Dalton Transactions,
Journal Year:
2023,
Volume and Issue:
52(39), P. 13872 - 13877
Published: Jan. 1, 2023
Lanthanide
metal-organic
framework
(Ln-MOF)
based
phosphors
for
light-emitting
diodes
(LEDs)
play
an
important
role
in
the
fields
of
solid-state
lighting
and
display.
The
rational
design
organic
antennae
to
address
drawback
low
extinction
coefficients
lanthanide
ions
is
highly
desired.
In
this
work,
we
provide
a
new
strategy
achieve
energy
transfer
molecule
with
through-space
conjugated
folded
structure,
which
can
strengthen
skeleton
rigidity
facilitate
triplet
state
transfer.
Consequently,
one
U-type
π-conjugated
2,6-bis(3,5-dicarboxylphenoxy)
pyridine
(H4L)
was
selected
as
light
gatherer
sensitize
construction
Ln-MOFs
[Ln(HL)(H2O)3]n
(Eu-MOF
Tb-MOF),
exhibit
long-lived
luminescence
lifetime
(0.88
ms
Eu-MOF
1.31
Tb-MOF)
high
quantum
yields
(50.87%
85.64%
Tb-MOF).
Furthermore,
white
LED
device
colour
rendering
index
(89)
fabricated
using
mixture
commercial
blue
phosphor.
Advanced Energy Materials,
Journal Year:
2024,
Volume and Issue:
14(20)
Published: Feb. 14, 2024
Abstract
Machine
learning
(ML)
exhibits
substantial
potential
for
predicting
the
properties
of
solid‐state
electrolytes
(SSEs).
By
integrating
experimental
or/and
simulation
data
within
ML
frameworks,
discovery
and
development
advanced
SSEs
can
be
accelerated,
ultimately
facilitating
their
application
in
high‐end
energy
storage
systems.
This
review
commences
with
an
introduction
to
background
SSEs,
including
explicit
definition,
comprehensive
classification,
intrinsic
physical/chemical
properties,
underlying
mechanisms
governing
conductivity,
challenges,
future
developments.
An
in‐depth
explanation
methodology
is
also
elucidated.
Subsequently,
key
factors
that
influence
performance
are
summarized,
thermal
expansion,
modulus,
diffusivity,
ionic
reaction
energy,
migration
barrier,
band
gap,
activation
energy.
Finally,
it
offered
perspectives
on
design
prerequisites
upcoming
generations
focusing
real‐time
property
prediction,
multi‐property
optimization,
multiscale
modeling,
transfer
learning,
automation
high‐throughput
experimentation,
synergistic
optimization
full
battery,
all
which
crucial
accelerating
progress
SSEs.
aims
guide
novel
SSE
materials
practical
realization
efficient
reliable
technologies.
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
36(23)
Published: Feb. 27, 2024
Abstract
Although
metal
single‐atom
(SA)‐based
nanomaterials
are
explored
as
sonosensitizers
for
sonodynamic
therapy
(SDT),
they
normally
exhibit
poor
activities
and
need
to
combine
with
other
therapeutic
strategies.
Herein,
the
deposition
of
SAs
on
oxygen
vacancy
(OV)‐rich
WO
3−
x
nanosheets
generate
a
synergistic
effect
efficient
SDT
is
reported.
Crystalline
3
OV‐rich
first
prepared
by
simple
calcination
·H
2
O
under
an
air
N
atmosphere,
respectively.
Pt,
Cu,
Fe,
Co,
Ni
then
deposited
obtain
SA‐decorated
nanocomposites
(M‐WO
).
Importantly,
Cu‐WO
sonosensitizer
exhibits
much
higher
activity
ultrasound
(US)‐induced
production
reactive
species
than
that
Cu
,
which
also
M‐WO
nanosheets.
Both
experimental
theoretical
results
suggest
excellent
performance
should
be
attributed
between
OVs.
Therefore,
after
polyethylene
glycol
modification,
can
quickly
kill
cancer
cells
in
vitro
effectively
eradicate
tumors
vivo
US
irradiation.
Transcriptome
sequencing
analysis
further
molecular
validation
‐mediated
SDT‐activated
apoptosis
TNF
signaling
pathways
potential
drivers
tumor
induction.
Advanced Healthcare Materials,
Journal Year:
2023,
Volume and Issue:
12(31)
Published: Sept. 14, 2023
Abstract
Although
CeO
2
nanomaterials
have
been
widely
explored
as
nanozymes
for
catalytic
therapy,
they
still
suffer
from
relatively
low
activities.
Herein,
the
catalyzing
generation
and
stabilization
of
oxygen
vacancies
on
nanorods
by
Pt
nanoclusters
via
H
gas
reduction
under
mild
temperature
(350
°C)
to
obtain
Pt/CeO
2−
x
,
which
can
serve
a
highly
efficient
nanozyme
cancer
is
reported.
The
deposited
atomic
layer
deposition
technique
not
only
catalyst
generate
through
hydrogen
spillover
effect,
but
also
stabilize
generated
vacancies.
Meanwhile,
provide
anchoring
sites
forming
strong
metal‐support
interactions
thus
preventing
their
agglomerations.
Importantly,
reduced
at
350
°C
(Pt/CeO
‐350R)
exhibits
excellent
enzyme‐mimicking
activity
reactive
species
(e.g.,
·OH)
compared
other
control
samples,
including
temperatures,
achieving
performance
tumor‐specific
therapy
efficiently
eliminate
cells
in
vitro
ablate
tumors
vivo.
‐350R
originates
good
activities
vacancy‐rich
nanoclusters.
ACS Applied Nano Materials,
Journal Year:
2024,
Volume and Issue:
7(9), P. 10998 - 11007
Published: April 29, 2024
Infections
caused
by
bacteria
pose
a
serious
threat
to
public
health,
and
there
is
need
for
numerous
innovative,
antibiotic-free
antimicrobial
medicines.
Herein,
we
describe
the
synthesis
of
CuS/Co-ferrocene-MOF
(CuS/Co-Fc-MOF)
nanocomposites,
formed
coupling
CuS
nanoparticles
(NPs)
two-dimensional
(2D)
Co-Fc-MOF
nanosheets,
that
constitutes
an
platform
capable
near-infrared
(NIR)
photothermal
promotion
chemodynamic
antibacterial.
2D
CuS/Co-Fc-MOF
nanocomposites
consist
nanosheets
with
dimensions
approximately
100–200
nm
thicknesses
13.1–15.6
nm,
where
NPs,
size
about
8
are
excellently
dispersed
on
surface
nanosheets.
The
diverse
valence
states
cobalt
iron
in
enable
them
undergo
Fenton-like
reactions
H2O2,
thus
generating
highly
oxidizing
·OH
therapy
(CDT).
utilization
local
plasmonic
resonance
effect
NPs
enables
enhancement
CDT
activity
under
laser
irradiation.
More
importantly,
can
achieve
rapid
(15
min)
NIR
laser-assisted
killing
both
S.
aureus
E.
coli
bacterial
infection
microenvironment
compared
Therefore,
be
employed
as
promising
nanoagent
promote
photothermally
augmented
antibacterial
therapy.
Chemical Society Reviews,
Journal Year:
2024,
Volume and Issue:
53(13), P. 6694 - 6734
Published: Jan. 1, 2024
Delayed
luminescence
(DF),
including
phosphorescence
and
thermally
activated
delayed
fluorescence
(TADF),
circularly
polarized
(CPL)
exhibit
common
broad
application
prospects
in
optoelectronic
displays,
biological
imaging,
encryption.
Thus,
the
combination
of
is
attracting
increasing
attention.
The
encapsulation
guest
emitters
various
host
matrices
to
form
host-guest
systems
has
been
demonstrated
be
an
appealing
strategy
further
enhance
and/or
modulate
their
luminescence.
Compared
with
conventional
liquid
crystals,
polymers,
supramolecular
matrices,
porous
crystalline
frameworks
(PCFs)
metal-organic
(MOFs),
covalent-organic
(COFs),
zeolites
hydrogen-bonded
organic
(HOFs)
can
not
only
overcome
shortcomings
such
as
flexibility
disorder
but
also
achieve
ordered
guests
long-term
stability
chiral
structures,
providing
new
promising
platforms
for
development
DF
CPL.
In
this
review,
we
provide
a
comprehensive
critical
summary
recent
progress
photochemistry
Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
34(40)
Published: July 3, 2024
Abstract
Sonodynamic
therapy
(SDT),
as
a
promising
non‐invasive
therapeutic
modality
combining
ultrasound
(US)
and
sonosensitizers
to
produce
cytotoxic
reactive
oxygen
species
(ROS)
for
treating
deep‐seated
tumors,
has
received
increasing
attention
in
recent
years.
Porphyrins
are
multifunctional
organic
materials,
which
can
be
excited
both
by
light
US
ROS
possess
various
fascinating
features,
including
controllable
synthetic
processes,
excellent
biodegradability,
low
cytotoxicity
without
or
US.
Nevertheless,
their
poor
water
solubility,
skin‐photosensitive
toxicity,
insufficient
target
specificity
hinder
clinical
applications
sonosensitizer.
Although
the
issue
may
improved
using
nanoparticle
carriers,
SDT
efficacy
enhanced
with
other
modalities,
such
combination
makes
it
more
confusing
about
true
mechanism
of
SDT.
This
review
will
focus
on
following
points:
1)
Why
porphyrin‐based
considered
most
sonosensitizer
SDT?
2)
Recent
progress
development
sonosensitizers.
3)
What
new
insight
been
gained
years?
4)
The
trend
designing
efficient
existing
challenges.
Finally,
future
perspective
practical
based
discussed.
Advanced Science,
Journal Year:
2024,
Volume and Issue:
11(31)
Published: June 14, 2024
Abstract
This
review
highlights
recent
advancements
in
the
synthesis,
processing,
properties,
and
applications
of
2D‐material
integrated
hydrogels,
with
a
focus
on
their
performance
bone‐related
applications.
Various
synthesis
methods
types
2D
nanomaterials,
including
graphene,
graphene
oxide,
transition
metal
dichalcogenides,
black
phosphorus,
MXene
are
discussed,
along
strategies
for
incorporation
into
hydrogel
matrices.
These
composite
hydrogels
exhibit
tunable
mechanical
high
surface
area,
strong
near‐infrared
(NIR)
photon
absorption
controlled
release
capabilities,
making
them
suitable
range
regeneration
therapeutic
In
cancer
therapy,
2D‐material‐based
show
promise
photothermal
photodynamic
therapies,
drug
delivery
(chemotherapy).
The
properties
these
materials
enable
selective
tumor
ablation
upon
NIR
irradiation,
while
drug‐loading
capacity
facilitates
targeted
chemotherapeutic
agents.
Additionally,
2D‐materials
‐infused
potent
antibacterial
activity,
effective
against
multidrug‐resistant
infections
disruption
biofilm
generated
implant
surface.
Moreover,
synergistic
therapy
approach
combines
multiple
treatment
modalities
such
as
photothermal,
chemo,
immunotherapy
to
enhance
outcomes.
bio‐imaging,
serve
versatile
contrast
agents
imaging
probes,
enabling
real‐time
monitoring
during
imaging.
Furthermore,
bone
regeneration,
most
incorporated
promote
osteogenesis
tissue
offering
potential
solutions
defects
repair.
Overall,
integration
presents
promising
platform
developing
multifunctional
theragenerative
biomaterials.