ScholarWorks@Hanyang University: Song, Taeseup

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Song, Taeseup (송태섭)

COLLEGE OF ENGINEERING (DEPARTMENT OF ENERGY ENGINEERING)

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Tel 02-2220-2333
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Electrocatalyst:8||Oxygen evolution reaction:7||water splitting:6||oxygen evolution reaction:5||Water splitting:4||Solid oxide fuel cell:4||Hydrogen evolution reaction:4||allsolidstate batteries:3||Thermal barrier coatings:3||layered double hydroxide:3||Hot corrosion:3||Reaction mechanism:3||Mechanical properties:3||Thermal barrier coatings (TBC):3||electrocatalyst:3||Anode:3||Photocatalyst:2||LiS battery:2||Thermal barrier coating:2||reduced graphene oxide:2||Allsolidstate battery:2||capacitive mixing:2||Capacitive mixing:2||3D printing:2||Thermal expansion coefficient:2||Liion kinetics:2||Thermal properties:2||Chemical mechanical planarization:2||cobalt nickel sulfide:2||Flowelectrode:2||Allsolidstate batteries:2||thermal barrier coating:2||Glasslike thermal conductivity:2||Graphene:2||Prussian blue analogues:2||lithiumion batteries:2||Metalloid:2||Oxide ceramics:2||Graphite:2||Dendritefree:2||Watersplitting:2||electrocatalysts:2||Inorganic solid electrolytes:2||Lithium ion batteries:2||Bifunctional electrocatalyst:2||Spincoating:2||energy conversion:2||Lithium metal batteries:2||Composite:2||Li metal battery:2||Fe7S8:2||Perovskite:2||graphene:2||High energy density:2||Electrodes:1||Electrolyte additive:1||Electrolytes:1||Energy efficiency:1||Enhanced electrical conductivity:1||Entropystabilization:1||Environmentalharmless:1||FEC:1||Fe2O3:1||Feed water:1||Film thickness:1||Flow channel:1||Flow rate:1||Flowerlike nanocomposite:1||Fluorine compounds:1||Fluoroethylene carbonate:1||Formation mechanism:1||Formic acid oxidation reaction:1||Freestanding electrode:1||Functionalized separator:1||GDC barrier layer:1||Gallium–indium eutectic:1||Gas nitriding:1||Gas permeation:1||Gasket sealant:1||Ge interlayer:1||Ge@C nanobox:1||Graphite electrodes:1||Green body:1||Guidance filter:1||H2/CO2 separation:1||Hierarchical:1||High entropy oxide:1||High mass activity:1||Highentropy oxide:1||Holey nanosheets:1||Hybrid:1||Hydrogen:1||Hydrogen Evolution:1||Hydrogen evolution reaction (HER):1||Hydrogenated titanate:1||Insitu electrode thickness measurement:1||Infiltration:1||Integrated construction strategy:1||Interacting Multiple Model:1||Interacting approach:1||Interface engineering:1||Interfaces:1||Intrinsic pseudocapacitive behavior:1||Ions:1||Iron:1||Iron molybdate:1||Iron sulfide:1||Isostatic pressing:1||KEYWORDS:1||Kneading process:1||La0.6Sr0.4Co0.2Fe0.8O3delta:1||La0.6Sr0.4CoO3δ:1||Lanthanum zirconate:1||Lattice distortion:1||Layered double hydroxide:1||Layered hydroxide structure:1||Leakage gas induction channel:1||Li ion redistribution:1||Li metal anodes:1||Li plating:1||Li protection layer:1||LiS catalyst:1||LiS mediator:1||Liion battery:1||Limetal batteries:1||LiNO3:1||Liquid metal:1||Liquid metal alloy:1||Lithiophilic treatment:1||Lithium:1||Lithium Ion Batteries:1||Lithium Metal Anodes:1||Lithium carboxymethyl cellulose:1||Lithium chloride:1||Lithium dendrite:1||Lithium metal anode:1||Lithium metal anodes:1||Lithium selenide:1||Lithiumion batteries:1||Lithiumion battery:1||Longterm cycling performance:1||Low iridium:1||Low overpotential:1||Low temperature cosintering:1||Low temperature operation:1||Lower overpotential:1||MIEC:1||MXenes:1||Mechanofusion:1||Mechanofusion:1||Metal boride:1||Metal frameworks:1||Metal nitrideoxynitride:1||Metalorganic frameworks:1||Microstructure:1||Middleofline (MOL):1||Molten salt:1||Molybdenum:1||Molybdenum trioxide:1||Molybdenumbased electrode:1||Multicomponent alloy:1||Multisensor fusion:1||Multilayers:1||Multitarget tracking cluttered environments:1||Ndoped graphite felt:1||Naion battery:1||Nanomicro:1||Nanowebstructured thinfilm layer:1||Nanocubes:1||Nanohybrid:1||Nanopore:1||Nanosheet:1||Net power:1||Nickel silicide nanowire:1||Niobium oxide:1||Niobium oxides:1||Nitrogendoped Graphene:1||Nonmetal element:1||Organicinorganic hybrid:1||Overall water splitting:1||Oxidation state:1||Oxygen crossover:1||Oxygen evolution reaction (OER):1||Oxygen reduction reaction:1||PCFC:1||PDA:1||PE separator:1||PEM electrolysis:1||PTFE:1||PTFE fibrillization:1||Perovskite structure:1||Photoelectrocatalyst:1||Photovoltaic waste:1||Planar type solid oxide fuel cell stack:1||Plasma treatment:1||Polyactic acid:1||Polydimethylsiloxane:1||Polylactic acid:1||Porous structure:1||Positive net power:1||Pressure drop:1||Protection layer:1||Proton conducting fuel cell:1||Protonic conducting solid oxide fuel cell:1||Prussian blue analogue:1||Pseudocapacitance:1||Pulse laser ablation:1||Rare earth element:1||Rare earth elements:1||Rareearth element:1||Reaction path:1||Recycling:1||Reduced graphene oxide:1||Reduction sintering temperature:1||Rod shape Li 4 Ti 5 O 12:1||Rollpressing:1||SEI:1||SEI Layer:1||Sacrificial cathode:1||Salinity gradient power:1||Sandwichlike:1||Schiff base reactions:1||Selfadaptive evolution:1||Selfbuffering effect:1||Shrinkage behavior:1||Si:1||Si anodes:1||Sibased anodes:1||Sigraphite anode:1||Silica:1||Silicon anode:1||Silicon graphite composite anode:1||Silicone nanotube membrane:1||Sintering behavior:1||Slurry dispersion:1||Sodium ion batteries:1||Sodium ion full battery:1||Sodiumion batteries:1||Sodium/lithium storage:1||Solar fuel:1||Solid electrolytes:1||Solid solution:1||Solidelectrolyte interphase layer:1||Solidstate batteries:1||Solidstate electrolyte:1||Stable:1||Stack:1||Strapdown seeker:1||Strapdown sensor:1||Styrenebutadiene rubber:1||Substitution:1||Sulfide solid electrolyte coating:1||Sulfidebased solid electrolytes:1||Swelling:1||Thermal barrier coatings (TBCs):1||Thermal conductivity:1||Thermal decomposition:1||Thermal expansion coefficients:1||Thermal radiation:1||Thick film electrode:1||Titanium dioxide:1||Triboelectric nanogenerator:1||Triple conductor:1||Tungsten sulfide:1||Twostep Pressing:1||Twostep sintering:1||Unequal dimensions:1||Unscented kalman filter:1||Vanadium nitride:1||Vanadium redox flow battery:1||Volatilization:1||Voltage efficiency:1||WO3 fiber:1||Water spitting:1||Wet process sequence:1||Wettability:1||ZIF:1||ZnO/C Yolk shell:1||adsorption:1||aerogel:1||alkaline water electrolysis:1||all solidstate batteries:1||amorphous:1||anode:1||artificial SEI layer:1||atomic layer deposition:1||batteries:1||bifunctional catalysts:1||bifunctional electrocatalysts:1||binder migration:1||borophosphate:1||capacitive deionization:1||carbon nanofibers:1||carbon nanotube:1||carbonate electrolytes:1||catalyst materials:1||cathode material:1||cathodes:1||charge separation:1||colloid:1||compositional engineering:1||conductive ink circuit:1||copper nitride nanowires:1||crack growth:1||crack healing:1||crystalamorphous junction:1||cyclic thermal fatigue:1||density functional theory:1||digenite Cu1.8S:1||doping:1||dry process:1||dry processing:1||drying process:1||easy patterning process:1||electric field:1||electrocatalysis:1||electrochemistry:1||electrochemomechanical properties:1||electrode materials:1||electrospinning:1||encapsulation:1||expanded graphite:1||failure:1||fast charging:1||fastcharging:1||fl owelectrode:1||flow electrode:1||healing agent:1||heterostructure:1||high energy density:1||high entropy alloys:1||high rate:1||high rate capability:1||high stretchability:1||homogeneous microstructure:1||hydrated tungsten oxide:1||hydrogen evolution reaction:1||initial crack length:1||intercalation:1||interfaces:1||layered hydroxides:1||lithiated zinc oxide nanorods:1||lithium anodes:1||lithium dendrite growth:1||lithium ion batteries:1||lithium iron phosphate:1||lithium metal:1||lithium metal batteries:1||lithium nitride:1||lithium oxygen batteries:1||lithium selenide:1||low overpotential:1||mechanical properties:1||mechanofusion:1||metal current collector:1||metal organic framework:1||metal sulfide:1||metalmetalloid:1||metalorganic frameworks:1||nanomicro hybrid:1||nanocomposites:1||nanoparticles:1||nanoplates:1||nanostructures:1||nickel oxide:1||nitrogen doped:1||overall water splitting:1||oxides:1||oxygen reduction:1||oxygen reduction reaction:1||oxygen vacancy:1||pH:1||perovskite:1||photochemistry:1||polytetrafluoroethylene:1||porous carbon framework:1||protective layer:1||protonic ceramic fuel cell:1||pulse laser ablation:1||reaction parallelization:1||rolltoroll process:1||salinity gradient power:1||salinity gradient power generation:1||secondary batteries:1||sodium ion batteries:1||solid electrolytes:1||solid oxide fuel cell:1||stability:1||structural flexibility:1||sulfidebased electrolyte:1||sulfidebased solid electrolytes:1||surface reaction:1||surfaceexchange reaction:1||synergistic effect:1||templated synthesis:1||thermal barrier coatings:1||thermal conductivity:1||thermal durability:1||thermal expansion:1||transition metals:1||transpatent paper:1||water oxidation:1||(BiO)(2)CO3:1||wearable electronics:1||2D Nitridene:1||2D material:1||Adhesion strength:1||Ag:1||Aggregates:1||Alloy:1||Amorphous:1||Anode free batteries:1||Anodes:1||Artificial solid electrolyte interphase:1||Asymmetric supercapacitor:1||Atomic layer deposition:1||BCFZY:1||Batteries:1||Battery:1||Bifunctional catalyst:1||Bilayer SOFC:1||BiVO4:1||Bifunctionality:1||Bilayer:1||Binder:1||Binder adsorption:1||Binder migration:1||Bismuth:1||Bismuth sulfide:1||Carbon nanofiber:1||Carbon nanosheets:1||Carbon nanotube:1||Catalyst Design:1||Catalyticoxidation:1||Cathodes:1||Ceria:1||Codoping process:1||CoP nanosheets:1||Coating:1||Copper:1||Core shell:1||DFT:1||Defect engineering:1||DendriteFree Lithium:1||Dilithium transition metal oxide:1||Dip coating:1||Dissolution kinetics:1||Dryprocessed anode:1||Durability:1||Electric batteries:1||Electrical conducting path:1||Electrocatalysis:1||Electrochemical impedance:1||Electrochemical tuning:1||Electrochemical water splitting:1||Electrode:1||Electrode swelling:1||

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