ScholarWorks@Hanyang University: UM, Suk kee

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UM, Suk kee (엄석기)

COLLEGE OF ENGINEERING (SCHOOL OF MECHANICAL ENGINEERING)

Research Area: 열 및 물질전달

Tel 02-2220-0432
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Metallic bipolar plates:6||Fuel cells:4||polymer electrolyte fuel cells:4||Lattice Boltzmann method:4||Polymer electrolyte fuel cells:3||Joule heating:3||statistical analysis:3||Catalyst utilization:3||Electrical properties:3||mass transfer:3||Methanol:2||Magnetic materials:2||Stochastic material networks:2||Flash light irradiation:2||Polymer electrolyte fuel cell:2||catalyst utilization:2||Polymer electrolyte membrane fuel cell:2||Cold start:2||LatticeBoltzmann model:2||Direct methanol fuel cells:2||Porous media:2||ColdStart:2||Pathpercolation theory:2||Vanadium oxide thin films:2||Electrochemical catalyst utilization:2||Vertically aligned carbon nanotube:2||Statistical analysis:2||Computational fluid dynamics:2||Copper diecasting rotor:1||Core loss(철손실):1||CrossSectional Channel Design:1||Deformable gas diffusion media:1||Direct methanol fuel cell (DMFC):1||Driving Condition:1||Driving condition(구동 조건):1||EV:1||Effective diffusion coefficient:1||Effective thermal management:1||Effective transport:1||Electrical Switching Properties(전기적    스위칭  특성):1||Electrical and thermal transport properties:1||Electrical internal resistance:1||Electrical property:1||Electrochemical applications:1||Electrochemical impedance spectroscopy:1||Electrochemical impedance spectrum:1||Electrochemically active surface area (전기화학적 활성표면):1||Electrothermal effects:1||Entropy generation:1||Eulerian gradient porosity:1||Fatigue (피로):1||Fibrous porous transport layers:1||Film Flow Around Rotating Roller (회전롤러 위의 액막 유동):1||Flow characteristics (유동특성):1||Flow field:1||Fluid flow:1||Fluorescence in situ hybridization:1||Fuel  Cells(연료전지):1||Fuel Cell Vehicle(연료전지  차량):1||Fuel cell applications:1||Fuel cell catalyst layer:1||Fuel cell system:1||Full statistical approach:1||Gas–liquid phase transition:1||Gas diffusion layer compression:1||Gas diffusion layers (가스  확산층):1||Gas evolution(가스 발생):1||GrapheneVanadium Oxides:1||Graphenebased vanadium oxide composites:1||Gravure Printing(그라비아 인쇄):1||Heat loss mapping method(열손실  사상법):1||Heterogeneous transport:1||High speed:1||Highly disordered vanadium oxide thin films:1||Highly oriented pyrolytic graphite:1||Horizontally aligned nanowire arrays:1||Hydrogen Production(수소생산):1||Hydrogen production:1||Hydrothermal method:1||IPMSM motors:1||Induction motor:1||Inhomogeneous media:1||Inhomogeneous random orientation:1||Inhomogeneous random structures:1||Inner pressure(내압):1||Interconnectivity and coverage:1||Internal air circulation:1||KIVA code:1||Liion battery(리튬이온 전지):1||LiClLiBrLiF thermal battery:1||Line  start  permanent  motor(유도  기동형  동기  전동기):1||Lithiumion battery:1||Local  deformation(국부  변형):1||Loss measurement:1||Mass diffusion:1||Mass transfer characteristic improvement:1||Mass transport overpotential:1||Mechanical compression:1||Mechanical deformation:1||Membrane electrode assembly (MEA):1||Meniscus channel film flow:1||Metal foam flow field:1||Metallic Separator(금속  분리판):1||Metallic bipolar plate:1||Metallic bipolar plate(금속분리판):1||Metallic bipolar plates(금속  분리판):1||Microscopic compression analysis:1||Microscopic transport characteristic:1||Mo concentration:1||Modoped vanadium oxide films:1||Modoped vanadium oxides:1||Modeling mixing ratio of biodiesel:1||Molybdenum doping:1||Morphological effects:1||Morphological investigation:1||Motor cooling system:1||Motor thermal management:1||Multilamellar microstructure:1||Multilayer  Vanadium  Oxide  Thin  Films(바나듐  산화물  다층  박막):1||Multiwalled carbon nanotube:1||Multifunctional porous layers:1||Multilayer films:1||Multiphase flow:1||Multiphase interconnectivity:1||NTC:1||NTC oxide thin film ceramics:1||Nanostructural compression analysis:1||Nanoparticlealloys:1||Nanoparticles:1||Nanoscale modeling:1||Nanoscale transport phenomena:1||Nanoscale transport phenomenon:1||Nanoscopic transport:1||Negative temperature coefficient:1||Negative temperature coefficient characteristics:1||Nonlinear mechanical deformation:1||Numerical Analysis(수치해석):1||N₂ annealing process:1||Oil dropping and churning:1||OpenMP:1||Operating temperature:1||Optimal design:1||Optimal operating condition:1||Optimization:1||PEMFC stacks:1||Parallel channel:1||Path percolation:1||Percolation model (스미기 모델):1||Percolation modeling:1||Performance Loss:1||Performance prediction:1||Phase characterization:1||Phase separation model:1||Polymer Electrolyte Fuel Cell(고분자전해질연료전지):1||Polymer Electrolyte Fuel Cells:1||Polymer electrolyte membrane fuel cell (PEMFC):1||Polymer electrolyte membrane fuel cells:1||Porarization curve:1||Porous  gas  diffusion  layer(다공성  가스확산층):1||Porous Diffusion Media:1||Porous gas transport media:1||Porous transport layers:1||Protrusionshaped flow inducers:1||Quasirandom modeling:1||Quaternion catalyst layer:1||Quaternion catalyst layers:1||RFID(전파인식):1||Random microstructures:1||Randomcoefficients model:1||Reliability:1||Resin:1||Rotating flow:1||Ruthenium sulfide:1||Safety vent(안전변):1||Selfheating:1||Semiempirical modeling:1||Semiconductor Nanowire Array:1||Semiconductor thin films:1||Serpentine  channel(사행유로):1||Serpentine channel design:1||Serpentine structure:1||Shrunk Channel (협의  유로):1||Solgel:1||State of health:1||Statistical:1||Statistical characterization:1||Statistical procedures:1||Steam Reformer(개질기):1||Stress relaxation:1||Structural deformation (구조적  변형):1||Sulfate:1||Supercapacitor:1||Surface properties:1||Surfacemounted Permanent Magnet Synchronous Motor (SPMSM):1||Surfacemounted permanent magnet synchronous motor(SPMSM:1||Surfactant:1||Synchronous motors:1||Temperature evolution:1||TemperatureResistance Characteristics(온도저항  특성):1||Thermal  modeling(열  해석):1||Thermal Resistance:1||Thermal battery:1||Thermal interface materials:1||Thermal management:1||Thermal resistance(열저항):1||Thermal runaway:1||Thermally reduced graphene oxide:1||ThermoElectrical Properties:1||Thermoelectrical energy harvesting:1||Thermoelectrochemical cell:1||Thermoelectrochemical modeling:1||Thermodynamic approach:1||Thermoelectric power generation:1||Thermofluidic analysis:1||Timedependent:1||Traction motor:1||Traction motors:1||Transport Characteristics:1||Transport phenomena (전달현상):1||Transport properties:1||Two phase analysis:1||Unsteady  threedimensional(비정상  3 차원):1||Vanadium Oxide:1||Vanadium oxide:1||Vanadium oxide composite thin films:1||Vanadiumbased Thin Film Resistor(바나듐  기반  박막  저항체):1||Vehicular application:1||Volume of Fluid Method(VOF 법):1||Water management:1||Water transport:1||WaterGas Shift(수성 가스 반응):1||Waterjacket:1||Wettability Control:1||anode water loss:1||brushless  direct  current  motor  (BLDC):1||carbon monoxide poisoning:1||cathode flooding:1||clamping pressure:1||cobalt ruthenium sulfide:1||computational fluid dynamics(전산 해석):1||concentric cylinders:1||design  of  experiment  (실험계획법):1||dualfunctional bilayers:1||electrical resistance:1||electrochemical impedance spectrum:1||fuel cell:1||fuel cells:1||gas diffusion layer:1||heat transfer(열전달):1||heterogeneous transport porous media:1||hydrothermal method:1||interfacial contact ratio:1||interfacial pore distribution:1||lattice Boltzmann method:1||low humidified conditions:1||membrane patterning:1||nano morphology:1||nanowell:1||numerical development:1||onboard reforming system:1||pH:1||plasma deep etching:1||platinum catalyst:1||polymer electrolyte membrane fuel cell:1||portable fuel cells:1||solventassisted nanotransfer printing:1||supercapacitor:1||ternary metal sulfides:1||vertically aligned carbon nanotubes:1||voids:1||water  cooling  system(수랭식 시스템):1||water equilibrium:1||water transport:1||고분자 전해질 연료전지:1||구동 조건:1||금속분리판:1||냉시동성:1||물 관리:1||물질 전달과 전압:1||바나듐 산화물 박막:1||성능 손실:1||성능 평가:1||알칼라인 수전해:1||연료전지 시스템:1||열역학적 접근:1||열저항:1||자기발열:1||전기화학적 임피던스 분광법:1||차량용:1||최적 운전 조건:1||표면부착 영구자석형 동기 전동기):1||표면부착형 영구자석 동기 전동기:1||Accelerated degradation testing:1||확산체:1||Alkaline water electrolysis:1||Anaerobic mixed microflora:1||Anisotropic heat transfer:1||Annealing effects:1||Baffle:1||Beam bending theory:1||Biodiesel:1||Brushless DC motor:1||Bypass  flow(우회유동):1||Bypass flow path:1||CNTVOx:1||CO tolerance:1||Capillary meniscus formation:1||Carbon fiber porous diffusion media:1||Carbon fibers:1||Carbon nanotubes:1||Carbon spheres:1||Carbonbased  Separators(탄소  계열  분리판):1||Catalyst effectiveness:1||Catalyst morphology:1||Catalyst structure:1||Cathode catalyst layer (환원극 촉매):1||Cold Start(냉시동성):1||Combustion and emission characteristics of biodiesel:1||Composite Thin Films:1||Composites:1||Computational modeling:1||

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