CAU Scholar's Space: Ahn, Sang Hyun

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Ahn, Sang Hyun (안상현)

공과대학 (화학신소재공학부)

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Tel 02-820-5287
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Electrodeposition:27||Hydrogen evolution reaction:24||hydrogen evolution reaction:9||Proton exchange membrane water electrolyzer:8||Anion exchange membrane water electrolyzer:7||Oxygen evolution reaction:7||Electrocatalyst:7||Water splitting:5||electrodeposition:5||Metalorganic frameworks:5||Gas diffusion electrode:5||electrocatalysts:4||HER:4||Composites:4||Electrochemical CO2 reduction:4||Water electrolysis:4||Catalyst:4||Electrochemical carbon dioxide reduction:3||#8208:3||Photoelectrochemical:3||Direct methanol fuel cell:3||CO2 reduction:3||Electrocatalysts:3||Carbon monoxide production:3||Alkaline water electrolysis:3||2D materials:3||water splitting:3||Galvanic displacement:2||Gas Diffusion Electrode:2||Selfterminated electrodeposition:2||Heterostructure catalyst:2||Nanostructures:2||Stability:2||Steam reforming:2||Polymer electrolyte membrane fuel cell:2||proton exchange membrane water electrolyzer:2||Gas separation:2||Additive:2||Electrochemical hydrogen pump:2||electrocatalyst:2||/sub>:2||electrochemical:2||Oxygen reduction reaction:2||Microreactor:2||2<:2||metalorganic frameworks:2||sub>:2||Water Electrolysis:2||Methanol:2||Hydrogen production:2||oxygen evolution reaction:2||Electrochemical Carbon Dioxide Reduction:2||Carbon capture and storage:2||Metal–organic frameworks:2||Formic acid:2||Formic acid oxidation reaction:2||Alloy deposition:2||Cobalt oxide:1||Cocatalysts:1||Copper Foam Support:1||Copper electrodeposition:1||Corrosion engineering:1||CsPbI3 quantum dots:1||Cu–Co–P catalyst:1||CuZnOAl2O3:1||Cubased catalysts:1||CuxMO100X catalyst:1||Cyclic voltammetry stripping:1||Decal transfer method:1||Decomposition:1||Direct ammonia fuel cell:1||Direct formic acid fuel cell:1||Displacement:1||Doping:1||Electrocatalysis:1||Electrochemical CO2 conversion:1||Electrochemical Conversion:1||Electrochemical activation:1||Electrochemical ammonia oxidation reaction:1||Electrochemical carbon dioxide conversion:1||Electrochemical conversion:1||Electrochemical etching:1||Electrochemical impedance spectroscopy:1||Electrochemical oxidation:1||Electrochemical reactions:1||Electrochemical reduction:1||Electrochemical sensing:1||Electrochemical surfaceenhanced Raman:1||Electrochromic devices:1||Electrochromic windows:1||Electrode material:1||Electrode materials:1||Electrode thickness:1||Electrodeposited Ni catalyst:1||Electrodeposited catalysts:1||Electrodeposited ruthenium catalyst:1||Electroless deposition of Cu:1||Electrospinning:1||Energy conversion system:1||Environmental issue:1||Foam catalyst:1||Foam structure:1||Formic Acid:1||Formic Acid Oxidation:1||Formic acid production:1||Gas permeability:1||Gasphase CO2 supply:1||Global warming:1||Glucose:1||Glucose oxidation:1||HCOOH:1||Heterohierarchical structure:1||Heterostructure:1||High binding eergy sulfur:1||Hightemperature PEM fuel cell:1||Hollow structure:1||Hybrid film:1||Hydrogen Evolution Reaction:1||Hydrogen and oxygen evolution reactions:1||Hydrogen annealing:1||Hydrogen economy:1||Hydrophilic surface:1||Interconversion catalysts:1||Interconversion Catalyst:1||Ir electronic structure:1||Iridium catalyst:1||Iridium oxide:1||Large surface area:1||Liquefied natural gas:1||Lithiumion batteries:1||Longterm stability:1||Low Pt loading:1||Low humidity:1||Lowcrystalline catalyst:1||MOF:1||MOF metal composite:1||MOF metal oxides:1||MOFderived:1||MOFs:1||MXenes:1||Mass transfer:1||Membrane electrode assembly:1||Metal:1||Metal–organic framework:1||Metal compounds:1||Methanol oxidation:1||Microchannel:1||MoS2:1||MoS2 small nanoflower:1||MoSe2:1||MoSx:1||Molybdenum disulfide:1||Molybdenum sulfides:1||Multicolor:1||N/S doping ratio:1||Nafion ionomers:1||Nano hollow flower:1||Nanocrystalline catalyst:1||Nanofiber:1||Nanoplate:1||Nanostructure:1||Nanotube arrays:1||NiPB catalyst:1||Ni/NiO/C:1||Ni3Se4:1||NiCu alloy:1||NiFe alloys:1||NiFebased electrocatalysts:1||NiFeZn:1||Nickel Phosphide Catalyst:1||Nickel copper alloy catalyst:1||Nickel diselenide:1||NickelCobalt alloy catalyst:1||Oxidation:1||Oxidized Cu species:1||Oxygen evolution:1||Oxygenvacancy ratio:1||PANI:1||PdSn Alloy Catalyst:1||PdxIn100x catalyst:1||Perovskite oxides:1||Phosphate adsorption:1||Phosphoric acid distribution:1||Photoelectrochemical:1||Photocatalysis:1||Photocatalysts:1||Photoelectrochemical reduction:1||Platinum catalysts:1||Platinum loading:1||Platinum(shell)Palladium(core):1||Platinumbased alloy catalyst:1||Platinumgold alloy catalyst:1||Platinumgroup metal:1||Platinumruthenium alloy catalyst:1||Poly(ethylene glycolpropylene glycol):1||Polybenzimidazole membranes:1||Polymer electrolyte membrane water electrolysis:1||Preferential CO oxidation:1||Proton exchange membrane fuel cells (PEMFC):1||Proton exchange membrane water electrolysis:1||Pt cluster:1||Pt nanoparticle:1||Pt pulse electrodeposition:1||PtAl2O3:1||Ptbased catalyst:1||Ptdecorated Ni electrocatalyst:1||PtshellPdcore catalyst:1||Pulse Electrodeposition:1||Pulse electrodeposition:1||Relative humidity:1||Reversible metal electrodeposition:1||Rhenium:1||Rhodium phosphide:1||Ruthenium oxides:1||Ruthenium phosphide:1||Sandwich structure:1||Selective CO oxidation:1||Selfsupported electrode:1||Selfsupported electrodes:1||Selfterminated Electrodeposition:1||Si photocathode:1||SiO2:1||Silicon photocathode:1||Silicon technology:1||Silver:1||Silver galvanic displacement:1||Silvercopper dendrite catalyst:1||Single cell test:1||Sn electrode:1||SnS2:1||SnSe2:1||SnSxSe2−x:1||Sodiumion batteries:1||Solar energy:1||Synergistic effect:1||Syngas:1||Syngas production:1||Taste sensors:1||Ternary metal hydroxides:1||Test protocol:1||TiO2:1||Tin:1||Tin electrode:1||Titanium dioxide:1||Transition metal dichalcogenide:1||Transition metal oxysulfide:1||Tungsten oxide:1||Tungsten sulfides:1||Two dimensional materials:1||Ultralow Ir loading electrode:1||Ultralow Pt loading:1||Ultrasound:1||Unitized Regenerative Fuel Cell:1||Vertically aligned:1||WO3:1||WS<:1||WS2:1||Water electrolyzer:1||Waterbased solution process:1||Watergas shift reactions:1||Wettability:1||ZIF8:1||Zerogap electrolyzer:1||Zinc:1||Zn&:1||acid ligands:1||alkaline water electrolysis:1||amine ligands:1||amorphous:1||anion exchange membrane water electrolyser:1||annealing:1||based electrocatalyst:1||binarynonmetal transition metal compounds:1||carbon dioxide reduction:1||carbon monoxide:1||catalyst:1||cathode catalyst:1||conducting polymers:1||configurational entropy of mixing:1||coreshell structure:1||different morphologies:1||electrochemical CO2 conversion:1||electrochemical carbon dioxide reduction:1||electrochromic:1||electrochromic devices:1||electrospinning:1||formic acid oxidation:1||gas diffusion electrodes:1||gel:1||grain boundaries:1||graphene:1||heterojunction:1||heterostructures:1||highentropy catalysts:1||hydrogen:1||in situ electrochemical microscopy:1||leadhalide perovskite:1||local effects:1||mediumentropy alloys:1||membrane electrode assemblybased electrolyzers:1||metal&:1||methanol oxidation:1||nanocoral W2C:1||nanocrystals:1||nanoflowers:1||nanohollow:1||nanoporous structure:1||nanosheets:1||nickel diselenide:1||organic framework:1||oxygen evolution reactions:1||perovskite ligands:1||perovskite solar cells:1||perovskites:1||phase reconstruction:1||photocathode:1||photochemical:1||photoelectrochemical:1||photoluminescence intensity:1||photovoltaicelectrochemical systems:1||platinum gold bimetallic ensemble effect:1||poly(3:1||polyaniline:1||polypyrrole:1||selective leaching:1||selfsupported electrode:1||selfterminating electrodeposition:1||smart window:1||sol&:1||solar cell:1||solution&:1||sp 2 C:1||spectroscopy:1||stability:1||super stability:1||surface treatment:1||thermal treatment:1||thermolysis:1||transition metal phosphide:1||tungsten carbide:1||tungsten oxide:1||ultrathin platinum film:1||water electrolysis:1||lowcrystalline trimetallic catalysts:1||#8211:1||/W<:1||2D nanomaterials:1||4ethylenedioxythiophene) polystyrene sulfonate:1||Activation energy:1||Activity:1||Ag Catalyst:1||Ag catalysts:1||Ag electrocatalytic film:1||Agin dendrite:1||Alkali etching:1||Alkaline water splitting:1||Alloy:1||Ammonia electrolysis cell:1||Amorphous molybdenum sulfide:1||Amorphous nickel tungsten alloy catalyst:1||Anhydrous ruthenium oxide:1||Anion exchange reaction:1||Annealing:1||BET surface area:1||Band gap:1||Bimetallic phosphide:1||Bio fuel cell:1||Black TiO2:1||Bubbletemplated copper electrodeposition:1||Bubbletemplated electrodeposition:1||C:1||C 2+ products:1||Cdoped SnO2:1||C2H4 production:1||CO 2 reduction:1||CO production:1||CO2 electrolyzer:1||CO2 reduction Formic acid oxidation:1||CO2 reduction reaction:1||CO2 stripping:1||CO2electrolysis:1||Carbon Dioxide:1||Carbon Monoxide:1||Carbon dioxide:1||Carbon dioxide Reduction:1||Carbon fiber:1||Carbon monoxide:1||Carbon monoxide tolerance:1||Carbon monoxidepoisoning:1||Catalyst coating:1||Catalyst mixture:1||Cation defect:1||Channel design:1||Chemical synthesis:1||Chlorine evolution reaction:1||Coelectrodeposition:1||Coelectrodeposition catalysts:1||Cobalt:1||Cobalt–molybdenum:1||Cobalt hydroxide:1||

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