ScholarWorks@Hanyang University: Yook, Se Jin

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Yook, Se Jin (육세진)

COLLEGE OF ENGINEERING (SCHOOL OF MECHANICAL ENGINEERING)

Research Area: 입자공학(에어로졸), 열전달

Tel 02-2220-0422
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Collection efficiency:22||Natural convection:15||Aerosol:14||indoor air quality:8||Cyclone separator:7||Optimization:7||Thermal resistance:6||Thermophoresis:6||Virtual impactor:6||Hybrid nanofluid:6||PM10:5||Stokes number:5||Deposition velocity:5||age of air:5||Nanofluid:5||Thermal radiation:5||Electrostatic precipitator:5||Kalman filter:5||Heat sink:5||Radial heat sink:5||Wall loss:4||Age of air:3||Recursive input estimation algorithm:3||Ternary hybrid nanofluid:3||Air cleaner:3||Inertial impactor:3||Electrophoresis:3||ventilation system:3||MHD:3||Brownian diffusion:3||Inverse heat conduction problem:3||Indoor air quality:2||Thermal resistance network:2||Thermal resistance network method:2||Lorentz force:2||Louver dust collector:2||meanline design:2||Correlation:2||Analytical solutions:2||monodisperse particle generation:2||R245fa:2||nanoparticles:2||Radiation:2||CFD:2||organic Rankine cycle (ORC):2||Resuspended road dust:2||Triangular fin:2||Underground tunnel:2||PM2.5:2||PM2.5(초미세먼지):2||Inertial separation:2||Diesel vehicle emission:2||Flux tower:2||Ventilation system:2||Mist eliminator:2||Wafer:2||Particle deposition:2||thermal radiation:2||Mobile lab:2||Particle mass:2||triple diffusive convection:2||Particle number:2||air cleaner:2||air purifier:2||Jing Wang:2||wafer:2||Multilayered tube:2||axialflow turbine:2||buoyancy forces:2||Particulate contamination:2||chemical reaction:2||Particulate matter:2||NISTtraceable particle size:2||collection efficiency:2||Discharge electrode:2||Convective heating:2||correlation coefficient:2||curved shrinking sheet:2||Slit nozzle:2||deposition velocity:2||Cutoff size:2||LED lightbulb:2||electrophoresis:2||Subway train:2||Hospital ward:2||Laplace transform:2||Lie group transformations:2||Analytical:2||EUVL:2||gravitational settling:2||Omnidirectional inlet:2||Eckert number:2||Computational Fluid Dynamics(전산유체역학):2||hybrid nanofluid:2||Pressure drop:2||Ternaryhybrid nanofluid:2||Elemental carbon (EC):1||Elliptical concave impaction plate:1||Environmental and health effects:1||Expanding or contracting walls:1||FOUP:1||Fabric(섬유소재):1||Fibrous particles:1||Film flow:1||Filter:1||Fin heat conduction:1||Finheight profile:1||Fine Dust(미세먼지):1||Fine dust:1||Finite difference method:1||Fins:1||Forced Convection:1||Fractional derivative:1||Free Convection:1||Free convection:1||Free convection flow:1||Frost behavior:1||GMD:1||GSD:1||Generalized AtanganaBaleanu derivative:1||Generalized Cattaneo&apos:1||Generalized Fourier's law:1||Geometry:1||Gerdien ion counter:1||Gradient descent method:1||Gravimetric sensor:1||Gun barrel:1||Gyrotactic microbes:1||HVAC:1||Haphazard motion:1||Heat Dissipation(방열):1||Heat Sink(핫싱크):1||Heat and mass transfer:1||Heat exchanger fins:1||Heat load:1||Heat source:1||Heat transfer rate:1||Heat transfers:1||Heatsink:1||Highvolume sampler:1||Homogeneousheterogeneous chemical process:1||Horizontal annular inlet:1||Hybrid nanofl u i d:1||Hyperthermia:1||Impaction plate:1||Inclination angle:1||Inclined composite channel:1||Induced magnetic field:1||Induction motor:1||Industry 4:1||Inertial separator:1||Installation angle:1||Integral transforms:1||Inverse heat conduction:1||Inverse heat transfer problem:1||Iron loss:1||Jeffrey fluid:1||Kellerbox techniques:1||Lshaped fins:1||LED:1||LED Cooling system:1||LED Lighting(LED조명):1||LED cooling:1||LED light bulb:1||LED lighting:1||LMBP:1||Learning algorithms:1||Linear Thermal Radiation:1||Lithiumion battery:1||Local Nusselt number:1||Local skin friction coefficients:1||Local thermal nonequilibrium:1||MHD flow:1||MLR (Multi Linear Regression) analysis:1||Machine learning with simple linear regression:1||Magnetic:1||Magnetic field:1||Magnetite:1||Magnetohydrodynamics:1||Magnetohydrodynamic:1||Magnetohynamic:1||Mathematical models:1||Meanline design:1||Mixed Convection:1||Mobile laboratory:1||Moistened fin:1||Multilayered hollow cylindrical tube:1||Multiwalled carbon nanotubes (MWCNTs):1||Multiobjective optimization:1||NISTtraceable size:1||NOₓ:1||Nanofluids:1||Nanoparticle contamination:1||Nanoparticle of iron oxide:1||NonFourier flux:1||NonNewtonian Williamson fluid:1||NonNewtonian fluids:1||Nonlinear Thermal Radiation:1||Nonuniform tube arrangement:1||Nonlinear convection coefficients:1||Numerical:1||Offsetstrip fins:1||Onroad air pollution:1||Operating cost effectiveness:1||Optimization(최적화):1||Organic rankine cycle (ORC):1||Orientation angle:1||Orientation effect:1||Oscillatory TaylorCouette flow:1||Ozone emission:1||Ozone generation:1||PM:1||Packed bed:1||Packing materials:1||Paint Particle(페인트 입자 휘발성유기화합물 ):1||Parallel flow:1||Pareto front:1||Particle:1||Particle Removal Device:1||Particle concentration:1||Particle contamination:1||Particle deposition velocity:1||Particle mass concentration:1||Particle separation:1||Particle standard:1||Particulate Matter:1||Particulate Matter(입자상 물질):1||Particulate matter sensor:1||Passive cooling:1||Patient curtain:1||Perforated fins:1||Perforation:1||Phase change material:1||Photomask:1||Pin fin heat sink:1||Pin fins:1||Plant Factory(식물공장):1||Porous channel:1||Porous disk:1||Porous fin:1||Porous material:1||Porous media:1||Porous region:1||Portable emission monitoring system:1||Power consumption:1||Prabhakarlike fractional derivative:1||Prandtl number:1||Pressure Drop:1||Protection schemes:1||Pulsat i l e flow:1||Pulsatile flow:1||Quadratic convection:1||Quadratic thermal radiation:1||Quality factor:1||Rate type fluid:1||Realtime detection:1||Rectangular closed domain:1||Reduction(:1||Removal Efficiency:1||Response surface method:1||Response surface optimization:1||Resuspended road dust:1||Reynolds number:1||Riga plate:1||Road grade:1||Rotating roller:1||Rotating sphere:1||Round nozzle:1||Sakiadis flow:1||Sampling fraction:1||Sampling inlet:1||Sawtooth electrode:1||Scanner:1||Secondgrade fluid:1||Secondgrade ternary nanofluid:1||Sensitivity analysis:1||Shape optimization:1||SiO2 particles:1||Silver and copper:1||Silver/aluminium oxide:1||Simple linear regression:1||Sizeselective sampler:1||Sizeselective sampling:1||Soot particle:1||Space charge:1||Staggered pinfin array:1||Subsidiary cyclone:1||Subway:1||Subway particle:1||Subway tunnel:1||Subway(지하철):1||Suction:1||Suction and thermal radiation:1||Support Vector Machine Learning (SVM):1||Surface inspection tools:1||Sutterby rheological model:1||Symmetric temperature field:1||System air conditioner:1||TDMA:1||TSP:1||TernaryHybrid Nanofluid:1||Thermal:1||Thermal response:1||Thermomigration:1||Thermophoretic particle deposition:1||Thin film flow:1||Threedimensional:1||Threelayered flow:1||Tire wear particle:1||Train frequency:1||Train operation:1||Tree leaves:1||Tunnel(터널):1||Uneven/composite inclined stenosis:1||Unified analysis:1||Urban railway tunnel:1||Urban tree:1||VOCs( ):1||VOF method:1||Variable thermal conductivity:1||Vehicle acceleration:1||Vehicle exhaust plume:1||Ventilation:1||Ventilation systems:1||Vertical MultiStage Centrifugal Pump(입형다단 원심펌프):1||Viscous dissipation and Joule heating:1||Wall expansion ratio:1||Winding temperature:1||Wu&apos:1||activation energy:1||aerosol discharge:1||airborne infection:1||atmospheric aerosol:1||axial cyclone separator:1||bioaerosol:1||bvp4c:1||circular cylinder:1||classroom:1||classroom ventilation:1||computational fluid dynamics:1||contamination:1||cyclone separator:1||deformation:1||derivative:1||diffuser arrangement:1||displacement ventilation:1||displacement ventilation system:1||dynamic analysis:1||electromagnetic forming:1||electrostatic precipitator:1||f Factor:1||f factor:1||fan coil unit:1||filter efficiency:1||fine dust:1||0:1||generator:1||heat reservoir:1||heat source:1||hollow cylindrical tube:1||hospital ward:1||hybrid nano liquid:1||indoor environment:1||j Factor:1||j factor:1||lie group transformations:1||liquid surface:1||magnetohydrodynamic:1||mask:1||masks:1||mass customization:1||mixing ventilation system:1||modular product architecture:1||module indication matrix:1||momentum slip:1||nanolithography:1||natural ventilation:1||numerical solution:1||offdesign:1||particle contamination:1||particle deposition by electrophoresis:1||particle deposition on masks:1||particulate contamination:1||particulate matter:1||photomask:1||reentrainment:1||recursive input estimation algorithm:1||reduction of multiply charged particles:1||s law:1||s model:1||s slip:1||sawtooth electrode:1||shape optimization:1||sink:1||solutions:1||subway cabin:1||subway station:1||surface resistance:1||sustainable flexible manufacturing system:1||thermal performance:1||thermal resistance network:1||thermal slip:1||thermophoresis:1||threedimension flow:1||ultraviolet lithography:1||ventilation:1||virtual impactor:1||virus transmission:1||functional clothing:1||05.70.Np:1||4way fan coil unit:1||47.85.g:1||47.85.Dh:1||65.20.w:1||68.35.Md:1||Additional punched impaction plate:1||Adjustable cutoff size:1||Adjustable heat source:1||Aerosol particle:1||Aerosol(에어로졸):1||Aerosolsampling inlet:1||Air purifiers:1||Airborne particle:1||Aluminium nanoparticles:1||Analytic:1||Artificial neural networking:1||Asymmetric flow:1||AtanganaBaleanu timefractional integral:1||Axialflow turbine:1||Baffle:1||Baffle dust collector:1||Battery heat:1||Battery thermal management:1||BioSampler:1||Bioaerosol:1||Bioconvection:1||Bioheat:1||Black Carbon(블랙카본):1||Black carbon (BC):1||Black carbon monitor:1||Blockage ratio:1||Bloodgold nanofluid:1||Buongiorno&apos:1||Burger fluid:1||Bus stop:1||CO₂:1||CR ratio:1||CaputoFabrizio fractional:1||Carbon nanotubes:1||Carrier:1||Cavitation(공동현상):1||Charge distribution:1||Charge equilibrium:1||Chemical reaction:1||Chimney:1||Chimney effect:1||Circular base:1||Circular disk:1||Clean air:1||Clean air delivery rate (CADR):1||Closed environment:1||Collection Efficiency(포집효율):1||Combined convection:1||Composite PCM:1||Computational cost:1||Contamination:1||Contamination(오염):1||Convective heat transfe r:1||Convective heat transfer:1||Convective heating of surface:1||Cooling effect:1||Corona discharge:1||Corrected analysis:1||Corrugated louvered fin:1||Critical sensor surface:1||Cross nanofluid model:1||Cubical enclosure:1||Current measurement:1||Cutoff Diameter(절단직경):1||Cutoff size:1||Cyclone Separator(사이클론 집진기):1||Cylindrical heat sink:1||Cylindrical porous medium:1||Darcy porous:1||Decomposition method:1||Deep learning:1||Different shapes of nanoparticle:1||Dimensionless parameters:1||Dirichlet conditions:1||Discharges (electric):1||Driving test cycle:1||Dust collector:1||Dust container:1||Dynamics on a curved surface:1||EMHD micropolar Nanofluid flow:1||Electric fields:1||Electric vehicle (EV):1||Electrode shape:1||Electrode shape optimization:1||Electrodes:1||Electromagnetic field:1||Electronic cooling:1||Electrostatic Precipitator(전기집진기):1||Electrostatic deposition:1||

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