ScholarWorks@Korea University: Sohn, Seok Su

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Sohn, Seok Su (손석수)

공과대학 (Department of Materials Science and Engineering)

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Transformationinduced plasticity (TRIP):7||Cryogenic temperature:6||Adiabatic shear band (ASB):6||Highentropy alloy (HEA):5||Stacking fault energy (SFE):5||Martensitic transformation:4||Strain hardening:4||Annealing:4||Tensile properties:4||Highentropy alloy:4||Hydrogen permeation test:3||bauschinger effect:3||Thermodynamic calculation:3||Split Hopkinson pressure bar (SHPB):3||CALPHAD:3||Austenitic highMn steels:3||Grain refinement:3||Charpy impact energy:3||Lightweight steel:3||cold working:3||Split Hopkinson pressure bar:3||mechanical properties:3||Split Hopkinson tensile bar:3||Duplex lightweight steel:3||Ballistic performance:3||Twinning:3||Slowstrainrate test (SSRT):2||Phase stability:2||Microstructural evolution:2||Partial recrystallization:2||Fracture toughness:2||apos:2||Planar slip:2||alloys:2||Dynamic compressive test:2||Ballistic impact:2||Twin:2||Twinning induced plasticity (TWIP):2||Hydrogen embrittlement:2||fracture:2||phase diagram:2||Retained austenite (RA):2||Transformation induced plasticity (TRIP):2||Mechanical properties:2||High entropy alloy (HEA):2||Crack tip opening displacement (CTOD):2||TRansformation Induced Plasticity (TRIP):2||Taylor lattices:2||Austenite stability:2||HighMn steel:2||Stacking fault energy:2||Dynamic recrystallization:2||microstructure:2||Hotstamping steel:2||B2 phase:2||Split hopkinson pressure bar (SHPB):2||Twinninginduced plasticity (TWIP):2||TWinning Induced Plasticity (TWIP) steel:2||Lowcarbon steel:2||Highstrength low alloy (HSLA) steel:2||Granular bainite:2||Mediumentropy alloy:2||Bauschinger effect:2||Resistance to hydrogen embrittlement:2||Serrated flow:1||Interfacial delamination:1||Slowstrainrate tensile (SSRT) test:1||Formability:1||Elastic cyclic deformation:1||Reversible dislocation movement:1||CoCrFeNiV:1||complex carbide precipitation:1||Bainitic steel:1||ultrafine grain structure:1||Cryogenic:1||Intercritical HAZ (ICHAZ):1||TWIP/LC clad sheet:1||Digital image correlation (DIC):1||Yield point phenomenon:1||thermomechanical processing:1||composites:1||Nanometric deformation twinning:1||rolling:1||scanning electron microscopy:1||Austenite:1||Sheet forming:1||Thermomechanical processing:1||Boron doping:1||Superplasticity:1||Curich FCC phase:1||Holeexpansion test:1||Charpy impact toughness:1||Computational thermodynamic approach:1||Intercriticallyreheated coarsegrained heat affected zone (ICRCGHAZ):1||9GPagrade &:1||Main steam line (MSL) piping:1||Cyclic deformation:1||thermodynamic modelling:1||(austenite plus ferrite plus kappacarbide) triplex hotrolled lightweight steel:1||Dislocation cell structure:1||Slip band:1||Duplex steel:1||Hotrolled steel:1||Martensiteaustenite constituent:1||Austenitic cast steel:1||EBSD:1||adiabatic shear banding:1||impact test:1||Cold rolling:1||kappaCarbide:1||Finish rolling temperature:1||MediumMn lightweight steel:1||Yieldpoint (YP) phenomenon:1||Polygonal ferrite:1||Precipitation:1||Intermetallic compounds:1||HighMn austenitic Steels:1||Highstrength armor steel:1||Multiprincipal element alloy:1||Abinitio calculation:1||peakload bending angle:1||32MnB5&:1||grain boundary strengthening:1||Ultrasonic nanocrystal surface modification:1||HighMn twinningInduced plasticity steel:1||CrFeNiV:1||Sigma phase:1||Quasipolygonal ferrite:1||Bauschinger Effect:1||Cu:1||TWIPcored threelayer steel sheet:1||Dynamic tensile test:1||A356 Al alloy:1||amorphous materials:1||Ferritebased lightweight steel:1||forging:1||TWinning Induced Plasticity (TWIP):1||Calphad:1||In situ SEM:1||Yield ratio:1||Atom probe tomography:1||Hotstamping 32MnB5 steel:1||Ordered phase:1||Stretchflangeablity:1||Retained austenite:1||Cu addition:1||Cracktip opening displacement (CTOD):1||Martensiteaustenite (MA) constituent:1||Multilayer steel (MLS) sheet:1||Rollbonding:1||Charpy impact property:1||Tensile property:1||Fractography:1||CoCrFeMnNiV:1||Stainless steel:1||Digital image correlation:1||Finite element method:1||Hot rolling:1||Mn segregation:1||Hotpressforming (HPF) steel:1||Dislocation substructures:1||Lightweight steels:1||Heat affected zone (HAZ):1||Lowcarbon (LC) steel:1||Electrical resistance welding (ERW) pipe forming:1||Tensioncompression test:1||hightemperature tensile properties:1||Liquid pressing process:1||Strain rate hardening:1||Replacement of W by Nb or Cr:1||Turbocharger:1||twinning:1||dynamic tensile deformation:1||Austenitic highMn steel:1||xCarbide:1||Bainite:1||Electron microscopy:1||lowcycle fatigue test:1||workhardening:1||(austenite plus ferrite plus martensite) triplex:1||Subzero treatment:1||Highstrength multilayered steel:1||Hydrogen diffusivity:1||Complex carbide:1||Highstrength martensitic or bainitic armor steel:1||Dislocation structures:1||TWinning induced plasticity (TWIP):1||TRansformation induced plasticity (TRIP):1||Geometrically necessary dislocation:1||delayed fracture:1||Damage mechanism:1||Multilayered sheet (MLS):1||highentropy alloy:1||LinePipe Steels:1||Strain Aging:1||Taylor lattice:1||TWIP/LC interface:1||Interstitialfree (IF) steel:1||Tensile test:1||SiC particulate:1||fibers:1||Cold working:1||Edge crack:1||Ferritic lightweight steel:1||casting:1||Martensite:1||linepipe steel:1||Microstructure:1||Acicular ferrite:1||Multistrengthening mechanisms:1||Moalloying:1||Tempering:1||Strainhardening rate:1||32MnB5 steel:1||High entropy alloys:1||Cryogenic strength:1||Back stress:1||grain refinement:1||severe plastic deformation:1||severe lattice distortion:1||Lowdensity steel:1||Computational alloy design:1||Pipe manufacturing process:1||Untransformed ferrite:1||Twinning induced plasticity (TWIP) steel:1||Adiabatic heating:1||MC and M7C3 carbides:1||ferritebased lightweight steel:1||metals:1||split hopkinson tensile bar:1||split Hopkinson&apos:1||Charpy impact properties:1||Instrumented Charpy impact toughness:1||Duplex microstructure:1||KCarbide:1||Hardening:1||tensile test:1||Borondoping:1||Yield strength:1||Medium entropy alloys:1||Aging:1||Stability of FCC phase:1||MediumMn lightweight Steel:1||Adiabatic shear band:1||Split hopkinson pressure bar:1||Dynamic grain coarsening:1||Surface delamination:1||TRansformationinduced plasticity (TRIP):1||Single FCC phase:1||Thermodynamic modelling:1||Local brittle zone (LBZ):1||Highstrength lowalloy (HSLA) steel:1||Carbon diffusion:1||Ubending and HCl immersion test:1||press hardening steel:1||Highstrength bainitic steel:1||Deformationinduced martensitic transformation (DIMT):1||JR fracture resistance:1||SA508 Gr.1A steels:1||(UNSM):1||Multilayered steel (MLS):1||2NN MEAM interatomic Potential:1||Multilayered sheet:1||sigma phase:1||High entropy alloy:1||Mechanical property:1||StrainBased Design:1||Coarsegrained HAZ:1||heatresistant austenitic cast steel:1||strength:1||electron backscattering diffraction (EBSD):1||s pressure bar:1||strain rate:1||API X80 linepipe steel:1||Dropweight tear tests:1||Inverse fracture:1||Linepipe steel:1||Hydrogen embrittlement (HE):1||Aluminum alloy:1||Nb carbide precipitation:1||Cu effects:1||Transformation induced plasticity:1||Heattreatment:1||Hydrogen permeation:1||Dwellfatigue:1||Dynamic strain aging:1||Transformationinduced plasticity:1||In Situ TEM:1||Strain localization:1||TWIP steel:1||Intercritically heated HAZ:1||Linepipe steel:1||Dynamic tensile and compressive tests:1||ferritic lightweight steel:1||work hardening:1||doublecycle simulation test:1||API X80 pipeline steels:1||Highentropy alloys:1||Computational design:1||

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