|
photoluminescence |
8 |
|
physics engineering |
8 |
|
oled |
6 |
|
tris-(8-hydroxyquinoline) aluminium |
6 |
|
b1. nanomaterials |
5 |
|
b1. zinc compounds |
5 |
|
physics |
5 |
|
boundary integral equation (bie) |
4 |
|
electric power supplies |
4 |
|
finite element method (fem) |
4 |
|
generalized impedance boundary condition (gibc) |
4 |
|
nanostructures |
4 |
|
plasmonic nanostructures |
4 |
|
solar energy |
4 |
|
ultraviolet radiation |
4 |
|
zinc oxide |
4 |
|
2d grating |
3 |
|
absorption enhancement |
3 |
|
active layer |
3 |
|
active material |
3 |
|
active polymers |
3 |
|
angular response |
3 |
|
cavity devices |
3 |
|
computer-aided design |
3 |
|
decay length |
3 |
|
design guidelines |
3 |
|
design principles |
3 |
|
dipole resonances |
3 |
|
dispersion relations |
3 |
|
driftdiffusion equations |
3 |
|
electric dyadic green's function |
3 |
|
electrical studies |
3 |
|
excited atoms |
3 |
|
exciton generation |
3 |
|
fano resonances |
3 |
|
finite difference |
3 |
|
finite size effect |
3 |
|
finite-difference frequency-domain method |
3 |
|
geometric configurations |
3 |
|
high efficiency |
3 |
|
lambert's cosine law |
3 |
|
membranes, artificial |
3 |
|
metallic loss |
3 |
|
nanoantennas |
3 |
|
nanostrips |
3 |
|
near-field multiple scattering |
3 |
|
near-field scattering |
3 |
|
optical wavelength |
3 |
|
organic solar cell |
3 |
|
photon detection |
3 |
|
plasmonic |
3 |
|
polymer solar cells |
3 |
|
polymers - chemistry |
3 |
|
surface plasmon resonance - instrumentation |
3 |
|
wavelength selectivity |
3 |
|
working principles |
3 |
|
1,10-phenanthroline |
2 |
|
angular dependence |
2 |
|
au nanoparticle |
2 |
|
bottom emitting |
2 |
|
cathodoluminescence |
2 |
|
chemical vapor deposition |
2 |
|
chemical vapour deposition (cvd) |
2 |
|
citrate sol-gel |
2 |
|
co-host |
2 |
|
coordination complexes - chemistry |
2 |
|
data storage equipment |
2 |
|
device configurations |
2 |
|
device performance |
2 |
|
dielectric properties |
2 |
|
efficiency improvement |
2 |
|
efficient scattering matrix method |
2 |
|
electrical effects |
2 |
|
electrical performance |
2 |
|
electron transport |
2 |
|
exciton lifetime |
2 |
|
exciton quenching |
2 |
|
excitons |
2 |
|
exhibitions |
2 |
|
external quantum efficiency |
2 |
|
fiber optics |
2 |
|
fibers |
2 |
|
fluorenes - chemistry |
2 |
|
fluorescence |
2 |
|
fullerenes - chemistry |
2 |
|
gdcaal3o7:re3+ (re=eu, tb) |
2 |
|
gold - chemistry |
2 |
|
gold nanoparticles |
2 |
|
gradient type |
2 |
|
gratings |
2 |
|
growth mechanism |
2 |
|
growth mechanisms |
2 |
|
ii-vi semiconductor nanostructures |
2 |
|
iridium - chemistry |
2 |
|
localized surface plasmon resonance |
2 |
|
luminescence |
2 |
|
metal nanoparticles - chemistry |
2 |
|
metals |
2 |
|
metastable phase znse |
2 |
|
mobility |
2 |
|
nanobelts |
2 |
|
nanogratings |
2 |
|
nanoparticles |
2 |
|
nanorings |
2 |
|
nanostructures - chemistry |
2 |
|
nanowires |
2 |
|
optical and electrical properties |
2 |
|
optics |
2 |
|
organic chemicals - chemistry |
2 |
|
organic light emitting diodes |
2 |
|
pdp green phosphors |
2 |
|
permittivity |
2 |
|
phosphorescence |
2 |
|
plasmonic resonance |
2 |
|
plasmonic structures |
2 |
|
quantum theory |
2 |
|
scattering |
2 |
|
semiconductors |
2 |
|
shift of light emission |
2 |
|
solar cells |
2 |
|
titanates |
2 |
|
tris(8-hydroxyquinoline) aluminum |
2 |
|
wurtzite phase znse |
2 |
|
zno nanorods |
2 |
|
zno-znse |
2 |
|
znse |
2 |
|
znse grain |
2 |
|
(fluoronaphthyl)thienyl |
1 |
|
2-mercaptobenzothiazole |
1 |
|
2d perovskite |
1 |
|
78.65 |
1 |
|
81.60.cp |
1 |
|
82.50 |
1 |
|
a. inorganic compounds |
1 |
|
a. nanostructures |
1 |
|
a. optical materials |
1 |
|
absolute optical properties |
1 |
|
acousto-optic device |
1 |
|
acousto-optic devices |
1 |
|
acoustooptic device |
1 |
|
adsorption |
1 |
|
al/au electrode |
1 |
|
algaas/gaas quantum well |
1 |
|
alkylammonium cations |
1 |
|
all-perovskite |
1 |
|
aluminum |
1 |
|
annealing temperatures |
1 |
|
b. vapour deposition |
1 |
|
band alignments |
1 |
|
band gaps |
1 |
|
bipolar molecules |
1 |
|
blue light emission |
1 |
|
blue perovskite leds |
1 |
|
bulk-heterojunction solar cells |
1 |
|
carrier transport layer |
1 |
|
carrier transport layers |
1 |
|
carrier transport/injection layer |
1 |
|
carrier transportation and distribution |
1 |
|
cerium ion |
1 |
|
charge accumulation |
1 |
|
charge carrier transport |
1 |
|
chemical treatment |
1 |
|
chemistry |
1 |
|
color-tuning |
1 |
|
complex solvent |
1 |
|
computers |
1 |
|
conjugated polymers |
1 |
|
continuous crystal |
1 |
|
contributing factor |
1 |
|
conventional methods |
1 |
|
convergent-beam electron diffraction |
1 |
|
cspbi3 |
1 |
|
cuboid |
1 |
|
current conduction mechanism |
1 |
|
defect density |
1 |
|
depletion interactions |
1 |
|
device stability |
1 |
|
diffused quantum well |
1 |
|
diffused quantum well (dfqw) |
1 |
|
diffusion process |
1 |
|
diketopyrrolopyrrole |
1 |
|
display application |
1 |
|
distributed feedback (dfb) lasers |
1 |
|
doping hole injection layer |
1 |
|
double emission layer |
1 |
|
double hole injection layer |
1 |
|
double quantum well |
1 |
|
driving forces |
1 |
|
dye |
1 |
|
efficiency enhancement |
1 |
|
efficiency roll-off |
1 |
|
efficient anode |
1 |
|
electrical conductivity |
1 |
|
electrical properties |
1 |
|
electrical transport measurements |
1 |
|
electro-optical modulation |
1 |
|
electroabsorption |
1 |
|
electroabsorption modulation |
1 |
|
electrochemistry physics |
1 |
|
electrodes |
1 |
|
electroluminescence |
1 |
|
electroluminescent (el) decay mechanism |
1 |
|
electroluminescent (el) efficiency |
1 |
|
electrooptic materials/devices |
1 |
|
electrooptic modulation |
1 |
|
electrooptical modulation |
1 |
|
electrostatic energies |
1 |
|
elemental selenium |
1 |
|
emission layers |
1 |
|
emission spectrums |
1 |
|
emission wavelength |
1 |
|
energy transfer |
1 |
|
energy transferring |
1 |
|
environment friendly |
1 |
|
exciton formation |
1 |
|
experimental platform |
1 |
|
fill factor |
1 |
|
film formations |
1 |
|
flexible transparent electrodes |
1 |
|
fluorescent lamps |
1 |
|
fractional-order modeling |
1 |
|
full-color |
1 |
|
general method |
1 |
|
gold nanocluster |
1 |
|
grain boundaries |
1 |
|
grain boundary passivation |
1 |
|
grating |
1 |
|
high colour purity |
1 |
|
high field |
1 |
|
high luminance |
1 |
|
high optical transmission electrode |
1 |
|
high transmission |
1 |
|
high-vacuum evaporation |
1 |
|
hole collection |
1 |
|
hole injection layer |
1 |
|
hole transport layer |
1 |
|
hole transport layers |
1 |
|
hole transport materials |
1 |
|
hole transports |
1 |
|
hypocrystalline intermediate |
1 |
|
ideal model |
1 |
|
impedance spectroscopy |
1 |
|
improved hole injection |
1 |
|
in doped cucro2 |
1 |
|
inorganic hole transport layer |
1 |
|
inorganic perovskite |
1 |
|
instruments |
1 |
|
interconnecting |
1 |
|
interconnecting layer |
1 |
|
interface electron transport materials |
1 |
|
interfacial contact |
1 |
|
intermediate electrode |
1 |
|
intermixing quantum well |
1 |
|
key factors |
1 |
|
large-area applications |
1 |
|
ligands |
1 |
|
light absorption enhancement |
1 |
|
light emission |
1 |
|
light emitting devices |
1 |
|
light trapping |
1 |
|
low-band-gap perovskites |
1 |
|
low-bandgap |
1 |
|
low‐temperature substrates |
1 |
|
luminance |
1 |
|
maghemite and iron hydroxide |
1 |
|
magnetic field strengths |
1 |
|
mapbbr3 hybrid perovskite |
1 |
|
metal electrodes |
1 |
|
metal halide perovskites |
1 |
|
metal oxides |
1 |
|
metallophthalocyanines |
1 |
|
methylamine |
1 |
|
microcavities |
1 |
|
microcavity structures |
1 |
|
mixed pb‐sn perovskite solar cells |
1 |
|
mixing ratios |
1 |
|
modeling |
1 |
|
modification of quantum well |
1 |
|
modulators |
1 |
|
n |
1 |
|
nanocomposite |
1 |
|
nanocrystals |
1 |
|
near-infrared imaging |
1 |
|
nickel oxide |
1 |
|
optical amplifiers |
1 |
|
optical confinement of saw devices |
1 |
|
optical losses |
1 |
|
optical materials/devices |
1 |
|
optical planar waveguides |
1 |
|
optical polarization |
1 |
|
optimization |
1 |
|
optoelectronics |
1 |
|
organic active layers |
1 |
|
organic leds |
1 |
|
organic light emission devices |
1 |
|
organic light emitting devices |
1 |
|
organic light-emitting devices |
1 |
|
organic light-emitting devices (oleds) |
1 |
|
organic light-emitting diodes (oleds) |
1 |
|
organic lighting-emitting devices |
1 |
|
organic optoelectronics |
1 |
|
organic solar cells |
1 |
|
oxadiazole |
1 |
|
passivation |
1 |
|
patterned back electrodes |
1 |
|
pbi6 octahedra anchors |
1 |
|
perovskite heterostructures |
1 |
|
perovskite layers perovskite materials |
1 |
|
perovskite solar cells |
1 |
|
phase stability |
1 |
|
phosphor |
1 |
|
phosphors |
1 |
|
photodetectors |
1 |
|
photodiodes |
1 |
|
photon lifetime |
1 |
|
physics engineerning chemistry |
1 |
|
piezoelectric effect of saw |
1 |
|
piezoelectric effect of surface acoustic wave |
1 |
|
piezoelectric effect of surface acoustic waves |
1 |
|
polarization independence |
1 |
|
poly(styrene sulfonate) |
1 |
|
polymer chains |
1 |
|
polymer/organic solar cells |
1 |
|
power conversion efficiencies |
1 |
|
power efficiency |
1 |
|
quantum dots |
1 |
|
quantum well modulator |
1 |
|
quantum wells |
1 |
|
quantum-confined stark effect |
1 |
|
quantum-well devices |
1 |
|
quantum-well interdiffusion |
1 |
|
quantum-well intermixing |
1 |
|
quantum-well optical amplifier |
1 |
|
quantumconfined stark effect |
1 |
|
quasi‐2d perovskite |
1 |
|
quasi‐core–shell structures |
1 |
|
rare-earth (re) organic light-emitting diodes (oleds) |
1 |
|
real-time color tuning |
1 |
|
reduced driving voltage |
1 |
|
rigorous electromagnetic approach |
1 |
|
room-temperature crystallization |
1 |
|
scanning and transmission electron microscopy |
1 |
|
selenium compounds - chemistry |
1 |
|
semiconductor doping |
1 |
|
semiconductor waveguides |
1 |
|
silica |
1 |
|
silver nanonetworks |
1 |
|
single crystals |
1 |
|
small molecule |
1 |
|
sn−pb-based perovskites |
1 |
|
sol-gel processes |
1 |
|
solution processability |
1 |
|
solution-processed self-assembly method |
1 |
|
solvothermal synthesis |
1 |
|
stability |
1 |
|
stacked oleds |
1 |
|
stacked organic light-emitting devices (soleds) |
1 |
|
strain layered material |
1 |
|
sulfides - chemistry |
1 |
|
surface acoustic wave |
1 |
|
surface acoustic wave modulator |
1 |
|
surface self‐assembly monolayer |
1 |
|
surface-acoustic-wave modulator |
1 |
|
tandem |
1 |
|
tandem devices |
1 |
|
ternary metal oxide nanoparticles |
1 |
|
theoretical result |
1 |
|
titanium dioxide |
1 |
|
titanium oxide |
1 |
|
transient photocurrent |
1 |
|
transparent anode |
1 |
|
transparent front electrodes |
1 |
|
triazolium ionic liquids |
1 |
|
triphenylamine |
1 |
|
tris (8-hydroxyquinoline) aluminum |
1 |
|
tunable devices |
1 |
|
tunable work function |
1 |
|
tungsten compounds |
1 |
|
turn‐on voltage |
1 |
|
two-dimensional like polymers |
1 |
|
ultra-thin au |
1 |
|
ultraviolet photoemission spectroscopy |
1 |
|
uv-ozone |
1 |
|
vacuum ultraviolet |
1 |
|
visible light |
1 |
|
wavelength tuning |
1 |
|
white light-emitting diode |
1 |
|
zinc - chemistry |
1 |
|
zinc compounds - chemistry |
1 |
