Inorganic Chemistry,
Journal Year:
2024,
Volume and Issue:
63(39), P. 18276 - 18284
Published: Sept. 19, 2024
Optimizing
the
structure
and
tuning
optical
properties
in
low-dimensional
organic-inorganic
halide
perovskites
are
crucial
to
practical
applications
for
stable
solid-state
lighting.
Herein,
we
performed
high-pressure
investigations
on
one-dimensional
(1D)
postperovskite
(TDMP)PbBr
Chemical Engineering Journal,
Journal Year:
2024,
Volume and Issue:
486, P. 150257 - 150257
Published: March 8, 2024
Low-dimensional
organic–inorganic
hybrid
metal
halides,
with
broadband
luminescence,
have
attracted
much
attention
for
optoelectronic
applications
due
to
their
rich
in
structural
diversity
and
solution
processibility.
However,
it
is
still
unclear
about
how
the
solvent
molecules
influence
properties
of
processed
low-dimensional
halides.
Here,
we
prepared
five
different
antimony-based
crystal
structures,
[SbCl6]3-
as
halide
octahedron
4,
4-difluoropiperidine
(DFPD+)
organic
cation,
by
using
solvents:
hydrochloric
acid
(HCl)
aqueous
four
solvents
(dimethylformamide
(DMF),
methanol
(MeOH),
acetonitrile
(ACN)
dimethylacetamide
(DMAC)).
We
revealed
relation
between
structures
optical
properties,
found
participation
structure
causes
significant
lattice
distortions,
which
beneficial
achieving
self-trapped
exciton
(STE)
emission.
Among
them,
(DFPD)6SbCl9·2DMAC
exhibits
a
remarkable
photoluminescence
(PL)
quantum
yield
approximately
90
%.
The
STE
dynamics
were
characterized
femtosecond
transient
absorption
time-resolved
PL
spectroscopies.
Simultaneously,
this
study
also
provides
new
directions
expanding
application
luminescent
halides:
addition
UV-LEDs,
efficient
rapid
detection
or
can
be
achieved
raw
materials,
while
realizing
potential
multi-level
anti-counterfeiting.
Inorganic Chemistry,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 13, 2025
Low-dimensional
organic-inorganic
hybrid
metal
halide
materials
have
attracted
widespread
attention
due
to
their
excellent
and
tunable
photoelectric
properties.
However,
the
low
intrinsic
photoluminescence
quantum
yields
(PLQYs)
limit
further
applications
in
optoelectronic
devices.
Here,
we
report
synthesis
of
lead-free
zero-dimensional
indium
chloride
crystals,
(FA)3InCl6:
xSb3+,
with
strong
red-light
emission
through
controlled
Sb3+
doping.
The
optimal
composition,
20.16%
Sb3+,
exhibits
PLQY
up
30%
emits
red
broadband
light
centered
at
690
nm.
enhancement
doped
samples
was
investigated
by
combining
temperature-dependent
wavelength-dependent
spectra,
revealing
self-trapped
exciton
(STE)
recombination
process.
clear
elucidation
complexation
process
has
provided
a
solid
theoretical
basis
for
optimization
material
properties,
which
is
great
significance
development
new
light-emitting
materials.
Far-red
phosphor-converted
LED
devices
been
constructed
these
demonstrate
stable
efficient
various
voltages,
exhibiting
superior
stability.
This
study
highlights
potential
Sb3+-doped
halides
achieve
demonstrates
single
crystals
indoor
plant
lighting,
infrared
imaging,
photodynamic
therapy
wound
healing.
Inorganics,
Journal Year:
2025,
Volume and Issue:
13(4), P. 108 - 108
Published: April 1, 2025
Two-dimensional
(2D)
metal-halide
perovskites
with
highly
efficient
room-temperature
phosphorescence
(RTP)
are
rare
due
to
their
complex
structures
and
intricate
intermolecular
interactions.
In
this
study,
by
varying
the
alkyl
chain
length
in
organic
amines,
we
synthesized
two
2D
perovskites,
namely
4-POMACC
4-POEACC,
both
of
which
exhibit
significant
RTP
emission.
Notably,
demonstrates
a
stronger
green
emission
significantly
longer
lifetime
(254
ms)
higher
photoluminescence
quantum
yield
(9.5%)
compared
4-POEACC.
A
thorough
investigation
structural
optical
properties
reveals
that
shorter
chains
can
enhance
performance
reduced
molecular
vibrations
more
effective
exciton
recombination.
Computational
calculations
further
show
smaller
energy
gap
between
S1
Tn
4-POMA
facilitates
intersystem
crossing,
thereby
improving
performance.
Based
on
remarkable
properties,
demonstrated
applications
information
encryption.
This
work
offers
novel
design
strategy
could
inspire
development
next-generation
materials.
Hybrid Advances,
Journal Year:
2024,
Volume and Issue:
6, P. 100233 - 100233
Published: June 26, 2024
This
state-of-the
art
review
is
designed
to
state
the
competence
of
fullerene
nanostructures
in
optoelectronic
devices.
Fullerene
molecules
own
valuable
structural,
electronic,
optical,
electrical,
and
physical
properties
be
employed
optoelectronics
device
sector.
Especially,
modification
nanocomposite
formation
led
high
performance
light
emitting
diodes,
optical
sensors,
photovoltaics
systems.
Combination
conjugated
polymers/molecules
with
has
found
further
enhance
efficacy
towards
these
In
form,
have
been
known
develop
conjugation
conducting
polymers
for
better
charge,
hole,
or
electron
transference
leading
assistances.
Consequently,
like
poly(3-hexylthiophene),
poly(3,4-ethylenedioxythiophene),
poly(3-hexylthiophene-2,5-diyl),
polystyrene
sulfonate,
polycyclopenta-dithiophene-benzothiadiazole,
poly(2-methoxy-5-(2′-ethylhexyloxy)-1,4-phenylenevinylene),
4,4′-bis[(p-trichlorosilylpropylphenyl)phenylamino]
biphenyl,
etc.
reinforced
utilized.
Polymers
grafted
fullerenes
such
as
[6,6]-phenyl
C61-butyric
acid
methyl
ester
[6,6]-phenyl-C61-butyric
hexyl
also
recognized.
addition,
non-conducting
poly(methyl
methacrylate)
was
exploited.
Mostly,
C60
C70
preferred
nanofiller
assemblies.
Effectiveness
nanomaterials
observed
luminescent
solar
cells
(bulk
heterojunction/polymer/perovskite),
sensors
(photo-/organic/bacterial
sensing).
Nevertheless,
designs
need
comprehensively
investigated
by
overcoming
underlying
working
mechanism,
fabrication,
challenges
related
fields.
Inorganic Chemistry,
Journal Year:
2024,
Volume and Issue:
63(15), P. 7053 - 7062
Published: April 4, 2024
Low-dimensional
organic–inorganic
hybrid
perovskites
(OIHPs)
have
shown
significant
potential
in
the
optoelectronic
field
due
to
their
adjustable
structure
and
properties.
However,
poor
air
stability
flexibility
of
OIHP
crystals
limit
further
development.
Herein,
three
been
synthesized
using
cadmium
chloride
isomer
phenylenediamine
as
raw
materials.
Mn2+
doping
turns
on
red-light
emission
Cd-based
OIHPs
at
around
625
nm.
Interestingly,
organic
ligands
with
different
steric
hindrance
can
induce
a
transition
from
two
dimensions
(2D)
one
dimension
(1D),
thereby
regulating
quantum
yield
red
luminescence
range
38.4%
nearly
100%.
It
is
found
that
surface-exposed
amino
groups
are
easy
oxidize,
resulting
instability
these
crystals.
Therefore,
poly(lactic
acid)
(PLA)
selected
passivate
through
hydrogen
bonding
between
C═O
PLA
–NH2
surface
OIHPs.
As
result,
production
OIHP-based
flexible
films
highly
efficient
stable
be
obtained
after
being
encapsulated
by
PLA.
They
demonstrate
enormous
application
X-ray
imaging.
This
study
not
only
realizes
perovskite
but
also
provides
an
effective
design
idea
for
scintillators.
Inorganic Chemistry,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Sept. 19, 2024
Although
metal
halide-based
X-ray
scintillators
have
obtained
significant
development
with
adjustable
radioluminescent
spectral
range,
the
red
light-emitting
scintillator
has
been
sparsely
reported
and
remains
a
great
challenge
until
now.
To
remedy
this
research
blank,
we
investigated
scintillating
property
of
light-emissive
one-dimensional
(1D)
organic
manganese
halide
(MBIZ)(MnCl