ScholarWorks@Gachon: LEE, KYUNGJUN

Detailed Information

LEE, KYUNGJUN (이경준)

Engineering (기계공학부)

Research Area

Tel 031-750-5876
Homepage

ResearcherID ORCiD Scopus Google Scholar ID ResearchGate

Keyword

Selfcleaning effect:3||Durability:3||Wear:3||Biomass:3||hydrogenated amorphous silicon:3||capacitively coupled plasma:2||Superhydrophobic surface:2||Iphase:2||Abrasive wear:2||Material life:2||내구성:2||Nanostructure:2||Hightemperature corrosion:2||Stainless steel:2||plasma enhanced chemical vapor deposition:2||fluid simulation:2||Structural analysis:2||Failure analysis:2||Rolling wear test:2||Molten salt reactor:2||Biomass fouling:1||CVD:1||Carbon capture utilization and storage:1||Composite Material:1||Composite layer:1||Computational thermodynamics:1||Contaminant deposition:1||Corn stover:1||Corrosion:1||Corrosion rate:1||Corrosion resistance:1||Crystal plasticity finite element method:1||Crystal plasticity model:1||Current density:1||DEM simulation:1||DEM 해석:1||Defect  analysis:1||Density functional theory:1||Deposit:1||Dislocation density:1||Erosive wear:1||Ethyl cyanoacrylate:1||Extrinsic and intrinsic:1||Extrinsic inorganics:1||FEM simulation:1||FEM 해석:1||Finite Element Analysis:1||Finite element method:1||Floating Structures Design:1||Floating Wind Turbines:1||Fracture toughness:1||Friction and antiwear:1||Grain boundary precipitates:1||Graphene nanoribbons:1||Graphene woven nanofabric:1||Grease:1||Hammer mills:1||Hardness:1||Heat sink:1||Heat transfer:1||Hierarchical structures:1||Homogenization treatment:1||Image reconstruction:1||Impact test:1||Impedance:1||Inorganic compound:1||Interwoven friction:1||Ionic Liquid:1||Ionic liquid:1||Knock detection:1||Laser Texturing:1||Laser patterning:1||Laser texturing:1||Lubricant:1||Machine learning:1||Micropillar compression:1||Microstructure:1||Microstructure, hardness:1||Molecular dynamics simulation:1||Monorail:1||Multiphase quasicrystal alloy:1||Multiphase quasicrystalbased alloy:1||Nanofiber:1||Nearinfrared tunability:1||Optical absorption:1||PVDF composites:1||Phosphor thermometry:1||Piezoelectric sensor:1||Pine residue:1||Pitting:1||Plasmonics:1||Pullout strength:1||Quasicrystll alloy:1||Renewable Energy:1||Rolling Wear Test:1||Rotary shear:1||Rubber seal:1||Ruthenium:1||Salt water:1||Screw feeder:1||Selfcleaning:1||Selfcleaning of hydrophilic surfaces:1||Silicon oxynitride films:1||Structural color:1||Superhydrophobicity:1||Superhydrophobic coatings:1||Superhydrophobicity:1||Surface Wetting:1||Surface patterns:1||Surface temperature measurement:1||Surface wettability:1||Surface wetting:1||Texture evolutions:1||Thermal simulation:1||Thermoelectric generator (TEG):1||Timeintegration:1||Titanium:1||Transparency:1||Tribofilm formation:1||Tribological Behavior:1||Tribological behavior:1||Vickers hardness:1||Wear behavior:1||Wear life:1||Wear mechanism:1||Wearresistant:1||Wind turbine blade:1||Wrinkle microstructure:1||Zinc oxide:1||abrasion resistance:1||anodic aluminum oxide:1||antifriction:1||b.c.c. single crystal:1||capacitively coupled plasmas:1||conducting polymers:1||contact resistance:1||crystal orientation:1||crystal plasticity:1||dielectric element:1||dilution gas effect:1||dust particle adhesion:1||eskin devices:1||ethyl cyanoacrylate (ECA):1||finite element modeling:1||fluorescence nanoparticles:1||fracture toughness:1||friction mechanism:1||growth kinetics:1||hydrogels:1||in situ monitoring:1||lubricant additives:1||lubrication:1||lubrication mechanism:1||metastable density:1||micropillar compression:1||multiphase alloys:1||nanofiber array structures:1||nanohoneycomb:1||nanoparticles:1||phase separation:1||photovoltaic systems:1||plasmaenhanced chemical vapor deposition:1||plasmonics:1||process uniformity:1||quasicrystals:1||selfassembly:1||solar panel efficiency:1||solid lubricant:1||spraying method:1||strain sensors:1||stretchable sensors:1||superhydrophilicity:1||superhydrophobic:1||superhydrophobic surface:1||superhydrophobicity:1||surfaceenhanced Raman scattering:1||thermal evaporation:1||uniformity:1||vertically aligned multiwalled carbon nanotube:1||viscosity:1||vontact angle:1||wear:1||wrinkled structure:1||결함해석:1||고무 씰:1||고온부식:1||구름 마모 테스트:1||구름마모시험:1||구조 해석:1||구조해석:1||그리스:1||내마모성:1||레이저 패터닝:1||마모 거동:1||마모 수명:1||모노레일:1||베어링:1||복합재:1||볼 베어링 리테이너:1||부식 공식:1||소금물:1||스테인리스 강:1||알루미늄과 구리:1||에틸 시아노아크릴레이트:1||용융염 원자로:1||유한요소해석:1||윤활:1||자가세정 효과:1||재료 수명:1||주름 미세 구조:1||초소수성:1||초소수성 코팅:1||초소수성 표면:1||탄소포집저장:1||티타늄:1||파손 원인 분석:1||표면 패턴:1||(iphase):1||풍력터빈 블레이드:1||2body abrasion t:1||2body abrasion test:1||2D materials:1||2체 마모:1||3 바디 마모:1||3body abrasion):1||3D printing:1||3D 프린팅:1||Al Zn Mg alloy:1||Al and Cu:1||Annealing:1||Anodic aluminum oxide:1||Anodic aluminum oxide (AAO):1||Array beamforming:1||Ash:1||Atomic layer deposition:1||Ball bearing retainer:1||Bearing:1||Bending wave:1||

RSS_1.0 RSS_2.0 ATOM_1.0

1342, Seongnam-daero, Sujeong-gu, Seongnam-si, Gyeonggi-do, Republic of Korea(13120)031-750-5114

Certain data included herein are derived from the © Web of Science of Clarivate Analytics. All rights reserved.
You may not copy or re-distribute this material in whole or in part without the prior written consent of Clarivate Analytics.

Detailed Information

Keyword

BROWSE