ScholarWorks@Korea University: Lee, Hai gun

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Lee, Hai gun (이해근)

College of Engineering

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Tel 3265
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noinsulation:10||GdBCO:7||YBCO coated conductor:6||Characteristic resistance:6||superconducting joint:5||AC loss:5||HTS magnet:4||solid nitrogen (SN2):4||insulation:4||hightemperature superconductors:4||Noinsulation:4||GdBCO CC:4||stabilizer:4||HTS:3||high temperature superconductor:3||noinsulation (NI):3||Coated conductor:3||Spark plasma sintering:3||joint:3||winding tension:3||Solid nitrogen:3||Electrical properties:3||partial insulation:3||YBCO coated conductor (CC):3||Bending diameter:3||lowpass filter:2||pancake coil:2||Mixed cryogen:2||Minimum quench energy:2||persistent current mode:2||critical current:2||Chemical mechanical polishing:2||Stycast 2850 FT:2||contact resistance:2||Insulation:2||HTS transformer:2||Hardness:2||NMR lineshape:2||normal zone propagation velocity:2||generators:2||Photocatalysis:2||recovery:2||YBCO:2||Field utilization factor:2||MQE:2||quench:2||windandflip:2||Hightemperature superconductors:2||noinsulation GdBCO magnet:2||GdBCO racetrack coil:2||minimum quench energy:2||field mapping:2||Hightemperature superconducting rotating machine:2||Electric discharge sintering:2||Conduction cooling:2||HTS dc cable:2||PPLP:2||GdBCO coil:2||induced current:2||partialinsulation:2||Electromagnetic force:2||equivalent circuit model:2||minimum quench energy (MQE):2||thermal stability:2||Cooling:2||superconductors:2||Critical current:2||normal zone propagation (NZP):2||thermal/electrical stability:2||toroid:2||Superconducting magnets:2||Thermal stability:2||Titania:2||grease insulation:2||Current lead:2||Polymermatrix composites (PMCs):2||solid nitrogen:2||noinsulation coil:2||wind power generation:2||Surface Defect:2||Solid cryogen:2||Cooling system:2||magnetization loss:2||Breakdown:2||HTS SMES:2||Dry synthesis:2||HTS synchronous motor:2||Thermal properties:2||insulation design:2||thermal characteristics:2||noinsulation magnet:2||persistent current mode operation:2||overcurrent test:2||High Tc superconductors:2||SMES:2||Magnesium diboride (MgB2):1||transient response:1||Epoxy:1||Titanium silicide:1||Cathodoluminescence spectroscopy:1||laminated armature supporter:1||metallic insulation:1||Charging/discharging characteristics:1||Liquid neon:1||turntoturn soldered:1||excessive timevarying field conditions:1||Multiwidth:1||high gradient magnetic separation:1||solenoid coil:1||timevarying magnetic field:1||thermal runaway temperature:1||HTS cable:1||REBCO coated conductors (CCs):1||Finiteelement analysis:1||laser drilling:1||magnetic field saturation:1||DCbiased ac current:1||iron loss:1||current sweep reversal:1||screeningcurrent induced field:1||nonuniform current:1||Conductioncooled lead:1||noinsulation:1||cryogen:1||electric breakdown:1||Cable insulation:1||Racetrack pancake coil:1||Lightning impulse dielectric experiment:1||repetitive quench test:1||Barrier:1||cooling rate:1||design parameter:1||stator coil:1||oxygen partial pressure (PO2):1||YBCOCC:1||coated conductor:1||conduction cooling:1||Epoxy impregnation:1||Zincair batteries:1||nigrothalamic tract:1||tokamak:1||brain mapping:1||Voltage measurement:1||Hydrothermal:1||White lightemitting diode:1||Ultrasonication:1||Hydrogen evolution:1||Bending strain:1||rotary HTS flux pump:1||Subsurface damage:1||Aircore quadrupole magnet:1||effective length:1||metalclad coil:1||Direct bonding:1||Advanced aircore stator:1||GdBCO coils:1||multilayered metallic insulated (MMI) coil:1||grease:1||Adiabatic superconducting magnets:1||phase backelectromotive force:1||wide and stacked wires:1||external magnetic ripple field:1||high Tc superconducting (HTS) generator:1||magnetic flux density:1||hightemperature superconducting (HTS) magnet:1||Mechanical characteristic:1||Racetrack:1||Solenoid coil:1||oxygen pathways:1||wind generator:1||Bobbin material:1||hightemperature superconducting (HTS) racetrack coil:1||magnetic hysteresis:1||CTD521:1||paraffin:1||mixed cryogen:1||dielectric materials:1||ironcore:1||harmonic current:1||HTS DC power cable:1||GFRP:1||Acoustic emission (AE):1||Quenching:1||highfield magnet application:1||numerical analysis:1||resistive superconducting fault current limiter:1||toroidal magnet:1||piezoelectric:1||overcurrent:1||Ceramic:1||Piezoelectric:1||striation:1||magnetic resonance imaging (MRI):1||ansa lenticularis:1||toroidal field coil:1||tractography:1||nerve fibers:1||Windings:1||positron emission tomography:1||Thin film:1||Lead:1||parallelconnected HTS magnet:1||Charging/discharging rates:1||CoNC@NiFeLDH:1||PiG plates:1||Luminous efficiency:1||parameter sweep:1||Composite:1||Contactless rotary excitation device:1||Finite element analysis:1||Heat dissipation:1||HTS synchronous machine:1||Cu stabilizer thickness:1||stability margin:1||Closecycle cooling concept:1||cryogenics cooling system:1||Optimization:1||current leads:1||Electromagnetic responses:1||electromotive forces:1||racetracktype double pancake (DP) field coil:1||degradation:1||Field homogeneity:1||Vortex shaking effect:1||Lamination:1||partialinsulation (PI):1||GdBCOcoated conductor:1||oxygen partial pressure:1||polypropylene laminated paper (PPLP):1||Copper Hydroxide:1||Critical current test:1||Bypass reactor:1||dielectric breakdown:1||racetrack pancake (RP) coil:1||calorimetric method:1||field coil:1||thermal contact:1||wind turbine:1||NZP:1||breakdown:1||Sphereplane electrode systems:1||AE sensor:1||cryogenics:1||highcurrent electrical power device:1||thermal /electrical stability:1||Persistent current mode:1||multigrouped particle swarm optimization (MGPSO):1||YBa2Cu3Oy  Ag (Y123Ag) superconducting tape:1||chemical diffusion coefficient of oxygen outdiffusion ((D)overtilde(out)):1||solid cryogen:1||Hall sensor:1||HTS racetrack pancake coil:1||Thermal/electrical stability:1||substantia nigra pars reticulata:1||diffusionweighted MRI:1||Tokamak devices:1||noinsulation coils:1||high resolution:1||psychiatric disorders:1||Magnetic fields:1||High temperature superconductor magnet:1||Cellulose nanocrystals:1||Photodegradation:1||Normal zone propagation velocity:1||Electrical stability:1||Metalorganic framework:1||Oxygen evolution:1||Bending test:1||noinsulation field coil:1||Phase transformation:1||Sintering:1||Nonradiative recombination:1||evolution strategy:1||electrical stability:1||high thermal conductivity:1||hightemperature superconductor (HTS):1||flux injector:1||Boron nitride filler:1||heating duration:1||electromagnetic characteristics:1||voltage fluctuations:1||Fusion magnet:1||damage:1||Finite element method:1||Charging/discharging delays:1||spiral/radial currents:1||threedimensional field mapping:1||Active shimming:1||screeningcurrentinduced field:1||high gradient magnetic separator (HGMS):1||Liquid nitrogen:1||pancake wound coil:1||HVDC:1||superconducting fault current limiter:1||superconducting rotating machine:1||YBCO CC:1||Fault current limiter:1||current lead:1||HTS power application:1||solder:1||recovery time measurement:1||acoustic emission sensor:1||Xray diffraction:1||HTS power supply:1||Heatertriggered switch:1||Joint:1||Damper:1||HTS field coil:1||High Temperature Superconductor:1||MPB:1||thermogravimetric analysis (TGA):1||MgB(2):1||Transition metal phosphide:1||fasciculus lenticularis:1||TiO2:1||Photocatalyst:1||3D carbon matrix:1||Postannealing:1||Sheath materials:1||noncontact excitation method:1||Refractory metals:1||Electric discharge:1||field gradient:1||GaN on diamond:1||MRI magnets:1||REBCO tape:1||Particlereinforcement:1||mixed cryogen cooling system:1||Sensors:1||induced voltage:1||insulation characteristics:1||Insulationinterval:1||Insulationangle:1||GdBCO coated conductors:1||timevarying conditions:1||ReBCO:1||quench and recovery characteristic:1||secondgeneration hightemperature superconducting magnet application:1||Losses transient characteristic:1||Fault currents:1||harmonic analysis:1||Design optimization:1||TiO2 Nanotube:1||Anodization:1||Thermal dryout:1||power cable:1||Argon:1||hybrid EMS system:1||racetrack coil:1||HTS racetracktype coil:1||Electrical insulation for high voltage superconducting machines:1||Liquid nitrogen insulation media:1||Quench and recovery test:1||Conduction cooling system:1||Heat transfer:1||Hybrid FCL:1||lap joint:1||Operating temperature:1||AC dielectric tests:1||fault current limiters:1||quench/recovery characteristics:1||piezoelectricity:1||acoustic emission (AE).:1||Temporal stability:1||Cryogenics:1||ac excitation:1||hybrid fault current limiters:1||LTS/HTS NMR magnet:1||current distribution:1||SN2 cooling system:1||Cooling channels:1||NZPV:1||Hfield:1||magnet design:1||human connectome project:1||HTS coils:1||magnetic resonance imaging:1||Yttriastabilized zirconia:1||Doped smart insulation (DSI):1||Rutin detection:1||Copper ferrite:1||rGO:1||Automotive headlamp:1||Tolerable:1||secondgeneration HTS coil:1||Titanium carbide:1||Salientfield pole:1||Gallium nitride:1||MgB2:1||mono and multifilamentary superconductors:1||thermal conductivity:1||Equivalent circuit model:1||insulation material:1||hightemperature superconducting (HTS) motor:1||Field stability:1||screening current induced field:1||filtration:1||wastewater:1||High temperature superconducting (HTS) synchronous generator:1||internal active shim:1||wind power generator:1||Characteritic resistance:1||Hightemperature superconducting synchronous motor:1||Pancake coil:1||Eddy current loss:1||Charging protocol:1||finite element method (FEM):1||Current leads:1||oxygenation annealing:1||Breakdown characteristics:1||hightemperature superconducting (HTS) dc cable:1||Chemicalmechanicalplanarization:1||High temperature superconducting:1||Copper Oxide Nanoneedles:1||nitrogen:1||Normal zone propagation:1||Sphere and plane electrode systems:1||ReBCO CC:1||noninductive coil:1||pressboard:1||Superconducting tape array geometry:1||Electrical breakdown characteristics of liquid nitrogen:1||YBCO CC tape:1||Electric field intensities (E):1||Etching:1||transposition:1||superconducting magnets:1||superconducting fault current limiters:1||Metal organic framework:1||thalamic substructure:1||pallidothalamic tract:1||Circuit simulation:1||Transition metal doping:1||individual coil current manipulation:1||Mesoporous:1||Ceramic phosphor plate:1||Smart insulation:1||Smart insulation (SI):1||Sensitivity detection:1||Nickel cobalt oxide:1||Acidtreated CNT:1||Titanium:1||bending test:1||Cooling anchor:1||Neon:1||finite element method:1||thermal and electrical stabilities:1||thermalquench behavior:1||charging delay:1||Resins:1||volume effect:1||noinsulation GdBCO racetrack coils:1||Cryogenics cooling system:1||minimum runaway energy:1||Current sweep reversal:1||Epoxy resin:1||Partial insulation:1||Discharge characteristic:1||Mechanical stress:1||Lorentz force:1||high temperature superconducting (HTS) coil:1||wind turbine generator:1||HTS rotating machine:1||melting diffusion:1||magnetic coupling:1||timevarying response:1||space charge:1||thermal/electrical stabilities:1||Thermal contact:1||high temperature superconducting (HTS) magnet:1||layer wound coil:1||protection:1||curvature:1||splice resistance:1||resistive type superconducting fault current limiter:1||system resistance:1||wire length.:1||Hightemperature superconductor (HTS):1||splice:1||electromagnetic force:1||superconducting fault current limiter (SFCL):1||Noinsulation coil:1||fasciculus thalamicus:1||Toroidal magnetic fields:1||hybrid imaging:1||Phosphor in glass:1||Metal insulator transition:1||Sensor:1||Highpower LED:1||field uniformity:1||charging and discharging rate:1||Immiscibility between Ga and C:1||electrical properties:1||eddycurrent loss:1||Charging delay:1||Bending characteristics:1||magnetic field variations:1||Acoustic emission:1||Piezoelectric properties:1||PZT:1||CCDfactor:1||Hertzian contact:1||inhomogeneity:1||nvalue:1||screening currentinduced field:1||thermal contraction:1||wetwinding:1||Screening currentinduced field:1||normal zone propagation velocity (NZPV):1||HTC field winding:1||closedloop GdBCO model coil:1||high temperature superconductors:1||Equivalent circuit:1||3D field mapping:1||Coil impregnation:1||Solid argon:1||stability:1||superconducting devices:1||protectionfree:1||superconductor coil:1||Stabilizer:1||HTS racetrack coil:1||Insulation destructive probability:1||Various pressures:1||Solid nitrogen (SN2):1||pressure:1||fault current test:1||Overcurrent:1||dielectrics:1||superconductor:1||Insert coil:1||Numerical analysis:1||various low operational temperatures:1||Ultrasonic:1||Vibrator:1||fault current:1||screening currents induced field (SCF):1||Water splitting:1||Oxygen reduction reaction:1||fusion magnets:1||Cellulose nanocrystal:1||Resistance:1||Perpendicular magnetic anisotropy:1||Resistance heating:1||coiltocoil current sharing:1||Noinsulation (NI):1||Current bypass:1||Layered double hydroxide:1||Nanohybrid:1||

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