ScholarWorks@Dongguk University: Teli, Aviraj Mahadev

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Teli, Aviraj Mahadev (텔리아비라지)

College of Engineering (Department of Electronics and Electrical Engineering)

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Hydrothermal:15||Charge storage kinetics:15||Supercapacitor:13||Energy storage:8||XPS:6||TEM:6||Asymmetric supercapacitor:5||Electrodeposition:5||Stability:4||Asymmetric supercapacitor device:4||supercapacitor:4||SEM:3||Cyclic stability:3||Nanospheres:3||hydrothermal:3||Hydrothermal synthesis:3||electrochromism:3||asymmetric supercapacitor:3||FESEM:3||Asymmetric device:3||Supercapacitors:3||Nanogranules:3||thin film:3||hydrothermal synthesis:3||Electrochemical performance:3||Chargestorage kinetics:3||Surfactants:2||doping:2||Electrochromic energy storage:2||Diffusion coefficient:2||Electrochromism:2||Transfer coefficient:2||Niobium oxide:2||Niobium phosphate:2||Tungsten oxide:2||OER:2||Thin film:2||HER:2||nanosheets:2||Co3V2O8:2||future prospects:2||properties:2||Hydrothermal and electrodeposition:2||Hydrothermal method:2||solvothermal synthesis:2||Composites:2||Morphological evolution:2||Electrospinning:1||Energy conversion and storage efficiency:1||Energy harvesting:1||Energyefficient conversion:1||Energystorage:1||Excellent cyclic stability:1||Excellent stability:1||FESEM:1||Fedoped MoS2:1||Fe2PO5:1||Growth Mechanism:1||HRTEM:1||High performance energy storage:1||High stability ASC device:1||Hightemperature supercapacitors:1||Hybrid supercapacitor:1||Hybrid supercapacitors:1||Hydrogen Evolution Reaction:1||Hydrogen evolution reaction catalysis:1||Hydrothermal preparation:1||Hydrothermal route:1||Hydrothermal techniques:1||Interface dynamics:1||Ionic ratio:1||KNN nano bricks:1||Knobbly surface spherical balls:1||MXene:1||Metal oxides:1||Metal telluride composites:1||Metalorganic framework:1||Microstructure:1||Mn3O4 based composites:1||Mn3O4 nanoparticles:1||MnCo2O4 nanoparticles:1||MnCo2S4:1||MnCo2O4 nanoparticles:1||MnO2:1||MoNb2O5:1||MoS2:1||MoS2/InP heterostructures:1||MoVMnAgOxide:1||Molybdenum doped tungsten oxide:1||Molybdenum phosphate:1||Molybdenum sulfide:1||Molybdenummanganese hydroxides:1||Multifunctional device:1||Multinary composites:1||NVOrGO:1||Nanofibers:1||Nanoflakes:1||Nanoflowers:1||Nanoneedles templating ultrathin petals:1||Nanosheets:1||Nanostructures:1||Nanotechnology:1||Nb2O5/MoS2 heterostructure:1||NbMnoxide:1||NbPO@CoFe:1||New strategies:1||Ni3V2O8 nanoparticles:1||Ni3V2O8:1||Ni3V2O8rGO nanoparticles:1||NiCo2O4 nanorods:1||NiFe layered double hydroxides (LDHs):1||NiMnCuCoS cathode:1||NiMnCuCoS@NF// AC@NF HSC:1||Nickel molybdenum phosphate hydrate:1||Nickel oxide (NiO):1||Niobium and tungsten oxide:1||Niobium cobalt oxide:1||Nucleation and growth mechanism:1||Palladium doping:1||PdMoS2:1||Piezoelectrode:1||Piezoelectrolyte:1||Piezoseparator:1||Piezosupercapacitor:1||Polymer ceramic composite:1||Portable devices:1||Pseudocapacitor:1||Quaternary metal oxide:1||Solgel and hydrothermal:1||Solid state electrolytes:1||Solidstate supercapacitor device:1||Solvothermal:1||Specific capatance:1||Stability study:1||Standard rate constant:1||Supercapcitor:1||Surfactantassisted Nb2O5:1||Ternary MoVMn metal oxides:1||Ti3C2 Mxene:1||Ti3C2Tx MXenes:1||Time variation:1||Transition metal dichalcogenides (TMDCs):1||Tungsten oxide decoration on niobium phosphate:1||Ultra high areal capacitance:1||Ultrahigh areal capacitance:1||Ultrathin nanopetals:1||XRD:1||ZnS:1||advanced nanostructure:1||asymmetric pouchtype supercapacitor:1||bifunctional:1||bifunctional electrocatalysts:1||catalyst design:1||charge storage:1||charge storage mechanism:1||chargestorage mechanism:1||chicken eggshell:1||cobalt and titanium oxide:1||current mechanism:1||cyclic stability:1||effect of solvent concentration:1||electrochemical energy storage:1||electrochemical water splitting:1||electrodeposition:1||energy conversion:1||energy storage:1||energy storage and conversion:1||excellent stability:1||exceptionalcyclability:1||gas sensing:1||graphic carbon nitride (gC3N4):1||graphite rods:1||high specific capacitance:1||highenergy density:1||highperformance supercapacitor:1||intrinsic features:1||ion modification:1||lowdimensional nanoparticles:1||machine learning stability:1||material composites:1||methanolmediated hydrogen evolution reaction:1||methanolmediated overall water splitting:1||methanolmediated oxygen evolution reaction (MMOER):1||nanogranules:1||nanorods:1||optical properties:1||outstanding stability:1||overall water splitting:1||photodetectors:1||reduced graphene oxide aerogel:1||sensor technology:1||sodium manganese oxide:1||solvent changing approach:1||specific capacitance:1||stable device performances:1||supercapacitor performance:1||surface functionalization:1||surface passivations:1||surfactantassisted NiFe:1||sustainability:1||tion:1||tungsten oxide:1||1D to 3D modulation:1||waste utilization:1||2D gC3N4:1||2D transition metal dichalcogenides:1||3D lettucelike architecture:1||3D submicron flowers:1||Areal capacitance:1||Asymmetric pouchtype supercapacitor device:1||Asymmetric supercapacitor devices:1||Asymmetric supercapacitors:1||Battery type electrode, supercapacitor:1||Bifunction device:1||Bilayered composite electrodes:1||Bifunctional device:1||Bilayer thin film:1||CFPAg:1||CTAB integration:1||CaO:1||Capacitivediffusive controlled process:1||Challenges, and future opportunities:1||Charge dynamics:1||Charge transfer resistance:1||Chargestorage kinetics and optoelectronic properties:1||Co3V2O8 nanoparticles:1||Co3O4:1||Co3O4 nanoparticles:1||CoV2O6 nanoparticles:1||CoWO4 nanoparticles:1||Composite electrode:1||Composite of titanium oxide with molybdenum sulfide:1||Coreshell nanocomposites:1||CuCobimetallic sulfide:1||CuMoS2:1||CuCoLDH:1||CuFe(P2 O7) pyrophosphate:1||CuMn2O4:1||Dielectric properties:1||Diffusion and capacitive controlled contribu:1||Dualband electrochromism:1||Electrocatalysis:1||Electrochemical analysis:1||Electrochemical studies:1||Electrochemistry:1||Electrochromic:1||Electrochromic characteristics:1||Electrochromic devices:1||Electrochromic properties:1||Electrochromic supercapacitors:1||

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