CAU Scholar's Space: Choi, Seung Tae

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Choi, Seung Tae (최승태)

공과대학 (기계공학부)

Research Area: 전기활성고분자 감지기 및 구동기, 고체의 결함에 대한 다중스케일 해석, 열적인발공정을 이용한 기능성 섬유, Electroactive Polymer Sensors and Actuators, Multiscale Analysis of Defects in Solids, Functional Fibers via Thermal Drawing Method

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Molecular dynamics:4||anisotropic elasticity:4||Oxygen evolution reaction:3||singularity:3||isotropic elasticity:3||Mixedmode fracture:3||triboelectric nanogenerator:3||finite element analysis:3||ferroelectric polymer:2||crack:2||Mutual integral:2||creep cavitation:2||creep lifetime:2||critical condition for crack formation:2||nanoindentation:2||thin films:2||channeling crack:2||Finite element analysis:2||Stress intensity factor:2||Crystal elastoviscoplasticity:2||Cohesivezone law:2||Grain boundary:2||elastomer:2||T91:2||conservation integral:2||Adhesion:2||energy harvesting:2||epitaxial film/substrate system:2||Electroactive polymer(EAP):1||Electrocatalysis:1||Electrohydrodynamics:1||Electrospray:1||Embroidering:1||Femtosecond laser:1||Ferroelectric polymer:1||Field projection method:1||Film:1||Film fabrication:1||Flexible sensor fiber:1||Fracture mechanism:1||Graphene:1||Graphene oxide:1||Heat transfer:1||Hightemperature actuation:1||Image analysis:1||Impurity segregation:1||Inclusion:1||Indentation:1||Intergranular fracture:1||Jbased mutual integral:1||JKR theory:1||Kink Angle:1||Leyden jar effect:1||Metals:1||Microfluidic design:1||Microindentation:1||Molecular dynamics simulation:1||Molecular statics:1||Motion tracking:1||Moving load:1||Multielement interaction:1||Multilayer:1||Nanoasperity coating:1||Nanoclusters:1||Nanoindentation:1||Nickeliron chloride/oxychloride:1||Optic zoom lens:1||P(VDFTrFE):1||Paraelectric–ferroelectric phase transformation:1||Pennyshaped crack:1||Permalloy:1||Piezoelectric polymer:1||Piezoelectricity:1||Polarization–electric field response:1||Polymer:1||Polymer actuator:1||Polymers:1||Porous structure:1||Potassium hydroxide concentration:1||Precipitate:1||Pressing bonding process in vacuum:1||Pulloff force:1||Pulseecho response:1||Raman spectroscopy:1||Ratedependent adhesion:1||Relaxor ferroelectric:1||Relaxor ferroelectric polymer:1||Relaxor polymer:1||Roll transfer process:1||Seal dispensing:1||Service aging:1||Single jet:1||Sodium chloride:1||Specific conductivity:1||Spray cooling:1||Stainless steel plate:1||Stainlesssteel mesh:1||Strain–electric field response:1||Stress Intensity Factor:1||Stretch sensor:1||Super304H:1||Surface microplasticity:1||Tempered martensite:1||Terpolymer:1||Thermal drawing:1||Thermal management:1||Thermal stability:1||Thin film:1||Thin films:1||Ultrasonic transducer:1||Variable focus lens:1||Varifocal liquid lens:1||Viscoelasticity:1||Waferlevel process:1||a remote stress:1||a singularity:1||adsorbates:1||aerobichyperthermal pyrolysis:1||alternating technique:1||an anisotropic/isotropic bimaterial:1||anaerobic pyrolysis:1||analytic continuation:1||anisotropic:1||auto focus:1||bidirectional:1||bimaterial:1||bond dissociation:1||capacitorintegrated:1||cashew nut:1||clear:1||cocured joints:1||coarsegrained molecular dynamics:1||coarsegraining:1||coated circular inclusion:1||cohesivezone law:1||complex potential:1||composition modulation:1||contact pressure:1||continuous distributions of dislocations:1||creep:1||curvature:1||design optimization:1||dipole:1||dislocations:1||dissipative particle dynamics:1||eigenvalue problems:1||elasticviscoelastic correspondence principle:1||electric field:1||electrical interconnection:1||electroactive polymer:1||electrocatalyst:1||electrostrictive terpolymer:1||equivalence theorem:1||film actuator:1||flexible display:1||fluttering:1||formation energy:1||fracture strength:1||fretting phenomenon:1||friction force microscopy:1||green energy:1||gyroscopic generators:1||hairy particle:1||hybrid generators:1||hydrogen evolution reaction:1||hydrostatic pressure:1||inclusion:1||kink angle:1||largearea displays:1||laser power:1||localized vibrotactile sensation:1||lubrication:1||massproduction:1||mechanical damage:1||mechanical energy:1||mechanical stability:1||micro fluidics:1||micro imaging system:1||multilayer:1||multiple tactile feedback:1||nanocomposites:1||periodic array of channeling cracks:1||permittivity:1||piezoelectric nanogenerators:1||polymer brushes:1||polymer pyrolysis:1||polyvinylidene fluoride chlorofluoroethylene:1||porous carbon:1||pyrolysis:1||ratedependent adhesion:1||relaxor ferroelectric polymers:1||residual stress:1||reversible wafer bonding process:1||rolltoroll transfer:1||safety light:1||small punch test:1||stepwise via:1||strain:1||stress:1||stress intensities:1||stress intensity factor:1||stress singularities:1||surface recession:1||tactile sensation:1||thermal conductivity:1||thermal residual stress:1||touch screen:1||transparent conductive film:1||vertical crack:1||viscoelastic:1||(hydro)oxides:1||wind energy harvesting:1||Accurate optical fluid drop:1||Actuator:1||Actuator attachment:1||Anisotropic elasticity:1||Anodic aluminum oxide:1||Auto focus:1||Blended polymer:1||Boiler tube:1||Boiler tube, creep stress, creep life, costbased approach:1||Buckling:1||CO2 laser percussion drilling:1||CTE mismatch:1||CVDgraphene:1||Coating:1||Coffeering effect:1||Complex Potential:1||Conductive thread:1||Contact:1||Corrosion:1||Crack:1||Creep life:1||Crystallinity:1||Dimple structures:1||Dislocation nucleation:1||Dropcasting:1||Elastic film:1||Electrical resistance:1||

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