfide:1||coreshell structure:1||cubic garnet LLZO:1||desalination:1||electrocatalysts:1||energy storage:1||fast photodetectors:1||flexible energy storage system:1||galvanostatic intermittent titration technique:1||graphene composite:1||graphenebased cathode composite:1||growth parameters:1||hot spots:1||hybrid phototransistors:1||hydroquinonebased polymergel electrolyte:1||ionicliquid:1||laserscribing method:1||lead sulfide quantum dots:1||lithium dendrite growth suppression:1||lithium ion battery:1||lithiumair batteries:1||lithiumion transferencenumber:1||lithiumsulfur batteries:1||mass production:1||metal organic framework:1||metaldielectricmetal:1||metalorganic frameworks:1||microsupercapacitors:1||nickelrich:1||onepot CVD synthesis:1||oxygen vacancy:1||phase transition:1||polysulfide adsorption:1||potassium iodide:1||proton exchange membrane fuel cells:1||redox mediator:1||redoxmediated polymer catalyst:1||reduced graphene oxide:1||sharp electrodes:1||sulfurization:1||supercapacitor:1||supersaturation level:1||support material:1||surfaceenhanced Raman spectroscopy:1||titanium suboxide:1||transition metal oxides:1||waterproofed function:1||(FlowElectrode) capacitive deionization:1||zeolitic imidazole framework:1||(Flowelectrode) capacitive deionization:1||2D heterostructure:1||3D graphene:1||3D networks:1||Anion exchange membrane water electrolyzer:1||Au nanoparticles:1||Balancing Charge Carrier Transport in a Quantum Dot PN Junction towards HysteresisFree High Performance Solar Cells:1||Bimetallic MOF:1||Bismuth iron hybridization:1||Carbon nanotubes:1||Catalytic interactions:1||Cathode material:1||Chalcogenide solutionmediated activationprotocol for scalable and ultrafast synthesis ofsinglecrystalline 1D copper sulfide forsupercapacitors:1||Charge delocalization:1||Charge transfer kinetics:1||Co9S8:1||Coreshell heterostructure:1||

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