Open Access System for Information Sharing

HWANG, WOON BONG (황운봉)

Dept of Mechanical Engineering(기계공학과)

Field(s)

Keyword

FABRICATION:23||WETTABILITY:11||NANOWIRE ARRAYS:10||COMMUNICATION:9||microstrip antenna:9||TECHNOLOGY:9||FILM:8||DESIGN:7||ANODIC ALUMINUMOXIDE:7||SURFACES:7||FILMS:7||nanoindentation:6||THINFILMS:6||POROUS ALUMINA:6||HARDNESS:6||honeycomb:6||MEMBRANES:6||sandwich structure:6||nanohoneycomb:6||SAS:6||ANODIC ALUMINA:6||WINDING ANGLE:6||SUPERHYDROPHOBIC SURFACES:5||MICROSTRIP ANTENNAS:5||HEXAGONAL PORE ARRAYS:5||strength:5||ARRAYS:5||CONTACTANGLE:5||STRESS:5||SUBSTRATE:5||failure index:5||TEMPLATE:5||MECHANICALPROPERTIES:5||composite:5||atomic force microscopy:5||genetic algorithm:5||SINGLECRYSTAL SILICON:4||COMPOSITE:4||DEPTH:4||OXIDE:4||anodization:4||friction:4||fiber reinforced plastics (FRP):4||LITHOGRAPHY:4||adhesion:4||optimum design:4||antenna:4||BENDING TEST:4||POLYELECTROLYTE MULTILAYERS:4||LOAD:4||nanohoneycomb structure:4||SURFACE:4||AFM:4||bending fatigue:4||WATER:4||PLATES:4||SMART SKIN STRUCTURES:4||NANOSCALE STRUCTURES:4||NANOINDENTATION:4||SINGLECRYSTALS:4||OPTIMIZATION:4||STRENGTH:4||INTERMEDIATE TEMPERATURES:4||BEHAVIOR:3||OPTIMUM DESIGN:3||TORSION:3||SILICON:3||Hydrophobicity:3||LAYER:3||Anodic aluminum oxide:3||Nomex honeycomb:3||characteristic length:3||surface antenna structure:3||POLYMER:3||sandwich structures:3||smart structure:3||NANOWIRES:3||TOPOGRAPHY:3||surfaceantennastructure:3||DAMAGE MECHANICS:3||MODEL:3||composites:3||composite laminate:3||DEFORMATION:3||TANTALA:3||wetting:3||INTEGRATION:3||ACTUATORS:3||CANTILEVERS:3||FRICTION:3||ALUMINUM:3||MICROSTRIP ANTENNA:3||PRINTEDCIRCUIT ANTENNAS:3||LAMINATE:3||mechanical properties:2||atomic force microscope:2||LOTUSLEAF:2||Strain gradient plasticity:2||TENSILE:2||OXIDATIONSTATES:2||recombinant silk proteins:2||GAIN ENHANCEMENT METHODS:2||buckling:2||LIFE PREDICTION:2||interfacial ply orientation:2||FAILURE:2||COMBINED EXTERNALPRESSURE:2||carbon/epoxy:2||RADIATED FIELD:2||SUPERSTRATE:2||ANODIC ALUMINA MEMBRANES:2||Surface tension:2||NANOSTRUCTURED SURFACES:2||NANOPILLAR ARRAYS:2||Aluminum coatings:2||MESOPOROUS CARBON:2||marine silk fibers:2||repair:2||strength recovery:2||failure mode:2||FORCE MICROSCOPE:2||s modulus:2||nanouniversal testing machine:2||anodic alumina:2||size effect:2||PATCH ANTENNA:2||Flow stress:2||GND:2||ATOMICFORCE MICROSCOPY:2||Electrostatic induction:2||STAMP DEFORMATION:2||Liquids:2||solidliquid interfaces:2||tensile test:2||FORCE MICROSCOPY:2||ATOMICFORCE:2||ELECTROCHEMICAL ENERGYSTORAGE:2||Polystyrene:2||wetspun fiber:2||SPIDER SILK:2||SUPERHYDROPHOBICITY:2||Composite surface antenna:2||micro strip antenna:2||EMBEDDED ACTUATORS:2||COMPOSITE PLATES:2||SHELLS:2||MODEI:2||AAO:2||threepoint bending fatigue:2||CARBON:2||Hot embossing:2||Microchamber/nanodimple (MCND):2||Microindented nanodimpleanodic aluminum oxide (MNAAO):2||sea anemone:2||BIOMATERIALS:2||microwave absorber:2||impact behavior:2||Superhydrophobicity:2||GENETIC ALGORITHM:2||fatigue life:2||fatigue strength reduction factor:2||fractography:2||GOLD:2||MAGNETICPROPERTIES:2||REPLICATION:2||NANOSTRUCTURES:2||MICROCHANNELS:2||Taguchi method:2||PURIFICATION:2||frequency response function:2||carbonfiberreinforced plastics (CFRP):2||biaxial strength:2||nanoUTM:2||MEMS MATERIALS:2||OXIDE FILMS:2||anodic aluminum oxide:2||Superhydrophilic surface:2||bending test:2||AMMONIUM PARATUNGSTATE:2||electrospun nanofiber:2||NEMATOSTELLAVECTENSIS:2||SAR:2||tensile coupon:2||scanning electron microscopy (SEM):2||failure criterion:2||artificial neural networks (ANN):2||depthdependent hardness:2||calibration:2||Nanogenerator:2||SUPERHYDROPHOBIC SURFACE:2||AAO (anodic aluminum oxide):2||THERMALDECOMPOSITION:2||MESOCELLULAR CARBON FOAM:2||BINDER:2||Polyurethane mold:2||Cell aggregates:2||ESCHERICHIACOLI:2||Smart structure:2||Nanofiber:2||carbon/epoxy composites:2||DELAMINATION:2||PRESTANDARDIZATION:2||fibermetal laminate:2||graphite/epoxy:2||biaxial loading:2||bearing strength:2||pin loading:2||NanoUTM:2||Young&apos:2||genetic algorithms:2||Size effect:2||porous material:2||Van der Waals interaction:2||Nanogenerators:2||COATINGS:2||smart skin structure:2||surface energy:2||MODULUS:2||PERFORMANCE ANODE MATERIALS:2||AMORPHOUS WO3:2||electrical performance:2||dualband antenna:2||SATELLITE:2||natural frequency:2||crack propagation direction:2||delamination:2||GLASSEPOXY COMPOSITE:2||CFRP:2||cureinplace:2||microstructure:2||failure mechanism:2||PRESSURE:2||stress/strain curves:2||STRAIN:2||CARBON NANOTUBES:2||WIRE:2||SENSING INDENTATION:2||strain gradient plasticity:2||STRAINGRADIENT PLASTICITY:2||Nanopillar:2||Pendulum motion:1||Selfpowered system:1||CONVERSION:1||notched laminates:1||LAYER THICKNESS:1||CRITERION:1||Dual scale structure:1||WATERREPELLENT:1||VISUALIZATION:1||robust superhydrophobic surface:1||selfpowered:1||electrodegradation:1||bending rigidity:1||width tapered double cantilever beam (WTDCB):1||DEGRADATION:1||lowvelocity impact:1||equivalent biaxial strength:1||large deformation:1||mica:1||STIFFNESS:1||integrated antenna:1||NOTCHED STRENGTH:1||Nanostructure:1||direction of arrival estimation:1||error correction:1||UNKNOWN LOCATIONS:1||FIELD SOURCES:1||MOBILE ANTENNA:1||RECEPTION:1||Structural composites:1||SMART STRUCTURES:1||Composites:1||piezoceramics:1||optical fiber vibration sensor:1||HEPATOCYTE:1||APOPTOSIS:1||Interfacial energy:1||Multiphase liquid:1||ALUMINATE SOLUTIONS:1||COLLECTION:1||RESISTANCE:1||Triboelectrification:1||Brazing:1||Aluminum:1||Industrial scale:1||Superhydrophobic surfaces:1||Acidic etchings:1||Sessile drops:1||Intensive research:1||Thermoplastic polymer:1||SUPERHYDROPHOBIC SURFACES:1||COPPER:1||Triboelectric nanogenerator:1||ETHYLENEGLYCOL:1||life prediction:1||REPELLENT:1||Superhydrophobic:1||aluminum substrates:1||superhydrophilicity:1||NANOPARTICLES:1||Hierarchical structure:1||Aluminum hydroxide:1||WASTEWATER:1||MATRIX:1||DYNAMICS:1||composite laminates:1||failurecriterion:1||strain gage measurement:1||TIP:1||NANOTRIBOLOGY:1||embedded antenna:1||notch effect:1||satellite mobile communication:1||Smart skin:1||wettability:1||fatigue modulus:1||Superhydrophobic:1||PERFORMANCE:1||ADHESION:1||Experimental approaches:1||Air conditioning:1||Micro/nanostructures:1||Wind power:1||MAGNESIUM CORROSION:1||Nanohoneycomb:1||Stripe patterned surface:1||Laser machining:1||Fuel cell:1||DIFFUSION LAYER:1||PYROELECTRIC NANOGENERATORS:1||NANOWIRE:1||sandwich:1||STIFFNESS REDUCTION:1||fracture toughness:1||DOUBLECANTILEVER BEAM:1||finite element method:1||SHEAR:1||composite structure:1||Transparency:1||Smart materials:1||Adhesive bonding:1||LOTUS:1||microstripantenna:1||fibermetal laminates:1||DAMAGE:1||shape memory alloy:1||impact location detection:1||MICROENCAPSULATED ISLETS:1||Self assembled monolayers:1||FACILE FABRICATION:1||Wetting:1||Energy harvesting:1||Interfacial behaviors:1||Theoretical study:1||Iterative fitting:1||Plate surfaces:1||Young Laplace equation:1||Nanoimprint lithography:1||Synergetic effect:1||ELECTRICFIELD:1||POLYMERFILMS:1||DELAMINATION GROWTH:1||OPTIMALDESIGN:1||Contact angle:1||Friction drag reduction:1||Rigid superhydrophobic surface:1||Antifrosting:1||PEM:1||STACKS:1||serial integration:1||robust nanogenerators:1||alumina nanowire:1||pyroelectric nanogenerator:1||ELECTROCHEMICAL OXIDATION:1||Artificial lotus leaf:1||MECHANICS:1||DELAMINATED BEAMS:1||VIBRATIONS:1||ELASTICCONSTANTS:1||VIBRATION:1||strain energy release rate:1||UNDERSTANDING DAMAGE MECHANISMS:1||TOUGHNESS TEST:1||angle conversion factor:1||Superhydrophobicity:1||antenna radiation pattern synthesis:1||MOVING VEHICLES:1||Antenna:1||Composite:1||PROGRAM:1||carbon/epoxy laminates:1||multiaxial loading:1||Liquid separation:1||LIQUIDDROPS:1||Micro/nano:1||Fabrication:1||Heat exchangers:1||Monolayers:1||Surface analysis:1||Automation:1||Timing circuits:1||Dualscale:1||fatigue:1||PLATE:1||HOLE:1||Superhydrophobic surface:1||Different wettability:1||Defrosting:1||NUCLEATION:1||Water removal:1||DIAGNOSTICTOOLS:1||DRIVEN:1||SYSTEM:1||selfassembly method:1||ALUMINA:1||delaminated beams:1||damping ratios:1||vibration of composite laminates:1||ultrasonic inspection:1||LAMINATED COMPOSITES:1||optimization:1||cylindrical composite shell:1||minmax problem:1||kinematics of deformation:1||coefficient of friction:1||gain enhancement:1||mechanical structure:1||BAND SATELLITECOMMUNICATIONS:1||Functional composites:1||Impact behavior:1||superhydrophobic:1||LEVEL FATIGUE:1||actuator:1||shape control:1||PAPER:1||FOG:1||CONDENSATION:1||Surface roughness:1||Moist environment:1||Nanotechnology:1||Topography:1||ARRAY:1||OIL SEPARATION:1||MECHANISMS:1||Superhydrophilic:1||Slip length:1||SLIP:1||LOTUS LEAF:1||Purging:1||superhdrophobicity:1||Sandblasting:1||EFFICIENCY:1||cracktip splitting:1||ORTHOTROPIC PLATES:1||IDENTIFICATION:1||ELEMENT:1||residual energy:1||axial contraction of CFRP tube:1||lateral force calibration:1||Selfcleaning:1||phased arrays:1||CALIBRATION:1||PATTERN:1||Antenna arrays:1||Honeycomb:1||phase error:1||SPIRAL ANTENNA:1||INSULINSECRETION:1||NANOFLUIDIC INTERCONNECTS:1||Packed beds:1||Nanohole structures:1||Separation systems:1||DIOXIDE TIO2:1||Cleaning:1||Fins (heat exchange):1||Surface properties:1||Brazed aluminum heat exchangers:1||Superhydrophobic coatings:1||Nanoimprinting process:1||PATTERNRECONFIGURABLE ANTENNA:1||Plasma etch:1||Low maintenance energy:1||SURFACECHEMISTRY:1||ANGLE:1||Flexible superhydrophobic surface:1||REMOVAL:1||Cassie relation:1||SUPERHYDROPHILICITY:1||parallel:1||energy harvesting:1||Hybrid energy cell:1||debonding:1||SPECIMENS:1||STATIC INDENTATION:1||GRAPHITE EPOXY:1||state space method:1||FAILURE CRITERIA:1||twist angle:1||YOUNGS MODULUS:1||C60:1||fiber metal laminates (FML):1||COMPOSITEMATERIALS:1||GENETICALGORITHM:1||Electrical properties:1||anodic alumina oxide:1||polymer sticking:1||Surface Antenna Structure:1||cumulative damage:1||SILICON MEMBRANES:1||HYPOXIA:1||Industrial processs:1||Selfassembled monolayer coatings:1||WICKING:1||Electric utilities:1||Coatings:1||Air conditioning industry:1||Cleaning properties:1||Iterative methods:1||Spherical droplets:1||DC voltage:1||Electrical poling:1||SOLUTIONIMMERSION PROCESS:1||OIL/WATER SEPARATION:1||Anodization:1||PORTABLE ELECTRONICS:1||VAPORDEPOSITION:1||ZINC:1||PEM FUELCELL:1||PART I:1||MANAGEMENT:1||TRANSPORT:1||SENSOR:1||TRANSPARENT:1||triboelectric nanogenerator:1||methyl orange:1||Sodium bicarbonate:1||smart structures:1||honeycomb sandwich beams:1||TRANSVERSELY FLEXIBLE CORE:1||PANELS:1||end notched flexure (ENF):1||JAPAN:1||structural system reconstruction:1||modal parameter estimation:1||damping ration:1||loadcarrying efficiency index:1||interlaminar fracture:1||design sensitivity:1||Weibull distribution:1||carbon/epoxy composite (CFRP):1||FATIGUE:1||GAUGES:1||lateral force calibration factor:1||TORSIONAL SPRING CONSTANT:1||COMPOSITE SMART STRUCTURES:1||Anodic aluminum oxide (AAO):1||SIDELOBE REDUCTION:1||RADIATION:1||phased array:1||MILITARY AIRCRAFT:1||lotus leaf:1||micro/nanostructures:1||fatigue life prediction:1||higher mode deformation:1||CELL ENCAPSULATION:1||TRANSPLANTATION:1||MICROFLUIDICS:1||Surface wettability:1||Separation:1||Contact Electrification:1||Rheological property:1||Personal computers:1||Drop breakup:1||Anodizations:1||Liquid droplets:1||Triboelectricity:1||Selfpowered systems:1||Integrated circuits:1||BEAM:1||

Open Access System for Information Sharing

Keyword

Publication & Time Cited Count
(For the Last 5 years)

Browse

Open Access System for Information Sharing

Keyword

Publication & Time Cited Count(For the Last 5 years)

Browse

Publication & Time Cited Count
(For the Last 5 years)