ScholarWorks@Hanyang University: Kim, Sung Joong

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Kim, Sung Joong (김성중)

COLLEGE OF ENGINEERING (DEPARTMENT OF NUCLEAR ENGINEERING)

Research Area: 원자로 열수력, 원자력 안전, 중소형원전, Nuclear Thermal-Hydraulics, Nuclear Safety, Small Modular Reactor

Tel 02-2220-2355
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Critical heat flux:17||Severe accident:10||MELCOR:10||OPR1000:7||Surface roughness:6||accident management:4||Capillary wicking:4||Hydrogen:4||Accident management:4||Machine learning:3||CRUD:3||Surface wettability:3||numerical simulation:3||effectiveness and adverse effects:3||severe accident:3||MARSKS:3||Nucleate boiling heat transfer coefficient:2||Exvessel core catcher:2||hydrogen risk:2||Flammability:2||Hydrogen safety:2||Recursive feature elimination:2||invessel mitigation:2||invessel retention:2||Oxidation:2||IVRERVC:2||Relief valves:2||Oxide layer thickness:2||Flooding safety system:2||PIV:2||Flow (Dynamics):2||Rupture:2||PWRtype reactor:2||SAMG:2||Accidents:2||Flow obstacle:2||Boilers:2||DC sputtering:2||Safety:2||Valves:2||Fukushima accident:2||LOCA:2||LSTM:2||Wettability:2||Boron hideout:2||Combustion:2||Pressure:2||Lewis number:2||Computational fluid dynamics:2||Liquid spreading:2||condensation heat transfer:2||GEANT4:2||Shapiro diagram:2||CAFT:2||CNAFT:2||FeCrAl:2||dropwise condensation:2||Cr:2||Neutron monitor:2||Nuclear fission:2||Small modular reactor:2||Downwardfacing:2||Dynamic Time Warping:1||ENDF:1||ENDL:1||EUAPR1400:1||EXPACS:1||Emergency cooling sustainability:1||Energy Efficiency:1||Evaporation:1||Evaporationdriven concentration:1||Exvessel core catcher system:1||External Injection Path:1||Extinction mechanism:1||FA:1||FCVS:1||FLOW RATE:1||FLOW VISUALIZATION:1||FLUENT:1||FTFP:1||Fault detection:1||Feedwater:1||Film boiling:1||Fission Technical Issue:1||Flame extinction:1||Flame propagation:1||Flammability limit:1||Flow Boiling:1||Flow reversal:1||Fuel Channel Cooling:1||Fuel irradiation:1||G4LEND:1||G4NeutronHP:1||GAMMA plus code:1||Gibbs free energy:1||Grace period:1||HEAT TRANSFER:1||Heat transfer characteristics:1||Heattransfer Coefficient:1||Helium bubbling:1||Hydride fuel:1||Hydrogen combustion:1||Hydrogen risk:1||Identification of invessel phenomena:1||Invessel coolability:1||Indirect radiation:1||Intensified drag force:1||Interactive multiple model:1||KClUCl3:1||LBEgap:1||LBLOCA:1||LEU conversion:1||LWRtype reactor:1||Layerbylayer assembly technique:1||Light water reactor:1||Liquid subcooling:1||Load following control:1||Local flow field:1||Lorentz force:1||Loss of ECCS:1||Lost signal:1||Lower flammability limit:1||M CODES:1||MAXWELL:1||MELCOR 2.2:1||MELCOR code:1||MHD:1||MITIGATION:1||MITR:1||MITRII:1||Marine nuclear:1||Melt eruption:1||Mitigation strategy:1||Model:1||Molecular dynamics:1||Molten salt nuclear fuel:1||Molten salt reactors:1||Multiphysics coupling:1||Multiwalled carbon nanotubes:1||Multiphysics:1||NM64:1||NUCLEAR POWER PLANTS:1||NUMERICAL ANALYSIS:1||Nano scale surface area ratio:1||Nanoparticles:1||Nanofluid:1||Nanoscale roughness:1||Natural Convection (자연대류):1||Natural circulation:1||Natural convective flow:1||Nuclear engine for maritime application:1||Nuclear power stations:1||Nuclear reactor coolants:1||Nucleate boiling heat transfer:1||Nuclides:1||Numerical calculation:1||OPR1000STSBOSevere accidentMELCOR/MAAP5Bestpractice analysis:1||OXIDATION:1||Oxidation condition:1||Oxidation heat:1||PCHE:1||PHWR:1||PWR type reactor:1||Partial fuel assembly:1||Passive molten salt fast reactor:1||Passive residual heat removal system:1||Passive safety system:1||Performance model:1||Physicsinformed machine learning:1||Polarizable ion model:1||Pool boiling:1||Pool scrubbing:1||Porosity:1||Pressure transition temperature:1||Probabilistic safety assessment:1||Probability:1||Product Release:1||QGSP:1||Quench front velocity:1||Quench temperature:1||RCS depressurization:1||REACTOR ACCIDENTS:1||REACTOR COOLING SYSTEMS:1||REACTOR SAFETY:1||REACTOR VESSELS:1||RELAP5:1||RV outwall temperature:1||Radiating gas:1||Radiative heat transfer:1||Radioisotopes:1||Radiolysis:1||Receding:1||Receding capillary flow:1||Recirculation flow:1||Reflooding:1||Reinforcement learning:1||Research Need:1||Residualbased transfer learning:1||Residuals in governing equations:1||Rivulet flow:1||Roadmap:1||Rollingwindow forecast:1||SAFETY INJECTION:1||SBO:1||SGTR:1||SMART:1||SPECIFIC HEAT:1||SUBCOOLED BOILING:1||Safety injection flow map:1||Safety system:1||Semimechanistic model:1||Sensitivity analysis:1||Severe Accident:1||Severe Accident Phenomena:1||Severe accident management:1||Severe accident mitigation:1||Severe accident scenario:1||Severe accident simulation:1||Shortterm station blackout:1||Silicon carbide:1||Simulation:1||Simulation acceleration:1||Simulation results:1||Singlewalled carbon nanotube:1||Slug bubble flow:1||SmCo magnet:1||Spatial variation:1||Spent Fuel(사용후핵연료:1||Sputtering:1||State estimation:1||Station blackout:1||Steam:1||Steam surface condenser:1||Structure effect:1||Subchannel:1||Subcooled flow boiling:1||Superhydrophilic:1||Supervised learning:1||Surge line:1||Surrogate Model:1||THERMOCOUPLES:1||Temperature gradient analysis:1||Thermal System:1||Thermal safety margin:1||Thermally induced steam generator tube rupture:1||Thin film:1||Time Series:1||Transcritical CO2 cycle:1||Transcritical CO2 cycle:1||Twophase boundary layer flow:1||Twophase flow experiment:1||USES:1||Uncertainty and sensitivity analysis:1||Vacuum:1||Vertical surface:1||Water chemistry:1||Water ingression:1||Wick boiling:1||Wicking:1||Zircaloy:1||anion exchange:1||baseline model:1||carbon nanotube:1||chemical kinetics:1||condenser:1||constriction resistance:1||cooling tower:1||corrosion:1||droplet dynamics:1||droplet evaporations:1||dry air cooling tower:1||electromagnetic flowmeter:1||entrainment:1||finite volume method:1||fission product retention:1||flame extinction:1||flame stretch:1||flammability:1||guide structure:1||heat loss:1||hydrogen energy:1||hydrogen production:1||hydrogen safety:1||iSMR:1||invessel coolability:1||indirect dry aircooled condenser:1||liquid sodium:1||lower flammability limit:1||machine learning:1||molten salt reactor:1||multicolor patterning:1||multiphysics simulation:1||nanocrystals:1||natural circulation:1||nickelbased superalloys:1||noncondensable gas:1||passive molten salt fast reactor:1||perovskites:1||physicsinformed network:1||pressure transition temperature:1||quench:1||radiative heat transfer:1||rivulet flow:1||rod bundle:1||safety injection map:1||small modular reactor:1||stainless steel:1||structural material:1||thermal hydraulics:1||thermalhydraulics:1||vertical surface:1||스틸벤 섬광체:1||AFTERHEAT:1||응답 함수:1||AFTERHEAT REMOVAL:1||AOA:1||ATF:1||AUXILIARY WATER SYSTEMS:1||Accident Tolerant Fuels:1||Accident analysis:1||Accidenttolerant fuel cladding:1||Ambient dose equivalent:1||Axial offset anomaly:1||Backfill Gas(충전기체):1||Bertini cascade:1||Binary cascade:1||Blockage ratio:1||Boiling:1||Boiling curve:1||Boiling heat transfer:1||CANDU:1||CFD:1||CFD Analysis(전산유체역학 분석):1||CFX:1||CILC:1||CO2 natural circulation loop:1||CO2 turbomachinery:1||COOLANTS:1||CORE CATCHERS:1||CORIUM:1||CRITICAL HEAT FLUX:1||CRUDInduced power shift:1||Carbon monoxide:1||Carbon nanotube:1||Circulation performance:1||Computer simulation:1||Condensation heat transfer:1||Condensationinduced water hammer:1||Conduction:1||Contact line:1||Containment:1||Containment buildings:1||Containment failure:1||Cooling:1||Core exit temperature:1||Corium concrete interaction:1||Cosmic ray:1||Countermeasure System:1||Cr layer:1||Cr2O3:1||Critical Heat Flux(CHF):1||Critical heat flux model:1||DDT:1||DEPRESSURIZATION:1||Deep Learning Method:1||Design basis accident analysis:1||Design optimization:1||Domes (Structural elements):1||Dose conversion coefficient:1||Downward facing heater:1||Downwardfacing surface:1||Droplet dynamics:1||Dropwise condensation:1||Dry Storage System(건식저장시스템):1||Dry storage system:1||

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