ScholarWorks@Hanyang University ERICA Campus: Lee, Sunyong Caroline

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Lee, Sunyong Caroline (이선영)

ERICA 첨단융합대학 (ERICA 신소재·반도체공학전공)

Research Area: 세라믹 및 전자 재료, 저탄소 재료 (CO2 광환원), 에너지 재료, ceramic and electronic materials, Low Carbon materials, Energy materials

Tel 031-400-5221
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Photocatalysis:11||TiO2:9||Dry deposition:9||Electrochromic:7||Sintering:6||Electrochromic device:6||Zinc oxide:5||Inkjet printing:4||Cu:4||copper nanoparticles:4||Heterostructure:4||1Octanethiol:4||octanethiol:4||1octanethiol:4||Tungsten oxide:4||Antimonydoped tin oxide:4||nanocomposites:4||Nanoparticles:3||Dyesensitized solar cell:3||Kinetic spray technique:3||Graphitic carbon nitride:3||CO2 photoreduction:3||CO2 reduction:3||TEM:3||Reduced graphene oxide:3||Nepal:3||thermal residual stress:3||1Octanol:3||Ion storage layer:3||Gas sensor:3||Photocatalyst:3||Thin films:3||Nanoparticle:3||Chemical synthesis:3||TiO2 nanofibers:3||Nanoparticle deposition system:3||functionally graded material (FGM):3||Nanoparticle deposition system (NPDS):3||CO2 selectivity:3||polytypoid:2||Nanopowder:2||Nanostructures:2||ATO:2||probebased data storage:2||cellulose:2||Solventfree:2||Solvothermal method:2||Cellulose:2||Prussian blue:2||conductivity:2||NiO:2||Gas sensors:2||DyeSensitized Solar Cell:2||Hydrothermal synthesis:2||FEM (finite element method):2||FESEM:2||Surface morphology:2||CO2 photoreduction:2||Reconfigurable Video Coding:2||electrochromism:2||Octanethiol:2||electron energy loss spectroscopy:2||Microstructure:2||FILMS:2||H2 evolution:2||Microstructures:2||Dyesensitized solar cells:2||fieldemission transmission electron microscope:2||Crystal structure:2||finite element analysis:2||thin films:2||finite element method (FEM):2||EFFICIENT:2||Oxides:2||fluorinated carbon (FC) film:2||Kinetic spray:2||functionally graded material:2||TiO2 quantum dots:2||PEDOT:PSS:2||Al2O3:2||POWDERS:2||MoSe2:2||highresolution transmission electron microscopy:2||Hematite:2||Fibers:2||Cu powder:2||inkjet printing:2||VISIBLELIGHT IRRADIATION:2||VSAM:2||Flash light sintering:2||linear mixture rule:2||Vanadium oxide:2||Chemical method:2||Biocomposites:2||maximum principal stress theory:2||Particle:2||NPDS:2||Semiconductor:2||DC magnetron sputtering:2||MPEG:2||Copper:2||Nano particle deposition system (NPDS):2||Xray photoelectron spectroscopy:2||XPS:2||XRD:2||Photocatalytic CO2 reduction:2||Silver nanoparticles:2||Photodegradation:2||Nanocomposite coating:2||Nanoparticle deposition system:2||Nanoparticle deposition system (NPDS):2||anisotropy:2||COMPOSITES:2||photocatalysis:2||atomic force microscope (AFM):2||atomic force microscopy:2||Coating:2||DSSC:2||Electrospinning:2||Nanoparticle deposition:2||Polymers:2||Mechanical properties:2||Dry deposition system:1||DrySpray:1||Dryspray method:1||Dual electrochromic device:1||Dual phase nanostructures:1||Durability test:1||Duty cycle:1||Dyesensitized solar cell (DSSC):1||Dynamic smart window:1||ECF method:1||ELECTRONIC WASTE:1||ENHANCED PHOTOCATALYTIC ACTIVITY:1||ENHANCED PHOTOELECTROCHEMICAL PERFORMANCE:1||Eddy current:1||Electrical conductivity:1||Electrical properties:1||Electrical properties.:1||Electrospinning:1||Electrochemical properties:1||Electrochromic (EC) device:1||Electrochromic cell:1||Electrochromic devices:1||Electrochromic supercapacitor:1||Electrochromism:1||Electrodeposition:1||Electron transport:1||Environmental friendly method:1||Epoxy:1||Extrusion additive manufacturing:1||FACILE SYNTHESIS:1||FDM (fused deposition modeling):1||FGM (functionally graded material):1||FGM (functionally graded materials):1||FTIR:1||Faceted photocatalysts:1||Fe4.5Si:1||Fe6.5Si soft magnetic cores:1||Fe/Diamond composite:1||Ferrocene:1||Ferroelectric film:1||Fewlayer graphene:1||Field emission:1||Film:1||Flashlight sintering:1||Flashlight sintering:1||Flexible DSSC:1||Flexible PLA:1||Flexible Polymer:1||Flexible film:1||Flexible sensor:1||Fourier transform infrared spectrometer (FTIR):1||Fourier transform infrared spectroscopy:1||Fracture toughness:1||Functional composites:1||Functionally graded material (FGM):1||Functionally graded materials:1||GC3 N4:1||GRAPHENE:1||GRAPHITICCARBON NITRIDE:1||Gel polymer electrolyte:1||Gender:1||Grain growth:1||Graphene:1||Graphene flakes:1||Graphite:1||Graphiticcarbon nitride:1||HRTEM:1||HYBRID PHOTOCATALYSTS:1||HYDROGEN GENERATION:1||HYDROGENPRODUCTION:1||Hardness:1||Heat treatment:1||Heating system:1||Heterophotocatalyst:1||Heterogeneous catalysis:1||Heterojunction:1||Heterojunctions:1||High Mountain (고산지역):1||High frequency induction heating:1||High thermal conductivity:1||Highenergy ballmilling:1||Highfrequency applications:1||Hightemperature hardness:1||Hightemperature strength:1||Hollow:1||Hollow zinc stannate nanofiber:1||Hot press:1||Humidity:1||Hybrid composites:1||Hybrid photocatalyst:1||Hybrid power system:1||Hybrid semiconductors:1||Hybrid systems:1||Hybrids:1||Hydrogen:1||Hydrophobicity:1||Hydrothermal method:1||Hydrothermal route:1||Hysteresis curve:1||INKS:1||INTERPARTICLE CHARGETRANSFER:1||Impedance spectroscopy:1||In situ deposition:1||Inductionheating furnace:1||Inkjet:1||Inkjetprinted pattern:1||Integrated cell:1||Iron nanopowder:1||Joining:1||Kinetic spray process:1||Kinetic spraying:1||LSPR effect:1||Laser:1||Laser Powder Bed Fusion:1||Laser assited nano particle deposition system:1||Laser parameter optimization:1||Laser scan strategies:1||Lifetime:1||Line patterning method:1||Low energy process:1||MESOPOROUS TIO2:1||METAL:1||METALOXIDE:1||MORPHOLOGY:1||MWCNT/silica aerogel synthesis:1||Magnetocapacitance:1||Magnetron sputtering:1||Magnetron sputtering process:1||Mass transport:1||Material preference:1||Maximum power point tracking:1||Mechanical alloying:1||Mechanism:1||Metal TIMs filler:1||Metal and ceramic deposition:1||Metalceramic nanocomposites:1||Metals:1||Methylene blue:1||Mg(OH)2 nanoparticles:1||Micro Hydro Power Generation (소수력 발전):1||Micro hydro power (MHP):1||MicroEnd Mill:1||Microhardness:1||Microsized line pattern:1||Microstructural analysis:1||Microstructure changes:1||Microstructure control:1||Mineralization:1||Mini Grid System (소형전력망):1||Mini grid:1||Mo–Cu–(N):1||MoCuCrN:1||Mo/N:1||MoS2:1||MoSe2:1||Model house test:1||Molecular dynamics (MD) simulation:1||Mos(2):1||Multicolor chromic:1||Multicomponent exsolution:1||Multiwalled carbon nanotubes:1||Multicomponent composite:1||Multilayer ceramic capacitors:1||Multilayer deposition:1||Multiple heterojunction:1||Multiple targets:1||NANOPARTICLES:1||NANOWIRE ARRAYS:1||NO2 sensor:1||NPDS (nanoparticle deposition system):1||Nano Particle Deposition System:1||Nano particle deposition system:1||NanoParticle Deposition System:1||Nanosized:1||Nanosized copper:1||Nanocomposite coating:1||Nanocomposite coatings:1||Nanofibers:1||Nanoindentor:1||Nanoparticle deposition systems (NPDS):1||Nanotubes:1||Natural fiber composites:1||NiAl2O3 joining:1||NiAl2O3 joint:1||NiTiO3NF:1||NiTiO3:1||NiTiO3 NFs:1||Nickel oxide:1||Nickel powder:1||Nitinol wire:1||Nitrogen dioxide:1||O2 pretreatment:1||Octahedron:1||OffGrid:1||Offgrid System (독립망 시스템):1||Offgrid system:1||Ondol:1||Opaque gel electrolyte:1||Optical properties:1||Optimization:1||Organic pollutants:1||Oriented Vickers indentation test:1||Oxidation resistance:1||Oxygen vacancy:1||PLA:1||PPyNiO hybrid nanocomposite:1||PPyWO3 hybrid nanocomposites:1||PRECIOUS METALS:1||PRINTED ELECTRONICS:1||PRINTEDCIRCUIT BOARDS:1||PROTONATION:1||PVP solution:1||PZT:1||PZT actuator:1||PZT cantilever:1||PZT degradation:1||PZT(lead zirconate titanate) capacitor:1||Paper substrate:1||Partially prealloyed powder:1||Particle deposition:1||Particle printing technology:1||Particle size control:1||Particle size optimization:1||Pattern width:1||Photoelectrode:1||Photocatalytic activity:1||Photoelectrochemical:1||Photoelectrochemical cell:1||Photovoltaic Generation (태양광 발전):1||Physical vapor deposition:1||Piezoelectric material:1||Planarization:1||Planetary ball mill:1||Plasmaenhanced chemical vapor deposition:1||Polyester:1||Polyether sulfone:1||Polyethylene:1||Polymermatrix composites (PMCs):1||Polystyrene:1||Polytypoid:1||Porous film:1||Porous materials:1||Porous photocatalysts:1||Porous texture:1||Powder injection molding:1||Powder metallurgy:1||Power management unit:1||Pressureless sintering:1||Pulsedwire evaporation:1||Quality of life:1||RECOVERY:1||REDUCTION:1||RESISTANCE:1||ROOMTEMPERATURE:1||Rapid prototyping:1||Reactive magnetron sputtering:1||Reactive radicals:1||Recombination:1||Recycling:1||Refractory highentropy alloy:1||Renewable Energy System:1||Renewable energy:1||Renewable energy (RE):1||Reversible metal electrodeposition (RME):1||Reversible metal electrodeposition device:1||Revisible actuator:1||Room temperature:1||Room temperature deposition:1||Room temperature processing:1||Roughness:1||Sscheme:1||SAMs:1||SCRAP:1||SENSOR:1||SIZE:1||SMAs (shape memory alloys):1||SMC (shape memory composite):1||SME (shape memory effect):1||SMPs (shape memory polymers):1||SPECTROSCOPY:1||SRO(strontium rutanate):1||STABILITY:1||STATE:1||SUS mold:1||SYSTEM:1||SYSTEM NPDS:1||Scanning electron microscopy:1||Scattering layer:1||Selfassembled monolayer (SAM):1||Selfbleaching:1||Selfharvesting:1||Semiconductors:1||Sense difference:1||Sex:1||Si3N4Al2O3 joining:1||SiC:1||SiC/Ni composite coating:1||Silver nanoparticle:1||Silver nanowire:1||Simulation:1||Single‐alloy target:1||Single alloy target:1||Single alloying target:1||Single edge notched bending:1||Sintered magnetic cores:1||Sintering aids:1||Sintering gas:1||Sintering method:1||Size:1||Si₃N₄Al₂O₃joining:1||Smart Grid (스마트 그리드):1||SnO2:1||SnO2 thin film:1||SocioEconomic:1||Soft magnetic composites:1||Solgel:1||Solgel synthesis:1||Solgel technique:1||Solid oxide fuel cell:1||Solid polymer electrolyte:1||Solid polymer electrolyte (SPE):1||Spark plasma sintering:1||Sr2RuO4:1||Stability:1||Standoff distance (SoD):1||Standard Clean1:1||Structural engineering:1||Substrate:1||Sulfur:1||Surface hardness:1||Surface modification:1||Surfaceactive sites:1||Sustainability (지속 가능성):1||Sustainable Energy (신재생 에너지):1||TDMA numerical analysis:1||TEMPERATURE:1||THERMAL VAPOR CONDENSATION:1||TIO2:1||TITANIUMDIOXIDE:1||Taguchi method:1||Tensile specimen:1||The electrochromic device:1||Thermal CVD:1||Thermopiezoelectric Si3N4 cantilever:1||Thin film:1||Thin film deposition:1||TiAlXN ternary coatings:1||TiO2 hollow nanoparticles:1||TiO2 powder:1||TiO2/PEDOT:PSS hybrid composite film:1||Titanium dioxide (TiO2):1||Titanium oxide:1||Top electrode:1||Transition metal dichalcogenide:1||Translucent alumina:1||Transparent conductive electrode:1||Transparent conductive electrode (TCE):1||Tribofilm:1||Tungsten oxide (WO 3 ):1||UHV:1||UV curing:1||UVvis spectroscopy:1||Vaccine Delivery Strategy:1||Vapor coating:1||Vapor selfassembled multilayers:1||Ventilation:1||Visible light:1||WATER:1||WCCo micro drill bit:1||WO3:1||Water purification:1||Water treatment:1||Wateratomized iron powder:1||Wateratomized lowalloy steel powder:1||Wind Power Generation (풍력 발전):1||Xray photoelectron spectroscope (XPS):1||Zscheme CuSe2/ZnSe heterostructure:1||Zero transmittance:1||Zinc–air battery:1||ZnO:1||ZnSe:1||activation energy:1||alloying elements:1||ambient pressure drying:1||antioxidation:1||antistiction layer:1||artificial photosynthesis:1||atomic force microscopy (AFM):1||benzylpyrazolyl coumarin:1||bimodal Fe nanopowder agglomerate:1||biocomposites:1||biodegradable:1||biodegradable polymer:1||biomaterials:1||biomimetics:1||biopolymers:1||bismuth oxychloride:1||cantilever:1||capacitors:1||carbonnanotube:1||catalysts:1||chemical bath deposition:1||clay:1||coating:1||coefficient of thermal expansion:1||composite:1||compressive strength:1||copper:1||copper powders:1||core loss:1||densification:1||deposition:1||deposition system:1||dielectric properties:1||dry deposition:1||dry&#8208:1||dualband smart window:1||dualnozzle MEX 3D printing:1||dyesensitized solar cell:1||electrical coupling:1||electrolyte chemistry:1||electron probe Xray microanalysis (EPMA):1||electrophoretic deposition:1||electroplating:1||electrospining:1||elongated powders:1||etch rate:1||etching:1||exposed facets:1||fibers:1||finesized etching:1||finite element method:1||finite element method.:1||flash light sintering:1||flashlight sources:1||functional gradient material:1||functionally grade material:1||fused deposition modeling:1||gC3N4:1||grain size:1||graphene:1||heterogeneous catalysis:1||high speed:1||hollow structure:1||hydrophobic nature:1||hydrothermal method:1||hygiene:1||hysteresis curve:1||immunization:1||injection molding:1||inkjet:1||intercrystalline void:1||ionic liquids:1||ionomer:1||lead zirconate titanate (PZT) capacitor:1||lithiumion battery:1||load impedance control:1||lowenergy ball mill:1||luminancecontrolled oscillator:1||maximum tensile stress theory:1||metal ceramic composite:1||metalinsulatormetal structure:1||metals:1||micronozzle:1||microstructural development:1||mother and child health:1||multicomponent reaction:1||nano composite deposition system:1||nano particle deposition system:1||nano particle deposition system (NPDS):1||nano particle reinforced polymer composites:1||nanoparticle deposition system:1||nanosized:1||nanoclustered nanowires:1||nanomaterials:1||nanostructures:1||nickel:1||nickel powders:1||octafluorocyclobutane (C4F8):1||octanol:1||offgrid:1||optical materials and properties:1||particle velocity:1||patchbased image:1||perovskites:1||photocatalysts:1||photoelectrochemical cell:1||piezoelectric:1||piezoresistor:1||plasma enhanced chemical vapor deposition (PECVD):1||plasma materials processing:1||polar surface:1||polaronic and plasmonic effect:1||poly(propylene):1||polyimide:1||polymer:1||polystyrene:1||polyvinylpyrrolidone (PVT):1||powder processing:1||prevent oxidation:1||probe:1||pulse:1||quantum nanowires:1||rapid prototyping:1||reduced graphene oxide:1||renewable energy:1||rural village:1||sanitation:1||secondary cells:1||self assembled monolayer:1||semiconductor:1||sialon:1||sialon polytypoid:1||silicon:1||silicon grass:1||silicon micro cantilever:1||silicon nitride:1||silicon substrate:1||sintering:1||sintering profile:1||social network:1||sociodemographic:1||solid carbon source:1||solvent:1||sound insulation:1||soundproof:1||spark plasma sintering:1||surface:1||surface oxidation:1||surface plasmon resonance effect:1||surfaces:1||tetraphenylporphyrin:1||texture image compression:1||thermal stress:1||thermal time constant (TTC):1||thermopiezoelectric cantilever:1||thermopiezoelectric cantilevers:1||thickness:1||tip:1||topographical analysis:1||tungsten trioxide:1||twostep sintering:1||ubiquitous sensor network:1||vaccination:1||vapor deposition:1||vapor selfassembled monolayer (VSAM):1||wO(3):1||wafer Lever transfer:1||waferlevel transfer:1||water:1||writing power:1||고주파유도가열:1||동선:1||복호화 기술정보:1||비트스트림 문법:1||와전류:1||친환경방:1||(NiCu)/YSZ composite:1||코덱 설계:1||1Octanethiol Coating:1||1Octanethiol coating:1||3D mesh coding:1||3D printer system:1||3D printing:1||4D printing:1||ALPHAFE2O3:1||ASH:1||Accelerated life test:1||Adding third elements (Si, B and Cr):1||Adsorption:1||Aerodynamically focused nanoparticles:1||Aerosol deposition (AD):1||Aerosol deposition method (ADM):1||Al2O3 matrix composites:1||Al2O3Ni:1||Aluminum coating:1||And interval:1||Antioxidation:1||Antimony–tin oxide (ATO):1||Antioxidized copper nanoink:1||Appropriate Technology:1||Aqueous chemical method:1||Artificial photosynthesis:1||Au nanoparticles:1||Auxiliary heating:1||Ball milling process:1||Barium titanate:1||Bifunctional electrocatalyst:1||Biocomposite:1||Biodegradable:1||Biodegradable material:1||Bismuth oxychloride:1||Bitstream syntax:1||Black titania:1||Blending film:1||Bosch process:1||Bracket:1||CHEMICALSYNTHESIS:1||CO selectivity:1||CO2 desorption:1||CO2photoreduction heterostructure:1||CO2 adsorption:1||COMBUSTION:1||CONDUCTING POLYMERS:1||COPPER NANOPARTICLES:1||CTO(Chronic Total Occlusion):1||CVC:1||CVD process:1||Cacti:1||Calcified Deposits:1||Capacitor:1||Carbon:1||Carbon nanofibers:1||Carbon nanotube:1||Catalystsupport hybrid:1||CdS:1||CdSgraphene:1||Ce:1||Cellulose nano fiber:1||Ceramic:1||Ceramic deposition:1||Ceramicmatrix composites (CMCs):1||Ceramics:1||Cermet:1||Chalcogenides:1||Chemical route:1||Chemical vapor deposition (CVD):1||CoElectroplating:1||Coating layer thickness:1||Codec design:1||Cold gas dynamic spray:1||Cold gas spraying (CGS):1||Coldchain:1||Coloration efficiency:1||Compact tension:1||Compaction:1||Compacts/compaction:1||Composite:1||Composite materials:1||Conductive copper nanoink:1||Conductive ink:1||Copper nanoparticles:1||Copper nanoparticles:1||Coreshell nanocomposites:1||Coronary Artery:1||Corrosion resistance:1||Cost effective process of thin films:1||Counter electrode:1||CrDiamondlike carbon film:1||Crack free:1||Crystalline size:1||Cu‐based coating:1||Cu Powder:1||Cu nanoparticle:1||Cu wire:1||Cupric oxide:1||DC electrical conductivity:1||DEGRADATION:1||DOPED POLYANILINE:1||DOPED ZNO:1||DRIVEN PHOTOCATALYSIS:1||DSSC (dye sensitised solar cell):1||Decoder Description:1||Defective multilayer graphene:1||Degradation:1||Deposited Al property:1||Deposition:1||Deposition mechanisms:1||Deposition window:1||Developing country:1||Dispersion:1||Dispersion stability:1||Distributed generation (DG):1||Dopingm:1||Double Layer Structure:1||Double target:1||Drilling Tool:1||Droplets:1||Drug delivery system (DDS):1||Dry deposition method:1||

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