CAU Scholar's Space: Lee, Young Seog

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Lee, Young Seog (이영석)

공과대학 (기계공학부)

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Tel 02-820-5256
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finite element analysis:8||Finite Element Analysis:7||roll force:5||failure simulation:4||Shot peening:4||dynamic recrystallization:4||Constitutive relation:3||strain gradient plasticity:3||Finite element analysis:3||Cold rolling:3||rod rolling process:3||plate rolling:3||cold rolling:3||peening effect:3||silicon steel:2||Width Spread:2||Wire cutting:2||Roll bending:2||Springback:2||Roll force:2||Asweld residual stress:2||anisotropy:2||Plate Rolling:2||FE simulation:2||Rolling:2||ultra heavy thick steel plate:2||FE simulation of edge crack initiation:2||Friction Coefficient:2||boron:2||Front end bending:2||Arrest toughness (arrestability):2||Surface profile:2||TRIP steel:2||CGO silicon steel:2||constitutive equation:2||roll gap adjustment:2||Groove Rolling:2||ESSO test:2||rod rolling:2||유한요소해석:2||constitutive model:2||hot compression test:2||Groove rolling:2||Edge cracking:2||hot rolling:2||Residual compressive stress:2||roll wear:2||Silicon steel:2||High Temperature Rolling:2||Retained austenite:2||Finite element method:2||edge cracking:2||Austempering:2||equivalent roll gap:2||Forming groove:1||Fracture distance:1||Fracture identification curve:1||Fracture locus:1||Friction coefficient:1||Groove:1||Groove Design:1||Groove design method:1||Guide:1||Hbeam:1||Hearth Roll:1||High peening coverage:1||High stress triaxiality:1||High temperature deformation:1||Highalloy steel:1||Highsilicon steel:1||Hot Slab Rolling:1||Hot flat rolling:1||Hot rolling:1||Hot rolling process:1||Hot strip rolling process:1||H형 보:1||Idling time:1||Inconel:1||Initial roll temperature:1||Interstitial Free steels:1||Intrinsic material length:1||Kocks mill:1||Laboratory bar drawing test:1||Lengthwise deflection shape:1||Low temperature:1||Machine learning:1||Maximum Shear Stress:1||Mean friction coefficient:1||Micro wire drawing:1||Microcellular:1||Microcracks:1||Microvoid:1||Misaka model:1||Modeling:1||Modeling 2 R oval groove:1||Neural Network:1||Neural networks:1||Neutron radiation:1||Nondimensional:1||Oval:1||Oval groove roll:1||Pass schedule:1||Pilot Rolling:1||Pilot Rolling Test:1||Polymer Electrets:1||Polymer Foam Film:1||Process condition diagram:1||Productivity:1||Quantitative description of peening coverage:1||Rebar:1||Redistributed:1||Redistribution of asweld residual stress:1||Reduction Ratio:1||Reduction Rratio:1||Reduction ratio model:1||Relaxation:1||Residual Stress:1||Residual stress:1||Residual stress redistribution:1||Roll:1||Roll Force:1||Roll gap adjustment:1||Roll groove:1||Roll groove design:1||Roll wear:1||Rolling method changes:1||Round groove roll:1||SEM:1||Saturation curve:1||Secondary rollbending ratio:1||Separating:1||Separating groove:1||Setup Model:1||Shear damage model:1||Shear fracture model:1||Shear stress ratio:1||Shida model:1||Shot Peening:1||Ski:1||Slab:1||Slit rolling:1||Spheroidization:1||Spreading:1||Strain gradient plasticity:1||Strain rate sensitivity:1||Strain surface function:1||Straintofracture initiation:1||Stress function:1||Stretched Truncated Octahedron Model:1||Strip holding system:1||Surface Defect:1||Surface cracks:1||Surface defects:1||Surface hardening:1||Tangential Tensile Stresses:1||Temperature distribution:1||Thermal Stress:1||Thermal stress:1||Thick plate rolling:1||Threeroll rolling system:1||Time:1||Transverse surface crack:1||Universal Rolling:1||Vbending forming:1||Vbending test:1||Waterjet cutting:1||Waviness:1||Welding:1||Work Roll:1||Wrinkle Initiation:1||additive manufacturing:1||analytical model:1||approximate model:1||arithmetic average aspect ratio:1||asymmetric rolling:1||billet rolling:1||blast load:1||bolt forming process:1||boronadded high strength IF steel:1||centerline segregation:1||characteristic length:1||charpy impact test:1||coating:1||coating layer:1||continuous cast bloom:1||cooling process:1||crack growth simulation:1||decarburized ferrite layer thickness:1||deformation resistance:1||delamination:1||design force:1||design torque:1||dilatometry:1||directed energy deposition:1||draft schedule design:1||ductile damage model:1||energy absorption:1||exit cross sectional shape:1||explosion:1||failure model:1||fast running model:1||fatigue failure:1||fault indicator:1||finite element simulation:1||finiteelement method:1||flat rolling:1||flow formulation:1||flow stress softening:1||flow stressstrain curve:1||fracture simulation:1||free surface profile prediction:1||friction coefficient:1||front end bending:1||fuel consumption:1||galvannealed steel sheet:1||geometric factor:1||gouge defected pipes:1||groove rolling:1||grooved roll:1||heavy reduction:1||highsilicon steel:1||hot bar rolling process:1||hot deformation.:1||hot rod rolling:1||hot strip rolling:1||idle stands:1||impulse curve:1||inline model:1||internal crack:1||interstitial free steel:1||interstitialfree steel:1||intrinsic material length:1||inverse scheme:1||local strain variation:1||lost cost flow:1||lubricant:1||malfunction:1||material thickness:1||maximum spread:1||metadynamic:1||metal:1||metal hot working:1||micro forming:1||micro rolling:1||microalloyed medium carbon steel:1||modeling:1||neural network:1||notch position:1||oval groove roll:1||phase transformation:1||phosphorous:1||phosphorus:1||pilot hot plate rolling test:1||plate mill:1||power plant:1||productivity:1||radiant heat efficiency:1||radiant tube:1||recrystallization:1||redistribution of reduction ratio:1||reduction ratio correction method:1||response surface method:1||revamping:1||roll gap variation:1||roll groove:1||roll groove design:1||roll pass design:1||roll profile:1||roll tonnage:1||roll torque:1||rollbending:1||rolling:1||rolling speed:1||rolling test:1||round groove roll:1||scale thickness:1||scaled distance:1||semianalytical model:1||shape factor:1||size effect:1||soft reduction:1||split HopkinsonPressure Bar test:1||spreading:1||spring steel:1||static:1||stiffness degradation:1||strain components:1||strain rate:1||straintofracture:1||thermoeconomic diagnosis:1||thickness ratio correction method:1||tool life:1||volume fraction of recrystallization:1||waviness:1||wear:1||wear contour:1||wear contour (profile):1||wire drawing:1||work roll surface profile:1||근사모델:1||다공성 폴리머 박막:1||모서리가 제거된 팔면체 인장모델:1||무차원화:1||벅스트롬보이스 모델:1||비대칭 변형:1||설정모델:1||시험압연:1||압연하중:1||유니버셜 압연:1||폴리머 일렉트릿:1||3D fracture locus:1||후판압연:1||AISI 4140 steel:1||ANN:1||Absorption energy:1||Alloy steels:1||Almen Strip:1||Almen intensity:1||Almen strip test:1||Analytic method:1||Approximate Model:1||Approximate method:1||Approximate model:1||Arc Height:1||Asymmetric Deformation:1||BergstromBoyce Model:1||Blowing agent:1||Caliber (Groove) rolling process:1||Camber:1||Carbon equivalent model:1||Carbon steel:1||Cementite:1||Charpy absorbed energy:1||Charpy impact energy:1||Classification:1||Cleavage fracture:1||Cold Rolling:1||Compressive stress:1||Conductive carbon black:1||Consecutive cooling condition:1||Constitutive Equation:1||Continuous Annealing Line:1||Continuous casting:1||Control Method:1||Cooling Method:1||Cumulative damage:1||Curved hexagonal caliber:1||Decision boundary:1||Design:1||Dielectric modulus:1||Draft schedule:1||Drawbench test:1||Drawing test:1||Ductile fracture criteria:1||Ductile materials:1||EBSD:1||Elasticplastic FE simulation:1||Electrical Steel:1||FE Simulation:1||FEA:1||FEM:1||FEM Simulation:1||Fast running model:1||Ferrite steels:1||Finite element simulation:1||

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