ScholarWorks@Hanyang University: Yoon, Gil Ho

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Yoon, Gil Ho (윤길호)

COLLEGE OF ENGINEERING (SCHOOL OF MECHANICAL ENGINEERING)

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Tel 02-2220-0451
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Topology optimization:35||topology optimization:7||Stressbased topology optimization:7||Particlefluid interaction:3||Ritz vector method:3||Sensitivity analysis:3||Transverse vibration:3||Mechanical properties:3||Transient adjoint sensitivity analysis:3||Multiple materials:3||Optimization:3||size optimization:3||Ballistic gelatin:2||Metalmatrix composites (MMCs):2||Surface pattern:2||Krylov subspace:2||Fluidstructure interaction:2||Porous medium:2||Thermal buckling:2||Porous separating partition:2||Wound ballistics:2||Fracture:2||element connectivity parameterization:2||Artificial neural network:2||Frequency response function:2||Brittle material:2||Size optimization:2||Topological derivative:2||Constraint force design method:2||Topology Optimization:2||frequency response function:2||Ductile material:2||Paper curl:2||Particle separation:2||Transient analysis:2||Hydroxyapatite:2||Additive manufacturing:2||Buckling mode:2||Penetration depth:2||Perforated plate:2||Stress constraints:2||Turbulent flow:2||Buckling temperature:2||Monolithic approach:2||Data augmentation:1||Delamination:1||DelanyBazley model:1||Density filter:1||Design of experiments:1||Diagonal quadratic approximation (DQA):1||Dielectric elastomer actuator:1||Dirlik method:1||Drag force:1||Droplet control:1||DruckerPrager criterion:1||Dynamic absorber:1||Dynamic fatigue constraints:1||Dynamic vibration absorber:1||Eddy currents:1||Effective density:1||Eigenvalue:1||Eigenvector:1||Electrofluidthermalcompliant actuator:1||Electrodeposition:1||Electrophoretic deposition:1||Element connectivity parameterization method:1||Energy harvesting device:1||Enhanced twopoint diagonal quadratic approximation (eTDQA):1||Equal channel angular pressing:1||Equivalent static load method:1||Evaporation:1||Extended SIMP:1||Failure model:1||Fatigue constraints:1||Fatigue life:1||Filter method:1||Finite element:1||Finite element analysis:1||Finite element method:1||Finite element procedure:1||Finite element software package:1||FloquetBloch&apos:1||FluidStructure Interaction:1||Freefall projectile:1||Functionally graded lattice structure:1||General boundary condition:1||Geometrically nonlinear:1||Geometrically nonlinear structure:1||Gerber theory:1||Gibbs phenomenon:1||Grain refinement:1||Granular medium:1||Gunshot wound:1||Harmonic load:1||Heat conduction:1||Human model:1||Hybrid genetic algorithm:1||Hydrogen peroxide:1||Inactive constraint:1||Initial penetration depth:1||Interference:1||Inverse problem:1||Laminate structure:1||Lattice structure:1||Layerwies theory:1||Layerwise theory:1||Lighthill&apos:1||Linear buckling:1||Local optimum:1||MATLAB:1||Manufacturing constraint:1||Mass reduction:1||Material dependent boundary condition:1||Metabridge:1||Metasurface:1||Mobile robot:1||Modal Superposition (MS):1||Model Order Reduction:1||Model Order Reduction (MOR):1||Model order reduction method:1||Model reduction schemes:1||Modelling:1||Modified Goodman theory:1||Modified rule of mixture (MROM):1||Moisture and heat transport:1||Moisture transport:1||Molecular dynamics simulation:1||Monolithic design approach:1||Moving morphable component:1||Moving morphable components:1||Multifrequency:1||MultispinSpeed QuasiStatic Ritz Vector (MMQSRV):1||Multilayer perceptron:1||Multimaterial:1||Multiphysics:1||Multiphysics system:1||Multiple hole sizes:1||Multiplesized holes:1||Ngraphene:1||Nanocomposite:1||Narrow band solution:1||New injury severity score:1||NiTi:1||Nitrogen doped graphene:1||Noise barrier:1||Nonlinear eigenvalue problem:1||Nonlinear mapping:1||Oneequation turbulent model:1||Ortiz and Chen method:1||PDE filter:1||PDMS polymer:1||PVD magnetron sputtering:1||Pareto method:1||Particle trajectory:1||Passive Flap Structure:1||Pattern angle:1||Pattern geometry:1||Permanent cavity:1||Phasefield method:1||Piezoelectric material:1||Piezoelectric material with penalization:1||Plastic instability:1||Platinum:1||Porous foam:1||Pressure loads:1||Pressure pulsation:1||Principal stress:1||Printer:1||Property change:1||Prussian blue:1||Pulsation damper:1||Quasistatic Ritz vector method:1||RANS model:1||Rapid prototyping:1||Raster angle optimization:1||Reinforcement:1||Repeated:1||Rigid body mechanism:1||RigidBody mechanism:1||Rigidbody mechanism:1||Ritz Vector (RV):1||Robust optimal design:1||Rotordynamic:1||SHAKE algorithm:1||SIMP approach:1||Seismic surface waves:1||Sensitivity:1||Sensor:1||Separable stress interpolation scheme:1||Sequential convex programming (SCP):1||Severe plastic deformation:1||Shadow density filter:1||Shock absorption:1||Singularity issue:1||Soderberg theory:1||Soft robot:1||Sound reduction:1||SpalartAllmaras:1||Stairclimbing:1||Static failure criteria:1||Static load:1||Stationary penetration depth:1||Statistical analysis:1||Stress:1||Stress constraint:1||Stress interpolation:1||Stressbased optimization:1||Structural optimization:1||Substructure design:1||Superhydrophobic:1||Supervised learning:1||Survivability:1||Taguchi method:1||Tail mechanism:1||Temporary cavity:1||Thermal expansion:1||Thermal load:1||Thermal loading:1||Thermooptic effect:1||Ti6Al4V:1||Ti/TiN coating:1||Topography optimization:1||Topology:1||Torsion test:1||Transient:1||Transient FSI:1||Transient boundary condition:1||Transient fluid:1||Transient quasistatic Ritz vector method:1||Transient sensitivity analysis:1||Triwheel:1||Truncation error:1||TsaiHill criteria:1||Tubular AA 6061:1||Ultrawide band gap:1||Variable amplitude loading:1||Variable infill:1||Vibration attenuation:1||Virtual spectrogram:1||Viscoplasticity:1||Vulnerability simulation:1||Wave propagation:1||Wave propagation speed:1||Wear resistance:1||Wettability gradient:1||Wideband absorption performance:1||Wideband frequency absorption:1||Wirsching and Light method:1||Zinc oxide:1||acoustic:1||acoustic analysis:1||active control:1||actuation ability:1||actuator debonding:1||adhesive area:1||alveolar bone loss:1||alveolar ridge augmentation:1||anode:1||artificial bone:1||asymmetric damped systems:1||band gap:1||batteries:1||bistable mechanism:1||bone grafting:1||broadband gap:1||buckling mode shape:1||buckling temperature:1||cadaver:1||chain rule:1||coated structure:1||combined heterogeneous doublesplit hollow sphere:1||conical metamaterials:1||control performance:1||convolutional neural network:1||creep:1||cyclic voltammetry:1||cylindrical metamaterials:1||dendrites:1||density filter:1||dental implants:1||design for manufacturing:1||design methodology:1||design optimization:1||double split hollow sphere:1||doublesplit hollow sphere:1||dynamic characteristics:1||eigenvalue derivatives:1||eigenvector derivatives:1||eigenvector sensitivity:1||element connectivity parametrization method:1||empirical material model:1||energy dissipation:1||energy storage:1||failure:1||finite element:1||finite element method:1||fracture:1||functionally graded:1||geometric nonlinearity:1||geometrical constraint:1||hardening or softening loaddisplacement trajectory:1||high efficiency:1||hyperlens:1||improved layerwise theory:1||interfaces:1||jointelement interpolation:1||k  epsilon turbulent model:1||lithium:1||longitudinal wave:1||magnetic flux:1||manufacturing constraint:1||material nonlinearity:1||mechanical diode:1||metamaterial:1||metallic dampers:1||model reduction method:1||molding constraint:1||multicomponent modeling:1||multidisciplinary design and optimization:1||multifrequency quasistatic Ritz vector method:1||multifrequency vibration attenuation:1||multiphsyics problem:1||multiple frequencies:1||negative spring:1||noise reduction:1||nonlinear finite element analysis:1||nonlinear transformation:1||numerical dispersion:1||pNorm approach:1||pnorm:1||pnorm approach:1||pendulum system:1||periodic structure:1||permanentmagnet motors:1||phase field:1||phononic crystals:1||postprocessing:1||quasistatic Ritz vector method:1||repeated eigenvalue:1||resonator:1||response filtering method:1||rotordynamic:1||s acoustic analogy:1||s principle:1||seismic design:1||sensitivity analysis:1||shape memory alloys:1||shape optimization:1||shear waves:1||simulations:1||slot harmonics:1||smart composite laminate:1||sound absorber:1||sound absorption coefficient:1||spring joint connection:1||springmass system:1||strain measurements:1||stress relaxation:1||stress wave propagation:1||structural analysis:1||structural dynamics and control:1||thermal buckling:1||tuned massspring damper:1||vibration absorber:1||vibration control:1||vibration isolation:1||wave propagation:1||waveguide:1||강체 메커니즘:1||구속 힘 설계기법:1||다중구조물 모델링:1||비선형 변환:1||스프링 조인트 연결:1||열 좌굴:1||위상 최적화:1||위상최적설계:1||접착 면적:1||조인트요소 보간:1||좌굴 온도:1||좌굴 형상:1||주파수 응답 함수:1||치수 최적 설계:1||1norm:1||합성곱 신경망:1||1D structure:1||3D barrier structure:1||3D scanner:1||3D printer:1||3D printing:1||A mapping based interpolation function:1||Abbreviated injury scale:1||Acoustic absorber:1||Acoustic focuser:1||Acoustic metamaterial:1||Acoustic metamaterial structure:1||Acoustic topology optimization:1||Acousticporousstructure interaction:1||Actuator:1||Actuator debonding:1||Adjoint sensitivity analysis:1||Aeroacoustic sound source:1||Anisotropic properties:1||Artificial bone:1||Augmented Lagrange multiplier method:1||Band gap:1||Binary variables:1||Biocomposite Plate:1||Biosensor:1||Buckling analysis:1||Bullet configuration:1||Buoyancy force:1||Cadaver:1||Campbell diagram:1||Carbon nanotube:1||Carbon nanotubes:1||Clustering:1||Coating:1||Compliance minimization:1||Composite laminate:1||Composite material:1||Composite sandwich structure:1||Composite structure:1||Computational modelling:1||Conservatism:1||Constraint force method:1||Damage:1||Damage identification:1||

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