Chinese Journal of Chemistry,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 5, 2024
Comprehensive
Summary
Herein,
the
temperature‐
and
pressure‐stimulated
responsive
behavior
as
well
crystal‐glass
phase
transition
of
a
new
zero‐dimensional
hybrid
manganese
bromide
[4‐MTPP]
2
[MnBr
4
]
[4‐MTPP
+
=
(4‐methoxybenzyl)tris(phenyl)phosphonium)]
were
reported.
Our
experiment
results
demonstrate
that
shows
typical
green
photoluminescence
emission
centered
at
522.4
nm
excited
by
UV
light,
with
high
quantum
yields
value
79.36%
large
lifetime
368.6
μs,
attributing
to
its
direct
bandgap
electronic
structure.
Further,
presents
monotonically
blue
shift
increased
temperature,
originating
from
decreased
crystal
field
strength
where
Mn
2+
stays
owing
lattice
thermal
expansion
effect.
On
contrary,
pressure
increases,
exhibits
progressive
red
shift,
which
can
be
attributed
due
effect
pressure‐induced
shrinkage.
Meanwhile,
quenched
successfully
restored
when
returns
ambient
pressure.
In
addition,
crystals
show
temperature
74
°C.
Intriguingly,
melt‐quenched
glass
under
light
excitation
302.2
μs.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Aug. 5, 2024
Organic-inorganic
hybrid
manganese(II)
halides
(OIMnHs)
have
garnered
tremendous
interest
across
a
wide
array
of
research
fields
owing
to
their
outstanding
optical
properties,
abundant
structural
diversity,
low-cost
solution
processibility,
and
low
toxicity,
which
make
them
extremely
suitable
for
use
as
new
class
luminescent
materials
various
optoelectronic
applications.
Over
the
past
years,
plethora
OIMnHs
with
different
dimensionalities
multifunctionalities
such
efficient
photoluminescence
(PL),
radioluminescence,
circularly
polarized
luminescence,
mechanoluminescence
been
newly
created
by
judicious
screening
organic
cations
inorganic
Mn(II)
polyhedra.
Specifically,
through
precise
molecular
engineering,
series
near-unity
PL
quantum
yields,
high
anti-thermal
quenching
excellent
stability
in
harsh
conditions
devised
explored
applications
light-emitting
diodes
(LEDs),
X-ray
scintillators,
multimodal
anti-counterfeiting,
fluorescent
sensing.
In
this
review,
latest
advancements
development
are
summarized,
covers
from
fundamental
physicochemical
properties
advanced
applications,
an
emphasis
on
functionality
design
especially
LEDs
detection
imaging.
Current
challenges
future
efforts
unlock
potentials
these
promising
also
envisioned.
Advanced Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 2, 2025
0D
hybrid
metal
halide
(HMH)
luminescent
glasses
have
garnered
significant
attentions
for
its
chemical
diversity
in
optoelectronic
applications
and
it
also
retains
the
skeleton
connectivity
coordination
mode
of
crystalline
counterparts
while
exhibiting
various
physics/chemistry
characteristics
distinct
from
states.
However,
understanding
glass-forming
ability
specific
structural
origins
underpinning
properties
HMH
remains
elusive.
In
this
review,
is
started
solid-liquid
phase
transition
thermodynamic
analysis
HMHs
formed
through
melt-quenching,
summarize
current
compounds
capable
stably
forming
glassy
phases
via
design.
The
characterization
methods
are
further
discussed
highlight
exceptional
transparency,
properties,
glass
crystallization
behaviors.
Moreover,
application
prospects
demonstrated
by
these
been
presented
accordingly
X-ray
detection
imaging,
anti-counterfeiting,
information
encryption.
Finally,
perspective
offered
into
future
development
emerging
family
their
applications.
ACS Applied Materials & Interfaces,
Journal Year:
2024,
Volume and Issue:
16(31), P. 41165 - 41175
Published: July 25, 2024
Commercially
available
rare-earth-doped
inorganic
oxide
materials
have
been
widely
applied
as
X-ray
scintillators,
but
the
fragile
characteristics,
high
detection
limit,
and
harsh
preparation
condition
seriously
restrict
their
wide
applications.
Furthermore,
it
remains
a
huge
challenge
to
realize
flexible
imaging
technology
for
real-time
monitoring
of
curving
interface
complex
devices.
To
address
these
issues,
we
herein
report
two
isostructural
cuprous
halides
zero-dimensional
(0D)
[AEPipz]CuX3·X·H2O
(AEPipz
=
N-aminoethylpiperazine,
X
Br
I)
with
controllable
size
nanosize
crystal
highly
efficient
scintillators
toward
imaging.
These
exhibit
cyan
photoluminescence
radioluminescence
emissions
highest
quantum
yield
92.1%
light
62,400
photons
MeV–1,
respectively,
surpassing
most
commercially
scintillators.
Meanwhile,
ultralow
limit
95.7
nGyair
s–1
was
far
below
dose
required
diagnosis
(5.5
μGyair
s–1).
More
significantly,
film
is
facilely
assembled
excellent
foldability
crack
resistance,
which
further
acts
scintillation
screen
achieving
spatial
resolution
17.4
lp
mm–1
in
imaging,
demonstrating
potential
application
wearable
radiation
radiography.
The
combined
advantages
yield,
low
flexibility
promote
0D
promising
Abstract
As
the
kernel
component
of
X‐ray
imaging
systems,
mainstream
flat‐panel
detectors
suffer
from
image
distortion
and
blurring
when
applied
to
irregular
shaped
objects,
because
non‐conformal
collocation
between
detector
object.
Herein,
by
taking
advantage
robust
glass‐forming
capability
versatile
processability
(TPT)
2
MnBr
4
(TPT
=
propyltriphenylphosphonium)
scintillator,
reconfigurable
scintillation
screen
for
conformal
is
explored.
Compared
flexible
polymer
screens
doped
with
micro‐/nanoparticles,
melt‐casted
large‐area
(20
×
20
cm
)
are
homogeneous
immune
light
scattering,
thus
manifesting
optical
transmittance
above
80%
in
525−800
nm
range
high
spatial
resolution
25.5
lp
mm
−1
.
More
impressively,
can
be
reconfigured
shape
near
its
glass
transition
temperature,
realizing
continuous
conformance
or
changeable
objects.
Exemplified
a
flexed
elbow
joint
circuit
variational
shapes,
demonstrate
superiorities
both
clarity
(15
versus
3
imaging)
reduction
radiation
dosage.
That,
plus
scalable
fabrication
process
cost‐effective
raw
materials,
will
promise
great
potential
customized
medical
diagnostics
industrial
inspection.
Chemical Science,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Jan. 1, 2024
Organic-inorganic
metal
halide
(OIMH)
glass
offers
the
advantages
of
large-scale
production,
high
transparency,
and
minimal
light
scattering.
However,
undesired
crystallization
in
OIMH
can
occur,
leading
to
deteriorated
transparency.
Herein,
a
series
bisphosphonium
organic
cations
were
designed
construct
Mn-based
crystals
with
photoluminescence
quantum
yield
(PLQY)
near
unity,
alongside
development
highly
thermally
stable
glasses.
Two
strategies
employed
lower
melting
point
OIMH:
alkyl
chain
elongation
fluorine
substitution.
The
(Hex-3,4-2F)MnBr
Journal of Materials Chemistry C,
Journal Year:
2024,
Volume and Issue:
12(23), P. 8296 - 8301
Published: Jan. 1, 2024
An
aromatic
moiety-free
strategy
is
proposed
for
the
excited
state
manipulation
of
a
neutral
manganese(
ii
)
halide
scintillator
towards
efficient
X-ray
imaging
with
high
spatial
resolution
11.3
lp
mm
−1
and
low
detection
limit
34.95
nGy
s
.
ACS Nano,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 27, 2025
Lead
halide
perovskite
nanocrystal
materials
such
as
CsPbX3
(X
=
Cl,
Br,
and
I)
have
triggered
an
intense
research
upsurge
due
to
their
excellent
scintillation
performance.
Herein,
in
situ
crystallization
strategy
is
developed
grow
CsPbBr3
nanocrystals
(NCs)
within
a
low-melting-point
(280
°C)
coordination
polymer
(CP)
glass.
The
viscosity
of
glass
reduced
through
low-temperature
(e.g.,
50
thermal
treatment,
enabling
the
short-distance
migration
uniformly
dispersed
ions
(Cs+,
Pb2+,
Br-)
achieve
NCs.
Benefiting
from
high
transmittance
(80%
500-800
nm
range)
outstanding
performance,
prepared
CsPbBr3@ZnBr2(bIm+DMSO)2
(bIm
benzimidazole,
DMSO
dimethyl
sulfoxide)
transparent
luminescence
exhibits
X-ray
imaging
resolution
up
25
lp/mm,
outperforming
many
crystalline
scintillators.
This
work
would
provide
idea
for
development
high-resolution
screens
that
can
be
at
low
temperatures.
Advanced Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 1, 2025
Abstract
Although
glass
scintillators
hold
great
promise
for
high‐resolution
X‐ray
imaging,
the
practical
application
is
often
limited
by
thermodynamic
instability,
leading
to
uncontrolled
glass‐to‐crystal
transformations
that
degrade
imaging
resolution.
Herein,
a
novel
strategy
presented
synthesize
(methyl(triphenyl)phosphonium)
3
EuCl
6
((MTP)
)
through
dehydration
of
their
crystalline
precursors.
The
findings
reveal
process
significantly
enhances
stability
confining
constituent
ions
within
rigid,
highly
viscous
matrix.
This
confinement
effectively
restricts
ion
mobility
and
prevents
reorganization
required
crystal
nucleation.
Moreover,
reduces
trapping
in
situ
generated
charge
carriers
increases
photoluminescence
quantum
yield,
enhanced
radioluminescence
performance.
resulting
(MTP)
demonstrate
an
detection
limit
as
low
95.8
nGy
air
s⁻¹
achieve
spatial
resolution
14.3
lp
mm
−1
at
dose
rate
5
mGy
s⁻¹.
work
provides
valuable
insights
into
designing
integrate
long‐term
with
optimized
scintillation
performance,
offering
significant
potential
advanced
applications.
Advanced Functional Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 21, 2025
Abstract
Dynamically
luminescent
systems
have
driven
great
progress
in
materials
and
chemistry
communities
due
to
their
structural
flexibility
tunable
photo
functions.
Eco‐friendly
manganese
(Mn)‐based
hybrid
halides
are
promising
switches
with
high
emission
efficiency,
low‐cost
solution
processibility,
low
toxicity.
However,
limited
success
is
achieved
tuning
the
dynamic
luminescence
of
response
multiple
stimuli.
Herein,
an
effective
way
manipulate
(Mn‐2DMAP
Mn‐4DMAP)
through
tailoring
intermolecular
interactions
reported.
Stronger
Mn‐2DMAP
induce
distortion
Mn─Cl
bond
lengths,
resulting
a
weaker
crystal
field
compared
Mn‐4DMAP.
The
reduction
crystal‐field
strength
leads
blue‐shifted
enhances
sensitivity
external
magnetic
field.
Mn‐4DMAP
uptakes
water
molecules
form
hydrated
Mn‐4DMAP‐H
2
O
which
exhibits
stronger
interactions.
Taking
advantage
exceptional
crystallinity,
1D
color‐tunable
optical
waveguide
as
photonic
memory
system
under
humidity
heating
dual‐stimuli
developed.
Therefore,
this
work
not
only
represents
first
attempt
tune
at
level,
but
also
utilizes
dynamical
for
application
micro/nanoscale.