ScholarWorks@Hanyang University ERICA Campus: Park, Joo Hyun

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Park, Joo Hyun (박주현)

ERICA 첨단융합대학 (ERICA 신소재·반도체공학전공)

Research Area: 철강재료, 철강 및 비철금속 제조공정, 고온물리화학

Tel 031-400-5230
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Viscosity:10||inclusion:9||Raman spectroscopy:8||MELTS:8||activity:8||CAOSIO2MNO SLAG:7||viscosity:7||BEHAVIOR:7||Slag:6||Magnesia refractory:6||sulfide capacity:6||Nonmetallic inclusion:6||LIQUIDIRON:6||Electric arc furnace (EAF) slag:6||Slags:6||CaF2:6||Basicity:5||SYSTEM:5||Solubility:5||silicate structure:5||Slag Composition:5||activity coefficient:5||SOLIDIFICATION STRUCTURE:5||deoxidation:5||Thermochemical computation:5||Dissolution:5||basicity:5||Direct reduced iron (DRI):4||Precipitation:4||KINETICS:4||MGAL2O4 SPINEL:4||Nitrogen:4||Spinel:4||Q(3)/Q(2) ratio:4||Stainless steel:4||RAMANSPECTRA:4||degree of polymerization:4||Dissolution mechanism:4||Sulfide capacity:4||Penetration:4||SULFIDE CAPACITY:4||Iron recovery:4||thermodynamics:4||DISSOLUTION BEHAVIOR:4||Inclusion:4||Desulfurization:4||nonmetallic inclusion:4||nonmetallic inclusions:4||STEEL:3||ALUMINUM:3||MOLTEN SLAG:3||Boron:3||Fluorspar:3||Indium:3||Precipitate:3||DEOXIDATION:3||stainless steel:3||Metals and alloys:3||Highentropy alloys:3||FERRITIC STAINLESSSTEEL:3||structure:3||crystallization:3||Ferroalloys:3||AL:3||Reducing atmosphere:3||Mixed oxidant corrosion:3||NONMETALLIC INCLUSIONS:3||Red mud:3||synthetic gas (syngas):3||METALLURGICAL SLAGS:3||Microstructure:3||thermodynamic properties:3||Thermodynamics:3||Mechanical properties:3||High entropy alloy:3||titanium:3||Aluminum:3||OXIDE:3||refractory:3||1 873 K:3||Slag Phase:3||slag:3||Slag basicity:3||wetting:3||Silicon:3||Degradation:2||Degree of polymerization:2||tundish:2||Gold tailing:2||Interstitial alloys:2||SiMn alloy:2||Silica:2||ACICULAR FERRITE:2||Activation energy:2||cleanliness:2||coal gasification:2||Apparent viscosity:2||Phosphorus:2||density:2||Kinetics:2||MgAl2O4 spinel:2||ALLOY:2||Corrosion:2||electroslag remelting:2||9CrMoCoB steel:2||free oxygen:2||Solidification:2||high temperature corrosion:2||Pyrometallurgy:2||RAMANSPECTROSCOPY:2||MnS inclusion:2||inclusions:2||Structure:2||Molten Slag:2||interfacial reaction:2||BASIC SLAGS:2||INCLUSIONS:2||CALCIUM TREATMENT:2||Raman spectra:2||THERMODYNAMIC PROPERTIES:2||ladle slag:2||THERMODYNAMICS:2||INTERFACIAL REACTION:2||Reaction mechanism:2||EAF slag:2||EQUILIBRIUM:2||melting:2||Redox equilibria:2||Thermodynamic behaviors:2||NUCLEATION:2||Reducing dephosphorization:2||Na2O:2||Refining:2||Nanoindentation:2||oxides:2||Titanium:2||oxygen:2||Refractory:2||MGO INCLUSIONS:2||Reoxidation:2||EVOLUTION:2||pitting corrosion:2||MICROSTRUCTURE:2||recovery:2||VISCOUSFLOW:2||OPTICAL BASICITY:2||SILICATE MELTS:2||Vitrification:2||WETTABILITY:2||DEOXIDATION EQUILIBRIUM:2||SLAG:2||SLAGS:2||SOLIDIFICATION:2||CARBIDE CAPACITY:2||Magnesiowüstite:2||Zinc:2||Oxidation:2||CoCrFeMnNi highentropy alloy:2||Electroslag remelting (ESR):2||Oxygen blowing:2||Oxygen partial pressure:2||activation energy:2||stability:2||agglomeration:2||SULFUR:2||Oxygen potential:2||alloying:2||Aluminum concentration:2||supersaturation degree:2||SYSTEMS:2||GLASSES:2||Al content:2||Manganese:2||CARBONSATURATED IRON:2||DISSOLUTION MECHANISM:2||Ferronickel slag:1||Ferroniobium:1||Fluidity:1||Flux System:1||Fluxes:1||Fracture:1||Free energy:1||Furnaces:1||GROWTH:1||GYPSUM:1||Galva:1||Galvannealing:1||Glass ball:1||Gold:1||Good correlations:1||Grain boundary diffusion:1||HEATAFFECTED ZONE:1||HETEROGENEOUS NUCLEATION:1||HIGHTEMPERATURE:1||HOT METAL:1||Hardness:1||Hastelloy (R) C4:1||Hazardous elements:1||Heavy metals:1||Heterogeneous grain size:1||Heterogeneous nucleation:1||High Al content:1||High manganese steel:1||High temperature confocal scanning laser microscopy (HTCSLM):1||High temperature phase equilibria:1||Hydrogen generation:1||INCLUSION DISSOLUTION:1||INCLUSION PARTICLES:1||INDIRECT DISSOLUTION:1||IRON:1||Ilmenite smelting slag:1||Impurity removal:1||Inclusion removal rate:1||Inclusions:1||Increa:1||Increase Energy Input:1||Infrared spectroscopy:1||Ingot:1||Inhibition Layer:1||Initial stage of precipitation:1||Inoculant:1||Inorganic compounds:1||Interdiffusivity:1||Intermetallic particle:1||Interaction parameters:1||Interfaces:1||Interfacial Concentration:1||Interfacial Phenomenon:1||Interfacial reaction:1||Interfacial reaction area:1||Intermetallics:1||IonMolecule coexistence theory (IMCT):1||Ionmolecule coexistence theory:1||Iron:1||Iron Dissolution:1||Iron alloys:1||Iron oxide:1||Iron redox equilibria:1||Kroll&apos:1||LASER:1||LIQUID SILICATES:1||LIQUID ZINC:1||LOWALLOY STEEL:1||LOWCARBON STEEL:1||Ladle refining slag:1||Large particl:1||Lattice disregistry:1||Li:1||Lime:1||Lime fluxing:1||Liquid Slag:1||Liquid phase mass transfer:1||Liquidus:1||Logarithmic scale:1||Low temperature solid oxide membrane (LTSOM) process:1||Lower Wave Number:1||M23C6 carbide:1||MAGNESIA:1||MANGANESE OXIDE REDUCTION:1||METALS:1||MGO SATURATED SLAGS:1||MICRORAMAN:1||MICROSTRUCTURE CONTROL:1||MNS PRECIPITATION:1||MOLAR VOLUMES:1||MOLTEN PIGIRON:1||MOLTEN STEEL:1||Magesiowustite layer:1||Magnesiowustite:1||Magnesiowustite (MW):1||Magnesium arsenate:1||Magnesium extraction:1||Magnesium oxide:1||Manganese alloys:1||Manganese content:1||Manganese oxide:1||Mass Transfer Coefficient:1||Mass transfer:1||Mass transfer coefficient:1||Material design:1||Mechanical property:1||Medium entropy alloy:1||Mediumentropy alloys:1||Melting and atomizing:1||Melting temperature:1||Metallurgical flux:1||Metastable phases:1||Mg deoxidation:1||MgTi deoxidation:1||MgAl2O4:1||MgF2:1||MgF2CaF2LiF:1||MgF2CaF2NaF:1||MgO:1||MgO center dot Al2O3 spinel:1||MgO solubility:1||Microsegregation:1||Mine tailings:1||Mineral wastes:1||MnValloyed steel:1||MnOSiO2Al2O3Ce2O3 slag or inclusion:1||MnOslags:1||Molten:1||Molten Salt:1||Molten Steel:1||Molten flux:1||Molten oxides:1||NA2O:1||NBO:1||NMR spectroscopy:1||NONMETALLIC INCLUSION:1||NOZZLES:1||NiCoCrSi alloy:1||NiCrCoMo alloy:1||NiCrValloyed special steel:1||Nibase alloys:1||Nitrogen solubility:1||Nonequilibrium defects:1||Nonmetallic Inclusion:1||Nonmetallic inclusions:1||Nonbridging oxygen:1||Nucleation:1||Nucleation and growth:1||Nucleation kinetics:1||O ALLOYS:1||OXIDE REDUCTION:1||OXIDES:1||Octahedron:1||Olivine:1||Oxide Scale:1||Oxygen:1||P:1||PART I:1||PARTICLES:1||PARTITION:1||PCB wastes:1||PH3 (phosphine) gas:1||PHASE:1||PHASES:1||PHOSPHATE CAPACITY:1||PHOSPHOGYPSUM:1||PHOSPHORUS DISTRIBUTION:1||PRECIPITATION:1||PRESSURE:1||Particle growth:1||Partition Rat:1||Penetration depth:1||Phase equilibria:1||Phase transitions:1||Phosphate capacity:1||Phosphate ions:1||Phosphine (PH3) gas.:1||Physical treatment:1||Physicochemical properties:1||Pitting corrosion:1||Planar lattice disregistry:1||Plasticity:1||Polymeric species:1||Polymerization:1||Population density function (PDF):1||Porosity:1||Positive ions:1||Potentiostatic:1||Precious metal enrichment:1||Precious metals:1||Present Experimental Condition:1||Pyrolysis:1||Pyrometallurgical process:1||QUANTITATIVEANALYSIS:1||RAY PHOTOELECTRONSPECTROSCOPY:1||REACTIONMECHANISM:1||REDUCTION:1||REDUCTION RATE:1||REFINING PROCESS:1||Raman:1||Raman scattering:1||Rate constant:1||Reaction rates:1||Reaction tubes:1||Recrystallization:1||Recycling:1||Redox reaction:1||Reducing conditions:1||Reduction:1||Refining mechanisms:1||Refining process:1||Refining slag:1||Refractories:1||Refractoryslagmetalinclusion (ReSMI) multiphase reaction model:1||Removal Rate:1||Renewal model:1||Rice Husk:1||Rice husk ash:1||RuhrstahlHeraeus (RH) slag:1||SAPPHIRE:1||SEM:1||SESSILE DROP TECHNIQUE:1||SI:1||SI/MN DEOXIDIZED STEEL:1||SILICA:1||SILICATE:1||SILICON:1||SILICONCARBIDE:1||SOLUBILITY:1||SPECIATION:1||SPINEL:1||STABILITY:1||STAINLESSSTEEL:1||STAINLESSSTEEL MELTS:1||STEEL WELD METALS:1||SULFIDE CAPACITIES:1||SURFACETENSION:1||SYSTEM CAOMGOSIO2:1||Sampling method:1||Saturation line:1||Secondnearestneighbor:1||Sessile drop technique:1||Si:1||Si alloying:1||SiMnkilled steel:1||Sikilled steel:1||SiC:1||SiMn production:1||Sigma phase:1||Silicate anionic species:1||Silicate network:1||Silicate slags:1||Silicate structure:1||Silicates:1||Silicomanganese (SiMn) alloy:1||Silicon alloys:1||Silicon carbide:1||Silicon compounds:1||Silicon refining:1||Simulation:1||Skull formation:1||Slag Layer:1||Slag composition:1||Slag penetration:1||Slag phase:1||Slag phasis:1||Slag refining:1||Slagrefractory reaction:1||Slagsteelinclusion multiphase equilibria:1||Slag/refractory interfacial reaction:1||Smelting:1||Smelting slags:1||Solid compounds:1||Solid oxide membrane (SOM) process:1||Solidus:1||Solution model:1||Spent battery:1||Spinel (MgAl2O4):1||Spinel Phase:1||Spinel crystallization:1||Spinel inclusion:1||Steel:1||Steel cleanliness:1||Steels:1||Sublimation kinetics:1||Submerged Entry Nozzle:1||Sulfur compounds:1||Supersaturation:1||Supersaturation ratio:1||Surface reaction step:1||TGA:1||TI:1||TITANIUM:1||TWIP STEELS:1||Terminal Velocity:1||Ternary systems:1||Tetrahedron:1||Thermal properties:1||Thermoanalysis:1||Thermochemical water splitting:1||Thermodynamic calculations:1||Thermodynamic properties:1||Thermodynamic stability diagram:1||Thermogravimetric analysis:1||Thermogravimetric analysis (TGA):1||Ti2Ni phase:1||TiN:1||TiNi alloy:1||TiO2:1||Titanium nitride:1||Total Oxygen:1||Transformation induced plasticity:1||Transformationinduced plasticity:1||Transport properties:1||Traverse Speed:1||Tricalcium phosphate (3CaO center dot P2O5):1||Triangular Fe balance diagram:1||Triangular material balance diagram:1||Triglycine Sulfate:1||Tundish:1||Tundish flux:1||Tundish metallurgy:1||VISCOSITY:1||Valence of vanadium ions:1||Vanadium distribution ratio:1||Vanadium oxide:1||Vee ratio:1||Waste Printed Circuit Board (WPCB):1||Waste limestone:1||Waste mobile phone (WMP):1||Waste recycling:1||White mud:1||Wide Composition Range:1||Xray photoelectron spectroscopy:1||XCAF2:1||Zinc Bath:1||Zirconium sponge:1||ZrCl4:1||ZrO2 solid electrolyte:1||[AIO(4)]tetrahedron:1||[FeO4]tetrahedron:1||adsorption coefficient:1||aggregated inclusions:1||alkaline earth silicates:1||alumina:1||atomic theory of diffusion:1||austenite grain:1||automatic inclusion analysis:1||automobile exposed panel:1||basic oxygen furnace:1||bridging oxygen:1||calcium:1||calcium aluminate flux:1||calcium fluoride (CaF2):1||calcium phosphide (Ca3P2):1||calcium treatment:1||carbide capacity:1||carbon pickup:1||carbon solubility:1||casting:1||catalyst:1||cerium:1||chainlike inclusions:1||clean steels:1||competitive sulfur dissolution mechanism:1||conductivity:1||copper:1||copper sludge:1||copper sulfide:1||corrosion:1||critical (crystallization) temperature:1||critical particle size:1||critical temperature:1||cuprous sulfide capacity:1||cuspidine:1||dephosphorisation:1||diffusion:1||diffusion coefficient:1||doloma:1||duplex stainless steel:1||dynamic interfacial phenomena:1||electrochemical method:1||electronegativity:1||equiaxed crystal:1||equiaxed grain:1||equilibrium constant:1||excess free energy of mixing:1||ferroalloy:1||free oxide:1||grain growth:1||halide flux:1||halogen corrosion of metals:1||heataffected zone:1||heatresistant steel:1||high Al2O3 slags:1||high entropy alloy:1||highentropy alloy:1||highstrength lowalloy steel:1||hot metal desulfurization:1||hot metal ratio:1||hydrated chlorides:1||ideal behavior:1||image analysis:1||in situ observation:1||inclusion engineering:1||inoculant:1||integrated coal gasification combined cycle:1||interaction parameter:1||interface:1||interfacial oxygen:1||ion and molecule coexistence theory (IMCT):1||ion compensation:1||iron oxide:1||isotope exchange reaction:1||kinetics:1||lattice disregistry:1||liquid iron:1||liquid oxides:1||lowsilica calcium aluminosilicate:1||magnesia:1||manganese ferroalloys:1||manganese oxide:1||microcrack:1||molar volume:1||molten flux method:1||molten steel:1||negative deviation:1||nitrogen:1||nonbridging oxygen:1||nonbridging oxygen (NBO):1||nonmetallic inclusion:1||nonmetallic inclusions:1||nucleation:1||offshore engineering steels:1||optical basicity:1||oxidation loss:1||oxide formation:1||oxysulfide:1||oxygen deplete layer:1||oxygen injection:1||oxygen partial pressure:1||palladium:1||partial molar excess free energy of mixing:1||phase diagram:1||phosphine gas (PH3):1||phosphorus distribution ratio:1||pinning force:1||polymerization index:1||population density function:1||potentiostatic:1||purification:1||quantitative electrolysis:1||redox equilibria:1||reducing dephosphorization (RDP):1||refractories:1||refractoryslagmetalinclusion (ReSMI) model:1||refractoryslagmetalinclusion (ReSMI) multiphase reactions simulation:1||refractorysteel interfacial reaction:1||reoxidations:1||resulphurised steel:1||rice husk ash:1||s process:1||scanning electron microscope (SEM):1||secondary refining:1||sessile drop method:1||silicate network structure:1||silicon:1||silver:1||skull:1||slag basicity:1||slag composition:1||slag disintegration:1||sliver defect:1||solidification:1||solidification structure:1||solute drag effect:1||spent petrochemical catalyst:1||spinel:1||spinel inclusion:1||stainless steelmaking:1||steel cleanliness.:1||steelmaking:1||submicrometre and nanometre particles:1||sulfide stability:1||sulfur segregation:1||surface dissolution:1||surface roughness:1||tetracalcium phosphate (4CaO center dot P2O5):1||thermal expansion coefficient:1||thermophysical property:1||threedimensional inclusions:1||titanium oxide:1||titanium oxides:1||tramp elements:1||transmission electron microscopy:1||welding:1||&lt:1||zirconia:1||(IMCT):1||(Mr Fe)O monoxide:1||25Cr20Ni4Si0.5Mn stainless steel:1||304 stainless steel:1||316L STAINLESSSTEEL:1||316L stainless Steel:1||316L stainless steel:1||ACICULAR FERRITE TRANSFORMATION:1||ACTIVITYCOEFFICIENTS:1||AL DEOXIDATION:1||AL2O3:1||ALLOYS:1||ALUMINATE:1||ALUMINOSILICATE GLASS:1||ALUMINOSILICATE GLASSES:1||ALUMINUM DEOXIDATION:1||ALUMINUM DROSS:1||AMBIENT:1||AMPHOTERIC BEHAVIOR:1||Activity Coefficient:1||Additive Manufacturing:1||Additive manufacturing:1||Agglomeration:1||Al alloying:1||Al dross:1||Al27 NMR spectroscopy:1||Alfree:1||Al2O3:1||AlN:1||Alloy melt:1||Alloying:1||Alumina:1||Alumina Concentration:1||Alumina ladle:1||Aluminosilicate melts:1||Aluminosilicate network:1||Aluminothermic Smelting Reduction (ASR):1||Aluminothermic smelting reduction (ASR):1||Aluminothermic smelting reduction (ASR) process:1||Aluminum contents:1||Amorphous phase:1||Anisotropy:1||Apparent Rate Constant:1||Archimedean method:1||Arsenic separation:1||Austenitic Stainless Steel:1||B2 phase:1||BAINITE:1||BINARY:1||BaCl2:1||Barium Ferrite:1||Basic Slag:1||Basicity index:1||Bimodal distribution:1||Bodycentered cubic (bcc):1||Boltzmannmatano analysis:1||Bridging oxygen:1||CMN:1||CAF2 ADDITION:1||CALCIUM SILICATE:1||CAPACITY:1||CARBON STEELS:1||CARBONMONOXIDE:1||CARBONSTEEL:1||CHROMIUM:1||CO2 emissions:1||COAL CHAR:1||COPPER:1||CRYSTALSTRUCTURE:1||Ca3P2 stability:1||CaF2 content:1||CaF2containing slag:1||CaOAl2O3SiO2CaF2MgO(MnO) slag:1||CaOCaF2 (SiO2) slag:1||CaOCaF2 flux:1||CaOMgOAl 2 O 3 slagging:1||CaOMgOAl2O3 slag:1||CaOMnOSiO2 slag:1||CaOSiO2FetOAl2O3 slag:1||CaOSiO2MnO slag:1||CaOSiO2MnOAl2O3MgO slag:1||CaOSiO2MnOAl2O3MgO slag:1||Calcium:1||Calcium Silicate:1||Calcium alloys:1||Calcium aluminate:1||Calcium aluminate flux:1||Calcium compounds:1||Casting:1||Cation field strength:1||Ce2O3:1||CeAl11O18:1||CeAlO3:1||Characterization:1||Chargebalancing:1||Classical nucleation theory:1||Cleanliness:1||Cobased alloys:1||Coprecipitation:1||CoCrFeMnNi system alloy:1||CoCrFeNiMn high entropy alloy:1||Commercial Pure Titanium:1||Computational thermodynamics:1||Concentration (process):1||Confocal scanning laser microscopy:1||Constant values:1||Contact angle:1||Continuous Casting:1||Copper:1||Crack:1||Critical level:1||Crystal structure:1||Crystalline materials:1||Crystalline phase:1||Crystallization:1||Crystallographic characteristics:1||Cu2O:1||DECOMPOSITION:1||DESULFURIZATION:1||DIAGRAM:1||DIES:1||DIRECT METALDEPOSITION:1||DISSOLUTION:1||Degree of supersaturation:1||Deltaphase:1||Deoxidation:1||Dephosphorization:1||Depolymerization:1||Desorption step:1||Di:1||Dicalcium silicate:1||Diffusion:1||Diffusion Boundary Layer:1||Diffusion coefficient:1||Disregistry:1||Dissolution reactions:1||Drierite:1||Duplex entropic alloys:1||EQUILIBRIA:1||ESR (ElectroSlag Remelting) process:1||Effect of temperature:1||Electric furnaces:1||Electrode:1||Electromagnetic cold crucible:1||Empirical correlations:1||EndofLife copper slag:1||Energy Input:1||Energy material:1||Enthalpy change:1||Epitaxial growth:1||Equiaxed crystal:1||Equiaxed solidification structure:1||Equilibration techniques:1||Equilibrium Partial Pressure:1||Erosion:1||Excess Free Energy:1||Excess free:1||Excess free energy:1||Experimental data:1||Exposure temperature:1||Eyring equation:1||FE10MASSPERCENTNI ALLOY:1||FLUX:1||FORMATION BEHAVIOR:1||FORMATION MECHANISM:1||FTIR:1||Fe19%Cr10%Ni alloy:1||FeCr:1||FeNb:1||FeO reduction:1||Ferric arsenate:1||Ferritic Stainless Steel:1||Ferritic stainless steel:1||Ferrochromium:1||

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