ScholarWorks@Korea University: LEE, Joon ho

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LEE, Joon ho (이준호)

College of Engineering

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Tel 02-3290-3287
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CALPHAD:6||wetting:6||Surface tension:5||oxides:5||Scanning electron microscopy:4||Thermodynamics:4||Hydrogen storage:4||recycling:4||metals:4||Xray diffraction:4||sessile drop method:3||Hydrogen absorbing materials:3||Microstructure:3||microwave irradiation:3||melting:3||Phase diagram:3||Creep:3||TEM:2||Ironmaking:2||insitu observation:2||Dew point:2||Hydrogen storage alloy:2||Mechanochemical processing:2||diffusion:2||recovery:2||Microwave irradiation:2||Characterization method:2||Wetting:2||Hydrides:2||coke:2||Surface oxide:2||molten slag:2||Metals and alloys:2||Critical temperature:2||Solder:2||Metal hydrides:2||Density:2||Sheet metal forming:2||image analysis:2||Stainless steel:2||microwave:2||wettability:2||Surfaces:2||Ti/Al ratio:2||Thermodynamic properties:2||Hydrogen embrittlement:2||Ferronickel slag:2||Microwave:2||Yld20002d:2||ironmaking process:2||Copper:2||surface tension:2||molar volume:2||steelmaking slag:2||viscosity:2||eta:2||Oxygen adsorption:2||density:2||Electric arc furnace dust:2||thermal conductivity:2||Sessile drop method:2||Biochar:2||strength:2||FINEX:2||Intermetallics:2||Highpressure:2||Nanophase diagram:2||Contact angle:2||Ternary alloy systems:2||high tensile strength steel:2||Phase diagrams:2||CrMo steel:1||sintering temperature:1||Carbides:1||Sound velocity:1||Refractory material:1||Cr (III):1||Bainitic steel:1||Microwave heating mechanism:1||Thermal analysis:1||Evolutionary yield function:1||MK model:1||Forming limit diagram:1||hydrogen embrittlement:1||ductility and fracture:1||metal matrix composites:1||composites:1||Nano Phase diagram:1||ironmaking:1||Cu coating:1||thermal expansion coefficient:1||Sessile drop technique:1||Destabilization:1||철 회수:1||Slag:1||Interaction parameter:1||Rare earth metal:1||Dolomite:1||carbothermic reduction:1||mill scale:1||Bonding:1||oxide formation:1||NiAl intermetallic phase:1||Index of relative importance:1||welding:1||zetapotential:1||acicular ferrite:1||Hydrogen absorption:1||Characterization techniques:1||Iron ore sinter:1||Degree of reduction:1||Integrated modeling:1||Cellular automaton:1||Magnetic nanoparticles:1||Solvothermal reflux method:1||Xray photoelectron spectroscopy:1||ferronickel slag:1||refractory materials:1||BiSn alloy:1||AC flash welding:1||inclusion:1||Alloy phase diagrams:1||Finite element model:1||deformability:1||hot metal:1||FE simulation:1||seismic design:1||carburization:1||Seel:1||Eutectic temperature:1||undercooling:1||hotwire method:1||vortex stirrer:1||Diffusion:1||Thermodynamic and thermochemical properties:1||Contour evolution:1||Interaction:1||Solidification:1||Marangoni motion:1||interface:1||sulfur segregation:1||surface effect:1||alumina:1||Oxide materials:1||Precipitation:1||Ferritepearlite steels:1||Artificial neural network:1||Oxygen blowing:1||TiFe alloy:1||Electron backscattered diffraction:1||high temperature:1||specific heat:1||FeSi alloys:1||modelling:1||activity:1||thermodynamics:1||vanadium:1||precipitation:1||Phase equilibrium:1||Duplex Stainless Steel:1||Hightemperature Xray Diffraction:1||Ironore pellet:1||AgCu eutectic alloy:1||GaIn:1||sound velocity:1||Selective recovery:1||Activity coefficient:1||Yield ratio:1||Uniform elongation:1||microstructural factor:1||Calphad:1||hydrogen:1||computer simulation:1||microstructure:1||solid iron:1||differential thermal analysis:1||liquids:1||Nanoparticles:1||AgAu nanoparticle:1||Surface effect:1||Annealing:1||capillary force:1||Composite:1||Recovery iron and phosphorus:1||Metal matrix composites (MMC):1||Thermodynamic:1||dynamic reactive wetting:1||coatability:1||selective oxidation:1||Desulphurization:1||Refining:1||Skull:1||Crack analysis:1||eutectic point:1||Metal droplets:1||slags:1||Stacking fault energy:1||Weakbeam darkfield:1||confocal laser scanning microscopy (CLSM):1||phase transformation:1||CO2 emission:1||Graphite:1||Hydrogenenriched ironmaking process:1||Melting:1||Silicon carbide:1||Finite element method:1||Kinetic simulation:1||densification:1||CFD:1||Highmanganese steel:1||Borides:1||Electron microscopy:1||Phase transformation:1||Alkaline roasting:1||Excess Gibbs energy:1||Microstructurebased:1||Prediction:1||Multiple linear regression analysis:1||Dielectric loss:1||ferritepearlite:1||Reinforced steel bar:1||CrMnN:1||Microwave processing:1||Rietveld refinement:1||304 stainless steel:1||thermomechanical processing:1||HSLA steel:1||chemical analysis:1||Thermodynamic modeling:1||Aluminum:1||Steelmaking slag:1||phase diagram:1||arc discharge process:1||Sliding behavior:1||Tilting substrate:1||Coreshell structure:1||Capillary:1||Mechanical milling:1||Ethylene cracking tube:1||nanoparticles:1||phase diagrams:1||Tensile property:1||Interface instability:1||insitu:1||confocal laser scanning microscope (CLSM):1||silicoferrite of calcium and aluminum:1||CuPb:1||vanadium compounds:1||Heterogeneous nucleation:1||Strengthening mechanisms:1||Fractography:1||highstrength lowalloy steel:1||SiC formation:1||Carburization:1||Nickelbased superalloy:1||Thermal Conductivity, Firstprinciples Calculation:1||Hydrogenreduction:1||Magnetic hyperthermia:1||Constrained drop method:1||Electromagnetic levitation method:1||Pressure:1||electrical resistivity:1||Hydrogen charging:1||Powders: solid state reaction:1||Spinel:1||Nonisothermal phase transformation:1||TempCore process:1||Texture analysis:1||Austenitic stainless steel:1||Tailor welded blanks:1||Failure criteria:1||AgSn alloy:1||slag holdup:1||Wettability:1||surface oxides:1||Skull formation:1||Electron microprobe:1||refining:1||EAF dust:1||inhibition layer:1||Differential scanning calorimetry:1||microwave heating:1||Interfacial tension:1||Hydrogenation:1||fracture behaviour:1||iron ore:1||Insitu casting:1||Machine learning:1||Hydride:1||Hydrogen:1||Thermocalc:1||Confocal Scanning Laser Microscopy (CSLM):1||Dissolution:1||Molten iron:1||Directreduced iron:1||Gamma prime:1||Aging:1||Precipitate evolution:1||2.25Cr1Mo steel:1||Carbon replica:1||Fracture:1||Water leaching:1||PtV alloy:1||embrittlement:1||microscopy:1||Numerical simulation:1||Zinc:1||Interface:1||contamination:1||laser flash method:1||Carbon:1||liquids oxides:1||confocal laser scanning microscopy:1||galvanization:1||differential scanning calorimeny:1||nano solder:1||Lithium borohydride:1||Cycle:1||Casting:1||제철 슬래그:1||마이크로웨이브:1||리싸이클링:1||P recovery:1||capillary:1||reduction:1||zinc oxide composite:1||leadfree solder:1||Melting point:1||carbon pickup:1||Molten alloy:1||Oxygen partial pressure:1||Molten slag:1||Alloy:1||Computer simulations:1||347 stainless steel:1||shortrange ordering:1||Insitu composite:1||Deep neural network:1||Cerium:1||Ultrahighstrength steel:1||Delta:1||spinel:1||Precipitation sequence:1||Liquid metals:1||interfacial tension:1||calculation of phase diagrams (CALPHAD):1||Thermodynamic modelling:1||Permittivity:1||JMAK model:1||Seismic safety:1||ratedetermining step:1||SiO gas:1||Si transfer:1||softening:1||martensitic transformation:1||Interrupted cooling:1||alloys:1||Brazing:1||Segregation:1||Nanoalloy:1||Characterization:1||Surface energy:1||Continuous annealing line:1||carbonaceous bed:1||electromagnetic levitation:1||silicate:1||diffusion bonding:1||Recovery ratio of Fe:1||Reduction:1||Archimedean method:1||CaOMnOSiO2 slag:1||silicate network structure:1||transmission electron microscopy (TEM):1||tinsilver alloy:1||dynamic interfacial phenomena:1||Ab initio calculations:1||Carbothermic reduction:1||desulfurization:1||tinsilvercopper alloy:1||galvanizing steel (GI):1||nano phase diagram:1||Crystalline oxides:1||skull:1||Photoelectron spectroscopies:1||Alloying element:1||pool boiling:1||energy efficiency:1||iron ore sinter:1||Rietveld:1||High entropy alloy:1||Ultrasonic cavitation:1||nickelbased superalloy:1||gamma prime:1||antiphase boundary energy:1||Thermal Diffusivity:1||Phosphatability:1||Degree of metallization:1||Microstructure evolution:1||Phase transformations:1||Cobalt ferrite nanoparticles:1||thermal analysis:1||liquid metals:1||Austenitic:1||Microwave sintering:1||Permeability:1||Transmission electron microscopy:1||Zinc ferrite:1||Composite briquettes:1||steel:1||hcpmartensite:1||Magnetic properties:1||BaTiO3:1||Dual' phase steel:1||magnetite ore:1||Nanosized carbides:1||dripping:1||Selective oxidation:1||Leadfree solder:1||Chemical potential:1||Twinninginduced plasticity steel:1||char:1||oxygen:1||recovery iron and phosphorus:1||Rehydrogenation:1||purification:1||Metallic glasses:1||prediction (including CALPHAD):1||recovery of iron:1||nickel(phosphate)/gold coating:1||dual phase high strength steel:1||Regular solution model:1||Surfaces tension:1||Surface structure:1||Fe19%Cr10%Ni alloy:1||Catalysis:1||pressure:1||Microstructural factor:1||Hydrogen sorption:1||Pressurecompositiontemperature curve:1||Low reduced iron:1||Hot metal:1||Alloy 718:1||Gamma double prime:1||

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