Open Access System for Information Sharing

OASIS Repository @POSTECH Browse by Researchers

BARLAT, FREDERIC GERARD (Barlat Frederic Gerard)

Graduate Institute of Ferrous Technology(철강대학원)

Field(s)

Show more items...

H-INDEX

Chart.

Keyword

BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensioncompression asymmetry:2||Swift effects:2||FREE END TORSION:2||SINGLECRYSTALS:2||tailored properties:2||Crosshardening:2||Advanced high strength steels:2||LOCALIZED NECKING:2||Udraw/bending:2||Forming limits:2||Anisotropic:2||Partial Quenching (PQ):2||Hot Press Forming (HPF):2||Tailor Welded Blank (TWB):2||QUENCHING PROCESS:2||ALLOY:2||SPRINGBACK SIMULATION:2||Cutting plane algorithm:2||Shear:2||KINEMATIC HARDENING LAWS:2||Isotropic hardening:2||RECONSTRUCTION:2||Dislocation density:2||Aluminum alloys:2||Nonproportional loading:2||Ferritic steel:2||Kinematic:2||Dual phase:2||friction:2||LARGESTRAIN:2||RECOVERY:2||IMPACT:2||Isoerror map:2||TRANSIENTBEHAVIOR:2||Bpillar reinforcement:2||Constitutive behavior:2||STRAINPATH CHANGES:2||Yield criteria:2||FINITEELEMENT SIMULATIONS:2||Elastoplastic behaviour:2||CURVE:2||Strain hardening stagnation:2||ACTIVATION VOLUME:2||BCC METALS:2||Stress analysis:2||Constitutive behaviors:2||Anisotropic yield functions:2||Strain:2||Thermal barrier coatings:2||representative volume element:2||advanced high strength steel:2||tempering process:2||sliding velocity:2||TEMPERATUREDEPENDENCE:2||TRANSFORMATIONS:2||ALLOY SHEETS:2||KirkaldyVenugopalan model:2||Biaxial tensile tests:2||Strain rate potential Srp200418p:2||Warm cup drawing:2||Simplex method:2||Elastic moduli:2||Elastoplasticity:2||Representative volume element (RVE):2||REVERSAL:2||DEFORMATIONBEHAVIOR:2||mesoscale:2||low cycle fatigue:2||TRANSFORMATION PLASTICITY:2||PHASECHANGE:2||AHSS:2||PLASTICDEFORMATION:2||High strain rate:2||STRESSRELAXATION:1||DAMAGE MODEL:1||BCC POLYCRYSTALS:1||STRESS STATE:1||PURITY ALPHATITANIUM:1||DEEPDRAWING PROCESS:1||INDUCED PLASTICITY STEELS:1||Strength differential effect:1||CRYSTALS:1||THINFILMS:1||phiModel:1||FCC METALS:1||Eating:1||CELLWALLS:1||METAL:1||Shearing:1||High Mn TWIP steel:1||MAXIMUM FORCE CRITERION:1||mathematical model:1||Convex function:1||Delamination fracture:1||COMPUTATIONAL SIMULATION:1||CONSTITUTIVE MODEL:1||DESIGN:1||tension/compression asymmetry:1||precipitate strengthening:1||Grain refinement:1||texture:1||Relaxation:1||Loadingunloadingreloading:1||Thermography:1||Dynamic hardening:1||INTERNALSTRESSES:1||Elasticplastic behavior:1||Yield surface evolutions:1||Slip forming:1||Computational efficiency:1||Modulus reduction:1||Springback prediction:1||Experimental validations:1||Micromechanics:1||Aluminum:1||Principle of virtual work:1||FERRITIC STAINLESSSTEEL:1||LUBRICATION:1||DP780:1||constitutive model:1||sheet forming simulations:1||CoffinManson relation:1||distortional hardening:1||Nanoindentation:1||Constituent hardness:1||INDENTATION:1||Cyclic tensiontorsion:1||Hydraulic bulge test:1||FCC CRYSTALS:1||Forming limit diagram:1||HOLE EXPANSION:1||Metal plasticity:1||metal forming:1||DEFORMATION ELASTOPLASTICITY:1||STACKINGFAULT ENERGY:1||rValue:1||Forming limit curve:1||Forming limit diagrams:1||STRAINPATH CHANGE:1||aluminium:1||X ALLOYS:1||strain hardening:1||METASTABLE AUSTENITIC STEELS:1||linear transformations:1||simple shear:1||HARDENING/SOFTENING BEHAVIOR:1||Dislocations (crystals):1||Crystal plasticity models:1||Stability and bifurcation:1||Bending (deformation):1||Deformation:1||Image analysis:1||Comparative studies:1||Multistage forming:1||Material representation:1||void nucleation micromechanisms:1||TENSILE DEFORMATION:1||Thin walled tube:1||Stepwise motion:1||Mecahnical servopress:1||Complex loading:1||asymmetric rolling:1||strength:1||finite element method:1||anisotropy:1||strainlife:1||INCLUSIONS:1||Aluminum tube:1||SINGLE GRAINBOUNDARY:1||Temperature:1||Yield criterion:1||NONASSOCIATED FLOW:1||Nanoindenter:1||STRAIN GRADIENT PLASTICITY:1||TENSILESTRENGTH:1||Deep Drawing:1||TEXTURE EVOLUTION:1||Constitutive laws:1||Limit analysis:1||Necking:1||Plastic anisotropy:1||SUBSEQUENT YIELD SURFACE:1||Stretchflangeability:1||Plastic flow localization:1||FRACTURETOUGHNESS BEHAVIOR:1||CLOSURE:1||INDUCED MARTENSITICTRANSFORMATION:1||anisotropic yield function:1||ALUMINUMALLOYS:1||PRESSURE:1||thermomechanical modeling:1||Linear transformations:1||Solidshell:1||MULTIPLE INTEGRATION POINTS:1||STRAIN:1||Large strains:1||Crystal plasticity finite element:1||Digital image correlation technique:1||Process Variables:1||Threedimensional (3D) reconstruction:1||Parameter estimation:1||Constitutive parameters:1||Inverse problem solution:1||Metallic material:1||EBSD analysis:1||FRACTURE MECHANISMS:1||DUCTILE FRACTURE:1||Rotary draw bending:1||Hole expansion ratio:1||OVERSTRESS AFVBO:1||Crystallographic dislocation model:1||FAILURE CRITERION:1||FEM:1||FORMING LIMITS:1||springback compensation:1||ROOMTEMPERATURE:1||Plates:1||ELECTROPLATED NICKEL:1||Analytical approach:1||Cup height profile:1||FINITEELEMENTMETHOD:1||POLYCRYSTALLINE MODEL:1||INTRAGRANULAR BEHAVIOR:1||Anisotropic sheet metals:1||hexagonal metals:1||Texture:1||SHEAR TEXTURE:1||PLANESTRAIN DEFORMATION:1||Dislocation densities:1||Elasticplastic Material:1||Modulus degradation:1||Materials properties:1||Micromechanical modeling:1||Crystal microstructure:1||Hysteresis:1||Piecewise linear approximations:1||Localized thinning:1||Mechanical properties:1||Isotropic hardenings:1||Twist:1||SIMULATIONS:1||PLASTICFLOW:1||Hole expansion test:1||DISPLACEMENT ADJUSTMENT:1||Hexagonal materials:1||FINITEELEMENTANALYSIS:1||COMPRESSION:1||PACKED METALS:1||INSITU:1||INDENTATION EXPERIMENTS:1||DEFORMATION POLYCRYSTAL VISCOPLASTICITY:1||ROLLINGTEXTURE:1||SHEETMETAL FORMABILITY:1||PLATE:1||martensitic phase transformation:1||numerical model:1||REPRESENTATION:1||aluminum 6111T4 alloys:1||TEMPERATURES:1||SOLIDSHELL ELEMENT:1||Mechanical behavior:1||DEFORMATION TEXTURES:1||Dynamic strain aging:1||Elongation:1||Digital image correlation:1||DISLOCATION DENSITIES:1||METALLIC MATERIALS:1||Channel forming process:1||C. Characteristics:1||Multiscale frameworks:1||Unloading:1||Nonlinear elasticity:1||Strain measurement:1||Cost effectiveness:1||Volume measurement:1||Aluminum sheet:1||Differential hardening:1||Plastic deformation behavior:1||RECRYSTALLIZATION:1||Hardening behavior:1||Zn alloys:1||Constitutive equations:1||Flow stress determination:1||Bulge test:1||DUPLEX STAINLESSSTEELS:1||CARBON STEEL:1||ALUMINUM TUBES:1||HIGHSTRENGTH STEELS:1||DIGITAL IMAGE CORRELATION:1||MARTENSITE:1||WORKHARDENING/SOFTENING BEHAVIOR:1||Materials modelling:1||DIE DESIGN METHOD:1||ANISOTROPIC RESPONSE:1||SLIP:1||Nanotension:1||Microstructures:1||GRAINSIZE:1||Yield stress:1||PART:1||HARDENING BEHAVIOR:1||Polynomials:1||REPRESENTATIONS:1||Aluminumlithium (AlLi):1||Smallscale yielding:1||GROWTH:1||304STAINLESSSTEEL:1||Micromechanical model:1||FINITEELEMENT SIMULATION:1||PATH CHANGES:1||AA5754:1||Reverse loading:1||Anisotropic plasticity:1||Inverse identification:1||Stress relaxation:1||Loading:1||Microstructure evolutions:1||Microstructural analysis:1||Forming:1||Virtual microstructures:1||Elasticity:1||Stiffness:1||Metal drawing:1||Elasticplastic finite element model:1||Ferritic stainless steel sheet:1||Plastic deformation:1||Effective mechanical properties:1||Microstructurebased model:1||Shear stress:1||OXIDE SCALE:1||STRAINS:1||Advanced high strength steel (AHSS):1||Low carbon steels:1||Forming limit stress diagram:1||MarciniakKuczinsky model:1||ACCURACY:1||Earing:1||PRESSURE SENSITIVE METALS:1||Buckling:1||WROUGHT MAGNESIUM:1||Material testing:1||FINITE STRAIN:1||RATEDEPENDENT POLYCRYSTALS:1||SELFCONSISTENT APPROACH:1||Numerical methods:1||Ferritic stainless steel sheets:1||Modeling:1||CONSTITUTIVEEQUATIONS:1||Stress and deformation fields:1||Yld200418p model:1||ALLI ALLOYS:1||AMBIENT:1||austenitic stainless steels:1||CYCLIC DEFORMATION:1||DESCRIBE:1||friction stir welding:1||Enhanced assumed strain:1||Asymmetrical rolling:1||GRAINREFINEMENT:1||AL(SI,GE) ALLOYS:1||Forecasting:1||Bauschinger effects:1||Piecewise linear techniques:1||Commercial finite element codes:1||Springback simulations:1||Steel sheet:1||Twist springback:1||Optimization:1||Proton exchange membrane fuel cells (PEMFC):1||Stamping:1||R value:1||Strain rate:1||Viscoplastic selfconsistent model:1||Shear tests:1||sheet metal:1||PART II:1||TESTS:1||ASYMMETRY:1||Thermomechanical FE simulation:1||MECHANICALBEHAVIOR:1||High strength steels:1||STRETCHABILITY:1||asymmetrical U shape bending:1||blade:1||OPTIMIZATION:1||NONLINEAR MECHANICAL RESPONSE:1||Gripless test:1||NANOCRYSTALLINE COPPER:1||Texture crystal plasticity:1||STRAINRATE POTENTIALS:1||ROLLED SHEETS:1||CHANGING STRAIN PATHS:1||PLANESTRESS CONDITIONS:1||shear fracture:1||Numerical simulation:1||3D finite element analysis:1||TSTRESS:1||FATIGUE:1||strain rate:1||THICKNESS:1||crystal plasticity:1||ALUMINUM SINGLECRYSTALS:1||Viscoplastic selfconsistent:1||Single crystals:1||Polycrystalline materials:1||Phenomenological plasticity:1||Bending moments:1||Deep drawing:1||Digital image correlations:1||Kinematic hardening model:1||Fuel cells:1||Graphite bipolar plates:1||DPsteel:1||Stress strain relation:1||FRICTION:1||BEHAVIOR:21||DEFORMATION:16||ALUMINUMALLOY SHEETS:16||Anisotropy:15||Bauschinger effect:15||Finite element method:15||MODEL:12||PREDICTION:11||YIELD FUNCTIONS:9||PLASTICITY:9||SHEET:9||METALS:9||Springback:8||CRYSTAL PLASTICITY:8||STRAINPATH:8||Hardening:7||Advanced high strength steel:7||PLASTIC ANISOTROPY:7||STEEL:7||Yield function:6||YIELD FUNCTION:6||EVOLUTION:6||METAL PLASTICITY:6||Constitutive modeling:6||CYCLIC PLASTICITY:6||Plasticity:6||Constitutive model:6||MICROSTRUCTURE:5||CRITERION:5||Anisotropic material:5||SPRINGBACK EVALUATION:5||INCREMENTAL DEFORMATIONTHEORY:5||SHEETS:5||STRAIN REVERSAL:5||STRAINRATE:5||Constitutive models:5||SHEET METALS:5||FORMING LIMIT DIAGRAMS:5||Anisotropic hardening:5||Virtual fields method:5||ANISOTROPIC YIELD FUNCTIONS:5||Hole expansion:4||Microstructure:4||ANISOTROPY:4||FORMABILITY:4||PLASTIC BEHAVIOR:4||INTEGRATION ALGORITHMS:4||CRYSTALLOGRAPHIC TEXTURE:4||Strain path change:4||SIMPLE SHEAR:4||Elastoplasticity:4||TWIP steel:4||TEXTURE:4||DUALPHASE STEELS:4||Mechanical testing:4||Stress integration algorithm:4||SIMULATION:4||TRIP steel:4||STRESS:4||ALUMINUM:4||Formability:4||ELASTOPLASTIC CONSTITUTIVE RELATIONS:4||Crystal plasticity:4||Stainless steel:4||Sheet metal forming:4||HARDENING MODEL:3||Finite element simulation:3||PLASTIC STRAINRATE:3||DUALPHASE STEEL:3||Fracture:3||ORTHOTROPIC PLASTICITY:3||Ferrite:3||STEELS:3||Finite element:3||Sheet forming:3||High strength steel:3||STAINLESSSTEEL:3||FORMING SIMULATIONS:3||Strain rate potentials:3||POLYCRYSTALS:3||TRIP STEELS:3||TEXTURE DEVELOPMENT:3||TRANSFORMATION:3||POLYCRYSTALLINE METALS:3||IDENTIFICATION:3||Ferritic stainless steel:3||Anisotropic hardenings:3||MECHANICALPROPERTIES:3||YOUNGS MODULUS:3||dualphase steel:3||TENSILE TEST:3||YIELD CRITERION:3||LOWCARBON STEEL:3||KINETICS:3||Sheet metal:2||Yield surface:2||Dislocations:2||Yield condition:2||STRESS YIELD FUNCTION:2||RECTANGULAR CROSSSECTION:2||NUMERICALANALYSIS:2||SPECIMENS:2||FINITEELEMENT METHODS:2||AZ31 ALLOY:2||STATE:2||Forming limit:2||FCC:2||Constitutive behaviour:2||Crystallographic textures:2||crosshardening:2||Strain hardening:2||Loadingunloading test:2||DP steel:2||WIDERANGE:2||Anisotropic hardening model:2||BACK EVALUATION:2||LAWS:2||INTERSTITIALFREE STEEL:2||Hot stamping:2||INELASTIC BEHAVIOR:2||Isotropickinematic hardening:2||SHEETMETAL:2||GRAIN:2||MECHANICAL EQUATION:2||LOAD RELAXATION:2||TEMPERATURE:2||FORMING LIMIT PREDICTION:2||Stressstrain curves:2||DUALPHASE:2||Twinning:2||Closest point projection method:2||Strainpath change:2||TENSIONCOMPRESSION:2||Phase transformation:2||Polycrystalline model:2||RETURN MAPPING ALGORITHM:2||Inverse problem:2||FRACTURE INITIATION:2||LIMIT:2||DIAGRAMS:2||SOLIDS:2||TEXTURE FUNCTION:2||Martensitic steel:2||Finite element simulations:2||Fullfield measurements:2||heat treatment:2||MICROSTRUCTURES:2||contact pressure:2||Hardening law:2||phase transformation:2||Nonlinear elastic modulus:2||Inelastic recovery:2||LOW TEMPERATURE:2||FLOWSTRESS:2||TRIP:2||ANISOTROPIC MATERIALS:2||AUTOMOTIVE SHEETS:2||Vickers hardness:2||WORKHARDENING BEHAVIOR:2||Aluminum alloy:2||Fullfield measurement:2||ELASTOPLASTIC CONSTITUTIVE PARAMETERS:2||MAGNESIUM ALLOY SHEETS:2||IMPLICIT:2||INDUCEDPLASTICITY STEEL:2||Yield conditions:2||Inverse problems:2||formability:2||finite element simulation:2||LENGTH CHANGES:2||IF STEEL:2||ENHANCEMENT:2||Finite elements:2||ELEMENT:2||Parameter identification:2||Earing profile:2||EXPLICIT:2||INTERNALSTRESS:2||Direct search:2||Martensite:2||Tensile testing:2||RECTANGULAR H96 TUBE:2||Stretch flangeability:2||Tensionco