ScholarWorks@Hanyang University: Lee, Yun Jung

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Lee, Yun Jung (이윤정)

COLLEGE OF ENGINEERING (DEPARTMENT OF ENERGY ENGINEERING)

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Tel 02-2220-2411
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lithiumoxygen batteries:4||graphene oxide:3||high areal capacity:3||lithiumion batteries:3||graphene:3||air:2||biomimetic:2||lithium:2||redox mediator:2||lithium ion battery:2||Lithiumoxygen batteries:2||membranes:2||Dehydrofluorination:1||Electric doublelayer capacitor:1||Electrochemical flow capacitor:1||Electrochemical reaction:1||Electrode material:1||Energy storage:1||Energy storage material:1||Janus electrolytes:1||LTO nanoflakes:1||LiO2 battery:1||Li2O2:1||LiOH:1||Lithium ion batteries:1||Lithium sulfide:1||Lithiumsulfur batteries:1||M13 virus:1||MOP74:1||Magnesiumbatteries:1||Metal Lifree full cells:1||Mg(TFSI)(2):1||Mn:1||Molybdenum disulfide (MoS2):1||PVDFHFP:1||Porous carbon:1||RuO2/MnO2:1||Ruthenium dioxide:1||Slurry electrode:1||Solid catalysts:1||Supercapacitor:1||Surface and interfacial cutting analysis system:1||Sustainable energy storage:1||TEMPO:1||Thermal stability:1||TiO2 nanotubes:1||Titanium dioxide:1||UVvis titration:1||Vanadium redox flow battery:1||additive:1||allsolidstatebattery:1||analysis techniques:1||anion redox:1||anion reduction:1||anode:1||anodeless:1||aquaporin:1||areal capacities:1||batteries:1||bifunctional catalyst:1||bimetallic MOP:1||binder distribution:1||biotemplates:1||carbon:1||carbon nanotubes:1||catalysts:1||catalytic mechanism:1||cathode:1||cathode active materials:1||cathodes:1||charge overpotential:1||charge transport:1||cobaltfree:1||colloidal stability:1||composite anodes:1||conductive additive:1||conversionreaction materials:1||current collectors:1||diffusional coble creep:1||dimethyl sulfoxide (DMSO):1||discharge mechanism:1||electric vehicles:1||electrochemical impedance spectroscopy:1||electrodes:1||electrolyte stability:1||electrolytes:1||electron transport:1||ether:1||fast charging:1||flexible batteries:1||flexible electrode:1||freestanding films:1||freestanding electrode:1||high loading electrodes:1||high power:1||in situ characterization techniques:1||inhibition:1||laserablation laserinduced breakdown spectroscopy:1||lattice change:1||layered oxide:1||lithium ion batteries:1||lithium metal:1||lithium oxygen batteries:1||lithium superoxide:1||lithiumair batteries:1||lithiumair battery:1||lithiumbased rechargeable battery:1||lithiumfree:1||lithiumion battery:1||lithiumoxygen battery:1||lithiumrich oxide:1||manganese substitution:1||metal:1||metalair batteries:1||molecular recognition:1||monolith cathode:1||morphology:1||nanocomposites:1||nanoparticles:1||nickel rich:1||noble metals:1||noncarbon electrode:1||organic electrolyte:1||overcharging:1||practical application:1||practical applications:1||practical electrode:1||recognition:1||redox mediators:1||reduced graphene oxide:1||ruthenium oxide:1||selectivity:1||separator:1||shuttle prevention:1||shuttling:1||slurry electrode:1||smart conductive textiles:1||sodium pyrophosphate dibasic (SPD):1||stack system:1||supported catalysts:1||suppressing volumetric change:1||tetraethylene glycol dimethyl ether (TEGDME):1||thermal stability:1||time of flight secondary ion mass spectrometry:1||transitionmetal oxides:1||ultracapacitor:1||vanadium redox flow battery:1||wearable:1||3Aminopropylphosphonic acid:1||zerostrain cathode:1||5,10dihydro5,10dimethylphenazine (DMPZ):1||Activated carbon:1||Activation:1||Additive:1||Adhesion property:1||Carbonfree electrode:1||Catalyst:1||Co:1||Composite electrodes:1||Conductive carbons:1||DBBQ:1||

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