ScholarWorks@Dongguk University: Ranjith, Kugalur Shanmugam

Detailed Information

Ranjith, Kugalur Shanmugam (랜지스)

College of Engineering (Department of Energy and Materials Engineering)

Research Area

Tel
Homepage

ResearcherID ORCiD Scopus Google Scholar ID ResearchGate

Keyword

Electrochemical sensor:9||Photocatalysis:6||electrospinning:4||MXene:4||Electrospinning:4||Carbon nanofibers:3||Antibiotic:3||ZnO:3||Photoluminescence:3||Interfacial contact:3||Electrospun nanofibers:2||carbon nanofibers:2||Amperometry:2||Bioimaging:2||Environmental remediation:2||Carbon nanofiber:2||Photodegradation:2||Visiblelight:2||Differential pulse voltammetry:2||hybrid supercapacitor:2||Nanofibers:2||Hybrid supercapacitor:2||MXenes:2||Cationic dye adsorption:2||Hydrogen evolution reaction:2||4Nitrophenol:2||Electrospun fibers:2||Rietveld refinement:2||Oxygen evolution reaction:2||Composite nanostructure:1||Contaminants:1||Copper (Cu2+) and Mercury (Hg2+):1||Coreshell:1||Coreshell heterostructures:1||Coreshell nanofibers:1||Coreshell structure:1||Cost:1||CsVO3 quantum dots:1||Cycling stability:1||DFT:1||Defects state:1||Degradation:1||Desalination:1||Diglyme:1||Diphenylamine:1||Drug delivery:1||Dry electrode:1||Dumbbellshaped particles:1||Electrocatalysts:1||Electrocatalytic performance:1||Electrochemical energy storage systems:1||Electrosorption:1||Electrospun:1||Energy density:1||Energy efficiency:1||Energy harvesting:1||Eutectic solvents:1||Farredemitting phosphor:1||FeMoO4 nanotubes:1||Gd2Ti2O7:Er3+/Yb3+:1||Glucose determination:1||Glucose oxidation:1||Graphene:1||Graphene oxide:1||HPIMZnO nanofibers:1||Hazardous water pollutants:1||Heavy metal detection:1||Heavy metals:1||Heteroatom doped graphitic carbon wall:1||Heterostructure:1||Hierarchical carbon nanofiber:1||Hierarchical fibrous web:1||Hybrid heterostructure:1||Hydrated titanium oxide:1||Hydroquinone and catechol:1||Hydroxyapatite:1||Immunoglobulin G:1||Implantation:1||Interface engineering:1||Iron tungsten oxide:1||LangmuirHinshelwood:1||Lanthanum stannate:1||Layered double hydroxide:1||Light down detection:1||Lightemitting diode:1||Lithium extraction:1||Lithiumion sieves:1||Membrane capacitive deionization:1||Mercury ion:1||Metal dichalcogenide:1||Metalorganic frameworks:1||Metronidazole:1||Mineralization:1||Mn&#8208:1||MnO2rGO:1||Molybdenum disulfide:1||Multiwall carbon nanotube:1||N2 fixation:1||NIRbased LED:1||NIRresponsive catalysis:1||Naion batteries:1||NaClO4:1||Nanomedicine:1||Nanoparticles:1||Nanorod arrays:1||Ni&#8208:1||NiCuCo fabric:1||Nonenzymatic sensor:1||OER and UOR:1||Overall water splitting:1||Perovskite:1||Perovskite nanoclusters:1||Pharmaceutical pollutants:1||Photoelectrochemical water splitting:1||Photoanode:1||Photocatalytic H2 evolution:1||Photocatalytic degradation:1||Photocorrosion:1||Polycyclodextrin:1||Polyacrylonitrile fibers:1||Polymers of intrinsic microporosity (PIMs):1||Polystyrene:1||Porous nanofibers:1||Protein corona:1||Protein interaction:1||Quantum yield:1||Rareearth niobates:1||Recovered carbons:1||Regrowth process:1||Rutin:1||S&#8208:1||Sscheme heterojunction:1||Selfassembly:1||Selfpowered electronics:1||Silymarin:1||Singlelayered MXene:1||Small layered MXene:1||Smart study room:1||SnS nanoflakes:1||Solar cell:1||Solution free:1||Solvent:1||Sonocatalytic degradation, MIL101(Cr):1||Sonophotocatalysis:1||Specific capacitance:1||Spent supercapacitors:1||Spherical carbon:1||Square wave voltammetry:1||Squarewave voltammetry:1||Squarewave voltammetry:1||Sulfadiazine:1||Sulfur vacancies:1||Supercapacitors:1||Ternary composite:1||Ternary heterostructure:1||Tetracycline degradation:1||Ti3C2Tx MXene:1||Transition metal dichalcogenide:1||Transition metal dichalcogenides:1||Triboelectric nanogenerator:1||Tryptophan:1||Tungsten disulfide:1||Ultrathin MXene:1||Upconversion luminescence:1||Upconversion submicrospheres:1||Waterinsalt:1||Wearable electronics:1||ZIF&#8208:1||Zinc oxide nanoparticles:1||Znion capacitor:1||ZnO nanowires:1||ZnSGdS:1||ZnSO4:1||asymmetric supercapacitors:1||atomic layer deposition:1||batteries:1||bifunctional electrocatalyst:1||bimetallic nanograins:1||carbon nanofiber:1||carbon&#8208:1||catalysis:1||chemical vapor deposition:1||derived carbon:1||electrolyte additive:1||energy density:1||energy harvesting:1||graphenelike carbon:1||hierarchical nanostructures:1||hierarchical nanowire array:1||hotplate synthesis:1||hybrid supercapacitor electrode:1||hybrid supercapacitors:1||hydrogen evolution reaction:1||interface:1||layer to layer heterostructure:1||lignin&#8208:1||metal chalcogenide:1||metal&#8208:1||multivalent ion capacitor:1||nanocubes:1||nanoflake array electrode:1||organic framework:1||oxysulfide:1||polyacrylonitrile:1||polyvinylidene difluoride:1||power density:1||quantum confinement effect:1||rGO wrapped CoNi2S(4):1||rGO wrapping:1||roughnesses:1||sensors:1||shell wall:1||transition metal dichalcogenides:1||transitionmetal dichalcogenides:1||triboelectric nanogenerators:1||tunable emissions:1||water splitting:1||zeolite imidazole framework67:1||2D heterostructures:1||zinc:1||2D materials:1||2D/2D heterostructure:1||67:1||ALD:1||Acetaminophen:1||Additive electrolyte:1||Adsorption:1||Amine vapor:1||Ammonia detection:1||Asymmetric supercapacitor electrode:1||Atomic layer deposition:1||Bacteria:1||Bimetal complex selenide:1||Bimetallic nanograins:1||C ion:1||CdS spheres:1||Cesium lead bromide:1||Charge separation:1||Charge storage:1||Charge storing mechanism:1||Chargeseparation:1||Chloramphenicol:1||Ciprofloxacin:1||Codoped nanofibers:1||CoFeLDH:1||CoOS:1||Colorimetric sensor:1||Composite:1||

RSS_1.0 RSS_2.0 ATOM_1.0

30, Pildong-ro 1-gil, Jung-gu, Seoul, 04620, Republic of Korea+82-2-2260-3114

Certain data included herein are derived from the © Web of Science of Clarivate Analytics. All rights reserved.
You may not copy or re-distribute this material in whole or in part without the prior written consent of Clarivate Analytics.

Detailed Information

Keyword

BROWSE