ScholarWorks@SUNGKYUNKWAN UNIVERSITY: KIM, YOUNG DOK

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KIM, YOUNG DOK (김영독)

Science (Chemistry)

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TiO2:21||Atomic layer deposition:14||CO oxidation:13||Photocatalysis:11||Superhydrophobicity:9||Ni:9||PDMS:8||Polydimethylsiloxane:7||Au:6||Carbon fiber:6||Pt:6||XPS:6||CO:5||Chemisorption:5||Mesoporous Al2O3:4||Oxidation:4||Dry reforming of methane:4||SiO2:4||Humidity dependence:4||superhydrophobicity:3||NO oxidation:3||Superhydrophobic:3||Activated carbon:3||chemisorption:3||Adsorption:3||Temperature regulatedchemical vapor deposition (TRCVD):3||Nanostructure:3||Photoemission spectroscopy:3||Heterogeneous catalysis:3||NiO:3||Nickel:3||Toluene oxidation:3||oxidation:3||Atomic layer deposition (ALD):3||Operando DRIFTS:3||Volatile organic compounds:3||Volatile organic compounds (VOCs):3||FeTiO2:3||Catalysis:3||P3HT:2||Manganese:2||Porous structure:2||Electroless plating:2||Electrolysis:2||Nanostructures:2||Mesoporous SiO2:2||Photocatalytic oxidation:2||Carbon dioxide:2||Humidity:2||Synthesis gas:2||Humidity effect:2||Regeneration:2||Mesoporous media:2||Humidity effects:2||Metal:2||oilwater separation:2||Electron beam:2||2<:2||overall water splitting:2||CO2 reforming of CH4:2||Hydrogen fuel cells:2||Nanoparticles:2||Metalorganic frameworks (MOFs):2||Photocatalysis:2||Volatile organic compound:2||/sub>:2||tungsten:2||CO2:2||photocatalysts:2||DBD plasma:2||Organic photovoltaic:2||photoemission spectroscopy:2||Water contact angle:2||polyester (PET):2||Shellcore type nanoparticle:2||polypropylene (PP):2||Water flooding:2||Gas diffusion layer:2||cobalt:2||Silica:2||DRIFTS analysis:2||Dispersion:2||Xray photoelectron spectroscopy:2||Xray photoelectron spectroscopy (XPS):2||Surface basicity:2||Air purification:2||ZnO:2||Coating:2||MgO:2||sub>:2||Iron oxide:2||Mo(110):2||Thin films:2||Thin film:2||Feoxide:2||electrospinning:2||Electrocatalysis:2||MOCVD:2||Solid electrolyte membrane reactor:2||Acetaldehyde:2||Toluene:2||Highenergy ebeam:2||Solid oxide:2||Film thickness:1||Flexibility:1||Formic acid:1||Fuel cells:1||Furfural oxidation reaction:1||Gapromoted Ni/CeO2:1||Gas Permeability:1||Graphenebased devices:1||H2O exposure:1||H2S oxidation:1||Half cell:1||Heterogeneous catalysts:1||Highperforming photocatalyst:1||Honeycomb monolith:1||Humidit:1||Hydrogen:1||Hydrogen evolution reaction:1||Hydrogenation:1||Hydrophilic:1||Hydrophilicmodification:1||Hydrophilicity:1||Hydrophobic coating:1||Hydrophobic sand:1||Hydrophobicity:1||Interface:1||Interfaces:1||Interfaces of composites:1||Inverse ca:1||Inverted organic solar cell:1||K doped TiO 2 lattice:1||Kapok:1||LEIS:1||Large scale production:1||Levulinic acid:1||Ligandtometal charge transfer:1||Liquid waterresistant gas sorbent:1||Lithium battery:1||Low energy electron diffraction:1||Low pressure RF plasma:1||Lowtemperature CO oxidation:1||Magnetorheological fluid:1||Magnetron sputtering deposition:1||Massselected clusters:1||Mechanochemical:1||Mesoporous TiO 2 particles:1||Mesoporous TiO<sub>2</sub> particles:1||Mesoporous chromium terephthalate MIL101:1||Mesoporous material:1||Mesoporous silica:1||Metal : Ni:1||Metal organic framework:1||MetalSupport Interaction:1||Metalfree:1||Metaloxide:1||Metalsupport interaction:1||Metallomimetic:1||Methane:1||Methane dry reforming:1||Methylene blue:1||Mo/HZSM5:1||Modified TiO2:1||Molybdenum:1||Ndoping:1||NF:1||NMR titration:1||NO reduction:1||NO reduction by CO:1||Nano/microstructure:1||Nanocatalysis:1||Nanodiamond:1||Nanoparticle:1||Nanoporous surface:1||Nanorod:1||Nanowires:1||Ni based catalyst:1||Ni catalyst:1||Ni nanoparticles:1||NiO F:1||NiO nanoparticles:1||Nickel nano particle:1||Nickel oxide:1||Nickel oxide underlayer:1||Nickelpromoted copper on silica:1||Nickelocene (Ni(Cp)(2)):1||Nitrogen fixation:1||Nitrogen oxide:1||Nonoxidative coupling of methane:1||Nonoxidative dehydroaromatization:1||Nonoxidative methane coupling:1||Nonthermal plasma:1||O 2 plasma treatment:1||O2 exposure:1||Oil absorption:1||Oil adsorbent:1||Oil sorption:1||Oilwater separation:1||Oil/water separation:1||Organic dye removal:1||Organic solar cell:1||Organic solar cells:1||Oxidation passivation:1||Oxide:1||Oxygen:1||Oxygen reduction reaction:1||Oxygen vacancy:1||PDM:1||Palladium:1||Pd coatings:1||Peptideprogrammable gold nanoparticles superstructure:1||Phenol:1||Phenol removal:1||Photocatalytic oxidation:1||Photoinduced oxidation:1||Photocatalysis mechanism:1||Photocatalysts:1||Photocatalytic:1||Photocatalytic NO oxidation:1||Photocatalytic TiO2 particles:1||Photocatalytic cement blocks:1||Photocatalytic phenol degradation:1||Photodegradation and Xray photoelectron spectroscopy:1||Photoelectron spectroscopy:1||Photoemission spectroscopy (PES):1||Plasmacatalyst hybrid system:1||Plasmonic:1||Platinum:1||Polydimethylsiloxane (PDMS):1||Polydimethylsiloxane coating:1||Polyester (PET):1||Polyethylene:1||Porosity:1||Porous silica:1||Porous structures:1||Preconcentration:1||Protection:1||Protection layer:1||PtFe interface:1||Re doping:1||Real applications:1||Real time analysis:1||Reverse water gas shift reaction:1||Ruthenium oxide:1||Rutile TiO2:1||SIMS:1||STEM:1||Scattering:1||Secondary ion mass spectrometry:1||Selec:1||Selfassembly:1||Selfdecoking:1||Shaped catalysts:1||Shearthickening behavior:1||Si(111)1 x 1H surface:1||Silica Supraparticles:1||Silicon Carbide:1||Silver atoms:1||Simultaneous oxidation of NO and acetaldehyde:1||SinglePtatom:1||SingleWalled Carbon Nanotubes:1||Singleatom catalysts:1||Sorption:1||Sputtering:1||Stability:1||Strong metalsupport interaction:1||Structured catalyst:1||Submicrometer TiO2 particles:1||Superhydroph:1||Superhydrophilicity:1||Supported catalysts:1||Supramolecular protein assembly:1||Surface Characterization:1||Surface charge transfer complex:1||Surface defect:1||Surface energy:1||Surface modificationsa:1||Surface treatment:1||Synchrotron:1||Synchrotron radiation based photoemission spectroscopy:1||TOFSIMS:1||TRPL:1||Temperature regulatedchemical vapour deposition (TRCVD):1||Temperatureregulated chemical:1||Thermal desorption:1||Thermal desorption spectroscopy:1||Thermal stability of nanostructure:1||Ti:1||TiO 2:1||TiO 2 nanopillars:1||TiO2/cement:1||Tio 2:1||Titanium oxide:1||Toluene adsorption:1||Toluene decomposition:1||Toluene removal:1||Topology freezing transition temperature (Tv):1||Total oxidation:1||Transcarbamoylation:1||Transparent superhydrophilic thin film:1||Trimetallic:1||Tungsten:1||UPS:1||UV lightdriven photocatalysis:1||VOCs oxidation:1||Visible light:1||Visible light active catalyst:1||Visible light driven photocatalysis:1||Visible light responsive catalyst:1||Visible light responsive photocatalytic materials:1||Visible lightdriven photocatalysis:1||Visible lightdriven photocatalysts:1||Visible lightsensitive photocatalytic activity:1||Visiblelight driven PtTiO<sub>2</sub>:1||Visiblelightresponsive photocatalyst:1||Volatile organic:1||Volatile organic compound (VOC):1||W:1||WOX nanoparticles:1||Water depollution:1||Water purification:1||Water vapor:1||Wavelength dependence:1||Weight gain:1||Xray Photoelectron Spectroscopy:1||Zinc oxide:1||ZnO solgel:1||Zno:1||aCarbon:1||acetaldehyde:1||alcohols:1||alkylation:1||anatase TiO2:1||anatase rutile interface:1||atomic layer deposition:1||atomiclevel insights:1||bifunctional catalyst:1||bimetallic nanotubes:1||biomass:1||capping agent:1||carbon:1||carboxylic acids:1||catalyst activation strategy:1||catalytic oxidation:1||cation and anion vacancies:1||cerium oxide:1||charge separation:1||charge transfer:1||chloride modification:1||clean energy:1||cobalt oxide:1||cobaltnickel hydroxide:1||coreshell:1||crosslinking:1||cyclohexylbenzene:1||dual active phase:1||dualsingle atoms:1||e(2)O(3):1||electrocatalytic activity:1||electrochemistry:1||electronbeam:1||emulsion:1||encapsulation:1||energy transfer:1||extreme ultraviolet lithography (EUVL):1||facet engineering:1||fluorine:1||fuel cells:1||gammaValerolactone:1||gold:1||heterogeneous catalyst:1||heterogeneous strategy:1||hollow structure:1||hydrogen generation:1||hydrogenation:1||inverted organic solar cells:1||inverted structures:1||iron oxide:1||metal:1||metal nanoclusters:1||molybdenum sulfide:1||nanoclusters:1||nanoparticles:1||nanopattern:1||nanosheet:1||nanosheets:1||nanotube:1||nerve agent:1||nickel:1||oil:1||organic photovoltaics:1||organic polymer semiconductors:1||oxide:1||oxygen:1||oxygen vacancies:1||particles:1||pentacene:1||phase selective anchoring:1||photocatalysis:1||photocatalyst:1||photochemistry:1||photoelectron spectroscopy:1||photoresist:1||polymer solar cells:1||porous nanoarrays:1||power performance:1||pseudocapacitors:1||quartz crystal microbalance:1||ruthenium:1||rutile TiO2:1||sacrificial agentfree:1||scanning tunneling microscopy:1||silica:1||solar hydrogen production:1||stability:1||stabilization:1||structureproperty:1||surface deactivation:1||surface modifications:1||surface roughness:1||surfactant:1||synchrotron radiation:1||synergistic modulations:1||thiourea:1||toluene:1||vapor deposition:1||visible lightresponsive photocatalyst:1||water splitting:1||A. Multilayers:1||A. Surfaces:1||Absorbent cotton:1||Absorbents:1||Acetaldehyde abatement:1||Acetaldehyde and NO oxidation:1||Acetaldehyde mineralization:1||Acetaldehyde oxidation:1||Activated carbon fiber:1||Active sites ensemble:1||Adsorbent:1||Adsorbents:1||Adsorption Photocatalysis:1||Adsorption kinetics:1||Adsorption thermodynamics:1||Ag:1||AgSi bonds:1||Ammonia removal:1||Amorphous materials:1||Angle resolved photoemission spectroscopy (ARPES):1||Anode:1||Antifogging:1||Arc plasma deposition:1||Artificiallydesigned peptide:1||Atomic force microscopy:1||Atomic layer deposition (AID):1||B. Solgel chemistry:1||Backdonation:1||Ball milling:1||Barium zirconate:1||Basic site regulation:1||Benzene removal:1||Biomass:1||Biomineralization:1||Breakthrough experiment:1||Bulk heterojunction:1||C fiber:1||CH activation:1||C. Electron microscopy:1||CNT:1||CO Oxidation:1||CO adsorption:1||CO2 adsorption:1||CO2 reforming of CH4 (CRM):1||CO2 reforming of methane:1||CVD:1||Carbon:1||Carbon deposition:1||Carbon doping:1||Carbon monoxide:1||Carbon nanosoot:1||Carbon nanotubes:1||Catalyst:1||Catalystsupport interaction:1||Catalytic combustion:1||Catalytic decontamination:1||Catalytic oxidati:1||Catalytic oxidation:1||Ceria:1||Chemical Vapor Deposition:1||Chemical v:1||Chemical vapor deposition:1||Chemical vapour deposition:1||Chemical warfare agents (CWAs):1||Cluster:1||Cluster ions:1||Cluster materials:1||Co(OH)<:1||Coadsorption:1||CoNiP NA:1||Competitive adsorption:1||Coordinatively unsaturated sites:1||Copper:1||Copper benzene1,3,5tricarboxylate:1||Copper trimesate:1||Core level shift:1||Coreshell nanoparticle:1||Covalent adaptable networks (CANs):1||D. Surface properties:1||DRIFTS:1||Darkcatalysts:1||Deactivation:1||Degradation of methylene blue:1||Deposi:1||Deposition potential:1||Dimethyl methylphosphonate:1||Dimethyl methylphosphonate (DMMP):1||Dirac point (ED):1||Dual active routes:1||E:1||Electrocatalytic oxygen reduction:1||Electroless deposition:1||Electron acceptor:1||Epoxidation:1||Evaporation polydimethylsiloxane:1||Exhaust gas treatment:1||FTIR:1||Fe:1||Fe modified TiO<:1||FeZSM5:1||Feoxide nanoparticles:1||Fiber strand thickness:1||

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(03063) 25-2, SUNGKYUNKWAN-RO, JONGNO-GU, SEOUL, KOREAsamsunglib@skku.edu

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