ScholarWorks@Hongik: Kim, Dong Min

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Kim, Dong Min (김동민)

Science & Technology (Department of Nanomaterials Engineering)

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Dyesensitized solar cells:10||PEMFC:9||Electrochemical impedance spectroscopy:6||Fuel cell:6||Simulation:5||Sputtering:5||임피던스:4||Nonprecious metal:3||Photovoltaic performance:3||Electrocatalyst:3||Sulfonation:3||Electrochemical Impedance spectroscopy:2||drug delivery system:2||dyesensitized solar cells:2||Polymer electrolyte membrane:2||Counter electrode:2||Counter electrodes:2||Current densityvoltage:2||염료 감응형 태양 전지:2||전류전압 곡선:2||Membrane:2||Current densityvoltage curves:2||jV curve:2||nanoparticles:2||Thin film:2||Hydrogen permeability:2||효율:2||pluroic F68:2||Hydrogen permeation:2||Al2O3/ITO:2||Cobalt:2||Al2O3:2||Atorvastatin calcium:2||CNT:2||Composite membrane:2||Separation:2||Knudsen diffusion:2||Dimensional stability:1||Diode model:1||Direct methanol fuel cell:1||Displace per atom:1||Doxorubicin:1||Doxorubicin hydrochloride:1||Dynamic Finger Model (손가락 동적모델):1||EIS:1||Efficiency:1||Electrochemical impedance spectroscopy (EIS):1||Electrochemical impedance spectroscopy, cyclic voltammetry:1||Electrode:1||Electrode geometry:1||Electrolyte membrane:1||Electrolytes:1||Energetic factors:1||Engine oil(엔진오일):1||Epitaxial:1||Equation of State:1||Equation of state:1||Equivalent circuit:1||Exact analytical analysis:1||Exoskeleton (외골격):1||Extractive Distillation:1||Finger Exoskeleton (손가락 외골격 기구):1||Fluorinedoped tin oxide:1||Fuel cell stack:1||GDC:1||GDL compression:1||GDL intrusion:1||Gas diffusion layer:1||Graphene:1||Graphite:1||Grasping (잡기):1||Hafnium tetrachloride:1||Heat fin:1||Heat transfer enhancement:1||High concentration methanol fuel:1||High surface area platinum:1||Hotpress:1||Hydrogen absorption:1||Hydrogen isotope permeation:1||Hydroquinone:1||ITER:1||Ice formation:1||Impedance:1||In situ neutron flux monitoring:1||Internal resistance:1||Ionic Polymer Metal Composites (이온성 고분자금속 복합체):1||Ionic polymer metal composite (이온성 고분자 금속 복합체):1||LLZO:1||Lecithin:1||Liquid Activity Coefficient Mode:1||Liquid crystals:1||MEA:1||Mathematical model:1||Metal foam:1||Metalhydride bed:1||Metallic bipolar plate:1||Metallophthalocyanine:1||Methanol crossover:1||Methyldiethanol Amine:1||Modeling:1||Motion analysis (동작 분석):1||Multi phenyl monomer:1||NRTL liquid activity coefficient model:1||Nano graphene:1||Neutron depth profiling:1||Neutron irradiation damage:1||Nitrite:1||Nuclear fusion:1||Numerical modeling:1||Oil deterioration(오일열화):1||Onestage refrigeration:1||PC:1||PC oligomer:1||PZT:1||Phenolphthalein Anilide:1||Phthalocyanine:1||Platinum nanoparticles:1||Pluronic F127:1||Pluronics:1||Poly(Arylene Ether Sulfone):1||Poly(arylene ether sulfone):1||Poly(ether sulfone):1||Poly(ethersulfone):1||Polybenzimidazole (PBI):1||Polymer electrolyte:1||Polymeric surface:1||Polyphenylene:1||Posttreatment:1||Pressure Swing Distillation:1||Probe dimension(프로브의 크기):1||Process Comparison:1||Proton Conductivity:1||Proton Exchange Membrane:1||Proton conductivity:1||Proton exchange membrane:1||Proton exchange membrane fuel cell:1||Ptfree:1||Redox couple:1||Reduced graphene oxide:1||Refrigeration:1||Regeneration of ischemic heart:1||SOFCs:1||SPR:1||Screenprinted electrode:1||Signal enhancement:1||Solgel:1||Solgel process:1||Sputter:1||SrRuO3:1||Steadystate:1||Subfreezing temperature:1||Sulfonated poly(ethersulfone):1||TBM:1||Temperatureinduced gel formation:1||Tetrabenzonaphthalene:1||Tetrahydrofuran:1||Thermodynamic Model:1||TiO2 film thickness:1||Titanium tetrachloride:1||Transparent:1||Transparent conducting oxide:1||Twostage refrigeration:1||Vascular endothelial growth factor:1||Water:1||batteries:1||blend:1||charge transfer resistance:1||counter electrode:1||currentvoltage curves:1||degradation:1||dimethyl sulfoxide:1||direct sequence:1||efficiency:1||electrochemical energy storage:1||electrolyte:1||functional devices:1||high flow:1||histidinetagged peptide:1||hybrid nanocomposites:1||hybrid storage:1||hysteresis:1||indirect sequence:1||ionic conductivity:1||modeling:1||pHSensitive Release of Anticancer Drug:1||pHsensitive drug delivery:1||pluronic micelle:1||potential sweep:1||protein sensing:1||1,2Dichloroethane Recovery:1||scan rate:1||simulation:1||solidstate battery:1||supercapacitors:1||supercapatteries:1||surface morphology electrochemical impedance spectroscopy:1||sustained release:1||viscosity:1||고분자 전해질 연료전지:1||고분자전해질연료전지:1||고체산화물 연료전지:1||막전극접합체:1||물:1||박막:1||상대 전극:1||설폰산화:1||성능 저하:1||스퍼터:1||양성자전도도:1||연료전지 스택:1||염료 감응형 태양전지:1||전하 이동 저항:1||전해질막:1||지디씨:1||폴리아릴렌에테르설폰:1||표면 형태:1||핫프레스:1||realtime assay:1||2Amino2methyl1propanol:1||3D printing:1||Activated glassy carbon electrode:1||Activated jute carbon:1||Adenovirus Human cytomegalovirus:1||Alkaline Parmax 1200 membrane:1||Amperometric detection:1||Atomic force microscopy:1||Benzene Removal:1||Boron thinfilm neutron monitor:1||CCG(catalyst coated gas diffusion media):1||CO2 Capture Process:1||Capacitive application(전정용량):1||Carbon Dioxide Capture:1||Carboncarbon bond:1||Cardo:1||Catechol:1||CeO2:1||Cell performance:1||Chemical stability:1||Cold neutron beam:1||Coldstart:1||Complex permittivity(복소유전율):1||Composites:1||Computer Simulation:1||Conductivity:1||Conjugated isomer:1||Core/Shell Nanoparticles with DrugLoaded Lipid Cores:1||Core/shell nanoparticles:1||Cyclic voltammograms:1||DPA:1||DSSC:1||DSSCs:1||Detection of viruse:1||Device physics:1||Diffusion media:1||

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