ScholarWorks@Dongguk University: Yang, Woo chul

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Yang, Woo chul (양우철)

College of Natural Science (Department of Physics)

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Tel 02-2260-3444
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Luminescence:9||Graphene:8||Density functional theory:7||gC3N4:7||MoS2:7||Photocatalyst:5||Photocatalysis:4||Gas sensor:4||Superhydrophobic surface:4||Tetracycline hydrochloride:4||Photoluminescence:4||chemical vapor deposition:4||Photocatalytic degradation:3||Molybdenum disulfide:3||electronic structure:3||Factin:3||photocatalysis:3||Heterojunction:3||dendritefree:3||VUV:2||Vacuum membrane distillation:2||BiVO4:2||Oxynitride:2||Liquid metal:2||Graphitic carbon nitride:2||Perovskite oxide:2||Liquidphase exfoliation:2||Nanocomposite:2||Exciton:2||Work function:2||Low temperature:2||Electrochemical active surface area:2||Chemical vapor deposition:2||Zn metal anode:2||Nanosheet:2||Electrochemical induction:2||ZnO:2||Electrochemical sensor:2||ferromagnetism:2||ZnO nanorods:2||Neuroblastoma SHSY5Y cell:2||photoluminescence:2||Bi4O5Br2:2||graphene:2||Dendritefree:2||Cellular elasticity:2||CO2 reduction:2||Humidity sensor:2||Direct contact membrane distillation:2||atomic force microscopy:2||Blue shift:2||Hydrogen adsorption:2||Proton exchange membrane fuel cell:2||Eu2+:2||Force spectroscopy:2||Monolayer graphene:2||Morphology:2||CoNC anchoring:1||Co3O4:1||Co3O4/Bi12O17Cl2:1||CoO/Codoped ZnO heterostructure:1||Cobalt:1||Cobalt oxide:1||Cobaltfree:1||Composite:1||Composite photocatalyst:1||Controlled MXene thickness:1||Coprecipitation & hydrothermal methods:1||Crystal growth & structure:1||Crystallographic texture:1||CsPbBr3 perovskites:1||CuO:1||Defect formation:1||Defect states:1||Dendrite free:1||Density of states:1||Differentiation:1||Direct methanol fuel cell:1||Directional dropletactuation:1||Double exchange:1||Doubleskeleton:1||Draw Agent:1||Durability:1||Dynamic light scattering:1||Edge Site:1||Elastic constants:1||Elasticity anisotropy:1||Electrocatalytic:1||Electrochemical biosensor:1||Electrode process kinetics:1||Electronic Structure:1||Electrospinning:1||Energy level scheme:1||Energy transfer:1||Enhanced MXene stability:1||Ethanol sensor:1||Europium:1||Exfoliation:1||Fe doping:1||Fedoped:1||Ferroelectrics:1||First principle calculation:1||FirstPrinciples Calculation:1||Flat band potential:1||Flexible pH and glucose sensor:1||Flexible zincair battery:1||Floating sheet:1||Flowerlike structure:1||Flue gas desulfurization wastewater:1||Forcedistance curve:1||Formation mechanism:1||Forster resonance energy transfer:1||Forward Osmosis:1||Fruit juices:1||Full maximumentropy mobilityspectrum analysis (FMEMSA):1||Functionalized graphene quantum dots:1||GaInSn alloys:1||GaN:1||GaN nanorod:1||Gallium compounds:1||Gas Sensor:1||Gas sensors:1||Gaseous functionalization approach:1||Glucose:1||Gold:1||Graphitic carbon:1||Graphitic carbon nitride plate:1||Hall effect:1||Heat transfer:1||Heterostructure:1||Hexagonal boron nitride:1||High capacity:1||High performance:1||Highly active crystal plane:1||Hull design:1||Human bone marrow mesenchymal stem cell:1||Human fluids:1||Humidity Sensor:1||Hydride vapor phase epitaxy:1||Hydrogen Generation:1||Hydrogenation:1||Hydrophobicity:1||Hydrothermal synthesis:1||IV characteristics:1||IIInitride:1||In2O3/ZnSnO3:1||InGaN/GaN quantum disk:1||Indiumdoped Zno:1||Inert gas calcination:1||Instability:1||Integrin:1||Ion implantation:1||Ion transport:1||Iron oxide:1||Isopropanol sensing:1||Janus MA(2)Z(4):1||Kelvin force probe microscopy:1||Kelvin probe force microscopy (KPFM):1||Kinetic parameter:1||Laser irradiation:1||Lead Zirconate Titanate (PZT):1||Li ion batteries:1||Liintercalated:1||LiB (001):1||Liquid Exfoliation:1||Liquid exfoliation:1||Liquid phase exfoliation:1||Localized surface plasmon resonance effect:1||LowPt loading:1||Lower electronegativity functional groups:1||MOFderived carbon tube:1||Machine learning:1||Magnetic clusters:1||Magnetic nanoparticle:1||Magnetic separation:1||Magnetization:1||Manganese:1||Manganese oxide:1||Manganeseoxide (Mn3O4) nanoparticles:1||Mass transport:1||Mass transport resistance:1||Maximumentropy mobilityspectrum analysis (MEMSA):1||Membrane electrode assembly:1||Membrane fouling:1||Membrane hardness:1||Membrane stiffness:1||Metal–organic framework:1||Metal oxide:1||Metal scheme:1||Metalsemiconductor contact:1||Methanol:1||Methanol oxidation reaction:1||Micronano structure:1||Micro/nanowires:1||Microspheres:1||Mnadsorption:1||Mndecorated:1||Mndoped:1||MoO3:1||MoO3 nanosheets:1||MoS2 Monolayer:1||MoS2 Nanosheets:1||Mobility spectrum analysis:1||Mobilityspectrum analysis (MSA):1||Modification strategies:1||Moisture resistance:1||Molecular beam cpitaxy:1||Molecular dynamics:1||Molybdenum diselenide:1||Molybdenum disulfide (MoS2):1||Monodisperse:1||Monolayer:1||Mulliken overlap populations:1||NGNDs/Ag/BiVO4:1||Nisopropyl Acrylamide:1||NCDs:1||NO removal:1||Nanocomposites:1||Nanocubes:1||Nanofiber microstructure:1||Nanoflakes:1||Nanofluids:1||Nanoparticles:1||Nanorods:1||Nanostructure:1||Near infrared light:1||Nickelrich:1||Nitrides:1||Nitrogen dioxide gas:1||Nitrogendoped carbon nanospheres:1||Nonenzymatic glucose detection:1||Nucleation:1||OER:1||ORR:1||ORR/OER:1||Ohmic contact:1||Optical materials:1||Optical waveguide:1||Organic semiconductor molecules:1||Orientedde positions:1||Oxygen Evolving:1||Oxygen adsorption:1||Oxygen reduction reaction:1||Oxygen vacancy:1||Ptype SiC:1||PEM:1||Phosphate:1||Phosphors:1||Photoenhanced electrocatalyst:1||Photocatalytic CO 2 conversion:1||Photocatalytic CO<sub>2</sub> conversion:1||PhotocatalyticCO2 reduction:1||Photocurrent transient measurement:1||Photodegradation:1||Photogenerated carriers:1||Plasma treatment:1||Plasmaassisted molecular beam epitaxy:1||Plasmaenhanced chemical vapor deposition:1||Plasmodium berghei:1||Platinum foil:1||PolarityPattern:1||Polarized small angle neutron scattering:1||Poly(methyl methacrylate):1||Polymer:1||Polyurethane sponges:1||Polyvinyl alcohol:1||Porogen:1||Porous separator:1||Potassiumion batteries:1||Power density:1||Precursor:1||Proton irradiation:1||Protonation:1||Pt catalyst:1||PtNi alloy:1||Pulse electrodeposition:1||Pulsed laser deposition:1||Quantum confined Stark Effect:1||Quantum dots selfdecoration:1||Quantum wells:1||Quenching:1||Raman:1||Rapid thermal annealing:1||Rareearth:1||Rareearth ions:1||Rechargeable Znair battery:1||Rechargeable fuel cell:1||Reduced graphene hydrogel:1||Reduced graphene oxide:1||Reduced graphene oxide (rGO):1||Replacement reaction:1||Response:1||Reversibility:1||Reversible metal electrode:1||RhodamineB:1||RhodamineB elimination:1||Ripple:1||RuO2IrO2 Catalyst:1||SILAR method:1||SPIP:1||Selective area growth:1||Selfassembly:1||Semiconducting IIIV materials:1||Semiconducting metal oxide:1||Sensing layer:1||SiInZnO:1||SiC:1||Silver nanostructure:1||Silver nanowires:1||Single crystal:1||Singlelayer:1||Singlewalled carbon nanotube:1||Size effect:1||Skin layer:1||SnFe2O4:1||Sodium Acrylate:1||Softening pretreatment:1||Solvothermal:1||Solvothermal synthesis:1||Spin canting:1||Staggered pn heterojunction:1||Strain:1||Strawsheaflike Co3O4:1||Stress:1||Stressstrain relationships:1||Stretchable gas sensors:1||Strontium aluminate:1||Substrate:1||Sulfurvacancy:1||Sunlight:1||Superhydrophobic sharkfinlike structure:1||Superoxide radical:1||Superoxide radical evolution:1||Surface coverage:1||Surface plasmon resonance:1||Synthesis method:1||Temperature pulse:1||Ternary photocatalyst:1||Ternarysolvent strategy:1||Thermal quenching:1||Thermosensitive Hydrogel:1||Thickness control:1||Thin film:1||Thin films:1||Thinfilm transistors:1||Tidecoration:1||Tidoped:1||TiO2 nanorod array:1||Trace NO2 sensing:1||Transition metal dichalcogenides:1||Triethylamine sensor:1||Trion:1||Twodimensional materials:1||Ultrasonic power:1||Uniaxial pn junction nanorod:1||Upconversion effect:1||Variablemagneticfield Hall measurement:1||Visiblelightdriven:1||Volatile Solvents:1||Volatile organic compounds:1||WO3:1||Water oxidation:1||Water reclamation:1||Wearable fuel cell:1||Work Function:1||Working mode:1||Zscheme:1||Zscheme Bi3O4Cl:1||Zscheme heterojunction:1||Zinc metal anode:1||Zincair battery:1||Zincion hybrid capacitors:1||Zirconiumbased phosphate:1||Zirfon type:1||Znair batteries:1||Znair battery:1||Znmetal anode:1||ZnO nanopetal:1||ZnO nanostructures:1||ZnO/pSi heterojunction:1||ZnS passivation layer:1||ZnSe alloy:1||Zrdecoration:1||active sites:1||adsorption energy:1||amorphous carbon:1||anode materials:1||anticorrosion:1||aqueous secondary batteries:1||band gap:1||betaFeOOH Nanorods:1||betaNaYF4:1||bifunctional air electrode:1||bilayers:1||borazine:1||boron and phosphorus removals:1||bound magnetic polaron:1||breast cancer:1||buffer layer:1||carbonization:1||cell imaging:1||cervix cancer:1||charge carrier concentration:1||charge transfer:1||chemical inertness:1||clusters:1||composite:1||conformal contact:1||controllable thickness:1||coreshell structure:1||deep level transient spectroscopy:1||defect:1||defect density:1||deformability:1||density Functional theory:1||density functional theory:1||detection:1||distribution mechanism:1||drivein diffusion:1||electrocatalyst:1||electrode process kinetics:1||ethanol:1||fabric gas sensors:1||ferroelectric substrate:1||fibershaped battery:1||firstprinciple calculation:1||gas sensing:1||gas sensor:1||gas sensors:1||glass transition temperature:1||green luminescent material:1||growth mechanism:1||heterojunction:1||hexagonal boron nitride:1||high charge density:1||highthroughput identification:1||hydrazine:1||hydrogen evolution reaction:1||hydrothermal method:1||interface:1||intramolecular:1||ionic liquid gating:1||light harvesting:1||liquid metals:1||lowtemperature batteries:1||luminescent solar concentrator:1||lung cancer:1||malaria:1||mechanism:1||melanin content:1||microemulsioncarbonization method:1||mobility spectrum analysis:1||modified Czochralski method:1||molecular beam epitaxy:1||multidimensional nanostructures:1||multiple anticountelfeiting:1||multiple gases:1||nMoS2:1||nanocubes:1||nanotube:1||nanowires:1||nematic liquid crystal:1||niobium selenide:1||nitrogendoped carbon:1||nucleation assistor:1||onedimensional single chain:1||optical properties:1||organic fluorophore:1||organic pollutant:1||orthorhombic alphaMoO3:Te:1||oxygen vacancy:1||pGaN:1||pdoping:1||pn junction UV illuminations:1||ptype doping:1||pH:1||palladiumdecorated ZnO nano rods:1||perchlorate:1||photocatalytic degradation:1||photocurrent:1||photodetector:1||photosensor:1||photovoltaic effect:1||platinum foil:1||polarity control:1||polymer matrix:1||polymer residue:1||precursors:1||pseudoAlInGaN barrier:1||quantum dots:1||recovery time:1||red blood cells:1||reduced graphene hydrogel:1||reduction:1||refined Si separation:1||response:1||reversible metal/polymer heterostructure:1||ringopening reaction:1||rolled structure:1||room temperature:1||roomtemperature ferromagnetism:1||scrolled MoS2:1||selfassembling nanostructures:1||selfhealing:1||semiconductive nanoporous ZnMnO:1||semiconductor:1||silver nanowires:1||smart ZnS@C filler:1||solid electrolyte:1||solidstate lightemitting devices:1||solidstate lithiumion batteries:1||stiffness:1||strain endurance:1||stretchable gas sensors:1||surface acoustic waves:1||surface effects:1||temperature:1||temperaturedependent minority carrier density:1||thermally stimulated capacitance:1||threedimensional growth:1||transitionmetal dichalcogenides:1||transitionmetal sulfide:1||tungsten disulfide:1||ultraclean interface:1||ultrathin nanoflake:1||unbalanced charge distribution:1||vacancy:1||van der Waals heterostructure:1||viscoelastic polymer support layer:1||visiblelight absorption:1||zincmetal anodes:1||"Bridge" structure:1||zincrich epoxy coating:1||1D structure:1||2Dlike layered structure:1||3Dhierarchical morphology:1||Adhesion strength:1||Adsorption:1||Adsorption energy:1||Ag decoration:1||Aggregation:1||AlSi alloy:1||Aldoped ZnO nanorods:1||Alkali metal:1||Alkaline solidstate electrolyte:1||Alkaline water electrolysis:1||Alumina hollow ceramic membrane:1||Amine group ligand:1||Ammonium sulfide:1||Anionic dye:1||Anisotropic single valley:1||Annealing effect:1||Antifogging:1||Antifouling:1||Antifouling polymer membrane:1||Antifouling:1||Aqueous Znion batteries:1||Aqueous Znion battery:1||Asymmetric supercapacitor:1||Atomic Force Microscopy (AFM):1||Au Nanoparticles (NPs):1||Au deposition:1||Barrier theory:1||BiMOF:1||Bi2O2CO3/In(OH)(3) nanocomposites:1||Bi5O7I heterojunction:1||BiOCl:1||BiVO4/alphaFe2O3:1||Bifunctional oxygen catalytic electrode:1||Bismuth oxybromide:1||Bismuth oxyhalogen:1||BisphenolA:1||Borate:1||C13graphene:1||CSLM:1||CaZnOS:1||Caffeic acid:1||Carbon dots:1||Catalyst layer:1||Catalytic Activity:1||Cathode materials:1||Cationic dye:1||Ce3+:1||Cell differentiation:1||Cell movement:1||Ceramic hollow fiber membrane:1||Chainlike structure:1||Charge carrier separation:1||Chemically stable glucose sensor:1||

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