ScholarWorks@Korea University: JUNG, Hyun Wook

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JUNG, Hyun Wook (정현욱)

College of Engineering (Department of Chemical and Biological Engineering)

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Tel 02-3290-3306
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Rheology:6||Automotive clearcoat:5||Slot coating:5||Frequency response:5||rheology:5||rheological properties:4||Operability window:4||photopolymerization:4||crosslinking:4||Sharklet:4||slot coating:4||Multispeckle diffusing wave spectroscopy:4||blocked isocyanates:3||Rheological properties:3||Brownian dynamics:3||suspension drying:3||Thermal radical initiator:3||film blowing:3||Droplet drying:3||Viscocapillary model:3||Frequency Response:3||Mechanical properties:3||pH:3||Scratch resistance:3||automotive clearcoat:3||Slot Coating:3||Cellulose nanofiber:3||Autocorrelation function:3||Sensitivity:3||draw resonance:3||urethane reaction:2||Particle motion:2||coating window:2||Simulation:2||lowtemperature curing:2||BirdCarreau model:2||frequency response:2||Draw resonance:2||radical polymerization:2||Nanoscratch test:2||Nanoscratch:2||reprocessability:2||Biofouling:2||realtime rheological properties:2||swelling:2||surface resistance:2||autocorrelation function:2||multispeckle diffusing wave spectroscopy:2||Microfluidics:2||sensitivity:2||Clearcoats:2||ribbing:2||coatings:2||Newton's method:2||Lowtemperature curing:2||Crosslinking:2||relaxation:2||Crosslinking networks:2||Polymermatrix composites (PMCs):2||flexible display:2||poly(hindered urea):2||curved microchannel:2||Viscocapillary Model:2||atom transfer radical polymerization (ATRP):2||xanthan:2||pseudo arclength continuation:2||selfhealing:2||PEG hydrogel:2||Biomimetic pattern:2||Duallayer slot coating:2||aminebased blocking agents:1||pyrazole blocking agents:1||hybrid:1||light scattering techniques:1||micro flows:1||Soot oxidation:1||hydrogel synthesis:1||indentation and scratch:1||poly(ethylene glycol) dimethacrylate:1||Radical reaction:1||Realtime crosslinking behavior:1||Suspension drying:1||crosslinker ratio:1||Replica Molding:1||Adhesion strength:1||Tension control:1||membranes:1||Oiminoisourea:1||Operability coating window:1||viscosity and viscoelasticity:1||Property:1||Viscoelastic modulus:1||Phosphoric acidGMA modified acrylic polyols:1||aqueous micellization:1||Vortexfree window:1||Mesoscale simulation:1||Relaxation time:1||PTT fluids:1||rotational relaxation time:1||nanotechnology:1||conformational dynamics:1||flow field:1||Brownian dynamics simulation:1||transient solution:1||instability:1||Films:1||Laminar flow:1||Activation:1||mechanical properties:1||Film blowing:1||lambdaDNA molecule:1||Polarization Curve:1||Internal Die Design:1||Uniform Coating:1||Tubular SOFC:1||Film Casting:1||flow strength:1||timeperiodic states:1||Sharkskinmimetic:1||titration:1||Edge formation:1||controlledrheology polypropylene:1||Dualcuring:1||Amine based blocked isocyanate:1||Methacrylate functionalization:1||photocuring:1||Desalination membranes:1||offline rheometer:1||injection molding process:1||Thermoplastic starch nanocomposite:1||Hybrid filler:1||Benzocyclobutene:1||Solution process:1||LarsonDoi mesoscopic theory:1||Silica particles:1||Thermoresponsive polymer:1||Flameretardants:1||PET pouch:1||Phase separation kinetics:1||PAA:1||Highentropy materials:1||Poly(vinyl alcohol):1||dynamic bulky urea chemistry:1||coffee ring:1||polystyrene particles:1||Wall shear stress:1||Cell sorting:1||Polypropylene:1||Suspension:1||polyurethane:1||Active oxygen delivery:1||realtime curing behavior:1||nanoscratch test:1||"click" chemistry:1||sequential reactions:1||moment of inertia:1||particles:1||Upstream meniscus:1||Spherical and ellipsoidal particles:1||Coffee ring effect:1||thermal curing.:1||multispeckle diffusing wave spectroscopy:1||UV Curable Resin:1||Polyurethane:1||Nyquist plot:1||water desalination:1||Polymethacrylates:1||Thiolene:1||nonNewtonian liquid:1||Flow rate ratio:1||Silanemodified blocked polyisocyanate:1||Viscosity:1||Macroalgae:1||Pretreatment:1||viscoelastic properties:1||Upstream vortex:1||Scaling law:1||Debye screening:1||Dual curing:1||microgels:1||constant bubble pressure:1||cascade:1||Concentration:1||Air Pressure Difference:1||Cell design:1||wavelength:1||shear stress:1||Necklike Deformation:1||Cell performance:1||conformation:1||flow type parameter:1||lithiumion battery:1||Pattern spacing:1||UV crosslinking:1||polymermatrix composites (PMCs):1||air cathode:1||Urethane crosslinking:1||Midgap invasion:1||heterostructures:1||Peclet number:1||Ag nanoparticles:1||Ceria:1||Multiple injection:1||PP impact Copolymer:1||Thermo mechanical degradation:1||Patterned membranes:1||OLED:1||Cationic ringopening polymerization:1||Heterocyclic:1||Interpenetrating polymer network:1||Thermoplastic starch (TPS):1||UVcurable coating:1||Trifunctional aziridines:1||Structural stability:1||particle/fluid flow:1||organic layer:1||outgas:1||crosslinking properties:1||Pattern flow:1||Twophase flow:1||BirdCarreau fluid:1||heterocyclic:1||UV curable coatings:1||poly(betahydroxyl amine)s:1||glycidyl methacrylate:1||Ladderlike polysilsesquioxane:1||Silicone:1||softfeel coatings:1||nanoindentation test:1||Color filter:1||viscoelastic film casting:1||transfer function:1||aspect ratio:1||Stability window:1||antifouling:1||thin film composites:1||Nanoparticles:1||Pencil hardness test:1||Failure strain during stretching test:1||Constanttension condition:1||Critical onsets:1||Deasphalted oil:1||Newtonian:1||polysulfides:1||structure:1||Pyrolysis:1||Sulfuric acid:1||ARGET:1||dual curing:1||films:1||Sloped die lip:1||NavierStokes model:1||Polyelectrolyte:1||Photoinitiator:1||RAFT:1||Ohmic:1||Overpotential:1||Graded Electrode:1||solution electrospinning:1||Migration:1||Fuel Utilization:1||Cell Performance:1||Poisson equation:1||forward roll coating:1||rheological models:1||glass beads:1||shear viscosity:1||연결재:1||Sinusoidal Disturbance:1||epoxy group:1||surface properties:1||Shearthinning:1||nitrogendoped porous carbon:1||sodiumion batteries:1||collective diffusivity:1||dynamic/reversible chemistries:1||triboelectric nanogenerator:1||optoelectrical properties:1||droplet size:1||Boehmite suspension:1||Lattice Boltzmann:1||Hole injection layer:1||Lowtemperature dual curing:1||Nonsolventinduced phase separation:1||Binodal curve:1||pHresponsive hydrogels:1||Biodegradable polymer:1||optical transparency:1||flexibility:1||crosslinking:1||Automotive 2K clearcoat:1||Thermal curing:1||Cathodes:1||interfacial polarization:1||gelation properties:1||Hydrodynamic filtration:1||particle streak velocimetry:1||hydrogen bonding interaction:1||flow skewness:1||automotive interior plastic parts:1||Operability Window:1||polydimethylsiloxane:1||Automotive coatings:1||Static contact angle:1||Hybrid materials:1||baking process:1||Lattice Boltzmann method:1||Characteristic relaxation time:1||Coating bead:1||Device Fabrication:1||Scratch and Indentation Depths:1||Structural adhesive:1||Thixotropic:1||Transfer function:1||initiators:1||Photopolymerization:1||Nanoindentation test:1||slot die:1||internal die design:1||Coating bead dynamics:1||Sloped Slot Die:1||Curing:1||Precoated metal sheet:1||Deepdraw formability:1||Scratch property:1||transient simulation:1||single molecule tracking:1||aminolysis:1||operability coating window:1||UV and thermal dual curing:1||roll coating:1||nylon 6:1||film casting:1||NonNewtonian Coating Liquid:1||Protonexchange membrane fuel cell:1||severity:1||viscoelasticity:1||Acremonium chrysogenum:1||Fiber Spinning:1||monodromy matrix:1||Colloidal fouling:1||nanoclays:1||LiO2 battery:1||peroxideinitiated degradation:1||emulsion coating:1||Microstructural change:1||Yield stress:1||Aqueous zinc ion battery:1||Zinc metal anode:1||polypropylene:1||Interfacial interaction:1||Packaging material:1||Film casting process:1||Crosslinking:1||Hybrid:1||Aminebased blocked isocyanate:1||Linear stability analysis:1||Coffeering effect:1||Limiting oxygen index:1||UVcure coating:1||Membrane structure:1||Polyurethanes:1||Adsorption:1||Giesekus fluid:1||encapsulation:1||Antifouling:1||Membrane:1||Channel design:1||Microfluidicchip:1||Plasma:1||Synergistic effect:1||Active oxygen generation:1||Reverse osmosis:1||amineepoxy reaction:1||"click" hydrogels:1||ultraviolet curing:1||TRI:1||Indentation and scratch:1||betarelaxation:1||displays:1||Diesel particulate filter:1||Flow skewness:1||NOA:1||Photopolymerization:1||Lapshear strength:1||DFT method:1||low temperature curing:1||thermal radical:1||initiator:1||Hard coating film:1||Hydroxylfunctionalized urethane methacrylate oligomer:1||copolymerization:1||Saccharina japonica:1||Glycidyl methacrylate:1||Ribbing:1||polyelectrolytes:1||structure factor:1||stimulisensitive polymers:1||Carreautype liquid:1||viscocapillary model:1||Double bond conversion:1||Carwash:1||Transport processes:1||SOFC:1||crystal structure:1||transient solutions:1||microchannel flow:1||roll deformability:1||옴 저항:1||전지성능:1||Interconnect:1||single polymer chain:1||stability of limit cycles:1||polyethylene separator:1||heatresistant polyamideimide:1||microporous structure:1||biaxial stretching:1||Dualcurable crosslinker:1||selfhealability:1||Intermittent coating:1||Thermal crosslinking:1||transparent conductive films:1||Aggregation:1||Tin oxide:1||Colloidal rod:1||Slender body:1||Extensional flow:1||Orientational ordering:1||poly(butylene adipatecoterephthalate) (PBAT):1||biodegradable polymer:1||Flow type parameter:1||Photocuring:1||Bionanocomposite:1||1 K clearcoats:1||Phosphorus‑nitrogen monomers:1||Biaxial stretching:1||suspensions:1||urethane crosslinking:1||curing dynamics:1||stability indicator:1||DFT simulation:1||polymermatrix composites (PCM):1||UV and thermal crosslinking:1||Ceria promoted Ag/TiO2:1||Thin film composite membrane:1||nanoindentation:1||Threedimensional Simulation:1||compacting and airinvading stages:1||Inorganicorganic hybrid coatings:1||UV curing:1||undercut:1||Porous media:1||Particle dynamics:1||Secondary flow:1||Curved channel:1||Solvent Effect:1||Twodimensional viscoelastic film casting:1||Crosslinked:1||Viscoelastic spinning:1||Operability Coating Window:1||Scratch recovery:1||property relations:1||Phosphoric acidfunctionalized acrylic polyols:1||amphiphilic block copolymers:1||ATRP:1||hexamethylene diisocyanate (HDI):1||isophorone diisocyanate (IPDI):1||Downstream vortex:1||Precoated metal sheet:1||Solventbased metallic basecoat:1||Roll coating:1||Mathematical modeling:1||polymeric primer:1||thermal properties:1||Microbends:1||Conformation:1||Anodesupported SOFC:1||Chamber Structure:1||Curtain Coating:1||Linear Stability:1||CFD simulation:1||Cell configuration:1||morphology:1||Ohmic resistance:1||Hopf bifurcation:1||Lattice Boltzmann simulation:1||CNT:1||Radical crosslinking:1||Colloidal film:1||twoparameter model:1||Liquid transfer:1||pilotscale reactive extrusion:1||melt spinning process:1||Ecofriendly clearcoat:1||selfassembled network:1||epoxy and oxetane:1||thermoplastic starch (TPS):1||reactive compatibilization:1||Liquid crystalline polymer:1||Layered oxides:1||Polymer blend:1||Graphene nanoplatelets (GNPs):1||slenderbody theory:1||kinematic waves:1||crosslinking dynamics:1||physical properties:1||decalin:1||RanSAC:1||secondary Dean flow:1||Coating Defects:1||crosslinking behavior:1||Dualcurable blocked isocyanate:1||Dynamic contact angle:1||Characteristic time:1||Viscoelastic coating liquids:1||CouettePoiseuille flow:1||PEG Hydrogels:1||characteristic relaxation time:1||constant tension:1||layerbylayer assembly:1||reverse osmosis:1||shim configuration:1||Viscosity ratio:1||Draw resonance instability:1||Selfreflow:1||dualcurable clearcoat:1||silanemodified blocked isocyanate (SMBI):1||vesicles:1||Stripe slot coating:1||3D simulation:1||Elastic modulus:1||Cascade:1||polyelectrolyte polymer:1||disulfidethiol exchange:1||LCST:1||polydisulfides:1||Performance of Fuel Cell:1||annealing:1||PLA:1||chaotic motion:1||tension control:1||Crystallization kinetics:1||Nonlinear dynamics:1||Stability:1||Transient solution:1||Polarization curve:1||Relative humidity:1||NavierStokes equations:1||관형 SOFC:1||Transient Simulation:1||computational fluid dynamics:1||silica nanoparticles:1||oxygen functional groups:1||metal sulfide anodes:1||nanocubes:1||vertical drying:1||ionic liquids:1||cationic ring opening polymerization (CROP):1||Recycling:1||Topological control:1||numerical simulation:1||Die exit flow:1||Cure behavior:1||Mechanical property:1||Fiber spinning:1||interpenetrating polymer networks:1||PEG:1||Reactive compatibilization:1||Sodiumion batteries:1||Ceria suspension:1||viscoelastic spinning:1||extensional deformation:1||photoinitiator:1||imidazole blocking agent:1||nanocomposites:1||triboelectric device:1||realtime FTIR:1||Melt mixing:1||microfluidics:1||hydrogel patterning:1||Urethane reaction:1||Ladderlike polysilsesquioxanes:1||Hard coating films:1||CF layer:1||Pore scale simulation:1||Permeability:1||DarcyForchheimer:1||Elastic Modulus:1||bimodal PS particles:1||nanoscale patterns:1||Molecular weight effects:1||Dissipative and elastic energy ratios:1||Thermal crosslinker:1||NonNewtonian:1||Shim:1||Slit channel geometry:1||Silane modified blocked isocyanate:1||PTT viscoelastic fluid:1||stability:1||Boltzmann equation:1||electrohydrodynamics:1||Flowinduced Crystallization:1||Draw Resonance:1||Frequency Response Method:1||Operability limits:1||fluorinated polymer network:1||Duallayer:1||Atomic layer deposition:1||surface coatings:1||Agglomeration and deformation:1||polymer blends:1||Edgebeads:1||Surface coatings:1||Cycloaliphatic epoxide:1||Surface properties:1||Sustainable:1||Fiber orientation:1||PMMAbPNIPAM block copolymer:1||fluorinated imidebased oligomer:1||Crosslinkers:1||

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