ScholarWorks@Korea University: SONG, Kwang Ho

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SONG, Kwang Ho (송광호)

College of Engineering (Department of Chemical and Biological Engineering)

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Tel 02-3290-3307
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Palladium:4||Perovskite:3||Decarboxylative coupling:3||Propiolic acid:3||Micromixer:3||XPS:3||Phanerochaete chrysosporium:3||6dimethyl1:2||mechanical properties:2||palladium:2||Saccharomyces cerevisiae:2||Polymer electrolyte membrane fuel cell:2||Hydrogen:2||Cellobiose Dehydrogenase:2||Numerical simulation:2||decarboxylative coupling:2||propiolic acid:2||Gravitational fingering:2||TPD:2||flame retardancy:2||Flow chemistry:2||poly(2:2||Ammonia dehydrogenation:2||Torrefaction:2||Cross diffusion:2||Durability:2||Linear stability analysis:2||Polymer electrolyte:1||Platinum:1||nylon 66:1||Gravitational instability:1||biomass:1||lignin:1||Methyl radical adsorption:1||Glycerol:1||Coal upgrade:1||Cathode degradation:1||Hydrogen separation:1||Gasification:1||ketones:1||phosphinate:1||polycarbonates:1||Direct methanol fuel cell:1||Tubular cell:1||Methanol distribution:1||Proton Beam Irradiation:1||Sodium Borohydride:1||Malic Acid:1||Hydrolysis:1||Continuous flow reaction:1||Hiyama:1||ethanol production:1||Trimethine cyanine:1||Sulfur dioxide absorbent:1||Hollow fiber membrane:1||sodium borohydride:1||fuel cell:1||Sulfur heterocycles:1||Mesoscale simulation:1||Phase separation:1||Barcoated electrode:1||Aqueous phase reforming:1||4phenylene ether) (PPE):1||metalfree chemistry:1||Stability criteria:1||Fuelcell:1||Trichloroacetophenone:1||CO2 sequestration:1||Solubility trapping:1||Green fuel:1||Catalyst:1||Polybenzimidazole (PBIHFA):1||Coal:1||propargyl alcohol:1||Ceria effect:1||betaGlucosidase:1||hazardous areas:1||Fuel Cell:1||Thermochemical water splitting cycle:1||Membrane mass transfer coefficient:1||gas/liquid dispersion:1||microreaction technology:1||tubular mixer:1||Amides:1||Multicomponent reactions:1||anionexchange membrane fuel cell:1||water management:1||Carbon supported ordered PtCo electrocatalyst:1||Polytetrafluoroethylene dispersion:1||Methane:1||Low temperature:1||APR:1||Sulfuric acid:1||arylsulfonyl hydrazide:1||Hybrid sludge fuel:1||Chromium oxyfluoride:1||Porosity:1||alkynyl carboxylic acid:1||Activity:1||synthesis and processing:1||Continuous mode:1||cellobiose dehydrogenase (CDH):1||Response Surface Method:1||Silver(I) hexanoate:1||PEMFC:1||Silicasupported:1||Immobilization:1||Clostridium thermocellum:1||bubble size distribution:1||Nitrogen heterocycles:1||Proton exchange membrane water electrolysis:1||Hightemperature polymer electrolyte membrane fuel cell:1||Oxidative coupling:1||Alkalineearth metal oxide:1||upgrading fuel:1||Bioliquid:1||Ammonia synthesis:1||HFO1234yf:1||Coal water slurry (CWS):1||Nylon 66:1||4phenylene ether):1||plasma treatment:1||SbV2O5Ce/TiO2:1||TiO2:1||Pichia stipitis:1||Immobilized cell microchannel bioreactor:1||Whiterot Fungi:1||cellulose degradation:1||endothermic:1||Double diffusion:1||electrode binder:1||Surfactant:1||Hydrocarbonbased electrode ionomer:1||organic phosphinate:1||transamidation:1||Hybrid coal:1||Unburned carbon:1||Trichloroisocyanuric acid:1||Impurity:1||HFC245eb:1||Vacuum electroless plating (VELP):1||O2 plasma surface treatment:1||rheology:1||Flow reaction:1||Propargylamine:1||NH3 plasma:1||surface modification:1||Cooling Rate:1||Emulsion Crystallization:1||Celoading:1||DRIFTS:1||Acidity:1||Pore size:1||thiochromenones:1||pretreatment:1||Catabolite repression:1||NMR:1||Water:1||Microwave:1||robots:1||Color compensation filter:1||Wilsonplot:1||bubble size:1||hydrogen evolution:1||hydrolysis:1||Synthetic methods:1||Copper:1||cell flooding:1||polystyrene:1||Electrode structure reinforcement:1||Proton exchange membrane fuel cell:1||Barium oxide:1||Xylose:1||Biomass:1||amides:1||amines:1||trimethylsilyl chloride:1||lignocellulose:1||Density functional theory:1||Hydrogen storage:1||Ionic resistance:1||Combustion:1||Pd composite membrane:1||Metalfree:1||SO2 oxidation:1||Vanadia:1||polycondensation:1||Bronsted acid sites:1||NO conversion:1||Cooling rate:1||whiterot fungi:1||In situ analysis:1||Electroconductivity:1||extracellular expression:1||sodium metaborate:1||micro module:1||microreaction:1||Carbonylation:1||Alkynes:1||Hot press:1||Catalyst layer structure:1||Complex eigenvalue:1||Asymptotic analysis:1||Energy storage:1||Transmission line model:1||arylalkyne:1||Stability analysis:1||Impregnation:1||aldehydes:1||crosslinking:1||poly(ethylene2,6naphthalate):1||Ammonia:1||NH3SCR:1||Thermally induced phase separation:1||Nheterocyclic carbenes (NHCs):1||βGlucosidase:1||proton exchange membrane fuel cells:1||hybrid power systems:1||betaglucosidase:1||Cyanine dye:1||Sulfur dioxide separation:1||Ionic liquid:1||micromixer:1||splitrecombine:1||bromonaphthalene:1||anionexchange ionomer:1||Membraneelectrode assembly:1||Sulfonated poly(arylene ether sulfone):1||PPEgFA:1||sewage sludge:1||Oxidative coupling of methane:1||Buoyancydriven convection:1||Catalysis Carbonfree energy conversion:1||Electrochemical impedance spectroscopy:1||Decarboxylative chlorination:1||Ruthenium:1||Hydrogen production:1||Dehydrofluorination:1||Chemical etching:1||Lowrank coal:1||High Density Polyethylene:1||Continuous Flow System:1||NOx conversion:1||(Z)alkenyl sulfides:1||crosscoupling:1||Low density polyethylene:1||immobilization:1||Continuous fermentation:1||Rice Straw:1||Diaryl alkynes:1||Ag(I)NHC complex:1||Silver paste:1||endoglucanase:1||electron transport layer:1||DOE:1||Homogeneous catalysis:1||Morphology:1||Multiblock copolymer:1||Scaling relation:1||

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