IET Nanobiotechnology,
Journal Year:
2024,
Volume and Issue:
2024(1)
Published: Jan. 1, 2024
Mesenchymal
stem
cell
(MSC)
membrane‐coated
metal–organic
frameworks
(MOFs)
represent
an
innovative
approach
to
enhance
the
uptake
and
therapeutic
efficacy
of
copper‐based
MOFs
(Cu‐MOFs)
in
tumor
cells.
By
leveraging
natural
homing
abilities
biocompatibility
MSC
membranes,
Cu‐MOFs
can
be
effectively
targeted
sites,
promoting
increased
cellular
uptake.
This
coating
not
only
facilitates
superior
internalization
by
cancer
cells
but
also
augments
outcomes
due
enhanced
delivery
copper
ions.
In
vitro
studies
demonstrate
that
(MSC‐Cu‐MOFs)
significantly
improve
cytotoxic
effects
on
compared
uncoated
Cu‐MOFs.
novel
strategy
presents
a
promising
avenue
for
advancing
precision
effectiveness
treatment
modalities,
showcasing
potential
clinical
applications
oncology.
Heliyon,
Journal Year:
2024,
Volume and Issue:
10(5), P. e27378 - e27378
Published: March 1, 2024
Modern
industries
rapid
expansion
has
heightened
energy
needs
and
accelerated
fossil
fuel
depletion,
contributing
to
global
warming.
Additionally,
organic
pollutants
present
substantial
risks
aquatic
ecosystems
due
their
stability,
insolubility,
non-biodegradability.
Scientists
are
currently
researching
high-performance
materials
address
these
issues.
LaFeO3
nanosheets
(LFO-NS)
were
synthesized
in
this
study
using
a
solvothermal
method
with
polyvinylpyrrolidone
(PVP)
as
soft
template.
The
LFO-NS
demonstrate
superior
performance,
large
surface
area
charge
separation
than
that
of
nanoparticles
(LFO-NP).
performance
is
further
upgraded
by
incorporating
ZIF-67.
Our
results
confirmed
the
ZIF-67/LFO-NS
nanocomposite
have
performances
pure
LFO-NP
integration
ZIF-67
enhanced
promote
LFO-NSwhich
was
various
characterization
techniques
including
TEM,
HRTEM,
DRS,
EDX,
XRD,
FS,
XPS,
FT-IR,
BET,
PL,
RAMAN.
5ZIF-67/LFO-NS
sample
showed
significant
activities
for
CO2
conversion,
malachite
green
degradation,
antibiotics
(cefazolin,
oxacillin,
vancomycin)
degradation.
Furthermore,
stability
tests
our
optimal
very
active
stable.
based
on
scavenger
experiments
photocatalytic
degradation
pathways,
it
been
established
H+
•O2−
vital
decomposition
MG
antibiotics.
research
work
will
open
new
gateways
prepare
MOFs-Perovskites
nanocatalysts
exceptional
Batteries,
Journal Year:
2024,
Volume and Issue:
10(5), P. 168 - 168
Published: May 20, 2024
Modern
research
has
made
the
search
for
high-performance,
sustainable,
and
efficient
energy
storage
technologies
a
main
focus,
especially
in
light
of
growing
environmental
energy-demanding
issues.
This
review
paper
focuses
on
pivotal
role
biomass-derived
carbon
(BDC)
materials
development
high-performance
metal-ion
hybrid
supercapacitors
(MIHSCs),
specifically
targeting
sodium
(Na)-,
potassium
(K)-,
aluminium
(Al)-,
zinc
(Zn)-ion-based
systems.
Due
to
their
widespread
availability,
renewable
nature,
exceptional
physicochemical
properties,
BDC
are
ideal
supercapacitor
electrodes,
which
perfectly
balance
sustainability
technological
advancement.
delves
into
synthesis,
functionalization,
structural
engineering
advanced
biomass-based
materials,
highlighting
strategies
enhance
electrochemical
performance.
It
elaborates
unique
characteristics
these
carbons,
such
as
high
specific
surface
area,
tuneable
porosity,
heteroatom
doping,
achieving
superior
capacitance,
density,
cycling
stability
Na-,
K-,
Al-,
Zn-ion
supercapacitors.
Furthermore,
compatibility
BDCs
with
electrolytes
facilitating
ion
transport
charge
mechanisms
critically
analysed.
Novelty
arises
from
comprehensive
comparison
across
systems,
unveiling
synergistic
effects
BDCs’
attributes
performance
each
type.
also
casts
current
challenges,
scalability,
cost-effectiveness,
consistency,
offering
insightful
perspectives
future
research.
underscores
transformative
potential
MIHSCs
paves
way
next-generation
that
both
high-performing
ecologically
friendly.
calls
continued
innovation
interdisciplinary
collaboration
explore
sustainable
thereby
contributing
advancing
green
technologies.
ACS Omega,
Journal Year:
2024,
Volume and Issue:
9(32), P. 34220 - 34242
Published: Aug. 1, 2024
Perovskites
are
bringing
revolutionization
in
a
various
fields
due
to
their
exceptional
properties
and
crystalline
structure.
Most
specifically,
halide
perovskites
(HPs),
lead-free
(LFHPs),
perovskite
quantum
dots
(HPs
QDs)
becoming
hotspots
unique
optoelectronic
properties,
low
cost,
simple
processing.
HPs
QDs,
particular,
have
excellent
photovoltaic
applications
because
of
tunable
emission,
high
photoluminescence
yield
(PLQY),
effective
charge
separation,
cost.
However,
practical
the
QDs
family
some
limitations
such
as
degradation,
instability,
deep
trap
states
within
bandgap,
structural
inflexibility,
scalability,
inconsistent
reproducibility,
environmental
concerns,
which
can
be
covered
by
encapsulating
into
porous
materials
like
metal–organic
frameworks
(MOFs)
or
covalent–organic
(COFs)
that
offer
protection,
prevention
aggregation,
optical
flexibility
structure,
enhanced
biocompatibility,
improved
stability
under
harsh
conditions,
consistency
production
quality,
efficient
separation.
These
advantages
MOFs-COFs
help
harness
full
potential
for
applications.
This
review
mainly
consists
three
parts.
The
first
portion
discusses
perovskites,
dots.
In
second
portion,
we
explore
MOFs
COFs.
third
particular
emphasis
is
given
thorough
evaluation
development
QDs@MOFs-COFs
based
comprehensive
investigations
next-generation
intended
diverse
technological
applications,
CO2
conversion,
pollutant
hydrogen
generation,
batteries,
gas
sensing,
solar
cells.
Finally,
this
will
open
new
gateway
synthesis
perovskite-based
New Journal of Chemistry,
Journal Year:
2024,
Volume and Issue:
48(37), P. 16243 - 16260
Published: Jan. 1, 2024
Synthesis
of
Bi/Bi
2
O
3
@Al
nanocomposites
for
wastewater
treatment,
corrosion
resistance,
and
self-cleaning
properties,
it
is
imperative
to
carefully
combine
analyze
various
elements
the
optimization
catalyst
performance.
C – Journal of Carbon Research,
Journal Year:
2025,
Volume and Issue:
11(1), P. 7 - 7
Published: Jan. 14, 2025
Using
the
Monte
Carlo
technique
via
CORAL-2024
software,
models
of
aromatic
substance
adsorption
on
multi-walled
nanotubes
were
constructed.
Possible
mechanistic
interpretations
such
and
corresponding
applicability
domains
investigated.
In
constructing
models,
criteria
predictive
potential
as
iIndex
Ideality
Correlation
(IIC),
Intensity
Index
(CII),
Coefficient
Conformism
a
Correlative
Prediction
(CCCP)
used.
It
was
assumed
that
CCCP
could
serve
tool
for
increasing
organic
substances
surface
nanotubes.
The
developed
provided
good
potential.
perspectives
improvement
nano-QSPR/QSAR
discussed.
