2D material [1] |
2D Materials [1] |
2D materials [6] |
3-acetyl-2,5-dimethylthiophene [1] |
3D printing [1] |
3d transition metal oxides [1] |
?-Fe2O3 [1] |
?-Fe<sub>2</sub>O<sub>3</sub> thin film [1] |
?-sheets [1] |
]+ catalyst [3] |
a.c. conductivity [1] |
Ab initio [1] |
Ab initio calculations [1] |
Ab initio modelling [1] |
Ablation duration [1] |
absorber [1] |
absorption [1] |
AC conductivity renewable energy sources [1] |
AC magnetic fields [1] |
Accelerating voltages [1] |
Acceleration cavities and superconducting magnets (high-temperature superconductor, radiation hardened magnets, normal-conducting, permanent magnet devices, wigglers and undulators) [1] |
Accelerator Applications [1] |
Acidic media [1] |
Activated carbon [8] |
Activated Carbon@FeOOH [1] |
Activation energy [2] |
Activation of CO2 [1] |
Activation process [1] |
Active particles [1] |
Active site [1] |
Active suspension [1] |
additive engineering [2] |
additive lithography [1] |
Additives [1] |
Adsorption [2] |
adsorption [2] |
Adsorption energies [1] |
Adsorption isotherms [1] |
Adsorption kinetics [1] |
Adsorption of CO2 [1] |
Advanced cyclic stability [1] |
Ag-NPs [1] |
Aggregates [1] |
Aggregation model [1] |
Alkaline media [1] |
Alkalinity [1] |
All-solid state [1] |
Aluminum [1] |
Aluminum compounds [2] |
Ammonium chloride [1] |
Amorphous content [1] |
and computer simulations [1] |
And melting [1] |
Angle-resolved photoemission [1] |
Anisotropic behaviors [1] |
Anisotropic Dirac cone materials [1] |
Anisotropy [2] |
Anode material [1] |
anode materials [1] |
Anodes [1] |
Antibodies [1] |
Antiferromagnetic orderings [1] |
Antiferromagnetic transition [1] |
Antiferromagnetism [2] |
APNR [1] |
Applications [1] |
Aqueous precursor [1] |
Argon [1] |
Armchair graphene nanoribbons [1] |
Article [1] |
article [2] |
Aspect ratio [1] |
Association reactions [1] |
Asymmetric [1] |
Asymmetric configurations [1] |
Asymmetric supercapacitor [1] |
Asymmetric supercapacitors [1] |
Atomic force microscopy [1] |
Atomic layer [1] |
Atoms [3] |
ATP biomolecule [2] |
Axial distribution [1] |
Axial magnetic field [1] |
Bacterial biofilm [1] |
Bacterial motion [1] |
Ballistic conductance [1] |
BaMnO3 [2] |
Band Gap [2] |
band gap [2] |
Band structure [2] |
Band-splitting [1] |
Bandgap tuning [1] |
Barium [1] |
Barium compounds [2] |
Barium zirconate [1] |
Basil [2] |
BaTiO<sub>3</sub> nanofiller [1] |
Battery-type materials [1] |
Bi<sub>2</sub>WO<sub>6</sub>/rGO [1] |
BiFeO<sub>3</sub> [1] |
Bimetallic clusters [1] |
Bimetallic sulfides [1] |
Bimetallic systems [1] |
BiMnO3 [1] |
Binary alloys [3] |
Binding affinity [1] |
binding affinity [1] |
Binding energy [3] |
Bioactive compounds [1] |
BiOBr [1] |
Biocompatibility [1] |
Biodegradability [1] |
Biofilm formation [1] |
Biofilms [1] |
Biomedical & bioengineering [1] |
biomedical applications [1] |
Biomedicine [1] |
Biomolecules [1] |
Biopolymers [1] |
Biosensors [1] |
BiPO<sub>4</sub> [1] |
Bismuth compounds [3] |
Bismuth titanate [3] |
Blast [1] |
blend polymer electrolyte [1] |
Blend solid polymer electrolyte [3] |
Blended solid polymeric thin films [2] |
Blending [1] |
Blood [1] |
Blood plasma [1] |
Blue Phosphorene [1] |
Boltzmann transport theory [2] |
Bond length [1] |
Boron-based monolayers [1] |
Bottom-up approach [1] |
Building blockes [1] |
Bulk-like [1] |
Calcination [1] |
Calcination temperature [1] |
Calcium [2] |
Calculations [2] |
Capacitance [7] |
capacitance retention [1] |
Capacitive principle [1] |
Capacitors [1] |
Capacity [2] |
Carbon [4] |
carbon black [1] |
Carbon dioxide [1] |
Carbon modified [1] |
Carbon nanotubes [2] |
Carbonaceous electrode [1] |
carbonaceous electrode [1] |
Carrier concentration [3] |
Carrier mobility [2] |
carrier mobility [1] |
Catalyst activity [1] |
Catalyst selectivity [1] |
Cathode Material [1] |
Cathode material [1] |
Cathodes [2] |
Cell accumulation [1] |
Cell-be [1] |
Cell/B.E [1] |
Cell/BE [1] |
Cells [3] |
cellulose [1] |
Ceramic fabrication techniques [1] |
Ceramic materials [1] |
Ceramic samples [1] |
Chains [1] |
Chalcogenides [2] |
Characterization [1] |
Characterization techniques [2] |
charge carrier dynamics [1] |
Charge ordering [1] |
Charge ordering phenomena [1] |
Charge transfer resistance [1] |
Chemical activation [1] |
Chemical analysis [1] |
Chemical bath deposition methods [1] |
Chemical detection [1] |
Chemical hardness [1] |
Chemical method [1] |
Chemical synthesis [2] |
Chemical vapor deposition [1] |
Chemical vapour deposition [1] |
Chemical-bath deposition [1] |
Chemisorption [1] |
Chemisorptions [1] |
chilling stress [1] |
Chlorine compounds [2] |
Cholesterol [1] |
Cholesterol detection [1] |
Cholesterol oxidase [1] |
Ciprofloxacin antibiotic photocatalytic degradation [1] |
circular dichroism [1] |
Clean energy [1] |
Clean energy sources [1] |
CNF [1] |
Co-doped [1] |
CO2 hydrogenation [1] |
CO<sub>2</sub> Capture [1] |
Coated glass [1] |
Cobalt compounds [1] |
Colloidal Stability [1] |
Colonisation [1] |
Columbic efficiency [1] |
Compact electronics [1] |
Comparatives studies [1] |
Complex conductivity [1] |
Complex dielectric permittivities [1] |
Complex Impedance Analysis [1] |
Complex impedance spectroscopy [1] |
Complex permittivity [1] |
Complexation [1] |
Composite [3] |
Composites [2] |
composites [1] |
Composites electrodes [1] |
Composition [1] |
Compressed air [1] |
Computational analysis [1] |
Computational studies [1] |
computer simulation [1] |
COMSOL-Multiphysics [1] |
Conducting polymer nanocomposites [1] |
Conducting polymers [1] |
Conductive additives [1] |
Conductive materials [1] |
Conductivity [3] |
Constitutive analysis [1] |
Constitutive parameters [1] |
constitutive parameters [1] |
Contrast agent [2] |
Contrast Enhancement [1] |
Contrast to noise ratio [1] |
Conversion efficiency [2] |
Copper [2] |
Copper alloys [1] |
Copper deposition [2] |
Copper oxides [1] |
Core-shell [1] |
Coronavirus [2] |
CoSe<sub>2</sub> [1] |
Cost effectiveness [2] |
Cost-effective material [1] |
Coulombic efficiency [1] |
Counter electrodes [1] |
Covid-19 [1] |
CR-39 [1] |
Cr-doping [1] |
Cr<sub>2</sub>O<sub>3</sub> nanoparticles [1] |
Critical review [1] |
Crystal impurities [1] |
Crystal structure [1] |
Crystalline nature [1] |
Crystalline structure [1] |
Crystallinity [1] |
crystallite size [1] |
Crystallization control [1] |
crystallization control [1] |
Cu/Al2O3 [1] |
CuO doping [1] |
CuO NPs [1] |
Current voltage characteristics [1] |
Current voltage curve [1] |
Cycle [1] |
Cycle lives [1] |
Cyclic stability [1] |
Cyclic voltammetry [5] |
Cyclic voltammetry (CV) [1] |
cyclic voltammetry (CV) [1] |
Cytology [1] |
D-band center model [1] |
Dark current [2] |
DC magnetron plasma [1] |
Dc magnetron sputtering [1] |
DC magnetron sputtering systems [1] |
Decay time [1] |
Defect passivation [1] |
defect passivation [2] |
Deformation mechanics [1] |
Deformation potential theory [1] |
Degrees of freedom (mechanics) [1] |
delamination [1] |
Densities of state [1] |
density [1] |
Density (specific gravity) [1] |
Density functional theoretical calculation [1] |
Density Functional Theory [1] |
Density functional theory [14] |
density functional theory [6] |
Density functionals [1] |
Density of States [1] |
Density-functional theory calculations [1] |
Density-functional-theory [3] |
Depolarization [1] |
Depolarization fields [1] |
Deposition [3] |
Deposition Parameters [1] |
Deposition rates [3] |
Depression [1] |
Design and Development [1] |
desolvation method [1] |
Device application [1] |
DFT [8] |
DFT calculations [1] |
Diagnostic facilities [1] |
Dielectric Analysis . [1] |
Dielectric and electro-optical properties [1] |
Dielectric and ferroelectric properties [1] |
Dielectric anisotropy [1] |
Dielectric loss [1] |
Dielectric loss spectra [1] |
Dielectric losses [2] |
Dielectric Permittivity [1] |
Dielectric properties [8] |
dielectric property, [1] |
Dielectric relaxation [1] |
Dielectric spectroscopy [1] |
Dielectric strengths [1] |
Dielectrics property [1] |
Differential scanning calorimetry [2] |
Diffuse reflectance spectroscopy [1] |
Diffusion paths [1] |
Diffusion resistance [1] |
Digital storage [1] |
Dirac cone [1] |
Direct current magnetron sputtering [1] |
Direct production [1] |
Direct-to-indirect gap transitions [1] |
Diseases [2] |
Dispersion spectra [1] |
Dispersions [1] |
Dissociation [1] |
Distribution functions [1] |
Doctor blade [1] |
Doped MoS<sub>2</sub> [1] |
doping [1] |
Doping (additives) [1] |
Doping effects [1] |
Double-layer capacitance [1] |
Driving forces [1] |
Drug delivery [1] |
drug-binding affinity [1] |
Dye-sensitized solar cells [1] |
Dynamic deformation [1] |
Dynamic trajectories [1] |
ecologically friendly materials [1] |
ECR plasma cavity [1] |
EDLC [1] |
EDS [1] |
Effective mass approximation [1] |
Effective strain [1] |
Efficiency [2] |
EIS [1] |
Electric batteries [2] |
Electric conductivity [1] |
electric conductivity [1] |
Electric discharges [3] |
electric field [2] |
Electric field profiles [1] |
Electric fields [4] |
Electric power factor [1] |
Electric resistance [1] |
electrical [1] |
Electrical Conductivity [2] |
Electrical conductivity [3] |
Electrical contacts [1] |
Electrical resistance [2] |
Electrical resistances [1] |
Electro-optical [1] |
Electrocatalysis [1] |
electrocatalyst [1] |
Electrocatalysts [1] |
electrocatalysts [1] |
Electrocatalytic activity [1] |
Electrochemical [1] |
Electrochemical analysis [3] |
electrochemical analysis [2] |
Electrochemical applications [1] |
Electrochemical characterization [1] |
Electrochemical electrodes [5] |
Electrochemical energy conversions [1] |
Electrochemical impedance spectroscopy [1] |
Electrochemical measurements [1] |
Electrochemical mechanisms [1] |
Electrochemical parameters [1] |
Electrochemical performance [2] |
Electrochemical properties [7] |
electrochemical properties [1] |
electrochemical reactions [1] |
Electrochemicals [1] |
electrochemistry [1] |
electrode [1] |
Electrode material [2] |
electrode material [1] |
electrode materials [1] |
Electrodes [7] |
Electrolyte [1] |
Electrolyte solutions [1] |
Electrolytes [7] |
Electrolytic capacitors [1] |
Electromagnetic fields [1] |
electromagnetic wave [1] |
electron beam irradiation [1] |
Electron density measurement [2] |
Electron emission [1] |
Electron energy levels [2] |
Electron energy loss spectroscopy [2] |
Electron energy loss spectrum [1] |
Electron irradiation [1] |
Electron scattering [1] |
Electron temperature [1] |
electron transport [1] |
Electron transport properties [2] |
Electronic and magnetic properties [1] |
Electronic band [1] |
Electronic band gaps [1] |
Electronic Conductivity [1] |
Electronic conductivity [1] |
Electronic device [1] |
Electronic equipment [1] |
Electronic Properties [1] |
Electronic properties [8] |
Electronic Structure [2] |
Electronic structure [3] |
electronic structure [1] |
Electrons [2] |
Electrostatic double-layer capacitor [1] |
ELI [1] |
Embedding Process [1] |
emission [1] |
Emission stability [1] |
Energy [3] |
energy [1] |
Energy conversion efficiency [1] |
Energy demands [2] |
Energy density [7] |
energy density [1] |
Energy density (E<sub>d</sub>) [3] |
Energy density and power density [1] |
energy density etc [1] |
Energy dissipation [2] |
Energy efficiency [1] |
Energy gap [10] |
Energy loss-range profile [1] |
Energy policy [1] |
Energy storage [7] |
energy storage [1] |
Energy storage device [1] |
energy storage devices [1] |
Energy storage/conversion devices [5] |
Energy technologies [1] |
Engineering [1] |
Enhanced conductivity [1] |
Environment friendly [1] |
Environmental pollutions [2] |
Environmentally friendly [1] |
Environmentally safe [1] |
Epoxy nanocomposites [1] |
Equation of state [1] |
Equivalent series resistance [1] |
Escherichia coli [1] |
etching [1] |
Ethylene [1] |
Ethylene glycol [1] |
Excitonic solar cells [1] |
Experimental evidence [1] |
External electric field [1] |
Extraction [1] |
extraction [1] |
Extraction process [1] |
Facile synthesis [1] |
Fe content TiO2 [2] |
Fe content TiO<sub>2</sub> [1] |
Fe doping [1] |
Fe<sub>3</sub>O<sub>4</sub>-?-Fe<sub>2</sub>O<sub>3</sub>hollow nanoparticles [1] |
FeOOH [2] |
Ferrites [4] |
ferrites [1] |
Ferro Electricity [1] |
Ferroelectric [2] |
Ferroelectric and piezoelectric properties [1] |
Ferroelectric ceramics [1] |
Ferroelectric liquid crystals [1] |
Ferroelectric materials [1] |
Ferroelectric properties [1] |
Ferroelectric property [1] |
Ferroelectricity [2] |
Ferromagnetic character [1] |
Ferromagnetic ferroelectrics [1] |
Ferromagnetic materials [1] |
Ferromagnetic transitions [1] |
Ferromagnetism [2] |
FESEM [3] |
Field electron emissions [1] |
Field emission [3] |
Field emission cathodes [1] |
Field emission microscopes [3] |
Field emission scanning electron microscopes [2] |
Field emission scanning electron microscopy [3] |
Filled polymers [1] |
Fillers [1] |
Film preparation [3] |
Film thickness [1] |
Films [1] |
films [1] |
Finite-size effect [1] |
First-principle study [1] |
First-principles study [1] |
first-principles theory [1] |
Flat band potential [1] |
Flexible device [1] |
Floating potential fluctuation [1] |
Floating potentials [1] |
Flocculation [1] |
Fluctuation [1] |
fluidity [1] |
Fluorine [1] |
Fluorine doped tin oxide [1] |
Football players [1] |
Formation energies [1] |
Fossil fuels [1] |
Fourier transform infra reds [2] |
Fourier transform infrared [1] |
Fourier transform infrared spectra [1] |
Fourier transform infrared spectroscopy [5] |
Free cholesterols [1] |
FT-IR [1] |
FTIR [9] |
Functionalizations [1] |
Fuzzy sets [1] |
Galvanostatic charge/discharge [1] |
Galvanostatic charges [1] |
Galvanostatic charging/discharging (GCD) [1] |
Ganoderma boninense [1] |
Gas adsorption [1] |
Gas detectors [1] |
Gas sensing properties [1] |
Genomic DNA [1] |
Germanene [1] |
Giant stark effects [1] |
Gibbs free energy [2] |
Glass [2] |
Glass substrates [1] |
Glass transition [2] |
Glass transition relaxation [1] |
Glass transition temperature [2] |
Global economies [1] |
Global energy [1] |
Gold [1] |
Gold alloys [2] |
gold cluster [1] |
gold-hydrogen analogy [1] |
Gold-Platinum Clusters [1] |
graded heterojunctions [1] |
gradient energy alignment [1] |
Grain boundaries [1] |
Grain size [1] |
Grain size and shape [1] |
Graphene [4] |
graphene [2] |
Graphene likes [1] |
Graphene Nanoplatelets [1] |
Graphene nanoribbon [1] |
Graphene nanoribbons [1] |
Graphene quantum dots [1] |
Graphene spirals [1] |
Graphite [1] |
Green energy [1] |
Ground state [1] |
Growth rate [1] |
Hairy roots [1] |
handheld speedometer [1] |
Harvesting devices [1] |
Heating [1] |
Heating efficiencies [1] |
Heating performance [1] |
Heavy metals [1] |
Herbal medicines [1] |
Hetero-structure [1] |
Heterojunctions [3] |
heterostructure [2] |
Heterostructure interface [1] |
Heterostructures [1] |
Hexaferrite [1] |
Hexagonal structures [1] |
Hierarchical systems [1] |
High aspect ratio [1] |
High carrier mobility [1] |
High efficiency [1] |
high efficiency [1] |
High energy forming [1] |
High frequency [1] |
High power rates [1] |
High resolution transmission electron microscopy [2] |
High-k dielectric [1] |
Higher energy density [1] |
Hole mobility [1] |
Homogeneous suspensions [1] |
homology modeling [1] |
Hopping conductivity [1] |
Hopping transport [1] |
Host lattice [1] |
Hugoniot model [1] |
Human population [1] |
human tissue [1] |
Humidity sensor [1] |
Hurst exponent [1] |
hybrid [1] |
hybrid capacitor [1] |
Hybrid electrodes [1] |
Hybrid materials [1] |
Hybrid supercapacitor [1] |
Hybrid supercapacitors [2] |
Hydraulic structures [1] |
Hydrazine hydrate [2] |
Hydrodynamics [1] |
Hydroelectric cell [1] |
Hydrogen [5] |
hydrogen doping [1] |
Hydrogen Energy [1] |
Hydrogen evolution reaction [1] |
Hydrogen evolution reaction activities [1] |
Hydrogen evolution reactions [1] |
Hydrogen impurity [1] |
Hydrogen production [1] |
Hydrogen reduction [1] |
Hydrogenation [1] |
Hydrothermal [6] |
hydrothermal [2] |
Hydrothermal method [2] |
Hydrothermal methods [1] |
Hydrothermal synthesis [3] |
Hydrothermal techniques [1] |
Hydrothermal-synthesis [1] |
Hyperthermia treatments [1] |
Hysteresis [1] |
Ideal tensile strengths [1] |
II-VI semiconductors [2] |
illumination [1] |
Imaging [2] |
impedance [1] |
Impedance Spectroscopy [1] |
Impedance spectroscopy [3] |
impedance spectroscopy [1] |
Impedance Spectroscopy, [1] |
ImpedanceSpectroscopy [1] |
implantation [1] |
Impurities [1] |
In-situ characterization [1] |
Indicators (chemical) [1] |
Industrial sector [1] |
Infra-red [1] |
Infrared photodetector [1] |
Infrared spectroscopy [2] |
Infrared vibrational spectra [1] |
Infrared-active phonon [1] |
Inhomogeneous distribution [1] |
Inorganic metals [1] |
Insulator-to-metal transitions [1] |
integrated frequency selective surface (IFSS) [1] |
Inter-particle interaction [1] |
Interaction [1] |
interaction [2] |
Interaction of radiation with matter [1] |
intercalation [1] |
interface passivation [1] |
Interfacial sites [1] |
interrupt driven [1] |
Intrinsic coherence resonance [1] |
Ion exchange [1] |
Ion implantation [2] |
Ion interactions [1] |
Ion sources [1] |
Ion sources (positive ions, negative ions, electron cyclotron resonance (ECR), electron beam (EBIS)) [1] |
ion transport mechanism [3] |
Ion transport mechanisms [1] |
Ion-implantation [1] |
Ionic conduction in solids [1] |
Ionic Conductivity [1] |
Ionic conductivity [6] |
Ionic nature [1] |
Ions [4] |
iron (II) oxide powder [1] |
Iron oxide [3] |
iron oxide [1] |
Iron oxide nanomaterials [1] |
Iron oxide nanoparticles [2] |
Iron oxides [4] |
Isotropics [1] |
IV-VI semiconductors [1] |
Janus monolayer [1] |
Jaro-Winkler [1] |
Kinetic energy [1] |
Kinetics [1] |
Kubelka-Munk function [1] |
LaCoO<sub>3</sub>/NiCo<sub>2</sub>O<sub>4</sub> [1] |
Land vehicle propulsion [1] |
Langmuir probe [1] |
Lanthanum compounds [1] |
Large area arrays [1] |
Large surface area [1] |
laser [1] |
lattice thermal conductivity [1] |
Layered double hydroxides (LDHs) [1] |
Layered semiconductors [1] |
Layered transition metal dichalcogenides [1] |
Lead acid batteries [1] |
Lead compounds [2] |
Lead free ceramics [2] |
Lead-Free [1] |
Lead-free ceramics [1] |
Lead-free piezoelectric ceramic [1] |
LED testing [1] |
LEDs [1] |
Length distributions [1] |
Li- ion battery [1] |
Li-ion batteries [1] |
Li-ion battery [3] |
Li<sub>2</sub>FeSiO<sub>4</sub> [1] |
Li<sub>2</sub>MnSiO<sub>4</sub> [2] |
Light [1] |
Light absorption [4] |
Light emitting diodes [2] |
light scattering [1] |
Light-harvesting [1] |
Linear sweep voltammetry [1] |
Liquid crystal biosensors [1] |
Liquid crystals [2] |
Liquid-crystal composites [1] |
Liquid-phase method [1] |
Lithium [2] |
Lithium alloys [2] |
Lithium compounds [1] |
Lithium ion battery [1] |
Lithium-ion batteries [4] |
Long rang [1] |
Low frequency magnetic fields [1] |
Low glass transition temperatures [1] |
Low-costs [1] |
Low-frequency relaxation [1] |
LR flat fuzzy numbers [1] |
LRM [1] |
Magnesium ferrite [1] |
Magnetic and electrical properties [1] |
Magnetic and transport properties [1] |
Magnetic character [1] |
magnetic field [1] |
Magnetic field distribution [1] |
Magnetic fields [2] |
Magnetic hyperthermia [1] |
magnetic hyperthermia [2] |
Magnetic nanoflowers [1] |
Magnetic nanoparticles [1] |
magnetic nanoparticles [1] |
Magnetic nanospheres [1] |
Magnetic probes [1] |
Magnetic remanence [1] |
Magnetic resonance imaging [3] |
Magnetic semiconductors [1] |
Magnetic stability [1] |
Magnetic susceptibility [1] |
Magnetic vortex domain [1] |
Magnetic vortex state [1] |
Magnetic vortices [1] |
Magnetic-luminescence [1] |
Magnetism [5] |
Magnetite [3] |
Magnetite quenching [1] |
Magnetization reversal [1] |
Magneto-mechanical actuation [1] |
Magnetoelectric couplings [1] |
Magnetoelectrics [1] |
Magnetron sputtering [2] |
magnetron sputtering plasma [1] |
Magnetron sputtering systems [1] |
Manganese [1] |
Manganese compounds [1] |
Manganese dioxide (MnO<sub>2</sub>) [1] |
Manganese oxide [3] |
Manganites [2] |
MD simulation [1] |
Mechanical and electronic properties [2] |
Mechanical behavior [1] |
Mechanical exfoliation [1] |
Mechanical properties [2] |
Mechanical Relaxation [1] |
Mechanical robustness [1] |
Mechanical strain [1] |
Mediated interaction [1] |
Melting [1] |
Melting point [1] |
Membrane [1] |
Memory applications [1] |
Memory effect [1] |
Meso-porous nano-carbon [1] |
Mesoporous carbon [2] |
mesoporous carbon [1] |
Metal halides [1] |
Metal insulator transition [1] |
Metal ions [2] |
Metal semiconductor interface [1] |
Metal-induced gap state [1] |
Metals [1] |
Methanol [1] |
Methanol synthesis [1] |
Micro-structural [1] |
Micro-structural properties [2] |
micromagnetic simulation [1] |
Micromagnetic simulations [2] |
Microscopic interaction [1] |
Microscopic techniques [1] |
Microwave [1] |
microwave [1] |
Microwave ion source [1] |
Microwave irradiation [1] |
microwave method [1] |
microwave radiation [1] |
Microwave spectroscopy [2] |
microwave spectroscopy [1] |
microwave synthesis [2] |
Microwave-assisted [1] |
Microwave-assisted solvothermal method [1] |
Microwaves [1] |
Mitochondria [1] |
mitochondria [1] |
Mixed powder [1] |
MMMT [1] |
MnCo<sub>2</sub>O<sub>4</sub> [2] |
MnO 2 [1] |
MnO<sub>2</sub> [2] |
Model and simulation [1] |
Modeling parameters [1] |
modelocked fiber lasers [1] |
Modification of polymers [1] |
modified dynamic hysteresis model [1] |
molecular docking [2] |
Molecular dynamics [1] |
Molecular farming [1] |
molecular physics [1] |
Molecules [3] |
Molybdenum compounds [1] |
Molybdenum oxide [1] |
Monoclinic/hexagonal phase [1] |
Monolayer [1] |
Monolayers [10] |
Monomer concentration [1] |
Monomers [1] |
Morphology [4] |
MoS2 [2] |
MoS2 nano-sheets [1] |
MoS<sub>2</sub> [6] |
MoS<sub>2</sub>@CoS<sub>2</sub> [1] |
MoS<sub>2</sub>@TiO<sub>2</sub> [1] |
MoSe 2 [1] |
MoSe2 [1] |
MoSe<sub>2</sub> [3] |
Moss�Burstein effect [1] |
Motion [1] |
motion [1] |
Muga silk fibroin [1] |
Muga silk nanoparticles [4] |
multiferoic [2] |
Multiferroic [1] |
Multivalency [1] |
Multiwalled carbon nanotubes (MWCN) [1] |
MWCNT [1] |
MXene [1] |
Nano-carbons [2] |
Nano-composites [2] |
Nanobowls [1] |
Nanocatalysts [1] |
Nanocomposite [2] |
nanocomposite [1] |
Nanocomposite films [3] |
Nanocomposites [9] |
nanocomposites [1] |
Nanocrystallines [1] |
Nanocrystals [1] |
Nanoferrites [1] |
Nanofibers [1] |
Nanoflakes [1] |
nanoflower [1] |
Nanomagnetic ferrites [1] |
Nanomagnetics [1] |
nanomaterial [1] |
Nanomaterials [2] |
Nanoneedles [1] |
Nanoparticle (NPs) [1] |
Nanoparticles [5] |
nanoparticles [1] |
Nanoribbons [3] |
Nanorings [1] |
Nanorods [2] |
Nanoscale device [1] |
Nanoscale electronic devices [1] |
nanosheet [1] |
Nanosheets [2] |
Nanospheres [2] |
Nanostructure [1] |
Nanostructured materials [1] |
Nanostructured thin film [1] |
Nanosystems [2] |
Nanotechnology [1] |
Nanotubes [2] |
Nanotubes and nanoflake photoconductivity [1] |
Narrow band gap semiconductors [1] |
Narrow-gap semiconductors [1] |
Natural dye [2] |
NDR region [1] |
Near surfaces [1] |
Negative differential conductance [1] |
Nematic liquid crystal [2] |
NetBeans [1] |
Neutral medium [1] |
Nickel compounds [1] |
NiO-Co3O4 [1] |
NiS/ZnS composite materials [1] |
Nitrogen compounds [1] |
Nitrogen oxides [1] |
Noise component [1] |
Non-magnetic semiconductors [1] |
Non-stoichiometric materials [1] |
Nonstoichiometric [1] |
Ns-pulsed laser [1] |
Nucleation and growth [1] |
Numerical methods [1] |
numerical modeling [1] |
O phase [1] |
OER [1] |
Ohmic contacts [1] |
Open circuit voltage [1] |
Optical emission spectroscopy [1] |
Optical energy gap [1] |
Optical lattices [1] |
Optical phonons [1] |
Optical properties [3] |
optical properties [1] |
optical property [1] |
optical property. [1] |
Optical strain [1] |
Optical tomography [1] |
Optical transmittance and reflectance [1] |
Optical- [1] |
Optimized composites [1] |
Optoelectronic devices [2] |
Optoelectronic properties [1] |
Optoelectronics [1] |
Optoelectronics property [1] |
Orange peel-derived carbon [1] |
Orbital interaction [1] |
Orbitals [1] |
Order parameter [1] |
organelles [1] |
Organic reagents [1] |
organic-inorganic materials [1] |
Organic/inorganic [1] |
Orthorhombic crystals [1] |
Orthosilicate [1] |
Oscillators (electronic) [1] |
Ostwald ripening [1] |
Oxide minerals [2] |
oxygen evolution reaction [1] |
Oxygen vacancies [1] |
p-BiOBr/n-ZnWO<sub>4</sub> heterostructures [1] |
p-n junction [1] |
P-type [1] |
PANI [1] |
Particle walls [1] |
Paschen curves [1] |
Paschen minimums [1] |
Passivation [3] |
Peanut shell [1] |
Pentagonal structures [1] |
PEO [2] |
Perceived stress [1] |
Percolation (solid state) [1] |
Performance [3] |
Periodic boundary conditions [1] |
Permeability [1] |
Permittivity [3] |
Perovskite [7] |
Perovskite films [1] |
perovskite oxides [2] |
Perovskite solar cell [1] |
perovskite solar cell [1] |
Perovskite solar cells [1] |
perovskite solar cells [1] |
Perovskite type [1] |
Personal protective equipment [1] |
Phase space methods [1] |
Phase structure [1] |
Phase transition [1] |
Phase transitions [1] |
phonon [1] |
Phonon dispersions [1] |
Phonons [3] |
Phosphorene [1] |
phosphorene [2] |
Photo Catalyst [1] |
Photo-electrodes [1] |
Photocatalysis [2] |
Photocatalyst [1] |
photocatalysts [1] |
Photocatalytic [1] |
Photocatalytic activity [1] |
photocatalytic activity [1] |
Photocatalytic property [1] |
Photocatalytic water splitting [3] |
Photocurrents [1] |
Photodetector [3] |
Photodetectors [2] |
Photoelectrochemical cells [1] |
Photoelectrochemical currents [1] |
Photoelectrochemical properties [1] |
Photoelectrochemical response radiolysis [1] |
Photoelectrode [1] |
Photoelectron spectroscopy [3] |
photoluminescence (PL) [2] |
Photons [1] |
Photoresponsivity [1] |
Photovoltaic property [1] |
Photovoltaic solar cells [1] |
physiochemical properties [1] |
PIC?MCC [1] |
Piezoelectric ceramics [2] |
Piezoelectric property [1] |
Piezoelectricity [3] |
PL spectra [1] |
Plant extracts [1] |
Plasma devices [1] |
Plasma diagnostics [1] |
Plasma fluctuations [1] |
Plasma parameter [1] |
plasma parameters [1] |
Plasma reduction [1] |
plasma treatments [1] |
Plasmonic nanostructures [1] |
Plasmons [1] |
Plasticity [1] |
Platinum [2] |
Platinum alloys [1] |
Polarization-independent [1] |
Polarizing optical microscopy [2] |
polulation inversion [1] |
Poly(vinylidene fluoride) [1] |
Polycarbonate [1] |
Polycrystalline samples [1] |
Polyelectrolytes [4] |
Polyethylene [2] |
Polyethylene oxide [3] |
polyethylene oxide [1] |
Polyethylene oxide (PEO) [1] |
Polyethylene oxides [1] |
Polyethylenes [1] |
Polymer blends [1] |
Polymer ceramic composite [1] |
Polymer composite [1] |
Polymer electrolyte [4] |
polymer electrolyte [1] |
Polymer electrolyte films [1] |
Polymer electrolyte films; [1] |
Polymer electrolytes [1] |
Polymer films [5] |
polymer films [1] |
Polymer matrix composites [1] |
Polymer nanocomposite [1] |
Polymer nanocomposites [2] |
Polymer Nanocomposites . [1] |
Polymer nocomposites; Ion dymics; electrochemical alysis; Energy storage/conversion devices [1] |
Polymer pen lithography [1] |
Polymer thin films [1] |
Polymeric Films [1] |
Polymers [4] |
Polymorphism [1] |
Polyvinyl chlorides [1] |
pore size distribution [1] |
Porosity [1] |
Porous nature [1] |
Porous networks [1] |
Portable energy [1] |
Potassium hydroxide [2] |
Power conversion efficiencies [2] |
Power densities [3] |
Power density [3] |
power density [1] |
Power density (P<sub>d</sub>) [3] |
Power spectrum [1] |
Precious metals [1] |
Preconditioned [1] |
Preparation techniques [1] |
pressure [1] |
Primidone [1] |
Probe spectroscopy [1] |
Process parameters [1] |
Production of hydrogen [1] |
projectile sensor [1] |
Properties [1] |
Protective clothing [1] |
Protein [1] |
Pseudo-capacitor [1] |
Pseudocapacitor [2] |
Pure perovskite phase [1] |
Pyrochlore [1] |
Pyrolysis temperature [1] |
quantitative analysis [1] |
Quantum capacitance [1] |
Quantum chemistry [2] |
Quantum confinement effects [1] |
radar cross-section (RCS) [1] |
Radial distribution functions [1] |
Raman spectroscopy [2] |
Ranking functions [1] |
Rare-earth magnetism and luminescence [1] |
Rashba-splitting [1] |
Rate of penetration [1] |
reactive oxygen species (ROS) generation [1] |
Real-life problems [1] |
Recent researches [1] |
Receptor-binding domains [1] |
Rechargeable batteries [1] |
Rechargeable lithium ion battery [1] |
Red blood cell [1] |
Red blood cells aggregations [1] |
Redox reactions [3] |
reduced graphene oxide [1] |
Reference electrodes [1] |
Reflectance spectrum [1] |
Refractive Index [1] |
refractive index [1] |
Relative humidity [1] |
Relaxation Time [1] |
Relaxation time [7] |
relaxation time [2] |
Remanence [1] |
Renewable energies [1] |
Renewable energy (Solar) [1] |
Renewable energy resources [1] |
Renewable sources [1] |
Research efforts [1] |
Resistance switching memory [1] |
Respiratory diseases [1] |
Rhodamine B [1] |
Rhodamine B dye [1] |
Rhombohedral phase [1] |
Rhombohedral phasis [1] |
Ridge waveguides [1] |
Rietveld refinement [1] |
RLM [1] |
RLWC [1] |
Ru-rGO [1] |
Running [1] |
running [1] |
Sandwich assay [1] |
saturable absorbers [1] |
Saturation magnetization [1] |
Scalability [1] |
Scalable methods [1] |
Scanning electron microscope [1] |
Scanning electron microscopy [6] |
scanning probe nanolithography [1] |
Scanning tunneling microscopy [1] |
Scanning tunneling spectroscopy [1] |
Scattering co-efficient [1] |
Schottky barrier diodes [2] |
Schottky barriers [1] |
Schottky contact [1] |
Schottky contacts [1] |
Scientific community [1] |
Secondary batteries [1] |
secondary structures [1] |
Selenium compounds [2] |
Self assembled monolayers [1] |
Self assembled nanostructures [1] |
Self-doping feature [1] |
Self-purposed charge storage mechanism [1] |
self-regulated magnetic hyperthermia [1] |
Semi-conducting property [1] |
Semiconducting behavior [1] |
Semiconducting films [1] |
Semiconductor diodes [1] |
Semiconductor doping [1] |
Semiconductor materials [1] |
Sensing mechanism [1] |
Sensor applications [1] |
Sensors [2] |
Separators [2] |
severe acute respiratory syndrome coronavirus-2 (SARS-COV-2) [1] |
shape anisotropy [1] |
Shielding efficiency [2] |
shielding efficiency [1] |
Shock waves [1] |
Short-range attraction [1] |
Si substrates [1] |
Siesta [1] |
sigma representation [1] |
Silicene [1] |
silicone [1] |
Silver [3] |
Silver alloys [1] |
Silver doped magnesium vanadate [1] |
Silver electrode [1] |
SIMPLE method [1] |
Simple++ [1] |
simulation [1] |
Simulation studies [1] |
Simulation technique [1] |
Single crystals [1] |
Sintered samples [1] |
Sintering [3] |
Sintering temperatures [2] |
Sm<sub>2</sub>O<sub>3</sub> [1] |
Sodium compounds [2] |
Sodium ion battery [1] |
Sodium molybdate [1] |
Sodium-ion batteries [1] |
Sol-gel [1] |
Sol-gel process [1] |
Sol-gels [1] |
Solar cell [4] |
solar cell [1] |
Solar cells [3] |
Solar energy [1] |
Solar energy conversions [1] |
Solar energy storages [1] |
solar power conversion efficiency [1] |
Solar power generation [5] |
Solar-to-hydrogen [2] |
Solid electrolytes [4] |
Solid polymer electrolyte [2] |
solid polymer electrolyte [1] |
Solid Polymer Electrolyte (SPE) [1] |
Solid polymer electrolytes [1] |
Solid polymers [1] |
solid state [1] |
Solid state reaction method [1] |
Solid state reactions [1] |
Solid state sintering [1] |
Solid-state supercapacitors [1] |
Sols [2] |
Solution mixing process [1] |
Solution-casting method [1] |
Solvents [2] |
Sources of energy [1] |
Space Ratio [1] |
Specific absorption rate [1] |
Specific capacitance [5] |
specific capacitance [1] |
specific capacity [1] |
specific energy density [1] |
Specific heat [1] |
Specific power [1] |
Spectrometric techniques [1] |
Spectroscopic analysis [1] |
Spectroscopy [1] |
spectroscopy [1] |
Spin lattice coupling [1] |
Spin-phonon coupling [1] |
Spinel [1] |
Spinel ferrite [2] |
spinel oxides [1] |
Splitting process [1] |
Spray pyrolysis [5] |
spray pyrolysis [1] |
Spray-deposited [1] |
Stability [2] |
Stacked configuration [1] |
Stacking patterns [1] |
State of the art [1] |
Static dielectric constants [1] |
Statistical mechanics [2] |
stealth [1] |
Stego-Key [1] |
Stereochemistry [1] |
STM [1] |
STM images [1] |
Stoichiometry [2] |
Storage (materials) [2] |
Storage energy density [1] |
Storage solutio [1] |
Storage systems [2] |
Storage-mechanism [1] |
structural and optical properties [1] |
Structural conformations [1] |
Structural deformation [1] |
Structural phase transformations [1] |
Structural properties [2] |
Structural stabilities [1] |
Structural studies [1] |
Structure and morphology [1] |
Submicrometers [1] |
Substrates [3] |
subtractive lithography [1] |
Sulfur compounds [1] |
Sulfur dioxide [1] |
Super capacitor [1] |
Supercapacitance [1] |
Supercapacitor [11] |
supercapacitor [7] |
Supercapacitor application [4] |
Supercapacitors [4] |
Supercapacitors (SCs) [1] |
Superparamagnetic iron oxide (SPIONs) [1] |
surface area [1] |
Surface effect [1] |
Surface free energy [1] |
Surface functionalization [1] |
Surface modification [1] |
Surface morphology [2] |
Surface passivation [2] |
surface plasmon resonance [1] |
Surface-controlled process [1] |
Surfactant-free [1] |
suspension [1] |
Suspensions [1] |
Suspensions (fluids) [2] |
Swept source optical coherence tomographies [1] |
Switching [1] |
Symmetric supercapacitor [2] |
symmetric supercapacitor [2] |
Symmetric Supercapacitors [1] |
Symmetrics [4] |
Synergistic effect [1] |
Synthesis [2] |
synthesis [4] |
Synthesis (chemical) [1] |
Synthesis conditions [1] |
Synthesis gas manufacture [1] |
Synthesis phase [1] |
Synthesised [1] |
T<sub>1</sub>�T<sub>2</sub> dual weighted imaging [1] |
Technological and physical field [1] |
Technology [1] |
Tellurium [2] |
Tellurium compounds [5] |
tellurium nanotubes [1] |
TEM [1] |
Temperature [1] |
Temperature-dependent magnetizations [1] |
Templates [1] |
Tensile strain [1] |
Tensile strength [3] |
Ternary nanocomposite [1] |
Ternary phase [1] |
Tga-dsc [1] |
Theoretical investigations [1] |
Theoretical simulation [2] |
Thermal behaviours [1] |
Thermal conductivity [3] |
thermal conductivity [1] |
Thermal decomposition [1] |
Thermal degradation [1] |
Thermal effects [1] |
Thermal measurements [1] |
thermal plasma [1] |
Thermo-Electric materials [1] |
Thermodynamic stability [2] |
Thermodynamical stability [1] |
Thermoelectric equipment [2] |
Thermoelectric material [1] |
Thermoelectric performance [1] |
Thermoelectric Properties [1] |
Thermoelectric properties [2] |
Thermoelectricity [2] |
Thermogravimetric analysis [1] |
Thermogravimetric analysis (TGA) [1] |
Thermogravimitric Analysis [1] |
Thermophysical [1] |
Thick films [1] |
Thickness of the film [1] |
Thin film [3] |
thin film [1] |
Thin films [4] |
thin films [1] |
Thin-film technology [1] |
Thin-films [1] |
Three electrode-system [1] |
Tin compounds [1] |
Tin monoxides [1] |
Tin oxides [1] |
TiO2 (nanofiller vs. nanorod) [2] |
TiO2 nanoparticles [1] |
TiO<sub>2</sub> nanowire [1] |
TiO<sub>2</sub>/Al<sub>2</sub>o<sub>3</sub> multilayer [1] |
Tissue [1] |
Tissue engineering [1] |
Titanium [2] |
Titanium compounds [1] |
Titanium dioxide [5] |
Titanium dioxides (TiO2) [1] |
titanium thin film [1] |
TMDs [2] |
Tomography [1] |
Topographical images [1] |
Topological Insulator [1] |
topological insulators [1] |
Topological properties [2] |
Torque [1] |
torque [1] |
Torsional strain [1] |
Toxic materials [1] |
Toxicity [1] |
Traditional ceramics [1] |
Transistors [2] |
Transition metal dichalcogenides [2] |
Transition metal oxides/hydroxides (TMOs/TMHs) [1] |
Transition metals [2] |
Transmission electron microscopy [2] |
Transport mechanism [1] |
Transport no [1] |
Transport parameters [3] |
Transport properties [1] |
Transportation problem [1] |
Trimetallic [1] |
Tunables [1] |
Tungstates [1] |
Tungsten compounds [1] |
tungsten disulfide nanoparticle [1] |
Tunnel diodes [1] |
Tunneling characteristics [1] |
Tunneling current [1] |
Twist deformations [1] |
Two Dimensional (2 D) [1] |
two dimensional structure [1] |
Two-dimensional [3] |
Two-dimensional materials [3] |
Two-dimensional structures [1] |
Two-electrode setup [1] |
Uncertain environments [1] |
Universal power law [1] |
upconversion nanoparticles [1] |
Urea [1] |
UV light [1] |
UV-blocking [1] |
UV-visible [1] |
UV�vis spectroscopy [2] |
Valance bands [1] |
Valence band photoemission spectra [1] |
Van der Waal [1] |
Van der waals [1] |
Van der Waals forces [3] |
Variant chemical composition [1] |
VB [1] |
Vertically aligned [1] |
Verwey transition [1] |
Vibration spectroscopy [1] |
Viruses [1] |
Visible region [1] |
Visual and optical detection [1] |
Voltage Window [1] |
Vortex configurations [1] |
Vortex domain structures [1] |
Vortex flow [3] |
Water absorption [1] |
water electrolysis [1] |
Water molecule [1] |
Water splitting [2] |
water splitting [1] |
Wet chemical techniques [1] |
Wet chemistry [1] |
Wide band gap [1] |
Wide band gap semiconductors [1] |
Wide-gap semiconductor [1] |
Wider potential window [1] |
X and Ku bands [1] |
X ray diffraction [4] |
X ray diffraction; [1] |
X ray photoelectron spectroscopy [2] |
X ray photoemission spectroscopy [3] |
X- ray diffractions [1] |
X-ray diffraction [2] |
X-ray methods [1] |
XANES [1] |
XPS [1] |
XRD [2] |
Yarn [1] |
Zinc [1] |
Zinc compounds [1] |
Zinc oxide [2] |
Zirconia [2] |
Zirconia nanoparticles [1] |
Zirconium [1] |
ZnO [3] |
ZnO thin film [1] |
ZnWO<sub>4</sub> [1] |
ZPNR [1] |
ZrO<sub>2</sub> [1] |
α-Fe2O3 [1] |