ScholarWorks@Korea University: Lee, Ki Bong

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Lee, Ki Bong (이기봉)

College of Engineering (Department of Chemical and Biological Engineering)

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Tel 02-3290-4851
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CO2 adsorption:10||CO2 sorption:9||Porous carbon:7||Simulated moving bed:7||CO2 capture:5||KOH activation:5||Microporous carbon:5||Adsorption:5||Sorption:5||Graft copolymer:4||Petroleum coke:4||Deasphalted oil:4||Hydrogen production:4||Engineered biochar:4||Highpurity hydrogen:4||CaO:4||Continuous separation:3||1:3||Petroleum residue:3||Sustainable waste management:3||Composite membrane:3||Solvent deasphalting:3||Carbon dioxide:3||Gas separation:3||Sorptionenhanced water gas shift reaction:3||Coke formation:3||Pyrolysis:3||Mesophase pitch:2||Multiwalled carbon nanotube:2||CF4 adsorption:2||Activation energy:2||Petroleum pitch:2||Chemical activation:2||Activated carbon:2||Matrix:2||high temperature:2||Nanoparticle:2||Bitumen:2||oil sands:2||patent analysis:2||K2CO3promoted hydrotalcite:2||Silica:2||Methane:2||Graphene:2||Desalination:2||오일샌드:2||Magnetic biochar composite:2||Upcycling:2||SO2:2||Water electrolysis:2||Kinetic analysis:2||Distributed activation energy model:2||Comb polymer:2||DFT calculation:2||Process optimization:2||Methylcyclohexane:2||Mechanical strength:2||Double saltbased sorbent:2||역청:2||Charcoal:2||PET plastic waste:2||Pore structure:2||Random pore model:2||Hydrotalcite:2||Thermogravimetric analysis:2||Sorptionenhanced reaction:2||Mesostructure:2||bitumen:2||Density functional theory:2||Biomass:2||Deactivation:2||Linear alphaolefin:2||Chemical stability:2||Carbon dioxide adsorption:2||Kinetics:2||Narrow micropore:2||Impregnation:2||sorbent:2||Titanium:2||Process simulation:2||Layered double hydroxide:2||Carbon dioxide capture and storage:2||Alcohol dehydration:2||Silver:2||Standing wave design:2||Surface acidity:1||meso2,3Butanediol:1||HZSM5 catalyst:1||Namodification:1||Ba/Al2O3 catalyst:1||Structure directing agent:1||Marine biomass:1||Activation:1||Hightemperature CO2 sorption:1||Sorbent:1||Poly(vinyl alcohol):1||Solvent recovery:1||Heat of absorption:1||additive:1||polyvinylidene fluoride:1||Mixed matrix membrane:1||Vacuum residue:1||pHcontrolled precipitation synthesis:1||hydrotalcite:1||Vacuum Residue:1||Numerical Simulation:1||Hydrogen separation:1||Double salt:1||Property:1||Viscoelastic modulus:1||Threezone SMB:1||Formic acid:1||hydrothermal synthesis:1||Pentane:1||Separation:1||Operating Parameter:1||membranes:1||Dyesensitized solar cell:1||Polymer electrolyte:1||Packed bed:1||Retorting:1||Shale oil:1||titanium:1||AgBr:1||Amphiphilic:1||Nanocomposite multilayers:1||Oil sand:1||Pellet:1||tetracycline:1||Water gas shift reaction:1||Chemical bath deposition:1||bag house system:1||contact angle:1||Sorptionenhanced water gas shift:1||Integrated system:1||Hansen solubility parameters:1||dry reforming of methane:1||Procedure optimization:1||Exergy efficiency:1||Zeolite:1||Activated filter media:1||1Octene:1||Alkyl chain length:1||CO2 sequestration:1||Selfactivation:1||Defect oxygen:1||Black carbon:1||Carbonization:1||Membrane contactor:1||NaOH:1||N2O decomposition:1||Bag filter:1||Air filtration:1||Polyethersulfone:1||Alkaline electrolysis:1||Thin film:1||Sewage sludge:1||Release properties:1||Carbon dioxide capture:1||Absorption:1||Postcombustion capture:1||lithiumion Imitteries:1||Lifecycle:1||CO2 reforming:1||CO2:1||Polyvinylidene fluoride:1||Viscosity:1||Onebody hybrid solid pellet:1||DCFC:1||Silane Coupling Agent:1||Methanation:1||Catalyst:1||gas separation:1||carbon dioxide:1||Solgel process:1||Sorption enhanced water gas shift reaction:1||Oil shale:1||Oleic acid:1||인 제거:1||amino acid separation:1||masstransfer parameters:1||diffusion:1||Nano Patterning:1||Nanocomposite membrane:1||YSZ:1||density functional theory calculations:1||ndodecane:1||Antimonate:1||Economic analysis:1||Carbon material:1||bag filter:1||gradient boosting decision trees:1||Dryreforming of methane:1||hydrogen production:1||PET plastic:1||Lean NOx trap:1||Calcium looping:1||Capacitive deionization:1||Oxygen crosslink:1||Catalytic reaction:1||1Octanol:1||greenhouse gas:1||climate change:1||Silicon carbide:1||Greenhouse gas:1||Lignosulfonate:1||Ternary separation:1||Packing peanut:1||Alkaline absorbents:1||Al2O3 catalyst:1||H2Otolerance in deN(2)O:1||Polyamide nanofiber:1||Highpressure reaction:1||Nafion/TiO2:1||Atmospheric plasma spraying:1||Flow battery:1||Phosphorous recovery:1||Piperidine derivatives:1||Aluminum foam:1||sodiumion batteries:1||Recovered potassium catalyst:1||CO2 uptake:1||Cobaltrutheniumzirconium:1||Catalyst durability:1||Sulfuric acid:1||Propane:1||Ladderlike polysilsesquioxane:1||Newtonian:1||Layered Double Hydroxide:1||CO2 Sorption:1||hydroxideform precursor:1||Hexane:1||Modification:1||Dispersion Capacity:1||Anion exchange membrane:1||Multisection column:1||Atom transfer radical polymerization:1||removal:1||silica:1||TGA(Thermogravimetric Analyzer):1||Activation Energy:1||Frequency Factor:1||Annealing:1||Nanoparticles:1||인산 흡착:1||메조구조체:1||실리카:1||intraparticle:1||solvent gradient:1||Upgrading:1||합성원유:1||synthetic crude oil (SCO):1||Maltenes:1||용매 용해분:1||Mass transfer:1||HZSM5:1||NiFe hydroxide:1||Heavy metal oxyanions:1||LeanNOx trap:1||NOx storageregeneration:1||Biofuel:1||Continuousmode separation:1||Energy:1||low carbon technology:1||aqueous phase reforming:1||NOx storagereduction:1||NOx adsorption:1||Surface oxygen species:1||Reactivation:1||Municipal wastewater:1||Liquid chromatography with organic carbon detection:1||racemic2,3Butanediol:1||Ndoping treatment:1||Surface morphology:1||K2CO3 activation:1||Waste valorization and sustainability:1||Catalytic steam gasification:1||Low rank coal:1||Raney nickel:1||Cyclic stability:1||Sorption kinetics:1||Electrolyte:1||Cathode:1||Membrane electrolysis:1||pyrolyzed fuel oil:1||fluorocarbon:1||Catalytic ability:1||carbon capture:1||Oil sand bitumen:1||MgCO3:1||Intermediatetemperature CO2:1||Mg/Al ratio:1||Butane:1||Rare earth element:1||Multisection packing:1||Hydrophobicity:1||Vanadium redox battery:1||Plasma Catalytic System:1||Ionic conductivity:1||Flexible substrate:1||Yield:1||Sulfonated poly (arylene ether sulfone):1||Colloid stability:1||메조기공구조체:1||Mesoporous materials:1||poly4vinylpyridine resin:1||Crosslinking:1||Solventinsolubles:1||upgrading technology:1||NH2 functional group:1||Hydrotalcitebased catalyst:1||Oxygen evolution reaction:1||Spinel manganese ferrite microspheres:1||Adsorption mechanisms:1||NO2:1||Alternative energy:1||Neoagarohexaose:1||Organic waste:1||Jing Wang:1||Solvent extraction:1||SARA analysis:1||heterogeneous catalyst:1||CO(2 )capture:1||K2CO3:1||Ammonia decomposition:1||Waste PET plastic:1||Oxidative stabilization:1||Coke/pitch affinity:1||#8722 x:1||Crosslinked PEI:1||Performance improvement:1||Steam activation:1||1octanol:1||Thermal stability:1||Thin film nanocomposite (TFN) hollow fiber membrane:1||Hydrogen evolution reaction:1||ZrO2:1||Electrocatalyst:1||polyethyleneimine:1||doublelayer structure:1||Calcium silicate hydrates:1||pitch:1||metal oxides:1||Membrane:1||Comb copolymer:1||Bioethanol:1||Solvent Deasphalting:1||reforming:1||Glycidyl methacrylate:1||Gas sensor:1||Mesoporous silica:1||Phosphate:1||Low humidity:1||Thermal conductivity:1||Surfactant:1||Phosphate removal:1||HETP:1||Polymer electrolyte membrane:1||SOFC:1||Electrostatic spray deposition:1||특허분석:1||Particle size optimization:1||Solventsolubles:1||아스팔텐:1||말텐:1||Levulinic acid:1||Retention capacities:1||Competitive adsorption:1||NO:1||Synergistic effect:1||Negative emissions:1||gas adsorption and separation:1||Solidstate dispersion:1||Ni catalyst:1||Core@shell structure:1||Carboncarbon composite:1||CO2 decomposition:1||SrFeO3&:1||2,3Butanediol isomerism:1||Spent coffee grounds:1||Upcycling technology:1||Carbon:1||CO2 methanation:1||Cerium:1||MALDITOF:1||chlorofluorocarbon:1||Waste recycling/valorization:1||Process design:1||Activated carbon fiber:1||1octene:1||Rh catalyst:1||CeZrO2 support:1||Electrospinning:1||Electrode deactivation:1||NaNO3:1||Textural property:1||Sodium carbonate:1||NiO nanoparticle:1||nPentane:1||Sodium hydroxide production:1||Divided section packing:1||crystal structures:1||layered compounds:1||Titanium carbide:1||CO2 Sorbent:1||Hydrothermal Synthesis:1||Oxidation Stability:1||Selectivity:1||Steam methane reforming reaction:1||Freestanding composite membranes:1||Crosslinking:1||ashfree coal:1||Ferroelectric Materials:1||VOC:1||graft copolymers:1||Porous material:1||Perovskite:1||Aminofunctionalized:1||Cocondensation:1||Grafting:1||Properties:1||High temperature:1||Proton exchange membrane fuel cell:1||Hydrocracking:1||Removal:1||Functionalized SBA15:1||Phosphate adsorption:1||티타늄:1||SDA:1||Thin films:1||Productivity:1||SMB chromatography:1||Asphaltenes:1||structural robustness:1||Catalystsorbent hybrid solid:1||Aromatic hydrocarbons:1||Xray absorption spectroscopy:1||Hierarchical corollalike MnO2:1||carbon materials:1||machine learning:1||CO:1||Heavy oil upgrading:1||syngas:1||Central composite design:1||Hydrothermal durability:1||Oxygen crosslinking:1||Acetoin:1||Nickel:1||Lewis acid site:1||Negative emission technology:1||Sustainable Development Goals (SDGs):1||ExoTetrahydrodicyclopentadiene:1||Zeolite catalyst:1||Gas sorption and separation:1||Singlecascade 5zone SMB:1||Porous carbon microsheets:1||2,3Butanediol isomers:1||Meso2,3Butanediol:1||H2rich syngas:1||Cu(II) ion adsorption:1||Blending process:1||PEBAX1657:1||CaObased sorbent:1||Graphite felt electrode:1||Vanadium redox reaction:1||Molten carbonate fuel cell (MCFC):1||Catalyst recovery:1||Tetrafluoromethane:1||K2CO3 Promotion:1||Monolith catalysts:1||Coking:1||Phase Transition Nanoparticle:1||Activated porous carbon:1||Sugars:1||Gas separations:1||High temperature sorbent:1||High Temperature:1||Synthetic Natural Gas:1||Vinylbenzyl chloride:1||atom transfer radical polymerization (ATRP):1||Magnesium oxide:1||Titanium oxide:1||Synthesis Gas:1||Deasphalted Oil:1||Layered ammonium nickel molybdate:1||Nanofluid:1||계면활성제:1||Copolymer:1||Anhydrous:1||Proton conductivity:1||Reverse osmosis membrane:1||Atom transfer radical polymerization (ATRP):1||Detailed model:1||Polymer coated silica gel:1||Hydrotalcitelike sorbent:1||Densityfunctionaltheory calculation:1||Neoagarooligosaccharides:1||Adsorption reactor:1||Solar thermal energy:1||Environment:1||Valorization:1||kinetic energy:1||sustainable waste management:1||Vacuum regeneration:1||coke resistance:1||Alkaline metalexchanged:1||Subnano:1||Ru catalyst:1||Polyethylene terephthalate:1||CO2 utilization:1||CF4:1||Waste PET plastic bottle:1||Theoretical calculation:1||AmberchromCG71C:1||Ethylene:1||2tetrafluoroethane (HFC134a):1||catalytic decomposition:1||GaAl2O3:1||Catalytic endothermic reaction:1||Tandem 4zone SMB:1||DMMP:1||Potassium carbonate:1||Equilibrium:1||Carbonization temperature:1||Pollenderived porous carbon:1||Surface chemistry:1||CO2 separation:1||amine modification:1||stability:1||Molten carbonate fuel cell:1||thermal reaction:1||mesophase:1||interconnected carbon network:1||Washing method:1||density functional calculations:1||Chlorination:1||CO2/N2 selectivity:1||Conducting polymer:1||Vanadium Dioxide:1||CoreShell Structure:1||Energy Efficiency:1||Solvent Recovery:1||Cermet:1||NonNewtonian:1||Multisection packing:1||Na2CO3:1||direct carbon fuel cell:1||coal gasification:1||Comblike polymer:1||CO2 Reforming:1||SBA15:1||Numerical analysis:1||mesostructure:1||phosphorous:1||Oilsoluble bimetallic dispersed catalyst:1||Phosphorous:1||기능화된 SBA15:1||Fuel cells:1||Chlorine resistance:1||Polyelectrolytes:1||Heavy oil:1||Pressure drop:1||Oil sands:1||용매 불용분:1||zirconiumbased metal organic frameworks:1||Galactose:1||Coliquefaction:1||Biooil:1||Ammonia reforming:1||Efficiency analysis:1||H2 production:1||surface free energy:1||picomplexation:1||Perovskite catalyst:1||MgOAl2O3:1||xylose conversion:1||

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