ScholarWorks@Hanyang University: Kim, Young Beom

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Kim, Young Beom (김영범)

COLLEGE OF ENGINEERING (SCHOOL OF MECHANICAL ENGINEERING)

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Tel 02-2220-0544
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Solid oxide fuel cell:13||Solid oxide fuel cells:7||Flash light sintering:5||atomic layer deposition:5||Polymer electrolyte membrane fuel cell:4||Computational fluid dynamics:4||Strontiumdoped lanthanum cobaltite:3||Atomic layer deposition:3||Yttriastabilized zirconia:3||Yttriastabilized zirconia (YSZ):3||Ionic conductivity:3||Gadoliniadoped ceria:3||Nanoporous substrate:3||Gas diffusion layer:2||flash light irradiation:2||Mesoporous:2||solid oxide fuel cell:2||solid oxide fuel cells:2||Ydoped barium zirconate:2||thinfilm electrolyte:2||DC reactive magnetron sputtering:2||Lanthanum strontium cobalt ferrite:2||Grain boundaries:2||Metal organic chemical solution deposition:2||Yttriadoped ceria:2||Grain boundary:2||Lanthanum strontium cobaltite:2||low temperature solid oxide fuel cells:2||Samariadoped ceria:2||lowtemperature solid oxide fuel cell:2||Samariadoped ceria (SDC):2||Columnar grain:2||nanosphere lithography:2||Chemical solution deposition:2||Oxygen reduction reaction:2||Ceramic electrode:2||Constrained sintering:2||oxygen reduction reaction:2||Energy harvesting:2||Electrical conductivity:2||Lowtemperature solid oxide fuel cell:2||Electrostatic spray deposition:1||Energy system:1||Epitaxial growth:1||Flash light irradiation:1||Flash light sintering (FLS):1||Flash light sintering(FLS):1||Flow field modi fication:1||Fluxcored arc welding:1||Fuel Cells:1||Functional layer:1||Gadoliniumdoped ceria:1||Gas sensing:1||Global index map:1||Grain structures:1||HREM:1||Heat up variables:1||Heatsink:1||IGBT:1||Intense pulsed light:1||Intense pulsed light sintering:1||Intense pulsedlight:1||Intermediate temperature solid oxide fuel:1||Ionic conduction thorough grain boundary:1||Ionic conductors:1||Laminated structure:1||Lanthanum strontium cobalt ferrite oxide (LSCF):1||Lanthanum strontium cobalt ferrite:1||Lanthanum strontium manganese:1||Laser printing:1||Leakage current:1||LiO2 battery:1||Light absorption:1||Low temperature solid oxide fuel cell:1||Low temperature solid oxide fuel cells:1||LowTemperature Solid Oxide Fuel Cells:1||Lowtemperature SOFC:1||Lowtemperature solid oxide fuel cells:1||Mass transfer characteristic improvement:1||Metal assisted chemical etching:1||Metal electrode:1||Metal foam flow field:1||Metal organic chemical solution deposit:1||Metal oxide thin films:1||Methane oxidation:1||Mixed ionic electronic conductor:1||NDT:1||Nano structure electrode:1||Nanorod:1||Nanocrystalline materials:1||Nanofibers:1||Nanoporous supporting substrate:1||Nanosphere Lithography:1||Nanospherical patterning:1||Nanostructuring:1||Nanowire:1||Ni anode:1||Nisamariadoped ceria (NiSDC):1||Nonprecious ceramic electrode:1||Novel Nano Electrode Structure:1||Numerical analysis:1||Oxide ion conducting ceramic:1||Oxide overlayer:1||Oxidecapping layer:1||Oxygen Reduction Reaction (ORR):1||Oxygen activation:1||Oxygen evolution reaction:1||Oxygen kinetics:1||Oxygen reduction reaction (ORR):1||Perovskite oxides:1||Photovoltaic device:1||Physical vapor deposition:1||Pinholes:1||Platinum composite:1||Portable:1||PostAnnealing Process:1||Postheat treatment:1||Proton conducting ceramic:1||Proton conducting ceramic electrolyte:1||Proton conducting ceramic fuel cell:1||Pt loading:1||Reactive ion etching:1||Reverse electrowetting:1||Reverse electrowettingondielectric:1||Ruthenium:1||SOFC:1||Samariumdoped Ceria (SDC):1||Scandiastabilized zirconia:1||Screen printing:1||Secondary ion mass spectrometry:1||Secondary phase:1||Selectivepatterned gas diffusion layer:1||Selfsustainable:1||Serpentine structure:1||SiO2 spheres:1||Side reaction:1||Silver current collector:1||Sintering aid:1||Sinusoidal Flow:1||Sodiumion batteries:1||Solid Oxide Fuel Cell:1||Solid Oxide Fuel Cells (SOFC):1||Solid electrolyte:1||Solid oxide fuel cells(SOFCs):1||Solidoxide fuel cell (SOFC):1||Solutionliquidsolid:1||Sputter:1||Sputtering:1||Stacking pressure:1||Start up process:1||Structural analysis:1||Supercapacitors:1||Surface cation migration:1||Surface engineering:1||TEM:1||Thermal barrier coating:1||Thermal stability:1||Thin film electrolyte:1||Thin film solid oxide fuel cells:1||Thin films:1||Thinfilm:1||Thinfilm ceramic electrodes:1||Triple Phase Boundary:1||Two phase analysis:1||Ultrathin electrolyte:1||Ultrafast flashlight sintering:1||Vapor deposition:1||Vaporliquidsolid:1||Water Cooling:1||Xray diffraction:1||YDC surface grain boundary activity:1||YDC/YSZ composite electrolyte:1||Yttria stabilized zirconia:1||YttriaStabilized Zirconia:1||Yttriumdoped barium zirconate:1||allsolidstate battery:1||anodized aluminum oxide:1||antireflection:1||bilayer:1||cathode interlayer:1||cells (ITSOFCs):1||cermet:1||chemical solution deposition:1||chemical solution deposition (CSD):1||contact acoustic nonlinearity (CAN):1||contact condition:1||defects chemistry:1||dopant distribution:1||doped ceria:1||doped ceria films:1||dopedceria interlayer:1||electrical signals:1||energy generation:1||femoral:1||functional interlayer:1||functional thin films:1||gadolinia doped ceria:1||gadoliniadoped ceria (GDC):1||gadolinium doped ceria (LSCFGDC):1||gap monitoring:1||gastrocnemius:1||grain boundaries:1||graincontrolled layer (GCL):1||interface:1||interfacial stiffness:1||interlayer:1||interlayers:1||longitudinal wave:1||low temperature SOFC:1||lowtemperature solid oxide fuel cells:1||machine learning:1||metal electrodes:1||micro solid oxide fuel cells:1||nanoparticle:1||nanostructure:1||nanostructure array:1||nonlinear ultrasonics:1||oxide ion conducting ceramic electrolyte:1||oxide ion incorporation:1||particle ALD:1||perovskite material:1||quantum simulation:1||rGOTiO2 nanocomposite:1||random convolutional kernel transform (ROCKET):1||rootpass welding:1||roughness:1||samariadoped ceria:1||scandia stabilized zirconia:1||scandiastabilized zirconia (ScSZ):1||secondary ion mass spectroscopy (SIMS):1||side reaction:1||surface oxygen exchange:1||thermal stability:1||timeseries:1||transmission electron microscopy (TEM):1||ultrasonic:1||ultrathin NiO nanosheets:1||vacancy segregation:1||yttriadoped ceria:1||고체 전해질:1||고체산화물 연료전지:1||대체 소결법:1||3D fuel cell architecture:1||플래시 광소결법:1||3D nanostructuring:1||Al6061t6:1||Alternative sintering:1||Anisotropic permeability:1||Anode:1||Anodesupported fuel cell:1||Anodes:1||Anodized aluminum oxide (MO):1||Atomic layer deposition (ALD):1||Bicrystal structure:1||Bifunctional catalyst:1||Bilayer electrode:1||Bismuth oxide sintering aid layer:1||CFD:1||Carbide:1||Carbon coating:1||Catalytic activity:1||Catalytic burner:1||Cathodic interlayer:1||Cation crystallinity:1||Ceramic Electrolyte:1||Ceramic electrolyte:1||Ceramics:1||Chemical side reaction:1||Cosputtering:1||Cosputtering technique:1||Composite electrolyte:1||Conductivity:1||Conventional channel types:1||Dielectric thin film:1||EDS:1||EELS:1||EIS and SIMS:1||EMG signal:1||Electrochemical impedance spectroscopy:1||Electrode:1||Electrolyte:1||Electron microscopy:1||Electrospinning:1||Electrostatic Spray Deposition (ESD):1||

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