CAU Scholar's Space: Seok, Jong Won

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Seok, Jong Won (석종원)

공과대학 (기계공학부)

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Tel 02-820-5729
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Magnetorheological fluid:6||Gallopingbased vibration:5||Aeroelectromechanical coupled model:3||BCB:3||Piezoelectric energy harvester:3||Bond Strength:3||Air spring:2||Bifurcation analysis:2||Surface texturing:2||Taguchi method:2||Piezoelectric energy harvesting:2||Navier slip model:2||ThermalChemicalMechanical Modeling:2||Cryogenic carbon dioxide cleaning:2||shape memory polymer:2||Contact mechanics:2||Lekner summation method:2||Nonrotational motion:2||Method of multiple scales:2||Asymmetric bluff body:2||Environmentally conscious manufacturing:2||damping effect:2||ChemicalMechanical Polishing:2||Variable curvatures:2||Galerkin method:2||Minimum quantity lubrication:2||Galloping phenomenon:2||Viscoplastic material:2||external chamber:2||Force balance:2||FEA:2||frequency response function:2||3D printing:2||Magnetic interaction energy:2||Glassy carbon:2||Chemicalmechanical polishing:1||Cleaning efficiency:1||Compressive Stress:1||Contact Mechanics:1||Contact Stress:1||Contact mechanism:1||Coupled galloping phenomena:1||Coupled material removal madel:1||Coupled material removal model:1||Coupling effect:1||Coupling of aerodynamics:1||Cryogenic CO₂ cleaning:1||Cu Damascene:1||Cutting energy:1||Cylindrical Grinding:1||Degenerate bifurcation:1||Delay differential equations:1||Diffusion:1||Dipolar interaction energy:1||Direct shear mode:1||Doubly regenerative chatter:1||Dual Time Delay:1||Dualmodal hybrid wind energy harvester:1||Dynamic Parameter Identification:1||Dynamic Simulation:1||Dynamics modelling:1||Effective piezoelectric constant:1||Efficiency:1||Eigenanalysis:1||Electrochemical anodic reactions:1||Electrochemomechanical polishing:1||Electromagnetic wind energy harvester:1||Electrostatic excitation:1||Energy:1||Energy Optimization:1||Energy harvester:1||Excitation strength criteria:1||FAM:1||FTIR analysis:1||Fatigue crack growth:1||Finishing Process:1||Finite element analysis:1||Flowinduced vibration:1||Fouriertype solution:1||Full railway vehicle model:1||Functionally graded material:1||Furan precursor:1||GT model:1||Glass microstructure:1||Glass molding:1||Glass molding press:1||Greenhouse Gases (GHG):1||Grinding Energy Density:1||Grinding process:1||Hamilton's principle:1||Hard materials:1||Harmonic balance method:1||Heat transfer:1||Helmholtz resonator:1||Heterogeneous material:1||Highdimensional harmonic balance analysis:1||Hilltype equation:1||Hunting analysis:1||Hysteresis map:1||Improvement of energetic performance:1||Interaction mechanism:1||Interference galloping:1||Interference galloping phenomenon:1||Interwell motion:1||Jintegral:1||Jintegral mode decomposition:1||JKR model:1||Kriging metamodel:1||Lagrange multipliers method:1||LennardJones potential:1||Lockin region:1||Lowk Polymeric Adhesive:1||Lyapunov's indirect method:1||MEMS:1||MR finishing:1||MRR:1||MTS (Mechanical testing system):1||Magnetic coupling:1||Magnetic fielddependent biviscous fluid:1||Magnetic repulsion:1||Magnetizable abrasives:1||Magnetorheological Fluid:1||Magnetorheological fluid finishing (MR fluid finishing):1||Manufacturing:1||Material Removal Rate Model:1||Mathematical modeling:1||Memory effect:1||Method of harmonic balance:1||Microchannelmixer:1||Micromachining:1||Microcellular PP electret:1||Micromold:1||Minute particle:1||Mixedmode fatigue:1||Mobile bluff body:1||Modified Paris law:1||Multimodal analysis:1||Multimodal system:1||Multiple time delays:1||Multiplescale analysis:1||Mutual dipole interaction:1||Natural frequency tuning:1||Nested bluffbody structure:1||Neural network:1||NonPrestonian Behavior:1||NonPrestonian Wear Behavior:1||NonPrestonian behavior:1||Nonlinear cantilever beam:1||Nonlinear resonant behaviors:1||Nonlinear spring configuration:1||Optimal CO₂ injection condition:1||Oscillating wake:1||Oscillating wake galloping:1||PCB destruction:1||PECVD:1||PECVD SiO2:1||Parameter optimization:1||Particle adhesion mechanism:1||Particle removal mechanism:1||Particle swarm optimization:1||Particlebased model:1||Performance enhancement methods:1||Peridynamic:1||Peridynamics:1||Pitchfork bifurcation:1||Plane bearing:1||Power density:1||Preston Equation:1||Productivity:1||Quantification:1||Quartz glass:1||Rebounding detachment mechanism:1||Residual Stress:1||Response surface method:1||Reversible hysteresis:1||Rotatable magnet:1||Rough surface:1||Selfpowered sensor:1||Selfsliding cylinder:1||Semiellipsoidal dimple:1||Semispherical dimple:1||Shear stress:1||Sintered ironCNT compound:1||Specific cutting energy:1||Statedependent delay:1||Structural nonlinearity:1||Submicron contaminant particles:1||Synergetic effect:1||TFTLCD:1||Tandem structure:1||Thermal Cycling:1||Thermally stimulated current:1||Threedimensional Integration Circuits:1||Tip mass:1||Transformable bluff body:1||Transverse galloping:1||Traveling bluff body:1||Tristability:1||Tristable energy harvester:1||Triangular bluff body:1||Tribocorrosion:1||Twostep modal analysis:1||Variational Approximation Procedure:1||Vibrationbased energy harvesting:1||Vibrowind galloping energy harvester:1||Vitreous carbon:1||Vortexinduced vibration:1||Vortexinduced vibration (viv):1||Wshaped bluff body:1||WIWNU:1||Wafer Bonding:1||Wafer Stack:1||Wakeinduced rotational galloping:1||Wavysurfaced workpiece:1||Wind power density:1||Windbased vibratory energy harvester (wbveh):1||Yield strain:1||acoustic modal behavior:1||adhesion:1||aerodynamic:1||annular plate:1||background reconstruction:1||ballend milling:1||bond strength:1||bonding adhesive:1||carbonyl iron powder:1||complex stiffness:1||contact:1||cryogenic carbon dioxide cleaning:1||curved surface:1||dispersion relations:1||drag coefficient:1||elastic properties:1||electromagnetic:1||electrostatic and parametric excitation:1||equivalent friction coefficient:1||experimental study:1||finishing process:1||four point bending:1||frequencytuning:1||fully electroded and unelectroded bimorph plates:1||gas flow energy harvesting:1||glass transition temperature:1||hard materials:1||image processing:1||improved semidiscretization method:1||lift coefficient:1||load capacity:1||location optimization:1||magnetorheological elastomer:1||magnetorheological fluid:1||micromachining:1||micromachining:1||mineralization:1||mixed boundary condition with periodicity:1||mura defect:1||oblique collision:1||optimization:1||pipeline acoustic energy transmission mechanism:1||polar orthorhombic bimorph:1||polarized piezoceramic bimorph plate:1||porous material:1||quicklime:1||radius of curvature:1||reactor:1||reduction on differential equations:1||regenerative chatter:1||response surface methodology (RSM):1||rotating cantilever beam:1||rough surface:1||separation region:1||stability analysis:1||textured surface:1||thermal and dynamic modeling:1||thermochemical treatment:1||thermogravimetric analysis:1||variational approximation procedure:1||varying time delay:1||vertical system integration:1||vibration:1||vibratory gyroscope:1||공동 현상:1||극저온 CO₂ 세정:1||동적 파라미터 규명:1||미세 입자:1||반구형딤플:1||반타원체 딤플:1||변분근사법:1||세정효율:1||에너지 최적화:1||에어 스프링:1||연삭 가공 에너지 밀도:1||원통 연삭:1||이중 시간지연:1||자유연마입자가공:1||절삭 에너지:1||점착력:1||접촉응력:1||최소량 윤활가공:1||최적 CO₂ 분사조건:1||크리깅 메타모델:1||평면 베어링:1||표면 텍스처링:1||화학기계연마:1||1:1 forced synchronization:1||환경 친화 가공:1||1:3 internal resonance:1||Abrasive:1||Acoustic energy harvester:1||Adaptive wind energy harvester:1||Adhesion energy:1||Adhesion force:1||Adhesion modeling:1||Air Spring:1||Airy Stress Function:1||Airy 응력함수:1||Arrhenius Equation:1||Arrhenius equation:1||Autonomous nonlinear delay differential equations:1||Axial force:1||Behavioral model:1||Bistability:1||Biviscosity constitutive model:1||Bifurcation:1||Bifurcation set diagram:1||Bluff body interference:1||BnCo diagram:1||BrinkmanextendedDarcy equation:1||Broadband energy harvester:1||Broadband energy harvesting:1||Bulbshaped bluff body:1||Burr:1||CMP:1||CO2 Emission:1||Carbonization:1||Cavitation:1||Centrifugal force:1||Characterization:1||Chatter vibration:1||Chemical mechanical polishing:1||

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