ScholarWorks@Gyeongsang National University: Kim, Sang Shik

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Kim, Sang Shik (김상식)

대학원 (나노신소재융합공학과)

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Tel 0557721667
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Fatigue:20||fatigue:18||Copper:16||Fatigue crack propagation:11||Ti6Al4V:10||alloys:10||Crack propagation:9||Equal channel angular pressing:8||Microstructure:8||microstructure:7||fatigue crack propagation:6||mechanical properties:6||Grain coarsening:5||stress corrosion cracking:5||friction stir welding:4||CuNiSi alloy:4||SN fatigue:4||Copper alloys:4||Stress intensity factor:4||Pitting corrosion:4||aging:4||High cycle fatigue:4||welding:4||Inconel 718:4||copper:4||equal channel angular pressing:3||Transmission electron microscopy:3||twinning:3||ECAP:3||precipitation:3||Grain size:3||Additive manufacturing:3||Equal channel angular processing:3||scanning electron microscopy (SEM):3||betaannealing:3||Crack initiation:3||Direct energy deposition:3||Elevated temperature:3||thermomechanical processing:3||Grain boundaries:3||Ni2Si:3||cryogenic temperature:3||Plastic deformation:2||Polarization:2||X80 steel:2||tensile properties:2||tensile test:2||alloy:2||Prestraining:2||ultrafine grain:2||artificial seawater:2||Fatigue crack:2||Impact property:2||6061T651:2||유한요소해석:2||자유단조:2||Inconel 706:2||Repassivation:2||Corrosion fatigue:2||corrosion:2||Ring Forging:2||Corrosion property:2||Interfacial microstructure:2||cryogenic temperatures:2||Intermetallic compound:2||Finite Element Analysis:2||discontinuous precipitation:2||Laser powder bed fusion:2||3.5% NaCl solution:2||electrical conductivity:2||A487:2||Crack growth rate:2||Fracture surface:2||Shear bands:2||Dynamic recrystallization:2||Slip bands:2||Mechanical property:2||high manganese steel:2||Stacking fault energy:2||Stainless steel:2||Steel:2||hydrogen:2||Stress Corrosion Cracking:2||Stress corrosion cracking:2||Mixed mode:2||Annealing:2||metals:2||Cryogenic temperature:2||Nanograin:2||Tensile property:2||residual stress:2||rolling:2||scanning electron microscopy:2||Open Die Forging:2||AlZnMgCu Alloy:2||Ultrafine grain:2||stacking fault energy:2||5083H32:2||Ultrafinegrained microstructure:2||Modelling studies:1||Molybdenum:1||NaCl solution:1||Nearthreshold:1||Nearthreshold Delta K:1||Ni 2 Si:1||Ni2Si fiber:1||Ni2Si precipitates:1||Open die forging:1||Oxidation:1||Phase transformation:1||Powder recycling:1||Precipitates:1||Precipitation:1||Precipitation hardened steel:1||Prediction of tensile properties:1||Process Design:1||Quenching temperature:1||R ratio:1||Reversible plastic zone:1||Rotating Flow:1||SN curve:1||SCC:1||SEM:1||SKD11 steel:1||SLEP:1||SPRC340:1||STS 316L:1||Selective Laser Melting:1||Selective laser melting:1||Silver wire bonding:1||Slim Hole Drilling:1||Slip planarity:1||Small crack:1||Sn segregation:1||SolidLiquid Flow:1||Solution heat treatment:1||Strength:1||Stress corrosion:1||Surface damage:1||Surfaces and interfaces:1||TEM:1||Tempered Martensite:1||Tempering temperature:1||Tensile Properties:1||Tensile properties:1||Thermomechanical processing:1||Ti–6Al–4V:1||Ti6Al4 V:1||Tinitriding:1||Titanium:1||Tradeoff:1||UltraHigh Strength Steel:1||Ultrafinegrained copper:1||Wind Power Generator:1||Wind Turbine Tower:1||X60 based steels:1||accumulative roll bonding:1||alphacase:1||axial feeding:1||bending:1||betaAnnealing:1||cast 304 stainless steel:1||cavity closing:1||cleavagelike fracture:1||cogging:1||cooling rate:1||copper alloys:1||corrosion property:1||crack growth:1||crack initiation:1||cross member:1||cryogenic treatment:1||deformation:1||discontinuous cellular precipitation:1||drawing:1||duplex stainless steel:1||elevated temperature:1||elevated temperature strength:1||extrusion:1||fatigue damage:1||forging ratio:1||frame:1||friction stir welding (FSW):1||grain boundaries:1||heataffected zones:1||high conductivity:1||high strength:1||high toughness:1||highMn steel:1||highMn steels:1||hot working:1||hydrostatic stress:1||impact test:1||intergranular fracture:1||intermetallics:1||linear regression analysis:1||low cycle fatigue:1||low temperature:1||metal:1||microstructural variables:1||millannealing:1||nanograin:1||nitrogen:1||pitting corrosion:1||precorrosion:1||prestrain:1||priordeformation before aging:1||pure copper:1||recrystallization:1||shear band:1||shear bands:1||show strain rate test:1||slip bands shear bands:1||small surfacecrack:1||strain rate:1||superplastic forming:1||surface damage:1||tempering temperature:1||tensile behavior:1||tensile behaviour:1||thinning:1||threshold effective strain:1||titanium alloy:1||tube:1||twin boundaries:1||ultrafine grained microstructure:1||uniaxial loading:1||weld metals:1||단조공법:1||도아프레임:1||원가절감:1||유동응력:1||중공형 메인샤프트:1||풍력발전기:1||2xxx series aluminum alloy:1||풍력발전기 타워:1||3.5 % NaCl solution:1||3.5%NaCl solution:1||6061T651 Al alloy:1||7xxx aluminum alloy:1||7xxx series aluminum alloy:1||A356 alloy:1||AZ31B Mg alloy:1||AZ31B alloy:1||Aging:1||Aging aircraft:1||Al2011T8:1||Alloy design:1||Alloys:1||Aluminum:1||Aluminum alloys:1||Artificial neural network:1||Aspect ratio:1||Atomic prove tomography:1||Back propagated linear regression:1||Brittle fiber:1||Bronze:1||CAE:1||CP steel:1||Carbon addition:1||Charpy impact properties:1||CoTi intermetallic compound:1||Coldrolling:1||Conductivity:1||Constant Load Test:1||Copper alloy:1||Copper wire bonding:1||Copper, Ultrafine grain:1||Cost Saving:1||Crack:1||Crack branching:1||Cross validation method:1||Cu2.5Fe0.1P alloy:1||CuSn alloy:1||Damage tolerability:1||Defect:1||Density functional theory:1||Discontinuous precipitate:1||Discontinuous precipitates:1||Discontinuous precipitation:1||Dislocation structure:1||Door Frame:1||Drawing:1||Ductility:1||EIFS:1||Electric conductivity:1||Environmentassisted fracture:1||Environmental assisted fatigue:1||Exfoliation corrosion:1||FEM:1||FEM Analysis:1||Failure mechanism:1||Fatigue damage:1||Fatigue strength:1||Fatigue test:1||Fine grains:1||Flow Stress:1||Forging Method:1||Formability:1||Fractography:1||Fracture toughness:1||Grain Orientation:1||Grain growth:1||Grooverolling:1||H13 tool steel:1||Heat Treatment:1||Heat treatment:1||High manganese steel:1||High temperature:1||Highcycle fatigue:1||Hollow Ingot:1||Hollow Main Shaft:1||Homogenization Time:1||Hot workability:1||Hydroforming:1||Hydrogen:1||Hyper parameter tuning:1||Inclined Annulus:1||Inclusion:1||Inconel alloy:1||Interface:1||Intermetallic compounds:1||Jintegral fracture toughnesses:1||Laserpowder bed fusion:1||Lean duplex stainless steel:1||Low cycle fatigue:1||Low temperature:1||Material Utilization:1||Mechanical properties:1||Metals and alloys:1||Micropillar Compression:1||Microstructural volume fraction:1||Microstructure Anisotropy:1||Misorientation:1||

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