ScholarWorks@Hongik: Cho, Jin Rae

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Cho, Jin Rae (조진래)

Integrated AID Science and Technology (Naval Architecture, Ocean and Mobility Engineering)

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Natural element method (NEM):15||functionally graded:13||CNTreinforced:5||hierarchical model:5||GPLreinforced composite:5||finite element structural analysis:5||Functionally graded:5||Stress intensity factor (SIF):4||natural element method:4||Hierarchical model:4||wind turbine blades:3||Hierarchical models:3||spartype floating platform:3||neartip grid refinement:3||MITC3+shell element:3||crack analysis:3||Finite element analysis:3||mechanical characteristics:3||critical buckling load:3||modified interaction integral:3||Model limit:3||parametric investigation:3||natural element method (NEM):3||Crack propagation:3||Parametric investigation:3||porosity distribution:3||FGCNTRC facesheets:2||Functionally graded material:2||Helix angle:2||Composite plates:2||Platelike structure:2||Natural element method:2||nonlinear free vibration:2||graphene platelets (GPLs):2||Large deformation analysis:2||Taguchi method:2||Hierarchic models:2||heave and pitch motions:2||Functionally graded materials (FGM):2||RMDF:2||Convergence rate:2||Lockingfree approximation:2||Hilbert transform:2||neartip stress distribution:2||Homogenized model:2||exterior penaltyfunction method:2||convergence rate:2||sensor placement optimization:2||#8208:2||fairlead position:2||Sandwich beams:2||linearized total Lagrangian formulation:2||coupled nonlinear equations:2||Exponentially varying elastic modulus:2||stress intensity factor:2||Injection molding:2||FGM face:2||metalceramic FG plate:2||thicknesswise CNT distribution:2||mixedmode stress intensity factor (SIF):2||Fabric braided braking hose:2||Free vibration:2||Detailed model:2||Acoustic analysis:2||multiobjective optimization:2||critical buckling temperature rise:2||Modified fatigue model:2||Modified interaction integral:2||Enriched natural element method:2||FGCNTRC:1||FGCNTRC plate:1||FGCNTRCs:1||FGM core:1||Fabric braidrubber layered:1||Fabric braided layer:1||Fatigue damage:1||Fatigue life cycle:1||Fiber reinforced rubber hose:1||Filling time difference:1||Finite element analysis (FEA):1||Finite element structural analysis:1||Flexible disctype baffle:1||Flexible liquid storage tank:1||Flow velocity:1||Forcebending moment:1||Forcedeflection:1||Free vibration analysis:1||Freevibration analysis:1||Frequencydependent dynamic systems:1||Functionally graded material (FGM):1||Functionally graded nanocomposite:1||Functionally graded sandwich plate:1||Functionally gradient (FG) plate structure:1||Fundamental frequencies:1||GPLreinforced:1||GPLreinforced cylindrical panel:1||GPLreinforced nanocomposite:1||Genetic algorithm (GA):1||Glass fiber:1||Global and local errors:1||Global and local patches:1||Graphene platelets (GPLs):1||Grid refinement:1||Heat transfer coefficient:1||Heel height:1||Hierarchic model:1||Hierarchical modeling:1||Highgloss plastic:1||Homogeneous core:1||Homogenization:1||Hydrodynamic pressure:1||Hydropneumatic suspension unit:1||ISU:1||Injection compression molding:1||Insert injection molding:1||Insulation resistance:1||Integral path discretization:1||Internal voids:1||LI function:1||Laminate composite plate:1||Laminated composite plates:1||Lamination type:1||Laplace interpolation function:1||Laplace interpolation functions:1||Large deflection and amplitude:1||Layered elastic structures:1||Leakage:1||Levelwise strain recovery:1||Light transmission:1||Liquid sloshing:1||MPS criterion:1||MTS criterion:1||Main grooved smooth tire:1||Maximum deformation:1||Mechanical properties:1||Metal gradient index:1||Metalceramic FG plate:1||Metalmatrix composites (MMCs):1||Modal expansion:1||Model level:1||Model order and limit:1||Model verification:1||Modeling and approximation errors:1||Modeling error:1||Modified MCS criterion:1||Mold flow:1||Mold temperature:1||Multiobjective optimization:1||Multiwalled carbon nanotubes (MWCNTs):1||Nanocomposites:1||Neartip grid refinement:1||Neartip stress distribution:1||Nonlinear bending analysis:1||Nonlinear bending and free vibration:1||Nonlinear coupled system:1||Nonlinear finite element analysis:1||Nonlinear free vibration:1||Normal velocity extraction:1||Numerical optimization:1||Numerical simulation:1||Optimum design:1||Optimum molding conditions:1||Optimum sensor placement:1||Orthotropic homogenization:1||Orthotropic interaction integral:1||Oxyfuel combustion:1||PGNE method:1||PGNEM:1||PML nonreflecting technique:1||PML 무반사 기법:1||Pasternaktype foundation:1||Path interpolation:1||Performance evaluation:1||Periodically exciting contact force:1||PetrovGalerkin natural element (PGNE) method:1||PetrovGalerkin natural element method (PGNEM):1||Pipeline system:1||Plastic PAB housing:1||Plastic culture container:1||Plastic gas valve stem:1||Plastic injection molding:1||Power steering hose:1||Powerlaw shear viscosity model:1||Process characteristics:1||Process temperature:1||Propagation trajectory:1||Quarter and half models:1||Radiation noise:1||Radiative slab heating:1||Rebar:1||Rebound excitation force:1||Reheating furnace:1||Reliable crack analysis:1||Rigid hemisphere cleat:1||Rubber hardness:1||Rule of mixture:1||S/N ratio:1||Sandwich plates:1||Sealing system:1||Seismic analysis:1||Sleeve:1||Smoothened stress field:1||Sound power and pressure:1||Sound pressure and power:1||Spartype floating substructures:1||Spectrum analysis:1||Spring:1||Spring and damping:1||Stationary tire:1||Steelceramic FGM core:1||Sterilization operation:1||Stress recovery:1||Stress recovery techniques:1||Stress resultant:1||Stresses and buckling loads:1||Structural vibration:1||Swaging process:1||TBR tire structure:1||TR forging:1||Tempcore:1||Tempering:1||Thermal buckling:1||Thermal flow analysis:1||Thermal model:1||Thermal shock test:1||Thermoelastic characteristics:1||Tire body vibration:1||Tire rolling noise:1||Tradeoff:1||Tube hydroforming:1||Twin dies:1||Two cavities:1||Unit cell:1||Unitimpulse response:1||Updated Lagrangian formulation:1||Ventilation fan:1||Vibration transmission and damping:1||Vibroacoustic analysis:1||Volume fraction distribution:1||Volume fraction pattern:1||Von Kármán nonlinearity:1||Weather strip:1||Weight reduction:1||Wheel speed sensor:1||Wind turbine blades:1||WinklerPasternak foundation:1||Wollastonite:1||Xray:1||analytical derivation:1||anisotropic large deformation:1||annular cylindrical tank:1||antisymmetric crack:1||bending:1||bending and free vibration:1||blade element momentum theory (BEMT):1||blockwise modal expansion method (BMEM):1||buckling analysis:1||buckling behavior:1||buckling load:1||center of mass:1||centerpin:1||ceramic–metal porous composite plates:1||ceramic volume fraction:1||comparison of mechanical responses:1||composite plate:1||composite plates:1||conical shell panel:1||conical shell panels:1||constant strain (CS) basis function:1||constantstrain basis function:1||convolution integral:1||cooling:1||costbenefit analysis:1||coupled buckling problem:1||coupled resonance response:1||coupling in resonance:1||crack growth length:1||crack length and angle:1||crack propagation:1||crack propagation trajectory:1||cracked cylindrical panel:1||cracked plate:1||cracked wind turbine blade:1||critical buckling temperature:1||cyclic bending:1||cyclic motion:1||cyclic path:1||cylindrical cell:1||cylindrical composite panel:1||cylindrical shell panels:1||deflection:1||deflection and effective stress:1||deflection and fundamental frequency:1||design of experiment:1||dualphase composite:1||durability and deformed layout:1||dynamic response analysis:1||effective eigenvalues:1||effective stress minimization:1||elastic foundation:1||element method:1||enhanced PGNEM:1||enriched PetrovGalerkin natural element method:1||equilibrated T/S stress:1||equivalent tooth stiffness coefficient:1||error estimation:1||experimental verification:1||exploratory study:1||exponentially varying elastic modulus:1||fabric braided composite hose:1||fabric braided rubber hose:1||fatigue damage:1||fatigue life:1||fatigue life assessment:1||finite difference scheme:1||finite element method:1||firstorder approximation:1||flexible pin:1||floating offshore wind turbine:1||fluidstructure interaction analysis:1||forming:1||free and transient responses:1||free vibration:1||free vibration analysis:1||free vibration characteristics:1||free vibration responses:1||frictional contact:1||functionally graded material (FGM):1||functionally graded materials (FGM):1||functionally graded porous plate:1||functionally graded porous plates:1||functionally graded sandwich plate:1||gear shaft misalignment:1||gearbox:1||genetic algorithm (GA):1||geometrically nonlinear problem:1||global and local errors:1||graphene platelet (GPL):1||graphene plateletreinforced composites (GPLRC):1||graphene reinforcement:1||grapheneplateletreinforced composites:1||graphenereinforcement:1||heavy crankshaft:1||helix angle and hose length:1||hierarchical models:1||homogeneous core:1||hot strip rolling:1||impact test:1||inplane and outofplane:1||inclined central crack:1||injection molding:1||integrationbased postprocessing:1||interaction integral:1||internal crack:1||interpolation enrichment:1||laminated:1||laser:1||level&:1||like structure:1||linear complex stiffness system:1||linearized velocity potential:1||linearly elastic response characteristic:1||liquid sloshing:1||lithiumion battery:1||loaddeflection and bending moment:1||lockingfree NEM:1||metalceramic:1||microstructure generation:1||midand neutral surfaces:1||modal assurance criterion:1||modal assurance criterion (MAC):1||modal expansion technique:1||modeling and approximation errors:1||monitoring system:1||mooring tension:1||nanocomposite plate:1||natural frequencies:1||natural frequency:1||natural&:1||neutral surface:1||nondimensional loaddeflection curve:1||nonhomogeneous material:1||nonlinear free vibration:1||nonlinear PGNEM:1||nonlinear bending:1||nonlinear bending deflection:1||offshore reel laying:1||parametric study:1||pasternaktype elastic foundation:1||phase field formulation (PFF):1||phasefield formulation:1||phasefield formulation (PFF):1||planetary gear set:1||plastic horn cover:1||plate&:1||porous CNTRC beams:1||porous cracked cylindrical panel:1||porous cylindrical panel:1||postbuckling path:1||preform design:1||resonance frequencies:1||response amplitude operator (RAO):1||responsesurface method:1||rule of mixture:1||run out table:1||scale model:1||shaft tilting angle:1||shear stabilization:1||shelllike structures:1||spartype floating offshore:1||spring constant:1||state space:1||statespace formulation:1||static bending:1||strain recovery:1||stress intensity factor (SIF):1||stress recovery:1||stress resultants:1||strip wave:1||structural dynamic response:1||symmetric GPL and porosity distributions:1||thermal buckling analysis:1||three flow regions:1||threestep iterative scheme:1||time domain analysis:1||transient response:1||truncation error:1||underwater:1||underwater explosion:1||unit impulse response:1||vibration field:1||vibration pattern reproduction:1||viscoushysteretic mixed damping (VHMD):1||volume fraction distribution:1||von Karman nonlinearity:1||wind turbine:1||wind turbine blade:1||wind velocity:1||windinduced motion and trajectory:1||wise strain recovery:1||· Shelllike structures · Dimensionally reduced 1storder models · Shear and membrane locking · Degenerated 8node shell element · Reduced integration · Modification of shear correction factor:1||계층적 모델:1||구조 동응답:1||균열선단 그리드 세분화:1||균열선단 응력분포:1||균열해석:1||그래핀 강화:1||기어박스:1||기어축 미스얼라인먼트:1||내부 균열:1||동응답 해석:1||등가 치강성계수:1||미세구조 생성:1||부유식 해상풍력발전기:1||선형탄성적 응답특성:1||수렴률:1||수중폭발:1||원통형 복합재:1||위상필드 정식화:1||유성기어 셑:1||유연핀:1||유체구조 연계해석:1||이종 입자복합재:1||임계 좌굴하중:1||자연요소법:1||#160:1||축 기울기:1||1/100 scale model:1||2D angled crack:1||2D enriched PGNEM:1||2D extended NEM:1||2D extended natural element method (XNEM):1||2D meshfree method:1||2D natural element method:1||2D natural element method (NEM):1||2D surface wave:1||2.5MW wind turbine:1||2.5MW급 풍력발전기:1||3D foot model:1||Acoustic power and pressure:1||Acoustic sound:1||Acoustical pattern:1||Air conditioner:1||Air jet impingement:1||Anisotropic large deformation:1||Armed tracked vehicle:1||Artificial neural network (ANN):1||Automobile tire:1||BGNE method:1||Baffle number:1||Bending and free vibration:1||Biomechanical characteristics:1||Buckling analysis:1||CNT volume fraction distribution:1||CNTreinforced ccomposite (CNTRC):1||CNTreinforced composite:1||CNTRC plates:1||CNTs:1||Calibrated natural frequencies:1||Carbon nanotubereinforced composite (CNTRC):1||Carbon nanotubereinforced composite (CNTRC) beam:1||Carcass and tread belt:1||Ceramicmatrix composites (CMCs):1||Ceramicmetal FG plate:1||Characteristics of hierarchical models:1||Combination resonance:1||Comparative analysis:1||Complex eigenvalues:1||Composite:1||Composite hose:1||Corrugated cooler:1||Critical buckling temperature (CBT):1||Cyclic loading:1||Cyclic path:1||Cylindrical panels:1||Deflection and stress:1||Deflection and stress variations:1||Deformed layout:1||Displacement and stress:1||Doublewalled pipe:1||Durability enhancement:1||Dynamic characteristics:1||Dynamic response:1||Efficiency:1||Elastic foundation:1||Enriched PGNEM:1||Enrichment method:1||Equilibrated transverse shear stresses:1||Equivalent modeI SIF:1||Error estimation:1||Exterior penaltyfunction method:1||Extraction method:1||Extrusion forming process:1||FE vibration analysis:1||FEM:1||

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