ScholarWorks@Hanyang University: Ha, Sung Kyu

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Ha, Sung Kyu (하성규)

COLLEGE OF ENGINEERING (SCHOOL OF MECHANICAL ENGINEERING)

Research Area: 복합재료

Tel 02-2220-2359
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Finite element analysis:6||micromechanics:6||Micromechanics of failure:5||strength:4||filament winding:4||progressive damage:4||Micromechanics:4||failure criterion:3||Transverse cracking:3||B:3||unidirectional composites:3||Finite element analysis (FEA):3||C:3||fatigue life:2||Coordinate Measuring Machine (3차원 좌표 측정기):2||Braided textile composites:2||unit cell:2||Delamination:2||Largescale blade:2||residual stresses:2||Life prediction:2||Design of Experiment (실험계획법):2||Longitudinal fatigue:2||Aeroelasticity:2||Unidirectional composites:2||Bendtwist coupling:2||Constant life diagram:2||nonlinear:2||hydrogen storage tank:2||Braided composites:2||Strength:2||Mean stress effect:2||carbon composites:2||LNG storage tank:2||Composite Materials:1||Composite Pressure Vessel:1||Composite flywheel rotor:1||Composite plates:1||Composite rotor:1||Composite sandwich plate:1||Compositecylindricalcylindricalshell:1||Compression After Impact:1||Compression after impact (CAI):1||CompressionAfterImpact:1||Compressive strength:1||Connectionsprings:1||Constituent:1||Constituentbased strength analysis.:1||Cost analysis:1||Cost of energy:1||Critical velocity:1||D:1||DMA:1||Damping performance:1||Debonding:1||Defects in composites:1||Deformation:1||Dynamic response:1||E:1||Elium® 591:1||Energy absorption:1||Energy storage:1||Equivalent static analysis:1||Euler beam theory:1||Failure criterion:1||Failure modes:1||Failure prediction:1||Fatigue:1||Fatigue Life:1||Fatigue load:1||Fatigue load reduction:1||Fatigue strength:1||Fiber Bragg Grating sensor:1||Fiber Bragg grating:1||Fiber Reinforced Polymer:1||Fiber metal laminates:1||Fiber reinforced polymer:1||Fiberreinforced plastic:1||Fiberreinforced plastic composite:1||Filament winding:1||Finite element analysis(유한요소해석):1||Finite element method:1||Finite elements:1||Flutter:1||Flywheel energy storage system:1||Flywheel rotor:1||Foam filled core:1||GFRP laminate:1||Glass fiber reinforced polymer:1||Global deformation:1||Graphene:1||Graphene nanoplatelets:1||Graphene oxide:1||Green materials:1||Grid composite sandwich plate:1||Guided waves:1||Health monitoring telemetry system:1||Hybrid composite:1||Hybrid composite laminate:1||Hybrid composites:1||IH Oven:1||ILSS properties:1||Impact resistance:1||Interface:1||Interfacial stress:1||Interference:1||Invariants:1||LNG 저장탱크:1||Laminate:1||Landing gear:1||Largescale wind turbine blade:1||LowVelocity Impact:1||Lowvelocity impact:1||MEMS fabrication tolerance:1||MRE multifunctional Grid:1||MREbased grille core:1||MWCNTs:1||Magnetron(마그네트론):1||Material nonlinearity:1||Measurement Performance (측정 성능):1||Measurement Uncertainty (측정 불확도):1||Mechanical properties:1||Mechanical testing:1||Micromechanics:1||Moisture:1||Monte Carlo Simulation:1||MultiAxial loading:1||MultiScale Approach:1||Multiaxial loading:1||Multidisciplinary optimization:1||Multiregional control:1||Multiregional magnetic field:1||Multirim composite flywheel rotor:1||Multilayer ceramic capacitor:1||NCF (noncrimp fabric):1||Nanocellulose:1||Noncontact measurement:1||Nonlinear:1||Nonlinear free vibration:1||Optimization:1||Optimizations:1||Oven structure:1||Parametric method:1||Partialboltlooseness:1||Partition of energy:1||PerformanceTest (성능 시험법):1||Perlite pressure:1||Piezoelectric actuator:1||Ply thickness:1||Plythickness unbalance:1||Polymer nanocomposite:1||Pressfit interference:1||Progressive damage:1||Progressive damage model:1||Progressive failure:1||Projectile impact:1||RGOCNT hybrid:1||Random fibre arrangement:1||Residual stress:1||Response spectrum analysis:1||Rotor dynamic analysis:1||SN curve:1||Seismic analysis:1||Selective composite patch:1||Shallowangled skin:1||Shallowangled skins:1||Solid state reduction of GO:1||Specific capacitance:1||Spin test:1||Stiffener:1||Stiffness:1||Strain gauge experiment:1||Strain measurement:1||Strength ratio:1||Structural analysis:1||Superconductor magnetic bearing:1||Telemetry system:1||Tensile fracture:1||Tensile strength:1||Thermomechanical properties:1||Ti:1||Timoshenko beam theory:1||Titania:1||Titaniumbased FMLs:1||Tresca stress:1||VARTM (vacuum assisted resin transfer molding):1||Vibration control:1||Wind turbine blade:1||Wind turbine blades:1||Woven fabric composites:1||artificial disc prosthesis:1||biaxial and triaxial laminates:1||biaxial and triaxial braids:1||biaxial testing:1||carbon fiber:1||carbon nanomaterials:1||carbon neutrality:1||characterization of fatigue properties:1||commercialization of graphene:1||composite blades:1||composite cylindrical shell:1||composite sandwich plate:1||composites:1||compressionafterimpact:1||computational simulation:1||constituent failure:1||cost analysis:1||cost modeling:1||cure:1||cure behaviour:1||damage:1||decoupled vibratory microgyroscope:1||effective material property:1||effective ply property:1||elium thermoplastic matrix:1||equivalent moisture diffusion method:1||failure envelope:1||fatigue:1||fiberreinforced polymer:1||finite element method:1||finite elements:1||flywheel rotor:1||fuel cell vehicles:1||fusion:1||glass fibers:1||graphene:1||graphene oxide:1||graphite oxide:1||hexagonal array:1||history of graphene:1||homogenization:1||hoop strength:1||hybrid composites:1||hydrogen:1||hydrogen energy:1||hydrogen tank:1||hygrothermal residual stress:1||impact:1||impact behavior:1||impact damage resistance:1||interfacial traction:1||invariants:1||largescale wind turbine blades:1||low velocity impact:1||lower cervical spine:1||magnetic amplitude dependence:1||magnetorheological elastomer:1||master curves:1||master ply:1||megawattscale wind turbines:1||meso unit cell:1||micro stress distribution:1||micro unit cell:1||microstructures:1||multiaxial loading:1||multirim flywheel rotor:1||multiscale analysis:1||multiscale analysis:1||multiscale approach:1||nomex honeycomb sandwich:1||nondestructive testing:1||nonlinear vibration:1||numerical analysis:1||octagonal fiber model:1||open hole:1||optimization:1||overetching:1||parametric study:1||particlereinforcement:1||ply elastic properties:1||polymer composite:1||polymer matrix composites:1||polymermatrix composites:1||pressfit:1||process monitoring:1||random fiber array:1||representative volume element (RVE):1||robust design:1||rule of mixture:1||scaling effect:1||shallow angle:1||shallowangled laminates:1||skin laminates:1||square array:1||statistics:1||stiffness:1||storage:1||storage tanks:1||stress amplification factor:1||stress concentration:1||stress/strain amplification factor:1||structure:1||surface roughness measurements:1||temperature gradient:1||temperaturedependent properties:1||thermoplastic resin:1||thin film:1||threedimensional loading:1||trace:1||transient moisture concentration:1||transportation:1||ultimate strength prediction:1||vibrational amplitude dependence:1||viscoelastic analysis:1||void:1||wind turbine blades:1||내진해석:1||등가정적해석:1||A:1||응답 스펙트럼 해석:1||ASTM D2290:1||Accelerated testing methodology:1||Active control:1||All composite sandwich plate:1||Amplitude dependence:1||Analysis:1||Analytical modeling:1||Analytical modelling:1||Analytical solution:1||Anchor strap:1||Ball milling:1||Ballistic impact:1||Ballistic limit:1||Battery module:1||Beam on elastic foundation:1||Bending and vibration resistance:1||Biodegradable materials:1||Biopolymers:1||Boltlooseningconnection:1||Bulk amount rGO:1||Burst speed:1||CFRP:1||Carbon Fiber Reinforced Polymer:1||Carbon fiber reinforced polymer:1||Cellulose:1||Chemical exfoilation:1||Classical Laminated Plate Theory:1||Classical flutter:1||Classical laminate plate theory:1||Coefficient of thermal expansion:1||Cohesive Elements:1||Collectivepitch demand:1||Collimator correction factor:1||

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