ScholarWorks@SUNGKYUNKWAN UNIVERSITY: KIM, YOUN JEA

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KIM, YOUN JEA (김윤제)

Engineering (Mechanical Engineering)

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Computational Fluid Dynamics:9||Ferrofluid:8||Computational fluid dynamics (CFD):7||CFD:7||CFD(전산유체역학):5||Von Mises Stress:4||Sludge Pump:4||Micromixer:4||Centrifugal compressor:4||CFD (computational fluid dynamics):3||Isentropic efficiency:3||Response surface method:3||Thermal plasma:3||Response Surface Method(반응표면법):3||Computational fluid dynamics:3||Magnetic nanoparticle:3||Aeroacoustics:3||Shape optimization:3||Optimization:3||Design of experiment (DOE):3||CFDDEM coupling method:2||Structural Safety:2||arc plasma:2||Structural Stability:2||Mixed flow turbine:2||Combustion:2||Gaseous extinguishing nozzle:2||Modularization:2||computational fluid dynamics:2||Air amplifier:2||Pressure drop(압력 강하):2||Langmuir probe:2||design of experiment:2||Energy harvesting:2||Propeller:2||Propeller hydro turbine:2||Euler Equation:2||Best efficiency point:2||Thermal Reignition:2||Lorentz force:2||thermal puffer:2||thermal stress:2||Aspect ratio:2||Remnant Arc Column:2||CAA:2||Response surface method (RSM):2||Head:2||Fluidstructure interaction:2||Tower Flange:2||CAA(공력음향해석):2||Numerical simulation:2||Heat transfer:2||SF6 SelfBlast Switching Chamber:2||heat exchanger tube:2||Magnetic material:2||UAM:2||UAV:2||1Way Fluidstructure Interaction Analysis:2||Magnetophoresis:2||Free vortex theory:2||Optimal design:2||CFD (Computational Fluid Dynamics):2||Altitudes:2||Hydrocyclone:2||Shaft power:2||Freeburning arc:2||Wind Tower:2||Wind Turbine:2||Blade number:2||Absorbent:2||Zeta Potential:2||Finite element method (FEM):2||Micro hydropower:2||ablation:2||Splitter blade:2||Finite volume method (FVM):2||CFD(전산유체해석):2||Draft tube:1||Durability life:1||Dynamic distortion:1||Dynamic mesh:1||Ejection angle(분사각):1||Ejector:1||El:1||Electric arc:1||Electrical properties:1||ElectroOsmotic Effect:1||Electrode Positions:1||Electroosmotic Effect:1||Energy:1||Exothermic performance:1||ExplosionProof(방폭):1||External Magnetic Field:1||Extinguishing nozzle(소화 노즐):1||FIB:1||FSI Method(유체구조연성해석):1||FWKO:1||FWKO multiphase separator oilsand primary separator inlet head:1||Fast Fourier transform (FFT):1||Fatigue Safety Factor:1||Ffowcs Williams &:1||Ffowcs Williams and Hawkings equation:1||Filmcooling effectiveness(막냉각 효율):1||Fintube heat exchanger:1||Fine Particle:1||Fine particle:1||Finite volume method:1||Fire Suppression Nozzle(화재 진압 노즐):1||Fire extinguishing nozzle:1||Fire extinguishing nozzle(소화노즐). Noise(소음):1||Fire suppression:1||Fireextinguishing nozzle:1||Flexible Display:1||Flexible device:1||Flow Instability(유동 불안정):1||Flow control technique:1||Flow noise:1||Fluid structure interaction analysis:1||FluidStructureAcoustic Interaction(FSAI):1||Flutter:1||Foam spray nozzle:1||Focused ion beam (FIB):1||Foucusing Efficiency(집속효율):1||Francis turbine:1||FreeBurning Arc:1||FreeBurning Arcs:1||Fretting:1||Fretting fatigue:1||Fretting wear:1||Fuel cell:1||Furnace:1||GE/EPRI method:1||Gapfill process:1||GasLiquid:1||Gasliquid flow(기체액체 유동):1||Gaseous Extinguishing(가스계 소화):1||Gaseous extinguishing systems(가스계 소화설비):1||Genetic Algorithm:1||Genetic aggregation:1||Graphite:1||Groove shapes:1||HVOF:1||HVOF thermal spray:1||HVOF thermal spray gun:1||Hawkings equation:1||Heat Transfer and Fluid Flow:1||Heat recirculation:1||Heat transfer enhancement:1||Heat transfer performance(열전달 성능):1||Helical pattern:1||Highpressure hydraulic cylinder:1||Hybrid gate dielectrics:1||Hydraulic Actuator(유압 액추에이터):1||Hydraulic actuator(유압 액추에이터):1||Impact Analysis:1||Impeller:1||Impeller(임펠러):1||Inline axial oil–water separator:1||Indium tin oxide:1||Induced Gas Flotation:1||Induced Gas Flotation (IGF):1||Inlet Configuration:1||Inlet device:1||Irradiance:1||Jintegral estimation scheme:1||Kidney vortex(신장 와류):1||Laminar Flow:1||Latin Hypercube Sampling(라틴 하이 퍼큐브 샘플링):1||LiDAR sensor:1||Lie group:1||Local Thermal Equilibrium:1||MachZehnder interferometer:1||Machine Learning:1||Machine learning:1||Machinelearning:1||Magnetic Field:1||Magnetic Field Strength:1||Magnetic Nano Particle:1||Magnetic Nanoparticle:1||Magnetic body force:1||Magnetic field:1||Magnetic flux density:1||Magnetite/nonoxidative graphene:1||Magnetophoretic (MAP) force:1||Magnetophoretic Force:1||Magnetophoretic force:1||Mass Flow Amplifier(질량유량 증폭기):1||Metal Vapor:1||Methyl salicylate(살리실산 메틸):1||Micro Axial Turbine:1||Micro Bubble:1||Micro Electrode:1||Micro heater:1||MicroDroplet:1||MicroUV BioFluorescence Sensor:1||Microbubble:1||Microwave Plasma:1||Microwave plasma:1||Mixing Performance:1||Mixing performance:1||Mogulpattern:1||Mogulstructure:1||Motion characteristics(작동 특성):1||Multiobjective Optimization:1||Multiphase Flow:1||Multiphase separator:1||NACA airfoil:1||Nano / Micro:1||Nanofluid:1||Nanoparticle Synthesis:1||Nanostructured Materials:1||Natural convection:1||Neutral Mechanical Plane:1||Nozzle(노즐):1||OCSVM:1||Offshore Plant(해양 플랜트):1||Oil sands:1||OilBased Ferrofluid:1||Oilfree twinscrew air compressor:1||Oilinjected screw air compressor:1||Oily Wastewater:1||Optical Cell:1||Optimal Design:1||Optimization(최적화):1||Organic TTFT:1||Organic light emitting diode:1||Organic thin film transistor (OTFT):1||Overset grid method:1||PECVD:1||PEMFC:1||PHM:1||PTFE:1||PTFE ablation:1||PTFE vapor:1||Partial heating:1||Particle features and behaviors:1||Patterned Blocks:1||Patterning:1||Performance Curve (성능곡선):1||Plasma diagnostics:1||Polymers:1||Porous burners:1||Porous medium:1||Pressfitted shaft:1||Pressure fluctuation:1||Pressure recovery coefficient:1||RAC (Room Air Conditioner):1||RF sputtering:1||RI (radial inflow) turbine:1||RSM:1||RSM (Response surface method):1||RSM(반응표면법):1||Radiant burners:1||Renewable energy:1||Rheological Property:1||Rm/t ratio:1||Rotating Arc Discharge:1||Rotational velocity:1||SF6 Alternative Gas:1||SF6 gas:1||SPL (Sound pressure level):1||Safety estimation:1||Satellite Droplet:1||Scanning electron microscope (SEM):1||Scattering:1||Secondary Air:1||Selective Si growth:1||Selfconsistent model:1||Selfpriming vacuum pump:1||Separation efficiency:1||Serpentine duct:1||Serpentinepattern:1||Shape Optimization(형상최적설계):1||Sheath Flow:1||Sheath Flow Nozzle:1||Sheath Flow Nozzle(외장유동노즐):1||Singlechannel pump:1||Sludge and slurry:1||Solidliquid twophase flows:1||Sound pressure level (SPL):1||Spray and Droplets:1||Spurt vacuum pump:1||Stall(스톨):1||Static Analysis:1||Stretchable Heater:1||Sugarcane Bagasse:1||Superadiabatic:1||Supersonic Separator:1||Supersonic flow:1||Surge(서지):1||Swirl generator:1||Synthetic Metal Nanoparticles:1||TFTLCD:1||Themal Plasmas:1||Thermal Conductivity:1||Thermal Flow:1||Thermal Plasma:1||Thermal Plasmas:1||Thermal and Dielectric Capabilities:1||Thermal plasmas:1||Thermomagnetic Convection:1||Thin Film Transistors:1||Thin Film Transistors (TFTs):1||Thin film transistors:1||TimeofFlight:1||Tip clearance:1||Tip leakage flow:1||Total enthalpy loss coefficient:1||Total head:1||Tower Flange(타워 플랜지):1||Tower flange:1||Transferred Electric Arc:1||Transparent conductive oxide:1||Turbocharger:1||Turbulence mode:1||Twoway fluidstructure interaction:1||Ubend:1||Vacuum interrupter (VI):1||Vapor deposition:1||Ventilated disc:1||Venturi Effect(벤츄리 효과):1||Viscosity(점도):1||Volumetric efficiency:1||Volute:1||Von Mises Stress(폰 미제스 응력):1||Von Mises stress:1||Vortex generators:1||Water Treatment:1||Weber Number:1||Wind Tower(풍력 타워):1||Wind tower:1||Wind tunnel test(풍동실험연구):1||Yield Safety Factor:1||Zeta potential:1||ZnO thin film:1||ZrCrAlN:1||aIGZO:1||abrasive and impact wear:1||active layer:1||adsorption:1||amorphous indiumgalliumzincoxide (aIGZO):1||anomaly detection:1||arc constriction:1||arc modelling:1||axial magnetic field (AMF):1||bending process:1||centrifugal compressor:1||centrifugal pump:1||compressible fluid:1||computational fluid dynamics (CFD):1||convection:1||deposition rate:1||design of experiments:1||double photolithography:1||droplet evaporation:1||dyes:1||electrical discharge:1||electron microscopy:1||equivalence ratio:1||etching:1||evaporation:1||external pressure:1||failure criteria:1||ferrofluid:1||finite element analysis:1||fireextinguishment foam:1||flexible display:1||flow angle:1||foam expansion ratio:1||fog dissipation:1||fuzzy algorithm:1||gallium arsenide:1||gas circuit breaker:1||gas turbine:1||genetic algorithm:1||graphene:1||h:1||heat radiation:1||heat transfer:1||helical coile:1||high voltage:1||highspeed railway vehicle:1||hybrid:1||inline oil separator:1||internal swirl element:1||leading and trailing edge:1||limit load:1||line width:1||lowk:1||machine learning:1||mechanical characteristics:1||metal vapor:1||micro tubular propeller turbine:1||microelectrode:1||micromilling:1||minimum length nozzle:1||mogulpatterned substrate:1||nanostructured:1||nozzle:1||ohmic heating:1||optimal design:1||optimization:1||particle shape:1||pentacene:1||permanent magnet:1||plastic collapse:1||polymerization:1||porous medium:1||pressure variation:1||radiation:1||rapid heating:1||redeposition:1||reactor design:1||reduced graphene oxide chemiresistor:1||reference stress method:1||residual stress:1||response surface:1||response surface method:1||restraint effect:1||semielliptical surface crack:1||semiconducting:1||simulation technique:1||soft lithography:1||solid carbon dioxide (SCD):1||sputter deposition:1||stretchable:1||stretchable electronics:1||stretchable forces:1||subsonic/supersonic flow:1||surface crack:1||surface temperature:1||synergetic effect:1||thermal and flow disturbance:1||thermal plasma:1||thermalstructural coupled analysis:1||thermoacoustic phenomena:1||thin film transistors (TFTs):1||tube support:1||turbulence:1||twophase flow:1||von Mises stress:1||vonMises stress:1||wet compression:1||구조 안전성:1||다상유동:1||미세기포:1||압축성 유동:1||유도공기부상법:1||일방향 유체구조 연성해석:1||전산 유체 역학:1||초음속 분리기:1||츙(화생방어):1||타워 플랜지:1||폰 미제스 응력:1||풍력타워:1||풍력터빈:1||1way Fluid Structure Interaction Analysis(일방향 유체 구조 연성 해석):1||AI:1||ANFP (active nano fountain pen):1||Acoustic Analogy:1||ActuatorMotor Assembly (액추에이터모터 어셈블리):1||Adverse Pressure Gradient:1||Aerodynamic and thermal disturbance:1||Aeroelasticity:1||Aerosol(에어로졸):1||Aircooled rotary furnace:1||Amorphous IndiumGalliumZincOxide (aIGZO):1||Amorphous Oxide Semiconductors (AOS):1||Angle of secondary air input:1||Arc Discharge:1||Arc Discharge Synthesis:1||Arcelect:1||Arrhenius model:1||Artificial Intelligence:1||Artificial Neural Network:1||Aspect Ratio(직경비):1||Asymmetric tip clearance:1||Atmospheric Pressure Plasma:1||Axialcompressor:1||Battery Cooling:1||BioFluorescence Sensor:1||Biomass:1||Blade Configuration:1||Blendedwingbody aircraft:1||Breakdown Index:1||Burner:1||CD nozzle:1||CFD (:1||CFD (Computational fluid dynamics):1||CFD(전산유체):1||CFD(전산유체역학:1||CFUBMS:1||CO2 Plasma:1||CVD:1||Carbon Dioxide Agent(이산화탄소 약제):1||Centrifugal Compressor(원심 압축기):1||Centrifugal Compressor(원심압축기):1||Chemical agent detection(화학작용제 탐지):1||Chemical agnet dispersion(작용제 확산):1||Chemical etching:1||Chemical vapor deposition (CVD):1||Clean extinguishing agent:1||Clearance(틈새):1||Coandă Effect(코안다 효과):1||Coandǎ effect:1||Coanda effect:1||Combustion characteristics:1||Compressible Flow:1||Concentration:1||ConicalFrustumPatterned:1||Contact Angle:1||Coolant flow passage(냉각 유로):1||Cr(VI):1||Cushion(쿠션):1||Cyclone separator(사이클론 분리기):1||DOE (design of experiment):1||DOE(실험계획법):1||Density of Electron:1||Design of Experiment(실험계획법):1||Design of Experiments(실험계획법):1||Design of experiments:1||Detecting Efficiency:1||Dielectric Reignition:1||Dielectric break:1||Diffuser:1||Diffuser Angle(확산각):1||Discharge angles:1||Discharge noise(방출소음):1||DorrOliver Flotation Cell:1||DorrOliver 부상기:1||Double jet filmcooling hole(이중분사 냉각홀):1||Doublesuction pump:1||

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(03063) 25-2, SUNGKYUNKWAN-RO, JONGNO-GU, SEOUL, KOREAsamsunglib@skku.edu

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