CAU Scholar's Space: Chang, Seung-Hwan

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Chang, Seung-Hwan (장승환)

공과대학 (기계공학부)

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Tel 02-820-5354
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Finite element analysis:22||Finite element analysis (FEA):14||Fabrics/textiles:12||Composite bone plate:8||Polymermatrix composites (PMCs):8||Mechanical properties:7||Flexible composites:7||직물 복합재료:6||고정판:6||Smart materials:6||Mechanical testing:6||샌드위치 구조:5||드레이핑:5||Biodegradable composites:5||draping:5||Fracture:5||Filament winding:5||유한요소해석:5||Mechanoregulation theory:5||C. Finite element analysis (FEA):5||Bone healing:4||전단각:4||Pantograph:4||Bone plate:4||Impact behaviour:4||Fabric composites:4||Dielectric elastomer:4||Cell culture device:4||Tibia:4||압축강도:3||Compressive strength:3||Composite materials:3||cocure bonding:3||Carbon fibre:3||Weight reduction:3||fabrics/textiles:3||섬유강화복합재료:3||편향각:3||비굽힘강성:3||Environmental degradation:3||Modelling:3||Electroactive polymer:3||foam:3||Fabric Composites:3||피로실험:3||Hydrogen pressure vessel:3||Thermal residual stress:3||sandwich structure:3||Sandwich structure:3||Adhesive bonding:3||섬유강화 복합재료:3||PVC foam:3||Polymer concrete:3||현미경 관찰:3||Parametric study:3||Laminates:3||Particlereinforcement:3||Structural compliance:2||Surface treatment:2||microstructure:2||Annealing:2||Bias angle:2||natural frequency:2||Cooling:2||Tensile test:2||전기활성고분자:2||parametric study:2||Environmental test:2||Callus:2||Bone Plate:2||Health monitoring:2||FEA:2||족압:2||Thin films:2||shear angle:2||진폭:2||Corrosion:2||Type III hydrogen pressure vessels:2||Failure analysis:2||squirrel cage rotor:2||Bone fracture healing:2||탄소섬유/에폭시 복합재료:2||stressstrain curves:2||Impact behavior:2||토우 간격:2||Wearable devices:2||파라메트릭 연구:2||Winding angle:2||Impact loading:2||thermoforming:2||Failure index:2||Insole:2||Fatigue:2||Compliant polymer concrete:2||tow geometry:2||Interfragmentary strain:2||Crimp angle:2||adhesive bonding:2||additional pressure:2||Intramedullary nails:2||Polymer matrix composites (PMCs):2||Composite electrodes:2||Femur:2||A. polymermatrix composites (PMCs):2||계란판:2||Composite structures:2||고분자 포움:2||Fiber reforced composite material:2||bone plate:2||Damage mechanics:2||Fiber reinforced composite material:2||Long Fiber Prepreg Sheet(LFPS):2||Fiber volume fraction:2||composite eggbox panel:2||composite materials:2||Long fiber prepreg sheet (LFPS):2||굽힘강성:2||Damping capacity:2||Resin concrete:2||compressive test:2||대퇴골:2||Finite Element Analysis:2||crimp angle:2||damping capacity:2||레진 콘크리트:2||deformation:2||Compositealuminum hybrid wheel:2||Shear angle:2||Shear deformation:2||energy harvesting:2||fabric composites:2||Composites:2||Draping:2||사진틀 전단실험:2||Simulation:2||Flexural rigidity:2||forming pressure:2||A. Polymermatrix composites (PMCs):2||Ductility factor:2||Foot pressure:2||B. Mechanical properties:2||Static compressive test:2||Forming pressure:2||Stiffness:2||Bending stiffness:2||Microscopic Observation:2||C. Computational modelling:2||loss factor:2||Strain sensors:2||Friction layer:2||에너지 흡수율:2||Stress shielding:2||열성형:2||Stretchable and flexible sensors:2||유리섬유/폴리프로필렌 복합재료:2||Long fibre composite prepreg:1||Longfibre prepreg sheets:1||Loss Factor:1||Lowvelocity collision:1||Lowvelocity impact:1||MIPPO:1||Machine tools:1||Magnesium wire:1||Magnesium wires:1||Material degradation:1||Matrix digestion:1||Mechanical property:1||Mechanoregulation algorithm:1||Mechanoregulatory algorithm:1||Metal failure:1||Metalcomposite hybrid:1||Metalcomposite hybrid wheel:1||Metaphysis:1||Microbuckling:1||Microgrid pattern:1||Microfactory:1||Microstructures:1||Misaligned:1||Mixing ratio:1||Modal Analysis:1||Moisture content:1||Molecular dynamics:1||Nanostructures:1||Nanoclays:1||Nanocrystalline materials:1||Nomogram:1||Nondestructive testing:1||Orthogonal grid sensor:1||Orthopedic prosthesis:1||OsiriX:1||Oxygen plasma:1||P(VDFTrFE) fibers:1||P(VDFTrFE) 섬유:1||PDMS:1||PDMS (polydimethylsiloxane):1||PDRN:1||PVC 포움:1||PVDFbased ferroelectric polymers:1||Passage:1||Penetrationresistance:1||Picture frame test:1||Piezocapacitive effect:1||Plasma treatment:1||Ply:1||Ply Property:1||Poling:1||Polydimethylsiloxane:1||Polymer–matrix composites (PMCs):1||Polymer (textile) fiber:1||Polymer concretes:1||Polymermatrix composite (PMCs):1||Porous cellular microstructures:1||Porous stem:1||Posterior cruciate ligament:1||Prestretching:1||Pressure sensor:1||Pressure vessels:1||Property change:1||Prostheses:1||Pullout test:1||Pullthrough test:1||RKU equation:1||Reconstruction:1||Reliability:1||Residual stresses:1||Residual/internal stress:1||Rib Structure:1||Runway maintenance:1||Safety Joint Mechanism:1||Sandwich construction:1||Satin Weave:1||Scaffold:1||Shear Angle:1||Sheared Angle:1||Shrinkage:1||Silicone:1||Silicone rubber:1||SiliconeOMMT composites:1||Silver nanowires:1||Smart cure cycle:1||Smart grid fabric:1||Specific bending stiffness:1||Specific flexural rigidity:1||Stainless steel inserts:1||Stem stability:1||Strain:1||Strain Distribution:1||Strain history:1||Strain measurements:1||Stress analysis:1||Stress concentrations:1||Structural health monitoring:1||Structural stiffness:1||Surface modification:1||Swelling:1||T800 carbon/epoxy composite:1||T800 탄소섬유/에폭시 복합재료:1||Taguchi method:1||Tensile property:1||Textile sensor:1||Thermal analysis:1||Thermal compression molding:1||Thermal cycle test:1||Thermal properties:1||Thermoforming:1||Thermoplastic resin:1||Tibia fracture:1||Tow Interval:1||Tow Parameter:1||Trochanteric stabilizing plate:1||Type III Hydrogen Pressure Vessels:1||Ultra violet exposure:1||Unstable intertrochanteric fracture:1||Upper arm:1||Variablestiffness:1||Vibration Damper:1||Vibration test:1||Wing:1||Woven fabric composites:1||Xray:1||Xray diffraction:1||Zinc stannate:1||achilles tendon:1||achilles tendon injury:1||actuator:1||air bearings:1||air gap:1||aluminiumcomposite hybrid Xaxis beam:1||ammotic membrane:1||amplitude:1||annular plate:1||bending mode:1||bending stiffness:1||betaphase:1||bias angle:1||bias extension test:1||biaxial test:1||biomechanical study:1||callus:1||carbon composites:1||carbon nanotubes:1||circular plate:1||composite spindle cover:1||composite surface damping treatment:1||compositealuminum hybrid wheel:1||compressive behaviour:1||compressive strength:1||conductor bars:1||crack:1||densification:1||developed torque:1||dielectric elastomer:1||durability:1||electrical properties:1||electroactive polymer:1||electroactive polymers:1||energy absorption:1||extracellular matrix:1||fabric composite:1||fabrics:1||fatigue test:1||fatigue tests:1||flexor tendon:1||foamcomposite sandwich structures:1||forming:1||functional ribbon units:1||fundamental natural frequency:1||gait patterns:1||glass fabric epoxy composite:1||glass/polypropylene composite:1||high speed machine tools:1||hybrid column:1||hybrid headstock:1||hybrid materials:1||intramedullary rod:1||iron powder epoxy composite:1||lockup phenomenon:1||magnetic flux density:1||magnetic permeability:1||magnetization curve:1||magnetizing reactance:1||mechanoregulation:1||metaphysis:1||microEDM:1||microelectromechanical systems:1||microfactory:1||microscopic observation:1||microstructures fracture:1||minimal invasive percutaneous plate osteosynthesis:1||misaligned fibre orientation angle:1||nonorthogonal constitutive model:1||nonlinear thickness variation:1||optical microscopy:1||particlereinforced composite:1||picture frame test:1||piezoresistive sensors:1||plain weave:1||polydeoxyribonucleotide:1||porcine:1||powder containing epoxy composite:1||rib configuration:1||ritz method:1||scaffold:1||sensor:1||sensors:1||shear deformation:1||single lap joint:1||singlelap joint:1||smart shoes:1||specific bending stiffness:1||specific flexural rigidity:1||squirrel cafe rotor:1||steel core:1||strain distribution:1||tendon healing:1||tendonhealing:1||tenorrhaphy:1||tension&#8208:1||thermal conductivity:1||thermal expansion:1||thick plate:1||three dimensional analysis:1||torquespeed curve:1||tow:1||tow interval:1||type energy harvesters:1||vibration:1||water absorption:1||wearable devices:1||weight reduction:1||white body:1||winding tension:1||β 상 결정:1||βphase crystal:1||가변강성:1||감쇠비:1||건전성 모니터링:1||경골:1||고밀화:1||고속철도:1||골 간단부:1||골내 정:1||공기베어링:1||광섬유 센서:1||구조 건전성 모니터링:1||군집화:1||굴곡 각:1||굴곡각:1||굽힘 강성:1||굽힘 물성:1||금속파절:1||기구 커플링:1||냉각:1||노모그램:1||단면겹치기 접착조인트:1||동시 경화 접착:1||동시경화:1||동시경화 접착법:1||드레이핑 공정:1||리브 구조체:1||리츠법:1||마이크로 그리드 패턴:1||마이크로팩토리:1||메카노 규제:1||모드 해석:1||미소 좌굴:1||변형률:1||변형률 분포:1||복합재료:1||복합재료 계란판:1||복합재료 고정판:1||복합재료 전극:1||복합재료알루미늄 하이브리드 휠:1||부가압력:1||불안정성 대퇴골 전자간 골절:1||비 직교물성 모델:1||비선형 두께 변분:1||상부암:1||새틴 직물:1||생분해성 복합재료:1||성형 압력:1||성형압력:1||성형조건:1||세포배양장치:1||셀레니즈 장치:1||손실계수:1||수분 흡수:1||수소 압력용기:1||스테인리스 강 인서트:1||아치부:1||안전관절 메커니즘:1||안창:1||압력센서:1||압력전기용량효과:1||압축 실험:1||압축거동:1||압축실험:1||어닐링:1||연성인자:1||원형판:1||유연전극:1||유전 탄성체:1||유전성 탄성중합체:1||유전성 탄성체:1||응력방패현상:1||이축 인장실험:1||인발 시험:1||인솔:1||인장시험:1||일방향 편향 인장실험:1||자외선 노출:1||잠김현상:1||적층판 물성:1||전단변형:1||전자부 안정화 금속판:1||접착제 접합:1||접촉조건:1||정렬 불일치각:1||정렬불일치:1||정적 압축실험:1||제 III 형 수소압력용기:1||주름각:1||중량감소:1||직교 그리드 센서:1||직물복합재료:1||직물센서:1||진동:1||진동댐퍼:1||체액 노출:1||최소침습적 시술법:1||충격 하중:1||충돌 실험:1||충전률:1||층간전단 실험:1||캐리지 구조물:1||코어:1||탄소 분말:1||탄소섬유 복합재료:1||탄소연속섬유:1||토우:1||토우 파라메터:1||파라메터릭 연구:1||팬터그래프:1||평직:1||포움:1||폴리머 콘크리트:1||폴링:1||표면 처리:1||표면처리:1||플라이 물성:1||필라멘트 와인딩:1||환경 조건:1||환형판:1||3phase induction motor:1||후판:1||3차원 해석:1||4point bending test:1||4점 굽힘시험:1||A. Carbon fibre:1||A. Fabric/textiles:1||A. Glass fibers:1||A. Glass fibres:1||Accuracy:1||Acoustic emission:1||Actuation strain:1||Additive manufacturing:1||Adhesion:1||Adverse immune response:1||Air Bearing:1||Amplitude:1||Anisotropic property:1||Anisotropy:1||Arches of the foot:1||Autofrettage pressure:1||Averaged property:1||Bias Angle:1||Bioglass fibers:1||Biodegradable composite:1||Biomechanics:1||Biphasic mechanoregulation algorithm:1||Biphasic mechanoregulation theory:1||Body fluid exposure:1||Bonding strength:1||Bone fracture:1||Bone healing process:1||Bone ingrowth:1||Buckling:1||Burnin test:1||C. Computational mechanics:1||C. Process simulation:1||CFRP:1||Callus volume:1||Capsular contracture:1||Car to car:1||Carbon black powder:1||Carbon fiber:1||Carbon fiber reinforced plastics:1||Carbon nanotubes:1||Carbon/Epoxy Composite:1||Carbon/epoxy composite:1||Carriage Structure:1||Celanese rig:1||Cell differentiation:1||Cementless hip prosthesis:1||Clustering:1||Cocured adhesive:1||Cocuring:1||Cohesive zone:1||Compliance ratio:1||Composite implant:1||Composite material:1||Compositealuminium hybrid:1||Compositealuminium hybrid structures:1||Compositemetal hybrid structures:1||Composites prostheses:1||Compression moulding:1||Compressioncompression fatigue test:1||Compressive Test:1||Compressive test:1||Computed tomography:1||Contact condition:1||Continuous carbon fiber:1||Core:1||Core suture:1||Corner module NVH test:1||Creep:1||Crimp Angle:1||Crushing behaviour:1||Cure behaviour:1||Cure kinetics:1||Cure monitoring:1||Cure shrinkage:1||Curvature:1||Damping ratio:1||Darcy's Law:1||Darcy의 법칙:1||Degradation:1||Dielectrometry:1||Draping Process:1||EggBox Panel:1||Eggbox panel:1||Eggbox panels:1||Electrical poling:1||Electrical properties:1||Energy Absorption:1||Energy absorption:1||Energyabsorption:1||Environmental conditions:1||FBG Sensor:1||FE analysis:1||Fabric composite:1||Fabric/textiles:1||Failure criterion:1||Fatigue life:1||Fatigue test:1||Fatigue tests:1||Fea(finite element analysis):1||Femur prosthesis:1||Fiber Bragg Grating (FBG) optic sensor:1||Fiber Bragg grating sensors:1||Fiber Reinforced Composite Material:1||Fiber reinforced Composites:1||Fibre bending:1||Filament overhead:1||Filling gradient:1||Finite Element Analysis (FEA):1||Finiteelement analysis (FEA):1||Fixation:1||Flexible electrode:1||Flexural properties:1||Flexural test:1||Foams:1||Forming conditions:1||Fracture fixation:1||Friction:1||Friction damping layer:1||Functional composites:1||Functionally graded biodegradable material:1||Functionally graded material:1||Functionally graded material (FGM):1||Functionally graded porous design:1||Gap strain:1||Geometric accuracy:1||Glass fibres:1||Glass/polypropylene composite:1||Glass/polypropylene composites:1||Health monitoring system (HMS):1||Hip stem:1||Hydrogen pressure vessels:1||Hydrophilic:1||Hygroscopic characteristic:1||Hygroscopic effect:1||IM rod:1||Impact Test:1||Inserts:1||Interface:1||Interfragmentary movement:1||Interlaminar shear test:1||Intramedullary nail:1||Iosipescu:1||Isometry:1||KTX:1||Kinematic Coupling:1||LCD glass panel:1||Laminate Property:1||Length:1||Liquid crystalline polyester (LCP):1||Loading condition:1||Long fiber prepreg sheet:1||

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