CAU Scholar's Space: Jerng, Dong Wook

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Jerng, Dong Wook (정동욱)

공과대학 (에너지시스템 공학부)

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Tel 02-820-5325
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Condensation heat transfer:6||Natural convection:5||Noncondensable gas:5||Severe accident:5||Natural circulation:4||Steam diffusion:4||Critical heat flux:4||SFR:4||Pressure drop:4||Coolability:3||Vertical parallel plates:3||Vertical tube:3||Metallic fuel:3||Liquid metal:3||RVACS:3||Hypothetical core disruptive accident (HCDA):3||Simulating experiment:2||Sodiumcooled fast reactor:2||GOTHIC code:2||Passive containment cooling system:2||Damper:2||Passive containment cooling systems:2||Condensation:2||Flow instability:2||Pool boiling:2||Jet breakup:2||Tube bundle geometry:2||Heat transfer:2||Heat transfer enhancement:2||SGTR:2||Asymmetric heating:2||PCCS:2||Curvature effect:2||Similarity law:2||Creep crack growth rate:1||Creep elastic followup factor:1||Cruciform plate:1||Cylindrical wall:1||Data analysis:1||Debris:1||Debris size:1||Dimpled tube:1||Direct quality measurement:1||Dispersion of molten metal fuel:1||Dry spot:1||Efficiency index:1||Elastic followup factor:1||Elasticplastic J:1||Electrical resistance tomography:1||Electrochemical etching:1||Emergency Operation Procedure:1||Emergency operating procedures:1||Empirical Correlation:1||Empirical correlation:1||Energy efficiency ratio:1||Enhancement:1||Enhancement ratio:1||Entrance region:1||Entrance region effect:1||Evaporation:1||Expin phenomena:1||External condensation:1||Failure prediction:1||Film condensation:1||Filtered Containment Venting System:1||Finite element analysis:1||Flow Pattern:1||Flow regime:1||Form loss coefficient:1||Fracture simulation:1||Fragmentation:1||Free rotating swirl generators:1||Geometrical effect:1||Graphene:1||Heat pipe:1||Heat transfer coefficient:1||Helium effect:1||High wall temperature:1||High wall temperature condition:1||Hydrogen risk:1||Hypothetical core disruptive accident:1||Hypothtical core disruptive accident(HCDA):1||IR thermometry:1||Improved boundary distributed source method:1||Jet velocity:1||LOCA:1||Laminar film condensation:1||LevenbergMarquardt method:1||Liquid film:1||Liquid film thickness:1||Liquid vapor separator:1||Lower discharge:1||Lower structure:1||MARS code:1||MARS 코드:1||MELCOR:1||Maintenance Rule:1||Melt fragments:1||Mesh less methods:1||Metal fuel:1||Metal wire mesh:1||Metalfueled SFR:1||Microbubble:1||Microstructures:1||Mitigation strategy:1||Modified Boussinesq number:1||Molten wood's metal:1||Multiple Greek Letter model:1||Nanostructures:1||Natural Circulation Flow:1||Noncondensable Gas:1||Noncondensable gas:1||Nozzle diameter:1||Nucleate boiling heat transfer:1||OPR1000 nuclear power plants:1||Operational mode:1||P91 martensitic steel:1||PSA:1||PWR type reactor:1||Parameter uncertainty:1||Passive air cooling system:1||Passive auxiliary feedwater system:1||Passive containment cooling system (PCCS):1||Passive safety:1||Phase shift between sinusoidal walls:1||Pipe:1||Poisson distribution:1||Probabilistic safety assessment:1||R6:1||RVCS:1||Rapid depressurization:1||Reduced graphene oxide:1||SBLOCA:1||STARCCM+:1||Scaling analysis:1||Screening and suction effect:1||Severe Accident:1||Shutdown condition:1||SiO2/water nanofluids:1||Small break loss of coolant accident:1||Sodiumcooled fast reactor (SFR):1||Sodiumcooled fast reactor(SFR):1||Steam generator:1||Steamair mixture:1||Stratified flow:1||Subchannel:1||Subcooling effect:1||Thermal performance factor:1||Thermalhydraulic code simulation:1||Toluene:1||Transition:1||Transition phenomenon:1||Two phase natural convection:1||Twophase flow:1||Upattern:1||VOC gas adsorption:1||Vapor compression refrigeration system:1||Venturi nozzle:1||Vertical Tube:1||Vertical parallel plate:1||Void Fraction:1||Wall Subcooling:1||Wire wrapped spacer:1||Wiremesh Sensor:1||advanced boiling method:1||analytical analysis:1||creep crack initiation time:1||creep mismatch:1||creep stresses:1||dispersion of molten metal fuel:1||elastic followup:1||finite element analysis:1||graphene:1||heataffected zone:1||hierarchical:1||large scale:1||metal fuel:1||modified NSW model:1||performance criteria:1||porous carbon:1||reliability:1||risk achievement worth:1||safety assessment:1||secondary stress:1||selfassembly:1||severe accident:1||sodiumcooled fast reactor (SFR):1||transient creep:1||welded branch junctions:1||αfactors model:1||냉각재상실사고:1||노즐 직경:1||벽면 과냉도:1||비응축성 기체:1||상관식:1||수직 튜브:1||용융우드메탈:1||원자로건물 열수력:1||응축열전달계수:1||제트 미립화:1||제트 속도:1||파편 크기:1||(HCDA):1||피동원자로건물냉각계통:1||2D slab model:1||2D channel:1||A16:1||Accident management:1||Accident mitigation:1||Acetaldehyde:1||Adsorbent:1||Aggressive cooldown:1||Air conditioner:1||Air cooling system:1||Bayesian:1||Beam:1||Biaxial displacementcontrolled loading:1||Boundary estimation:1||Breakup mechanism:1||Bubble visualization:1||C(t) integral:1||CFD:1||Capillary wicking:1||Cesium137 release:1||Circumferential cracked vessel:1||Combined mechanical and thermal loading:1||Combined primary and secondary load:1||Common cause failure:1||Computational fluid dynamic code (CFD):1||Computational fluid dynamics:1||Condensation Heat Transfer Coefficient:1||Condensation models:1||Conductance Sensor:1||Confined effect:1||Containment filtered venting system:1||Crack:1||Creep:1||

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